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<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25233">
<title><![CDATA[Hierarchical mapping of Northern Eurasian land cover using MODIS data]]></title>
<dc:creator><![CDATA[Sulla-Menashe,Damien]]></dc:creator>
<dc:creator><![CDATA[ Friedl,Mark A.]]></dc:creator>
<dc:creator><![CDATA[ Krankina,Olga N.]]></dc:creator>
<dc:creator><![CDATA[ Baccini,Alessandro]]></dc:creator>
<dc:creator><![CDATA[ Woodcock,Curtis E.]]></dc:creator>
<dc:creator><![CDATA[ Sibley,Adam]]></dc:creator>
<dc:creator><![CDATA[ Sun,Guoqing]]></dc:creator>
<dc:creator><![CDATA[ Kharuk,Viacheslav]]></dc:creator>
<dc:creator><![CDATA[ Elsakov,Vladimir]]></dc:creator>
<description>The Northern Eurasian land mass encompasses a diverse array of land cover types including tundra, boreal forest, wetlands, semi-arid steppe, and agricultural land use. Despite the well-established importance of Northern Eurasia in the global carbon and climate system, the distribution and properties of land cover in this region are not well characterized. To address this knowledge and data gap, a hierarchical mapping approach was developed that encompasses the study area for the Northern Eurasia Earth System Partnership Initiative (NEESPI). The Northern Eurasia Land Cover (NELC) database developed in this study follows the FAO-Land Cover Classification System and provides nested groupings of land cover characteristics, with separate layers for land use, wetlands, and tundra. The database implementation is substantially different from other large-scale land cover datasets that provide maps based on a single set of discrete classes. By providing a database consisting of nested maps and complementary layers, the NELC database provides a flexible framework that allows users to tailor maps to suit their needs. The methods used to create the database combine empirically derived climate–vegetation relationships with results from supervised classifications based on Moderate Resolution Imaging Spectroradiometer (MODIS) data. The hierarchical approach provides an effective framework for integrating climate–vegetation relationships with remote sensing-based classifications, and also allows sources of error to be characterized and attributed to specific levels in the hierarchy. The cross-validated accuracy was 73% for the land cover map and 73% and 91% for the agriculture and wetland classifications, respectively. These results support the use of hierarchical classification and climate–vegetation relationships for mapping land cover at continental scales.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=6DHGP-bSpB4:vLi4GjS_Crw:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=6DHGP-bSpB4:vLi4GjS_Crw:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=6DHGP-bSpB4:vLi4GjS_Crw:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Remote Sensing of Environment]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[115]]></prism:volume> 
<prism:startingPage><![CDATA[392]]></prism:startingPage>
<prism:endingPage><![CDATA[403]]></prism:endingPage> 
<refworks:created><![CDATA[3/2/2011 2:49:36 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:13:12 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/6DHGP-bSpB4/refshare</link>
<refworks:FD><![CDATA[2/15]]></refworks:FD>
<refworks:k1><![CDATA[ Land cover]]></refworks:k1>
<refworks:k1><![CDATA[ Classification]]></refworks:k1>
<refworks:k1><![CDATA[ MODIS]]></refworks:k1>
<refworks:k1><![CDATA[ Decision trees]]></refworks:k1>
<refworks:k1><![CDATA[ Biogeography]]></refworks:k1>
<refworks:k1><![CDATA[ Hierarchical classification system]]></refworks:k1>
<refworks:sn><![CDATA[0034-4257]]></refworks:sn>
<refworks:do><![CDATA[DOI: 10.1016/j.rse.2010.09.010]]></refworks:do>
<refworks:id><![CDATA[25233]]></refworks:id>
<refworks:ul><![CDATA[http://www.sciencedirect.com/science/article/B6V6V-51D8956-1/2/54f39bb092c5036b9db55267ba67bd36]]></refworks:ul>
<refworks:jo><![CDATA[Remote Sens.Environ.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25233</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25234">
<title><![CDATA[The fluid dynamics of swimming by jumping in copepods]]></title>
<dc:creator><![CDATA[Jiang,Houshuo]]></dc:creator>
<dc:creator><![CDATA[ Kiørboe,Thomas]]></dc:creator>
<description>Copepods swim either continuously by vibrating their feeding appendages or erratically by repeatedly beating their swimming legs, resulting in a series of small jumps. The two swimming modes generate different hydrodynamic disturbances and therefore expose the swimmers differently to rheotactic predators. We developed an impulsive stresslet model to quantify the jump-imposed flow disturbance. The predicted flow consists of two counter-rotating viscous vortex rings of similar intensity, one in the wake and one around the body of the copepod. We showed that the entire jumping flow is spatially limited and temporally ephemeral owing to jump-impulsiveness and viscous decay. In contrast, continuous steady swimming generates two well-extended long-lasting momentum jets both in front of and behind the swimmer, as suggested by the well-known steady stresslet model. Based on the observed jump-swimming kinematics of a small copepod Oithona davisae, we further showed that jump-swimming produces a hydrodynamic disturbance with much smaller spatial extension and shorter temporal duration than that produced by a same-size copepod cruising steadily at the same average translating velocity. Hence, small copepods in jump-swimming are in general much less detectable by rheotactic predators. The present impulsive stresslet model improves a previously published impulsive Stokeslet model that applies only to the wake vortex.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ihHCeZSn5a4:W83gEGiQXXA:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ihHCeZSn5a4:W83gEGiQXXA:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=ihHCeZSn5a4:W83gEGiQXXA:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Journal of The Royal Society Interface]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<refworks:created><![CDATA[3/2/2011 2:52:28 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:13:12 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/ihHCeZSn5a4/refshare</link>
<refworks:k1><![CDATA[ copepod jump]]></refworks:k1>
<refworks:k1><![CDATA[ viscous vortex ring]]></refworks:k1>
<refworks:k1><![CDATA[ impulsive stresslet]]></refworks:k1>
<refworks:k1><![CDATA[ impulsive Stokeslet]]></refworks:k1>
<refworks:k1><![CDATA[ hydrodynamic camouflage]]></refworks:k1>
<refworks:k1><![CDATA[ non-dimensional 'jump number']]></refworks:k1>
<refworks:do><![CDATA[10.1098/rsif.2010.0481]]></refworks:do>
<refworks:id><![CDATA[25234]]></refworks:id>
<refworks:ul><![CDATA[http://rsif.royalsocietypublishing.org/content/early/2011/01/10/rsif.2010.0481.abstract]]></refworks:ul>
<refworks:jo><![CDATA[Journal of The Royal Society Interface]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25234</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25235">
<title><![CDATA[Marine subsurface eukaryotes: the fungal majority]]></title>
<dc:creator><![CDATA[Edgcomb,Virginia P.]]></dc:creator>
<dc:creator><![CDATA[ Beaudoin,David]]></dc:creator>
<dc:creator><![CDATA[ Gast,Rebecca]]></dc:creator>
<dc:creator><![CDATA[ Biddle,Jennifer F.]]></dc:creator>
<dc:creator><![CDATA[ Teske,Andreas]]></dc:creator>
<description>P&gt;Studies on the microbial communities of deep subsurface sediments have indicated the presence of Bacteria and Archaea throughout the sediment column. Microbial eukaryotes could also be present in deep-sea subsurface sediments; either bacterivorous protists or eukaryotes capable of assimilating buried organic carbon. DNA- and RNA-based clone library analyses are used here to examine the microbial eukaryotic diversity and identify the potentially active members in deep-sea sediment cores of the Peru Margin and the Peru Trench. We compared surface communities with those much deeper in the same cores, and compared cores from different sites. Fungal sequences were most often recovered from both DNA- and RNA-based clone libraries, with variable overall abundances of different sequence types and different dominant clone types in the RNA-based and the DNA-based libraries. Surficial sediment communities were different from each other and from the deep subsurface samples. Some fungal sequences represented potentially novel organisms as well as ones with a cosmopolitan distribution in terrestrial, fresh and salt water environments. Our results indicate that fungi are the most consistently detected eukaryotes in the marine sedimentary subsurface; further, some species may be specifically adapted to the deep subsurface and may play important roles in the utilization and recycling of nutrients.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=h_I43ZHXW5s:KilrNdOwhy4:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=h_I43ZHXW5s:KilrNdOwhy4:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=h_I43ZHXW5s:KilrNdOwhy4:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[WILEY-BLACKWELL PUBLISHING, INC]]></dc:publisher>
<prism:publicationName><![CDATA[Environmental microbiology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[13]]></prism:volume> 
<prism:startingPage><![CDATA[172]]></prism:startingPage>
<prism:endingPage><![CDATA[183]]></prism:endingPage> 
<refworks:created><![CDATA[3/2/2011 3:01:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:13:12 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/h_I43ZHXW5s/refshare</link>
<refworks:FD><![CDATA[JAN]]></refworks:FD>
<refworks:k1><![CDATA[ DEEP SUBSEAFLOOR SEDIMENTS]]></refworks:k1>
<refworks:k1><![CDATA[ SEA-FLOOR]]></refworks:k1>
<refworks:k1><![CDATA[ PERU MARGIN]]></refworks:k1>
<refworks:k1><![CDATA[ DIVERSITY]]></refworks:k1>
<refworks:k1><![CDATA[ ARCHAEA]]></refworks:k1>
<refworks:k1><![CDATA[ PROKARYOTES]]></refworks:k1>
<refworks:k1><![CDATA[ REGIONS]]></refworks:k1>
<refworks:k1><![CDATA[ VIEW]]></refworks:k1>
<refworks:k1><![CDATA[ ENVIRONMENT]]></refworks:k1>
<refworks:k1><![CDATA[ BIOSPHERE]]></refworks:k1>
<refworks:k1><![CDATA[ Microbiology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 51; TC: 0; J9: ENVIRON MICROBIOL; PG: 12; GA: 702EE; UT: ISI:000285876600015]]></refworks:no>
<refworks:pp><![CDATA[MALDEN; COMMERCE PLACE, 350 MAIN ST, MALDEN 02148, MA USA]]></refworks:pp>
<refworks:sn><![CDATA[1462-2912]]></refworks:sn>
<refworks:ad><![CDATA[[Edgcomb, Virginia P.] Woods Hole Oceanog Inst, Dept Geol & Geophys, Woods Hole, MA 02543 USA. [Beaudoin, David; Gast, Rebecca] Woods Hole Oceanog Inst, Dept Biol, Woods Hole, MA 02543 USA. [Biddle, Jennifer F.] Univ Delaware, Coll Earth Ocean & Environm, Lewes, DE 19958 USA. [Teske, Andreas] Univ N Carolina, Dept Marine Sci, Chapel Hill, NC 27599 USA.; Edgcomb, VP, Woods Hole Oceanog Inst, Dept Geol & Geophys, Woods Hole, MA 02543 USA.; vedgcomb@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[DT: Article]]></refworks:sf>
<refworks:do><![CDATA[10.1111/j.1462-2920.2010.02318.x]]></refworks:do>
<refworks:id><![CDATA[25235]]></refworks:id>
<refworks:cr><![CDATA[CR: ADL SM, 2005, J EUKARYOT MICROBIOL, V52, P399, DOI 10.1111/j.1550-7408.2005.00053.x BALDAUF SL, 2003, SCIENCE, V300, P1703 BASS D, 2007, P R SOC B, V274, P3069, DOI 10.1098/rspb.2007.1067 BIDDLE JF, 2005, GEOBIOLOGY, V3, P287 BIDDLE JF, 2006, P NATL ACAD SCI USA, V103, P3846, DOI 10.1073/pnas.0600035103 BIDDLE JF, 2008, GEOCHIM COSMOCHIM S1, V72, A83 BINDER M, 2002, MOL PHYLOGENET EVOL, V22, P76 COLE JR, 2003, NUCLEIC ACIDS RES, V31, P442, DOI 10.1093/nar/gkg039 DHONDT S, 2003, P OCEAN DRILLING PRO, V201 DHONDT S, 2004, SCIENCE, V306, P2216, DOI 10.1126/science.1101155 DHONDT SL, 2003, P OCEAN DRILLING PRO, V201 EDGCOMB VP, 2002, P NATL ACAD SCI USA, V99, P7658 EWING B, 1998, GENOME RES, V8, P175 EWING B, 1998, GENOME RES, V8, P186 FOSSING H, 1990, CONT SHELF RES, V10, P355 GADD GM, 2007, MYCOL RES 1, V111, P3, DOI 10.1016/j.mycres.2006.12.001 GRIFFIN DH, 1994, FUNGAL PHYSL HIBBETT DS, 2002, P ROY SOC LOND B BIO, V269, P1963, DOI 10.1098/rspb.2002.2123 HOUSE CH, 2003, P OCEAN DRILLING PRO, V201, P1 INAGAKI F, 2006, P NATL ACAD SCI USA, V103, P2815, DOI 10.1073/pnas.0511033103 JEBARAJ CS, 2010, FEMS MICROBIOL ECOL, V71, P399, DOI 10.1111/j.1574-6941.2009.00804.x KOHLMEYER J, 1979, EXPERIENTIA, V35, P437 LECALVEZ T, 2009, APPL ENVIRON MICROB, V75, P6415, DOI 10.1128/AEM.00653-09 LIPP JS, 2008, NATURE, V454, P991, DOI 10.1038/nature07174 LOPEZGARCIA P, 2001, FEMS MICROBIOL ECOL, V36, P193 LOPEZGARCIA P, 2001, NATURE, V409, P603 LOPEZGARCIA P, 2003, P NATL ACAD SCI USA, V100, P697, DOI 10.1073/pnas.0235779100 LOPEZGARCIA P, 2007, ENVIRON MICROBIOL, V9, P546, DOI 10.1111/j.1462-2920.2006.01158.x LOZUPONE C, 2006, BMC BIOINFORMATICS, V7, NIL1, DOI 10.1186/1471-2105-7-371 LUDWIG W, 2004, NUCLEIC ACIDS RES, V32, P1363, DOI 10.1093/nar/gkh293 MEDLIN L, 1988, GENE, V71, P491 MEISTER P, 2005, DATA REPORT COMPILAT PACE NR, 1997, SCIENCE, V276, P734 PARKES RJ, 1993, MAR GEOL, V113, P55 PARKES RJ, 2000, HYDROGEOL J, V8, P11 PARKES RJ, 2005, NATURE, V436, P390, DOI 10.1038/nature03796 RICHARDS TA, 2005, CURR OPIN MICROBIOL, V8, P240, DOI 10.1016/j.mib.2005.04.010 ROWE GT, 1985, DEEP-SEA RES, V32, P43 SCHIPPERS A, 2005, NATURE, V433, P861, DOI 10.1038/nature03302 SCHLOSS PD, 2009, APPL ENVIRON MICROB, V75, P7537, DOI 10.1128/AEM.01541-09 SCHUMANN G, 2004, GEOMICROBIOL J, V21, P241, DOI 10.1080/01490450490438748 SIMONATO F, 2006, J BIOTECHNOL, V126, P11, DOI 10.1016/j.jbiotec.2006.03.038 SORENSEN KB, 2006, APPL ENVIRON MICROB, V72, P4596, DOI 10.1128/AEM.00562-06 STAMATAKIS A, 2006, BIOINFORMATICS, V22, P2688, DOI 10.1093/bioinformatics/btl446 STOECK T, 2003, APPL ENVIRON MICROB, V69, P2657, DOI 10.1128/AEM.69.5.2657-2663.2003 STOECK T, 2003, APPL ENVIRON MICROB, V69, P5656, DOI 10.1128/AEM.69.9.5656-5663.2003 TAKISHITA K, 2006, EXTREMOPHILES, V10, P165, DOI 10.1007/s00792-005-0495-7 TESKE A, 2008, ISME J, V2, P3, DOI 10.1038/ismej.2007.90 WEBSTER G, 2006, FEMS MICROBIOL ECOL, V58, P65, DOI 10.1111/j.1574-6941.2006.00147.x WHITMAN WB, 1998, P NATL ACAD SCI USA, V95, P6578 XU J, 2006, CURR ISSUES MOL BIOL, V8, P75]]></refworks:cr>
<refworks:jo><![CDATA[Environ.Microbiol.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25235</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25236">
<title><![CDATA[Harmonic analysis of the cone flicker ERG of rabbit]]></title>
<dc:creator><![CDATA[Qian,Haohua]]></dc:creator>
<dc:creator><![CDATA[ Alexander,Kenneth R.]]></dc:creator>
<dc:creator><![CDATA[ Ripps,Harris]]></dc:creator>
<description>Harmonic analysis was used to characterize the rabbit flicker ERG elicited by sinusoidally modulated full-field stimuli under light-adapted conditions. The frequency-response function for fundamental amplitude, derived from Fourier analysis of the ERG waveforms, exhibited two limbs, with an amplitude minimum at approximately 30 Hz, and a high-frequency region peaking at around 45 Hz and extending to more than 100 Hz at higher adapting levels. At low frequencies (&lt; 20 Hz), the fundamental response amplitude was independent of mean luminance (Weber law behavior), whereas the response amplitude at high stimulus frequencies varied nonlinearly with mean luminance. At low frequencies, intravitreal administration of L-AP4, which blocks ON-pathway activity, reduced the fundamental response amplitude and produced a phase shift. On the other hand, PDA, which reduces OFF-pathway activity, had a minimal effect on both the response amplitude and phase at low frequencies. At high frequencies, L-AP4 increased the fundamental response amplitude at low mean luminances, whereas PDA had only a small effect on amplitude and phase. Both pharmacologic agents removed the minimum in the amplitude-frequency function as well as the abrupt change in phase at stimulus frequencies near 30 Hz. The results suggest that there is a nonlinear interaction between ON- and OFF-pathway activity over the entire stimulus frequency range examined in this study. These findings provide a basis for formulating protocols to evaluate the effect of pharmacologic agents and/or disease on the cone flicker ERG of rabbit. Published by Elsevier Ltd.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=WokT0f1AsCI:CY-4rdgiEG4:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=WokT0f1AsCI:CY-4rdgiEG4:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=WokT0f1AsCI:CY-4rdgiEG4:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[ACADEMIC PRESS LTD- ELSEVIER SCIENCE LTD]]></dc:publisher>
<prism:publicationName><![CDATA[Experimental eye research]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[6]]></prism:number>
<prism:volume><![CDATA[91]]></prism:volume> 
<prism:startingPage><![CDATA[811]]></prism:startingPage>
<prism:endingPage><![CDATA[817]]></prism:endingPage> 
<refworks:created><![CDATA[3/2/2011 3:01:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:13:12 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/WokT0f1AsCI/refshare</link>
<refworks:FD><![CDATA[DEC]]></refworks:FD>
<refworks:k1><![CDATA[ electroretinogram]]></refworks:k1>
<refworks:k1><![CDATA[ flicker ERG]]></refworks:k1>
<refworks:k1><![CDATA[ rabbit]]></refworks:k1>
<refworks:k1><![CDATA[ cone pathway]]></refworks:k1>
<refworks:k1><![CDATA[ pharmacology]]></refworks:k1>
<refworks:k1><![CDATA[ sinusoidal stimuli]]></refworks:k1>
<refworks:k1><![CDATA[ frequency response]]></refworks:k1>
<refworks:k1><![CDATA[ MAMMALIAN RETINA]]></refworks:k1>
<refworks:k1><![CDATA[ IN-VIVO]]></refworks:k1>
<refworks:k1><![CDATA[ B-WAVE]]></refworks:k1>
<refworks:k1><![CDATA[ RESPONSES]]></refworks:k1>
<refworks:k1><![CDATA[ AMPLITUDE]]></refworks:k1>
<refworks:k1><![CDATA[ TOXICITY]]></refworks:k1>
<refworks:k1><![CDATA[ KINETICS]]></refworks:k1>
<refworks:k1><![CDATA[ ROD]]></refworks:k1>
<refworks:k1><![CDATA[ Ophthalmology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 30; TC: 0; J9: EXP EYE RES; PG: 7; GA: 693IT; UT: ISI:000285218500005]]></refworks:no>
<refworks:pp><![CDATA[LONDON; 24-28 OVAL RD, LONDON NW1 7DX, ENGLAND]]></refworks:pp>
<refworks:sn><![CDATA[0014-4835]]></refworks:sn>
<refworks:ad><![CDATA[[Qian, Haohua; Alexander, Kenneth R.; Ripps, Harris] Univ Illinois, Dept Ophthalmol & Visual Sci, Chicago, IL 60612 USA. [Qian, Haohua; Ripps, Harris] Univ Illinois, Dept Physiol & Biophys, Chicago, IL 60612 USA. [Qian, Haohua] Univ Illinois, Dept Biol Sci, Chicago, IL 60612 USA. [Alexander, Kenneth R.] Univ Illinois, Dept Psychol, Chicago, IL 60612 USA. [Alexander, Kenneth R.] Univ Illinois, Dept Bioengn, Chicago, IL 60612 USA. [Ripps, Harris] Marine Biol Lab, Woods Hole, MA 02543 USA.; Qian, HH, NEI, MSC 4403,9000 Rockville Pike,49 Convent Dr,Bldg 4, Bethesda, MD 20892 USA.; haohua.qian@nih.gov]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[DT: Article]]></refworks:sf>
<refworks:do><![CDATA[10.1016/j.exer.2010.10.005]]></refworks:do>
<refworks:id><![CDATA[25236]]></refworks:id>
<refworks:cr><![CDATA[CR: ALEXANDER KR, 2003, INVEST OPHTH VIS S2, V44, U685 ALEXANDER KR, 2008, DOC OPHTHALMOL, V117, P197, DOI 10.1007/s10633-008-9123-z BURNS SA, 1992, OPTOMETRY VISION SCI, V69, P95 CHEN X, 2010, J NEUROPHYSIOL, V103, P2618, DOI 10.1152/jn.01109.2009 CREVIER DW, 1998, J NEUROPHYSIOL, V79, P1869 DONG CJ, 2000, VISION RES, V40, P579 DONG CJ, 2002, VISION RES, V42, P1081 EKESTEN B, 1998, DOC OPHTHALMOL, V97, P23 FISHMAN GA, 2001, ELECTROPHYSIOLOGIC T GOODMAN G, 1960, ARCH OPHTHALMOL-CHIC, V64, P221 HARE WA, 2002, DOC OPHTHALMOL, V105, P189 HOOD DC, 1997, DOC OPHTHALMOL, V92, P253 KONDO M, 2001, INVEST OPHTH VIS SCI, V42, P305 KONDO M, 2009, INVEST OPHTH VIS SCI, V50, P1371, DOI 10.1167/iovs.08-2863 KRISHNA VR, 2002, J NEUROPHYSIOL, V87, P42 MARMOR MF, 2009, DOC OPHTHALMOL, V118, P69, DOI 10.1007/s10633-008-9155-4 MILLS SL, 1999, J COMP NEUROL, V411, P19 MYERS AC, 2009, RETINA-J RET VIT DIS, V29, P106 PEACHEY NS, 2003, DOC OPHTHALMOL, V107, P13 PERLMAN I, 2009, DOC OPHTHALMOL, V118, P3, DOI 10.1007/s10633-008-9153-6 POZNANSKI RR, 2005, J INTEGR NEUROSCI, V4, P341 QIAN H, 2008, EXP EYE RES, V87, P71, DOI 10.1016/j.exer.2008.04.011 ROBSON JG, 2004, VISION RES, V44, P3253, DOI 10.1016/j.visres.2004.09.002 ROSOLEN SG, 2005, DOC OPHTHALMOL, V110, P57, DOI 10.1007/s100633-005-7344-y SHAH MR, 2010, EXP EYE RES, V90, P196, DOI 10.1016/j.exer.2009.10.006 TSILIMBARIS M, 2009, GRAEF ARCH CLIN EXP, V247, P1119, DOI 10.1007/s00417-009-1065-y VISWANATHAN S, 2002, DOC OPHTHALMOL, V105, P223 WASSLE H, 2004, NAT REV NEUROSCI, V5, P747, DOI 10.1038/nrn1497 WEYMOUTH AE, 2008, PROG RETIN EYE RES, V27, P1, DOI 10.1016/j.preteyeres.2007.09.003 WU S, 1996, J OPT SOC AM A, V13, P649]]></refworks:cr>
<refworks:jo><![CDATA[Exp.Eye Res.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25236</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25237">
<title><![CDATA[Identification and developmental expression of the full complement of Cytochrome P450 genes in Zebrafish]]></title>
<dc:creator><![CDATA[Goldstone,Jared V.]]></dc:creator>
<dc:creator><![CDATA[ McArthur,Andrew G.]]></dc:creator>
<dc:creator><![CDATA[ Kubota,Akira]]></dc:creator>
<dc:creator><![CDATA[ Zanette,Juliano]]></dc:creator>
<dc:creator><![CDATA[ Parente,Thiago]]></dc:creator>
<dc:creator><![CDATA[ Jonsson,Maria E.]]></dc:creator>
<dc:creator><![CDATA[ Nelson,David R.]]></dc:creator>
<dc:creator><![CDATA[ Stegeman,John J.]]></dc:creator>
<description>Background: Increasing use of zebrafish in drug discovery and mechanistic toxicology demands knowledge of cytochrome P450 (CYP) gene regulation and function. CYP enzymes catalyze oxidative transformation leading to activation or inactivation of many endogenous and exogenous chemicals, with consequences for normal physiology and disease processes. Many CYPs potentially have roles in developmental specification, and many chemicals that cause developmental abnormalities are substrates for CYPs. Here we identify and annotate the full suite of CYP genes in zebrafish, compare these to the human CYP gene complement, and determine the expression of CYP genes during normal development. Results: Zebrafish have a total of 94 CYP genes, distributed among 18 gene families found also in mammals. There are 32 genes in CYP families 5 to 51, most of which are direct orthologs of human CYPs that are involved in endogenous functions including synthesis or inactivation of regulatory molecules. The high degree of sequence similarity suggests conservation of enzyme activities for these CYPs, confirmed in reports for some steroidogenic enzymes (e.g. CYP19, aromatase; CYP11A, P450scc; CYP17, steroid 17a-hydroxylase), and the CYP26 retinoic acid hydroxylases. Complexity is much greater in gene families 1, 2, and 3, which include CYPs prominent in metabolism of drugs and pollutants, as well as of endogenous substrates. There are orthologous relationships for some CYP1 s and some CYP3 s between zebrafish and human. In contrast, zebrafish have 47 CYP2 genes, compared to 16 in human, with only two (CYP2R1 and CYP2U1) recognized as orthologous based on sequence. Analysis of shared synteny identified CYP2 gene clusters evolutionarily related to mammalian CYP2 s, as well as unique clusters. Conclusions: Transcript profiling by microarray and quantitative PCR revealed that the majority of zebrafish CYP genes are expressed in embryos, with waves of expression of different sets of genes over the course of development. Transcripts of some CYP occur also in oocytes. The results provide a foundation for the use of zebrafish as a model in toxicological, pharmacological and chemical disease research.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=WmMPX0qLWPw:-GccqkL1J00:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=WmMPX0qLWPw:-GccqkL1J00:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=WmMPX0qLWPw:-GccqkL1J00:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[BIOMED CENTRAL LTD]]></dc:publisher>
<prism:publicationName><![CDATA[Bmc Genomics]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[11]]></prism:volume> 
<prism:startingPage><![CDATA[643]]></prism:startingPage>
<prism:endingPage><![CDATA[643]]></prism:endingPage> 
<refworks:created><![CDATA[3/2/2011 3:01:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:13:12 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/WmMPX0qLWPw/refshare</link>
<refworks:FD><![CDATA[NOV 18]]></refworks:FD>
<refworks:k1><![CDATA[ CATFISH ICTALURUS-PUNCTATUS]]></refworks:k1>
<refworks:k1><![CDATA[ RETINOIC ACID ACTIVITY]]></refworks:k1>
<refworks:k1><![CDATA[ DANIO-RERIO]]></refworks:k1>
<refworks:k1><![CDATA[ TISSUE DISTRIBUTION]]></refworks:k1>
<refworks:k1><![CDATA[ TELEOST FISH]]></refworks:k1>
<refworks:k1><![CDATA[ FUNCTIONAL-CHARACTERIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ PROMOTER CHARACTERISTICS]]></refworks:k1>
<refworks:k1><![CDATA[ PROSTACYCLIN SYNTHASE]]></refworks:k1>
<refworks:k1><![CDATA[ PHYLOGENETIC ANALYSIS]]></refworks:k1>
<refworks:k1><![CDATA[ EMBRYONIC LETHALITY]]></refworks:k1>
<refworks:k1><![CDATA[ Biotechnology & Applied Microbiology]]></refworks:k1>
<refworks:k1><![CDATA[ Genetics & Heredity]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 119; TC: 0; J9: BMC GENOMICS; PG: 21; GA: 691TX; UT: ISI:000285104800001]]></refworks:no>
<refworks:pp><![CDATA[LONDON; 236 GRAYS INN RD, FLOOR 6, LONDON WC1X 8HL, ENGLAND]]></refworks:pp>
<refworks:sn><![CDATA[1471-2164]]></refworks:sn>
<refworks:ad><![CDATA[[Goldstone, Jared V.; Kubota, Akira; Zanette, Juliano; Parente, Thiago; Jonsson, Maria E.; Stegeman, John J.] Woods Hole Oceanog Inst, Dept Biol, Woods Hole, MA 02543 USA. [McArthur, Andrew G.] Andrew McArthur Consulting, Hamilton, ON, Canada. [Zanette, Juliano] Univ Fed Rio Grande, Inst Ciencias Biol, BR-96201900 Rio Grande, RS, Brazil. [Parente, Thiago] Univ Fed Rio de Janeiro, Inst Biofis Carlos Chagas Filho, BR-21941 Rio De Janeiro, Brazil. [Jonsson, Maria E.] Uppsala Univ, Dept Environm Toxicol, Uppsala, Sweden. [Nelson, David R.] Univ Tennessee, Dept Mol Sci, Memphis, TN USA.; Stegeman, JJ, Woods Hole Oceanog Inst, Dept Biol, Woods Hole, MA 02543 USA.; jstegeman@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[DT: Article]]></refworks:sf>
<refworks:do><![CDATA[10.1186/1471-2164-11-643]]></refworks:do>
<refworks:id><![CDATA[25237]]></refworks:id>
<refworks:cr><![CDATA[CR: ENSEMBL ZEBRAFISH ABUABED SS, 1998, J BIOL CHEM, V273, P2409 ALSOP D, 2009, COMP BIOCHEM PHYS A, V153, P49, DOI 10.1016/j.cbpa.2008.12.008 ARYEE MJ, 2009, BMC BIOINFORMATICS, V10, NIL1 BAIR SR, 2004, MOL CELL BIOL, V24, P5383, DOI 10.1128/MCB.24.12.5383-5390.2004 BENDOR A, 1999, J COMPUT BIOL, V6, P281 BIRNEY E, 2004, GENOME RES, V14, P988, DOI 10.1101/gr.1865504 BRESOLIN T, 2005, COMP BIOCHEM PHYS C, V140, P403, DOI 10.1016/j.cca.2005.04.003 CALLARD GV, 2001, J STEROID BIOCHEM, V79, P305 CELANDER M, 1996, FISH PHYSIOL BIOCHEM, V15, P323 CHENG JB, 2003, J BIOL CHEM, V278, P38084, DOI 10.1074/jbc.M307028200 CHESHENKO K, 2007, TOXICOL SCI, V96, P255, DOI 10.1093/toxsci/kfm003 CHOUDHARY D, 2003, ARCH BIOCHEM BIOPHYS, V414, P91, DOI 10.1016/S0003-9861(03)00174-7 CHOUDHARY D, 2005, ARCH BIOCHEM BIOPHYS, V436, P50 CHUANG SS, 2004, J BIOL CHEM, V279, P6305, DOI 10.1074/jbc.M311830200 CORLEYSMITH GE, 2006, BIOCHEM BIOPH RES CO, V340, P1039, DOI 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STEGEMAN JJ, 1981, POLYCYCLIC HYDROCARB, V3, P1 STOILOV I, 2001, DRUG METAB DRUG INTE, V18, P33 STOILOV I, 2001, TRENDS GENET, V17, P629 STRUSHKEVICH N, 2008, J MOL BIOL, V380, P95, DOI 10.1016/j.jmb.2008.03.065 TCHOUDAKOVA A, 2001, J STEROID BIOCHEM, V78, P427 THISSE B, 2004, METHOD CELL BIOL, V77, P505 TRANT JM, 2001, J EXP ZOOL, V290, P475 TSENG HP, 2005, TOXICOL APPL PHARM, V205, P247, DOI 10.1016/j.taap.2004.10.019 UEHARA M, 2007, DEV BIOL, V302, P399, DOI 10.1016/j.ydbio.2006.09.045 WANG L, 2007, BIOCHEM BIOPH RES CO, V352, P850, DOI 10.1016/j.bbrc.2006.11.129 WANG YJ, 2004, GEN COMP ENDOCR, V135, P241, DOI 10.1016/j.ygcen.2003.09.015 WANGBUHLER JL, 2005, COMP BIOCHEM PHYS C, V140, P207, DOI 10.1016/j.cca.2005.02.002 WAXMAN DJ, 1999, ARCH BIOCHEM BIOPHYS, V369, P11 WEBER GJ, 2005, BLOOD, V106, P521, DOI 10.1182/blood-2004-11-4541 WESTERFIELD M, 2000, ZEBRAFISH BOOK GUIDE WHELAN S, 2001, MOL BIOL EVOL, V18, P691 WHITE JA, 1996, J BIOL CHEM, V271, P29922 WHITE JA, 1997, J BIOL CHEM, V272, P18538 WHITE RJ, 2007, PLOS BIOL, V5, P2522, ARTN e304 WU KK, 2005, BIOCHEM BIOPH RES CO, V338, P45, DOI 10.1016/j.bbrc.2005.08.021 YAMAZAKI K, 2002, J VET MED SCI, V64, P829 YOSHIOKA H, 2006, BIOCHEM BIOPH RES CO, V345, P169, DOI 10.1016/j.bbrc.2006.04.080 ZHAO QS, 2005, GENE EXPR PATTERNS, V5, P363, DOI 10.1016/j.modgep.2004.09.011 ZHOU LY, 2007, BIOCHEM BIOPH RES CO, V362, P619, DOI 10.1016/j.bbrc.2007.08.044 ZHOU LY, 2007, ENDOCRINOLOGY, V148, P4282, DOI 10.1210/en.2007-0487]]></refworks:cr>
<refworks:jo><![CDATA[BMC Genomics]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25237</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25219">
<title><![CDATA[New CYP1 genes in the frog Xenopus (Silurana) tropicalis: Induction patterns and effects of AHR agonists during development]]></title>
<dc:creator><![CDATA[Jonsson,Maria E.]]></dc:creator>
<dc:creator><![CDATA[ Berg,Cecilia]]></dc:creator>
<dc:creator><![CDATA[ Goldstone,Jared V.]]></dc:creator>
<dc:creator><![CDATA[ Stegeman,John J.]]></dc:creator>
<description>The Xenopus tropicalis genome shows a single gene in each of the four cytochrome P450 1 (CYP1) subfamilies that occur in vertebrates, designated as CYP1A, CYP1B1, CYP1C1, and CYP1D1. We cloned the cDNAs of these genes and examined their expression in untreated tadpoles and in tadpoles exposed to waterborne aryl hydrocarbon receptor agonists, 3,3',4,4',5-pentachlorobiphenyl (PCB126), beta-naphthoflavone (beta NF), or indigo. We also examined the effects of PCB126 on expression of genes involved in stress response, cell proliferation, thyroid homeostasis. and prostaglandin synthesis. PCB126 induced CYP1A. CYP1B1, and CYP1C1 but had little effect on CYP1D1 (77-, 1.7-, 4.6- and 1.4-fold induction versus the control, respectively). beta NF induced CYP1A and CYP1C1 (26- and 2.5-fold), while, under conditions used, indigo tended to induce only CYP1A (1.9-fold). The extent of CYP1 induction by PCB126 and beta NF was positively correlated to the number of putative dioxin response elements 0-20 kb upstream of the start codons. No morphological effect was observed in tadpoles exposed to 1 nM-10 mu M PCB126 at two days post-fertilization (dpf) and screened 20 days later. However, in 14-dpf tadpoles a slight up-regulation of the genes for PCNA, transthyretin, HSC70, Cu-Zn SOD, and Cox-2 was observed two days after exposure to mu M PCB126. This study of the full suite of CYP1 genes in an amphibian species reveals gene- and AHR agonist-specific differences in response, as well as a much lower sensitivity to CYP1 induction and short-term toxicity by PCB126 compared with in fish larvae. The single genes in each CYP1 subfamily may make X. tropicalis a useful model for mechanistic studies of CYP1 functions. (C) 2010 Elsevier Inc. All rights reserved.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=N4ofd3PNXEc:LAcymvKHaxs:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=N4ofd3PNXEc:LAcymvKHaxs:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=N4ofd3PNXEc:LAcymvKHaxs:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[ACADEMIC PRESS INC ELSEVIER SCIENCE]]></dc:publisher>
<prism:publicationName><![CDATA[Toxicology and applied pharmacology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[250]]></prism:volume> 
<prism:startingPage><![CDATA[170]]></prism:startingPage>
<prism:endingPage><![CDATA[183]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/N4ofd3PNXEc/refshare</link>
<refworks:FD><![CDATA[JAN 15]]></refworks:FD>
<refworks:k1><![CDATA[ Cytochrome P450 1 (CYP1)]]></refworks:k1>
<refworks:k1><![CDATA[ Xenopus (Silurana) tropicalis]]></refworks:k1>
<refworks:k1><![CDATA[ 3,3',4,4',5-pentachlorobiphenyl (PCB126)]]></refworks:k1>
<refworks:k1><![CDATA[ beta-naphthoflavone (beta NF)]]></refworks:k1>
<refworks:k1><![CDATA[ Indigo]]></refworks:k1>
<refworks:k1><![CDATA[ Transthyretin]]></refworks:k1>
<refworks:k1><![CDATA[ ARYL-HYDROCARBON RECEPTOR]]></refworks:k1>
<refworks:k1><![CDATA[ NORTHERN LEOPARD FROGS]]></refworks:k1>
<refworks:k1><![CDATA[ ENVIRONMENTALLY]]></refworks:k1>
<refworks:k1><![CDATA[ RELEVANT CONCENTRATIONS]]></refworks:k1>
<refworks:k1><![CDATA[ THYROID-HORMONE SYSTEM]]></refworks:k1>
<refworks:k1><![CDATA[ ZEBRAFISH DANIO-RERIO]]></refworks:k1>
<refworks:k1><![CDATA[ O-DEETHYLASE ACTIVITY]]></refworks:k1>
<refworks:k1><![CDATA[ POLYCHLORINATED-BIPHENYLS]]></refworks:k1>
<refworks:k1><![CDATA[ 2,3,7,8-TETRACHLORODIBENZO-P-DIOXIN TCDD]]></refworks:k1>
<refworks:k1><![CDATA[ RANA-PIPIENS]]></refworks:k1>
<refworks:k1><![CDATA[ IMMUNOHISTOCHEMICAL LOCALIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ Pharmacology & Pharmacy]]></refworks:k1>
<refworks:k1><![CDATA[ Toxicology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 73; TC: 0; J9: TOXICOL APPL PHARMACOL; PG: 14; GA: 705KZ]]></refworks:no>
<refworks:pp><![CDATA[SAN DIEGO; 525 B ST, STE 1900, SAN DIEGO, CA 92101-4495 USA]]></refworks:pp>
<refworks:sn><![CDATA[0041-008X]]></refworks:sn>
<refworks:ad><![CDATA[[Jonsson, Maria E.; Berg, Cecilia] Uppsala Univ, Dept Environm Toxicol, Evolutionary Biol Ctr, S-75236 Uppsala, Sweden. [Jonsson, Maria E.; Goldstone, Jared V.; Stegeman, John J.] Woods Hole Oceanog Inst, Dept Biol, Woods Hole, MA 02543 USA.; Jonsson, ME, Uppsala Univ, Dept Environm Toxicol, Evolutionary Biol Ctr, Norbyvagen 18A, S-75236 Uppsala, Sweden.; maria.jonsson@ebc.uu.se]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1016/j.taap.2010.10.010]]></refworks:do>
<refworks:id><![CDATA[25219]]></refworks:id>
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<refworks:jo><![CDATA[Toxicol.Appl.Pharmacol.]]></refworks:jo>
<refworks:an><![CDATA[000286128600010]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25219</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25220">
<title><![CDATA[Low marine sulfate concentrations and the isolation of the European epicontinental sea during the Early Jurassic]]></title>
<dc:creator><![CDATA[Newton,Robert J.]]></dc:creator>
<dc:creator><![CDATA[ Reeves,Eoghan P.]]></dc:creator>
<dc:creator><![CDATA[ Kafousia,Nefeli]]></dc:creator>
<dc:creator><![CDATA[ Wignall,Paul B.]]></dc:creator>
<dc:creator><![CDATA[ Bottrell,Simon H.]]></dc:creator>
<dc:creator><![CDATA[ Sha,Jin-Geng]]></dc:creator>
<description>Two records of seawater sulfate isotope composition from the Early Jurassic demonstrate that large isotopic gradients existed between the European epicontinental sea and the open Tethys Ocean. These differences can be explained by the modifi cation of open-ocean sulfate isotopic compositions by water-mass isolation, sea-level rise, and the effects of changing regional weathering and pyrite burial fl uxes, during a time of rapid environmental change. Both records contain large positive isotopic excursions. In the section from Europe (Yorkshire, UK), a 6 parts per thousand excursion begins in the early exaratum subzone of the Toarcian in the middle of the organic-rich shale representing a well-known oceanic anoxic event. An open Tethyan margin record from Tibet records a much larger 19 parts per thousand excursion, but the section is less well dated. Two age interpretations are possible: sparse biostrati-graphic evidence places this excursion in the Aalenian, but we suggest that it may correlate with the positive excursion in Yorkshire. Hence these records may document both a Toarcian event and an Aalenian sulfur isotope event, or the early Toarcian anoxic event alone. Conservative estimates of the rate of isotopic change with time based on the Tibetan section suggest that Early Jurassic seawater sulfate concentrations were between 1 and 5 mM, much lower than previously thought.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=nBPnsHRnE9g:Ij2Ryct1Npo:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=nBPnsHRnE9g:Ij2Ryct1Npo:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=nBPnsHRnE9g:Ij2Ryct1Npo:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[GEOLOGICAL SOC AMER, INC]]></dc:publisher>
<prism:publicationName><![CDATA[Geology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[39]]></prism:volume> 
<prism:startingPage><![CDATA[7]]></prism:startingPage>
<prism:endingPage><![CDATA[10]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/nBPnsHRnE9g/refshare</link>
<refworks:FD><![CDATA[JAN]]></refworks:FD>
<refworks:k1><![CDATA[ OCEANIC ANOXIC EVENT]]></refworks:k1>
<refworks:k1><![CDATA[ MASS EXTINCTION]]></refworks:k1>
<refworks:k1><![CDATA[ SULFUR]]></refworks:k1>
<refworks:k1><![CDATA[ ISOTOPES]]></refworks:k1>
<refworks:k1><![CDATA[ CARBONATE]]></refworks:k1>
<refworks:k1><![CDATA[ CURVES]]></refworks:k1>
<refworks:k1><![CDATA[ SHIFTS]]></refworks:k1>
<refworks:k1><![CDATA[ OXYGEN]]></refworks:k1>
<refworks:k1><![CDATA[ BASIN]]></refworks:k1>
<refworks:k1><![CDATA[ Geology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 29; TC: 0; J9: GEOLOGY; PG: 4; GA: 699XK]]></refworks:no>
<refworks:pp><![CDATA[BOULDER; PO BOX 9140, BOULDER, CO 80301-9140 USA]]></refworks:pp>
<refworks:sn><![CDATA[0091-7613]]></refworks:sn>
<refworks:ad><![CDATA[[Newton, Robert J.; Reeves, Eoghan P.; Kafousia, Nefeli; Wignall, Paul B.; Bottrell, Simon H.] Univ Leeds, Sch Earth & Environm, Leeds LS2 9JT, W Yorkshire, England. [Sha, Jin-Geng] Chinese Acad Sci, Nanjing Inst Geol & Palaeontol, LPS, Nanjing 210008, Peoples R China.; Newton, RJ, Univ Leeds, Sch Earth & Environm, Leeds LS2 9JT, W Yorkshire, England.]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1130/G31326.1]]></refworks:do>
<refworks:id><![CDATA[25220]]></refworks:id>
<refworks:cr><![CDATA[CR: ARIAS C, 2007, PALAEOGEOGR PALAEOCL, V251, P398, DOI 10.1016/j.palaeo.2007.04.014 BEAUCHAMP B, 1987, CHEM GEOL, V65, P391 BOTS P, 2009, GEOCHIM COSMOCHIM S, V73, A143 BOTTRELL SH, 2006, EARTH-SCI REV, V75, P59, DOI 10.1016/j.earscirev.2005.10.004 BURDETT JW, 1989, EARTH PLANET SC LETT, V94, P189 CLAYPOOL GE, 1980, CHEM GEOL, V28, P199 COHEN AS, 2004, GEOLOGY, V32, P157, DOI 10.1130/G20158.1 GOODFELLOW WD, 1984, GEOLOGY, V12, P583 HALLAM A, 1986, NATURE, V319, P765 HESSELBO SP, 2000, NATURE, V406, P392 HILLEBRANDT A, 1981, GEOL RUNDSCH, V70, P570, DOI 10.1007/BF01822136 HOLMDEN C, 1998, GEOLOGY, V26, P567 HOLMDEN C, 2009, CHEM GEOL, V268, P180, DOI 10.1016/j.chemgeo.2009.08.009 IMMENHAUSER A, 2003, SEDIMENTOLOGY, V50, P953, DOI 10.1046/j.1365-3091.2003.00590.x JADOUL F, 1998, J ASIAN EARTH SCI, V16, P173 JENKYNS HC, 1988, AM J SCI, V288, P101 KAH LC, 2004, NATURE, V431, P834, DOI 10.1038/nature02974 KEMP DB, 2005, NATURE, V437, P396, DOI 10.1038/nature04037 MCARTHUR JM, 2000, EARTH PLANET SC LETT, V179, P269 MCARTHUR JM, 2008, PALEOCEANOGRAPHY, V23, ARTN PA4217 NEWTON R, 2007, J GEOL SOC LONDON 4, V164, P691 NEWTON RJ, 2004, EARTH PLANET SC LETT, V218, P331, DOI 10.1016/S0012-821X(03)00676-9 PALFY J, 2000, CAN J EARTH SCI, V37, P923 PALFY J, 2002, GEOL SOC AM SPEC PAP, V356, P523 SCOTESE CR, 2002, PALEOMAP PROJECT VANDESCHOOTBRUGGE B, 2005, PALEOCEANOGRAPHY, V20, ARTN PA3008 WALKER JCG, 1986, MAR GEOL, V70, P159 WIGNALL PB, 2005, AM J SCI, V305, P1014 WIGNALL PB, 2006, GEOBIOLOGY, V4, P179]]></refworks:cr>
<refworks:jo><![CDATA[Geology]]></refworks:jo>
<refworks:an><![CDATA[000285696000004]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25220</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25221">
<title><![CDATA[Multiple Alkynes React with Ethylene To Enhance Carbon Nanotube Synthesis, Suggesting a Polymerization-like Formation Mechanism]]></title>
<dc:creator><![CDATA[Plata,Desiree L.]]></dc:creator>
<dc:creator><![CDATA[ Meshot,Eric R.]]></dc:creator>
<dc:creator><![CDATA[ Reddy,Christopher M.]]></dc:creator>
<dc:creator><![CDATA[ Hart,A. John]]></dc:creator>
<dc:creator><![CDATA[ Gschwend,Philip M.]]></dc:creator>
<description>Thermal treatments of feedstock gases (e.g., C2H4/H-2) used during carbon nanotube (CNT) synthesis result in the formation of a complex mixture of volatile organic compounds and polycyclic aromatic hydrocarbons. Some of these are likely important CNT precursors, while others are superfluous and possibly degrade product quality, form amorphous carbon, and/or contribute to growth termination. To simulate the effect of thermal treatment without this chemical complexity, we delivered trace amounts of individual hydrocarbons, along with ethylene and hydrogen, to a cold-wall atmospheric pressure reactor containing a locally heated metal catalyst (Fe on Al2O3). Using these compound-specific experiments, we demonstrate that many alkynes (e.g., acetylene, methyl acetylene, and vinyl acetylene) accelerate multiwalled CNT formation with this catalyst system. Furthermore, ethylene is required for enhanced CNT growth, suggesting that the alkyne and ethylene may react in concert at the metal catalyst. This presents a distinct (NT formation mechanism where the chemical precursors may be intact during C-C bond formation, such as in polymerization reactions, challenging the widely accepted hypothesis that precursors completely dissociate into C (or C-2) units before "precipitating" from the metal. Armed with these mechanistic insights, we were able to form high-purity CNTs rapidly with a 15-fold improvement in yield, a 50% reduction in energetic costs, and order of magnitude reduction in unwanted byproduct formation (e.g., toxic and smog-forming chemicals and greenhouse gases).&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=fqKCPotOLtM:aWbNTyh-B0s:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=fqKCPotOLtM:aWbNTyh-B0s:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=fqKCPotOLtM:aWbNTyh-B0s:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER CHEMICAL SOC]]></dc:publisher>
<prism:publicationName><![CDATA[Acs Nano]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[12]]></prism:number>
<prism:volume><![CDATA[4]]></prism:volume> 
<prism:startingPage><![CDATA[7185]]></prism:startingPage>
<prism:endingPage><![CDATA[7192]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/fqKCPotOLtM/refshare</link>
<refworks:FD><![CDATA[DEC]]></refworks:FD>
<refworks:k1><![CDATA[ carbon nanotube growth]]></refworks:k1>
<refworks:k1><![CDATA[ catalytic chemical vapor deposition]]></refworks:k1>
<refworks:k1><![CDATA[ alkyne]]></refworks:k1>
<refworks:k1><![CDATA[ acetylene]]></refworks:k1>
<refworks:k1><![CDATA[ methyl acetylene]]></refworks:k1>
<refworks:k1><![CDATA[ vinyl acetylene]]></refworks:k1>
<refworks:k1><![CDATA[ efficiency]]></refworks:k1>
<refworks:k1><![CDATA[ environment]]></refworks:k1>
<refworks:k1><![CDATA[ HETEROGENEOUS CATALYSIS]]></refworks:k1>
<refworks:k1><![CDATA[ SOLUTION COPOLYMERIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ CVD PROCESS]]></refworks:k1>
<refworks:k1><![CDATA[ GROWTH]]></refworks:k1>
<refworks:k1><![CDATA[ OLEFINS]]></refworks:k1>
<refworks:k1><![CDATA[ DECOMPOSITION]]></refworks:k1>
<refworks:k1><![CDATA[ HYDROCARBONS]]></refworks:k1>
<refworks:k1><![CDATA[ TEMPERATURE]]></refworks:k1>
<refworks:k1><![CDATA[ KINETICS]]></refworks:k1>
<refworks:k1><![CDATA[ COBALT]]></refworks:k1>
<refworks:k1><![CDATA[ Chemistry, Multidisciplinary]]></refworks:k1>
<refworks:k1><![CDATA[ Nanoscience & Nanotechnology]]></refworks:k1>
<refworks:k1><![CDATA[ Materials Science, Multidisciplinary]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 33; TC: 1; J9: ACS NANO; PG: 8; GA: 696NW]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 1155 16TH ST, NW, WASHINGTON, DC 20036 USA]]></refworks:pp>
<refworks:sn><![CDATA[1936-0851]]></refworks:sn>
<refworks:ad><![CDATA[[Plata, Desiree L.; Reddy, Christopher M.] Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods Hole, MA 02543 USA. [Plata, Desiree L.; Gschwend, Philip M.] MIT, Dept Civil & Environm Engn, Cambridge, MA 02139 USA. [Meshot, Eric R.; Hart, A. John] Univ Michigan, Dept Mech Engn, Ann Arbor, MI 48109 USA.; Plata, DL, Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods Hole, MA 02543 USA.; dplata@alum.mit.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1021/nn101842g]]></refworks:do>
<refworks:id><![CDATA[25221]]></refworks:id>
<refworks:cr><![CDATA[CR: AGO H, 2006, CARBON, V44, P2912, DOI 10.1016/j.carbon.2006.05.049 CHOI KY, 1985, J APPL POLYM SCI, V30, P1065 ERES G, 2005, J PHYS CHEM B, V109, P16684, DOI 10.1021/jp051531i ERES G, 2009, J PHYS CHEM C, V113, P15484, DOI 10.1021/jp9001127 GUTOWSKI TG, 2009, ENVIRON SCI TECHNOL, V43, P1584, DOI 10.1021/es8016655 HART AJ, 2007, SMALL, V3, P772, DOI 10.1002/smll.200600716 HARUTYUNYAN AR, 2009, ACS NANO, V3, P379, DOI 10.1021/nn8005569 HATA K, 2004, SCIENCE, V306, P1362 HEALY ML, 2008, J IND ECOL, V12, P376, DOI 10.1111/j.1530-9290.2008.00058.x HOFMANN S, 2009, J PHYS CHEM C, V113, P1648, DOI 10.1021/jp808560p JABER IA, 1993, J APPL POLYM SCI, V50, P201 JABER IA, 1993, J APPL POLYM SCI, V50, P217 JEGANMOHAN M, 2008, CHEM-EUR J, V14, P10876, DOI 10.1002/chem.200800904 JOOSTEN A, 2008, ORGANOMETALLICS, V27, P4152, DOI 10.1021/om8002703 JOSELEVICH E, 2008, CARBON NANOTUBES, P101 LIJIMA S, 1991, NATURE, V354, P56 MA H, 2010, J PHYS CHEM C, V114, P2398, DOI 10.1021/jp905345p MESHOT ER, 2008, APPL PHYS LETT, V92, ARTN 113107 MESHOT ER, 2009, ACS NANO, V3, P2477, DOI 10.1021/nn900446a PLATA DL, 2009, ENVIRON SCI TECHNOL, V43, P8367, DOI 10.1021/es901626p RATY JY, 2005, PHYS REV LETT, V95, ARTN 096103 REILLY PTA, 2006, CARBON, V44, P1653, DOI 10.1016/j.carbon.2006.01.018 SEE CH, 2007, IND ENG CHEM RES, V46, P997, DOI 10.1021/ie060955b SHI YL, 2008, J AM CHEM SOC, V130, P2168, DOI 10.1021/ja710648b STEIN SE, 1985, J PHYS CHEM-US, V89, P3714 STEIN SE, 1990, 23 S INT COMB COMB I, P85 SUGIHARA T, 2001, CHEM-EUR J, V7, P1589 TIAN YJ, 2004, CHEM PHYS LETT, V388, P259, DOI 10.1016/j.cplett.2004.03.015 VANLAAKE L, 2007, REV SCI INSTRUM, V78, ARTN 083901 VASENKOV AV, 2009, J PHYS CHEM B, V113, P1877, DOI 10.1021/jp808346h WIRTH CT, 2009, ACS NANO, V3, P3560, DOI 10.1021/nn900613e YAMADA T, 2008, NANO LETT, V8, P4288, DOI 10.1021/nl801981m ZHONG G, 2009, J PHYS CHEM C, V113, P17321, DOI 10.1021/jp905134b]]></refworks:cr>
<refworks:jo><![CDATA[ACS Nano]]></refworks:jo>
<refworks:an><![CDATA[000285449100019]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25221</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25222">
<title><![CDATA[Comment on "The Incidence of Fire in Amazonian Forests with Implications for REDD"]]></title>
<dc:creator><![CDATA[Balch,Jennifer K.]]></dc:creator>
<dc:creator><![CDATA[ Nepstad,Daniel C.]]></dc:creator>
<dc:creator><![CDATA[ Brando,Paulo M.]]></dc:creator>
<dc:creator><![CDATA[ Alencar,Ane]]></dc:creator>
<description>Aragao and Shimabukuro (Reports, 4 June 2010, p. 1275) reported that fires increase in agricultural frontiers even as deforestation decreases and concluded that these fires lead to unaccounted carbon emissions under the United Nations climate treaty's tropical deforestation and forest degradation component. Emissions from post-deforestation management activities are, in fact, included in these estimates-but burning of standing forests is not.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=W-oF0EJLvvc:9ECbl5aQhh8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=W-oF0EJLvvc:9ECbl5aQhh8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=W-oF0EJLvvc:9ECbl5aQhh8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER ASSOC ADVANCEMENT SCIENCE]]></dc:publisher>
<prism:publicationName><![CDATA[Science]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[6011]]></prism:number>
<prism:volume><![CDATA[330]]></prism:volume> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/W-oF0EJLvvc/refshare</link>
<refworks:FD><![CDATA[DEC 17]]></refworks:FD>
<refworks:k1><![CDATA[ BRAZILIAN AMAZON]]></refworks:k1>
<refworks:k1><![CDATA[ DEFORESTATION]]></refworks:k1>
<refworks:k1><![CDATA[ EMISSIONS]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON]]></refworks:k1>
<refworks:k1><![CDATA[ Multidisciplinary Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 16; TC: 1; J9: SCIENCE; PG: 1; GA: 695RO]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 1200 NEW YORK AVE, NW, WASHINGTON, DC 20005 USA]]></refworks:pp>
<refworks:sn><![CDATA[0036-8075]]></refworks:sn>
<refworks:ad><![CDATA[[Balch, Jennifer K.; Nepstad, Daniel C.; Brando, Paulo M.; Alencar, Ane] Amazon Environm Res Inst IPAM, BR-71503505 Brasilia, DF, Brazil. [Balch, Jennifer K.] Woods Hole Res Ctr, Woods Hole, MA 02540 USA. [Balch, Jennifer K.] Univ Calif Santa Barbara, Natl Ctr Ecol Anal & Synth, Santa Barbara, CA 93101 USA. [Alencar, Ane] Univ Florida, Sch Forest Resources & Conservat, Gainesville, FL 32611 USA.; Balch, JK, Amazon Environm Res Inst IPAM, BR-71503505 Brasilia, DF, Brazil.; balch@nceas.ucsb.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Editorial Material]]></refworks:sf>
<refworks:do><![CDATA[10.1126/science.1194032]]></refworks:do>
<refworks:id><![CDATA[25222]]></refworks:id>
<refworks:cr><![CDATA[CR: *INPE, ANN ACC NOAA 15 ACT *INPE, MON BRAZ AM FOR SAT ALENCAR A, 2006, EARTH INTERACT, V10, P1, DOI 10.1175/EI150.1 ARAGAO LEOC, 2010, SCIENCE, V328, P1275, DOI 10.1126/science.1186925 ASNER GP, 2010, P NATL ACAD SCI USA, V107, P16738, DOI 10.1073/pnas.1004875107 BALCH JK, 2008, GLOBAL CHANGE BIOL, V14, P2276, DOI 10.1111/j.1365-2486.2008.01655.x BARLOW J, 2006, EMERGING THREATS TRO, P225 FEARNSIDE PM, 1997, CLIMATIC CHANGE, V35, P321 HAYASHI S, 2010, IMAZON B TRANSPARENC HOUGHTON RA, 2000, NATURE, V403, P301 MORTON DC, 2008, GLOBAL CHANGE BIOL, V14, P2262, DOI 10.1111/j.1365-2486.2008.01652.x NEPSTAD D, 2001, FOREST ECOL MANAG, V154, P395 NEPSTAD D, 2009, SCIENCE, V326, P1350, DOI 10.1126/science.1182108 NEPSTAD DC, 1999, NATURE, V398, P505 SCHROEDER W, 2005, EARTH INTERACT, V9, P1, DOI 10.1175/E1120.1 STICKLER CM, 2009, GLOBAL CHANGE BIOL, V15, P2803, DOI 10.1111/j.1365-2486.2009.02109.x]]></refworks:cr>
<refworks:jo><![CDATA[Science]]></refworks:jo>
<refworks:an><![CDATA[000285390500045]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25222</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25223">
<title><![CDATA[Editorial: Special Issue on the 2006 Shallow Water Experiment (Part II)]]></title>
<dc:creator><![CDATA[Chapman,N. Ross]]></dc:creator>
<dc:creator><![CDATA[ Lynch,James F.]]></dc:creator>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[682]]></prism:startingPage>
<prism:endingPage><![CDATA[683]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/Eqb0Vyw192o/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 0; TC: 0; J9: IEEE J OCEANIC ENG; PG: 2; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Chapman, N. Ross] Univ Victoria, Sch Earth & Ocean Sci, Victoria, BC V8W 3V6, Canada. [Lynch, James F.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.; Chapman, NR, Univ Victoria, Sch Earth & Ocean Sci, Victoria, BC V8W 3V6, Canada.; chapman@uvic.ca jlynch@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Editorial Material]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2085531]]></refworks:do>
<refworks:id><![CDATA[25223]]></refworks:id>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100002]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><description>&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=Eqb0Vyw192o:D3kW6v1qEWE:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=Eqb0Vyw192o:D3kW6v1qEWE:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=Eqb0Vyw192o:D3kW6v1qEWE:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25223</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25224">
<title><![CDATA[Observations of Broadband Acoustic Backscattering From Nonlinear Internal Waves: Assessing the Contribution From Microstructure]]></title>
<dc:creator><![CDATA[Lavery,Andone C.]]></dc:creator>
<dc:creator><![CDATA[ Chu,Dezhang]]></dc:creator>
<dc:creator><![CDATA[ Moum,James N.]]></dc:creator>
<description>In this paper, measurements of high-frequency broadband (160-590 kHz) acoustic backscattering from surface trapped nonlinear internal waves of depression are presented. These waves are ideal for assessing the contribution from oceanic microstructure to scattering as they are intensely turbulent. Almost coincident direct microstructure measurements were performed and zooplankton community structure was characterized using depth-resolved net sampling techniques. The contribution to scattering from microstructure can be difficult to distinguish from the contribution to scattering from zooplankton using a single narrowband frequency as microstructure and zooplankton are often colocated and can have similar scattering levels over a range of frequencies. Yet their spectra are distinct over a sufficiently broad frequency range, allowing broadband backscattering measurements to reduce the ambiguities typically associated with the interpretation of narrowband measurements. In addition, pulse compression signal processing techniques result in very high-resolution images, allowing physical processes that are otherwise hard to resolve to be imaged, such as Kelvin-Helmholtz shear instabilities. In this study, high-resolution acoustic observations of multiple nonlinear internal waves are presented and regions with distinct scattering spectra are identified. Spectra that decrease in level across the available frequency band were highly correlated to regions of intense turbulence and high stratification, and to Kevin-Helmholtz shear instabilities in particular. Spectra that increase in level across the available frequency band were consistent with scattering dominated by small zooplankton. Simple inversions for relevant microstructure parameters are presented. Limitations of, and improvements to, the broadband system and techniques utilized in this study are discussed.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=tnRgC7d5Qao:pIaoX3E4IEI:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=tnRgC7d5Qao:pIaoX3E4IEI:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=tnRgC7d5Qao:pIaoX3E4IEI:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[695]]></prism:startingPage>
<prism:endingPage><![CDATA[709]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/tnRgC7d5Qao/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ Acoustic scattering]]></refworks:k1>
<refworks:k1><![CDATA[ broadband]]></refworks:k1>
<refworks:k1><![CDATA[ nonlinear internal waves]]></refworks:k1>
<refworks:k1><![CDATA[ turbulent oceanic microstructure]]></refworks:k1>
<refworks:k1><![CDATA[ zooplankton]]></refworks:k1>
<refworks:k1><![CDATA[ SOLITARY WAVES]]></refworks:k1>
<refworks:k1><![CDATA[ ZOOPLANKTON GROUPS]]></refworks:k1>
<refworks:k1><![CDATA[ CONTINENTAL-SHELF]]></refworks:k1>
<refworks:k1><![CDATA[ SOUND-SCATTERING]]></refworks:k1>
<refworks:k1><![CDATA[ ECHO-SOUNDER]]></refworks:k1>
<refworks:k1><![CDATA[ TURBULENCE]]></refworks:k1>
<refworks:k1><![CDATA[ FREQUENCY]]></refworks:k1>
<refworks:k1><![CDATA[ ENERGY]]></refworks:k1>
<refworks:k1><![CDATA[ DISSIPATION]]></refworks:k1>
<refworks:k1><![CDATA[ CALIBRATION]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 38; TC: 0; J9: IEEE J OCEANIC ENG; PG: 15; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Lavery, Andone C.] Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA. [Chu, Dezhang] NW Fisheries Sci Ctr, Seattle, WA 98112 USA. [Moum, James N.] Oregon State Univ, Coll Ocean & Atmospher Sci, Corvallis, OR 97331 USA.; Lavery, AC, Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA.; alavery@whoi.edu Dezhang.Chu@noaa.gov moum@coas.oregonstate.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2047814]]></refworks:do>
<refworks:id><![CDATA[25224]]></refworks:id>
<refworks:cr><![CDATA[CR: CHU DZ, 1998, J ACOUST SOC AM, V104, P39 CUMMINS PF, 2006, J PHYS OCEANOGR, V36, P753 FARMER D, 1999, SCIENCE, V283, P188 FARMER DM, 1980, DEEP SEA RES A, V27, P239 FOOTE KG, 1984, J ACOUST SOC AM, V75, P612 HAURY TR, 1979, NATURE, V278, P312 KLYMAK JM, 2003, GEOPHYS RES LETT, V30, ARTN 2045 LAVERY AC, 2003, J ACOUST SOC AM, V114, P2685, DOI 10.1121/1.1614258 LAVERY AC, 2007, J ACOUST SOC AM, V122, P3304, DOI 10.1121/1.2793613 LAVERY AC, 2010, ICES J MAR SCI, V67, P379, DOI 10.1093/icesjms/fsp242 LEONG D, 2009, THESIS DALHOUSIE U H MOUM JN, 1995, J ATMOS OCEAN TECH, V12, P346 MOUM JN, 2003, J PHYS OCEANOGR, V33, P2093 MOUM JN, 2007, J PHYS OCEANOGR, V37, P1968, DOI 10.1175/JPO3094.1 MOUM JN, 2007, J PHYS OCEANOGR, V37, P1989, DOI 10.1175/JPO3091.1 OAKEY NS, 1982, J PHYS OCEANOGR, V12, P256 ORR MH, 2000, J ACOUST SOC AM, V108, P1595 PINEDA J, 1991, SCIENCE, V253, P548 PRONI JR, 1975, J GEOPHYS RES, V80, P1147 ROSS T, 2003, GEOPHYS RES LETT, V30, P1344 ROSS T, 2004, J FLUID MECH, V514, P107, DOI 10.1017/S0022112004000126 ROTHSCHILD BJ, 1988, J PLANKTON RES, V10, P465 SANDSTROM H, 1989, J PHYS OCEANOGR, V19, P987 SCOTTI A, 2006, J FLUID MECH, V561, P103, DOI 10.1017/S0022112006000991 SEIM HE, 1995, J ATMOS OCEAN TECH, V12, P367 SEURONT L, 2001, DEEP-SEA RES PT I, V48, P1199 SHROYER EL, 2009, J PHYS OCEANOGR, V39, P671 SMYTH WD, 2001, J PHYS OCEANOGR, V31, P1969 STANTON TK, 1998, J ACOUST SOC AM, V103, P225 STANTON TK, 1998, J ACOUST SOC AM, V103, P236 STANTON TK, 2008, J ACOUST SOC AM, V124, P128, DOI 10.1121/1.2917387 STANTON TK, 2010, ICES J MAR SCI, V67, P365, DOI 10.1093/icesjms/fsp262 TANG DJ, 2007, OCEANOGRAPHY, V20, P156 THORPE SA, 1994, J ATMOS OCEAN TECH, V11, P1273 TREVORROW MV, 1998, J GEOPHYS RES-OCEANS, V103, P7671 VAGLE S, 1992, J ATMOS OCEAN TECH, V9, P630, DOI 10.1175/1520-0426(1992)0092.0.C0;2 WARREN JD, 2003, ICES J MAR SCI, V60, P1033, DOI 10.1016/S1054-3139(03)00121-8 WIEBE PH, 1985, MAR BIOL, V87, P313]]></refworks:cr>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100004]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25224</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25225">
<title><![CDATA[Merging Multiple-Partial-Depth Data Time Series Using Objective Empirical Orthogonal Function Fitting]]></title>
<dc:creator><![CDATA[Lin,Ying-Tsong]]></dc:creator>
<dc:creator><![CDATA[ Newhall,Arthur E.]]></dc:creator>
<dc:creator><![CDATA[ Duda,Timothy F.]]></dc:creator>
<dc:creator><![CDATA[ Lermusiaux,Pierre F. J.]]></dc:creator>
<dc:creator><![CDATA[ Haley,Patrick J.]]></dc:creator>
<description>In this paper, a method for merging partial overlapping time series of ocean profiles into a single time series of profiles using empirical orthogonal function (EOF) decomposition with the objective analysis is presented. The method is used to handle internal waves passing two or more mooring locations from multiple directions, a situation where patterns of variability cannot be accounted for with a simple time lag. Data from one mooring are decomposed into linear combination of EOFs. Objective analysis using data from another mooring and these patterns is then used to build the necessary profile for merging the data, which is a linear combination of the EOFs. This method is applied to temperature data collected at a two vertical moorings in the 2006 New Jersey Shelf Shallow Water Experiment (SW06). Resulting profiles specify conditions for 35 days from sea surface to seafloor at a primary site and allow for reliable acoustic propagation modeling, mode decomposition, and beamforming.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=olsErMnDuGs:9yo2KieNi5w:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=olsErMnDuGs:9yo2KieNi5w:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=olsErMnDuGs:9yo2KieNi5w:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[710]]></prism:startingPage>
<prism:endingPage><![CDATA[721]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/olsErMnDuGs/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ Empirical orthogonal functions (EOFs)]]></refworks:k1>
<refworks:k1><![CDATA[ Mid-Atlantic Bight]]></refworks:k1>
<refworks:k1><![CDATA[ Massachusetts Institute of Technology Multidisciplinary Simulation, Estimation, and Assimilation System (MIT-MSEAS) ocean modeling system]]></refworks:k1>
<refworks:k1><![CDATA[ objective function fitting]]></refworks:k1>
<refworks:k1><![CDATA[ oceanographic data merging]]></refworks:k1>
<refworks:k1><![CDATA[ 2006 Shallow Water Experiment (SW06)]]></refworks:k1>
<refworks:k1><![CDATA[ DATA ASSIMILATION]]></refworks:k1>
<refworks:k1><![CDATA[ DESIGN]]></refworks:k1>
<refworks:k1><![CDATA[ SOUND]]></refworks:k1>
<refworks:k1><![CDATA[ MODEL]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 22; TC: 0; J9: IEEE J OCEANIC ENG; PG: 12; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Lin, Ying-Tsong; Newhall, Arthur E.; Duda, Timothy F.] Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA. [Lermusiaux, Pierre F. J.; Haley, Patrick J.] MIT, Cambridge, MA 02139 USA.; Lin, YT, Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA.; ytlin@whoi.edu anewhall@whoi.edu tduda@whoi.edu pierrel@mit.edu phaley@mit.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2052875]]></refworks:do>
<refworks:id><![CDATA[25225]]></refworks:id>
<refworks:cr><![CDATA[CR: *MSEAS GROUP, 2010, REP OC SCI ENG BALLARD MS, 2010, IEEE J OCEANIC ENG, V35, P28, DOI 10.1109/JOE.2009.2034490 BRETHERTON FP, 1976, DEEP-SEA RES, V23, P559 CHEN CT, 1977, J ACOUST SOC AM, V62, P1129 DAVIS RE, 1985, J GEOPHYS RES-OCEANS, V90, P4773 DUDA TF, 2002, J GEOPHYS RES-OCEANS, V107, ARTN 3145 EMERY WJ, 2001, DATA ANAL METHODS PH, CH4 GRABER HC, 2000, J ATMOS OCEAN TECH, V17, P708 HALEY PJ, 2006, HARVARD OCEAN PREDIC HALEYJR PJ, 2010, OCEAN DYN LEBLANC LR, 1980, J ACOUST SOC AM, V67, P2055 LERMUSIAUX PE, 1999, MON WEATHER REV, V127, P1408 LERMUSIAUX PFJ, 2006, J COMPUT PHYS, V217, P176, DOI 10.1016/j.jcp.2006.02.010 LERMUSIAUX PFJ, 2006, OCEANOGRAPHY, V19, P172 LERMUSIAUX PFJ, 2007, PHYSICA D, V230, P172, DOI 10.1016/j.physd.2007.02.014 LOGUTOV OG, 2008, OCEAN MODEL, V25, P17, DOI 10.1016/j.ocemod.2008.06.004 NEWHALL AE, 1990, COMPUTATIONAL ACOUST, P169 SAPSIS TP, 2009, PHYSICA D, V238, P2347, DOI 10.1016/j.physd.2009.09.017 SHMELEV A, 2008, COMMUNICATION APR TANG DJ, 2007, OCEANOGRAPHY, V20, P156 WUNSCH C, 1996, OCEAN CIRCULATION IN, CH3 YANG J, 2010, IEEE J OCEANIC ENG, V35, P1]]></refworks:cr>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100005]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25225</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25226">
<title><![CDATA[Investigation of Mode Filtering as a Preprocessing Method for Shallow-Water Acoustic Communications]]></title>
<dc:creator><![CDATA[Morozov,Andrey K.]]></dc:creator>
<dc:creator><![CDATA[ Preisig,James C.]]></dc:creator>
<dc:creator><![CDATA[ Papp,Joseph C.]]></dc:creator>
<description>Acoustical array data from the 2006 Shallow Water Experiment (SW06) was analyzed to show the feasibility of broadband mode decomposition as a preprocessing method to reduce the effective channel delay spread and concentrate received signal energy in a small number of independent channels. The data were collected by a vertical array, which spans the water column from 12-m depth to the bottom in shallow water 80 m in depth. Binary m-sequence data were used to phase-shift-keyed (PSK) modulate signals with different carrier frequencies. No error correction coding was used. The received signals were processed by a system that does not use training or pilot signals. Signals received both during periods of ordinary internal wave activity and during a period with unusually strong internal wave solitons were processed and analyzed. Different broadband mode-filtering methods were analyzed and tested. Broadband mode filtering decomposed the received signal into a number of independent signals with a reduced delay spread. The analysis of signals from the output of mode filters shows that even a simple demodulator can achieve a low bit error rate (BER) at a distance 19.2 km.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=HgyXtchEynk:icQc0ALiv78:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=HgyXtchEynk:icQc0ALiv78:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=HgyXtchEynk:icQc0ALiv78:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[744]]></prism:startingPage>
<prism:endingPage><![CDATA[755]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/HgyXtchEynk/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ Signal processing]]></refworks:k1>
<refworks:k1><![CDATA[ underwater acoustic arrays]]></refworks:k1>
<refworks:k1><![CDATA[ underwater acoustic communications]]></refworks:k1>
<refworks:k1><![CDATA[ SOURCE LOCALIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ ARRAY]]></refworks:k1>
<refworks:k1><![CDATA[ COHERENCE]]></refworks:k1>
<refworks:k1><![CDATA[ RANGE]]></refworks:k1>
<refworks:k1><![CDATA[ WAVES]]></refworks:k1>
<refworks:k1><![CDATA[ OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 32; TC: 0; J9: IEEE J OCEANIC ENG; PG: 12; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Morozov, Andrey K.; Preisig, James C.; Papp, Joseph C.] Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA.; Morozov, AK, Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA.; amorozov@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2045444]]></refworks:do>
<refworks:id><![CDATA[25226]]></refworks:id>
<refworks:cr><![CDATA[CR: BREKHOVSKIKH LM, 1991, FUNDAMENTALS OCEAN A, P296 BUCK JR, 1998, J ACOUST SOC AM, V103, P1813 CHEN HY, 1994, IEEE J OCEANIC ENG, V19, P166 CHEPURIN YA, 2007, ACOUST PHYS+, V53, P393, DOI 10.1134/S1063771007030141 CHIU CS, 1997, IEEE J OCEANIC ENG, V22, P522 COLLIS JM, 2008, J ACOUST SOC AM 2, V124, EL97, DOI 10.1121/1.2947630 DEFERRARI HA, 2008, J ACOUST SOC AM 2, V124, EL104, DOI 10.1121/1.2968304 DUDA TF, 2007, P 2 INT C UND AC MEA FERRIS RH, 1972, J ACOUST SOC AM, V52, P981 FORNEY GD, 1973, P IEEE, V61, P268 GRAY SD, 1997, IEEE T SIGNAL PROCES, V45, P148 HEADRICK RH, 2000, J ACOUST SOC AM, V107, P201 HEANEY KD, 1998, J ACOUST SOC AM, V104, P2149 INGENITO F, 1973, J ACOUST SOC AM, V53, P858 JENSEN FB, 2000, COMPUTATIONAL OCEAN, P578 JIANG YM, 2007, J ACOUST SOC AM, V121, P1879, DOI 10.1121/1.2642137 KUPERMAN WA, 1998, J ACOUST SOC AM, V103, P25 LUO J, 2008, J ACOUST SOC AM 2, V124, EL66, DOI 10.1121/1.2963087 LYNCH JF, 2010, IEEE J OCEANIC ENG, V35, P12, DOI 10.1109/JOE.2009.2038512 MOROZOV AK, 2006, P OCEANS C, DOI 10.1109/OCEANS.2006.307117 MOROZOV AK, 2008, J ACOUST SOC AM 2, V124, EL177, DOI 10.1121/1.2960954 MOROZOV AK, 2008, P 155 M AC SOC AM PA, V4 NEWHALL AE, 2007, ACOUSTIC OCEANOGRAPH NGUYEN HB, 1996, IEEE J OCEANIC ENG, V21, P85 RAHELI R, 1995, IEEE T COMMUN 1, V43, P354 ROY S, 2007, IEEE J OCEANIC ENG, V32, P663, DOI 10.1109/JOE.2007.899275 SUTTON P, 1994, J GEOPHYS RES-OCEANS, V99, P12487 TINDLE CT, 1978, J ACOUST SOC AM, V64, P1178 WAGE KE, 2003, J ACOUST SOC AM, V113, P801, DOI 10.1121/1.1530615 WAGE KE, 2005, J ACOUST SOC AM 2, V117, P1565, DOI 10.1121/1.1854551 YANG TC, 1987, J ACOUST SOC AM, V82, P1736 YANG TC, 1993, J ACOUST SOC AM, V93, P1797]]></refworks:cr>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100008]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25226</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25227">
<title><![CDATA[Passive Time Reversal Acoustic Communications Through Shallow-Water Internal Waves]]></title>
<dc:creator><![CDATA[Song,Aijun]]></dc:creator>
<dc:creator><![CDATA[ Badiey,Mohsen]]></dc:creator>
<dc:creator><![CDATA[ Newhall,Arthur E.]]></dc:creator>
<dc:creator><![CDATA[ Lynch,James F.]]></dc:creator>
<dc:creator><![CDATA[ DeFerrari,Harry A.]]></dc:creator>
<dc:creator><![CDATA[ Katsnelson,Boris G.]]></dc:creator>
<description>During a 12-h period in the 2006 Shallow Water Experiment (SW06), binary phase shift keying (BPSK) signals at the carrier frequencies of 813 and 1627 Hz were propagated over a 19.8-km source-receiver range when a packet of strong internal waves passed through the acoustic track. The communication data are analyzed by time reversal processing followed by a single-channel decision feedback equalizer. Two types of internal wave effects are investigated in the context of acoustic communications. One is the rapid channel fluctuation within 90-s data packets. It can be characterized as decreased channel coherence, which was the result of fast sound-speed perturbations during the internal wave passage. We show its effect on the time reversal receiver performance and apply channel tracking in the receiver to counteract such fluctuation. The other one is the long-term (in the scale of hours) performance degradation in the depressed waveguide when the internal waves passed through the acoustic track. Even with channel tracking, the time reversal receiver experiences average 3-4-dB decrease in the output signal-to-noise ratio (SNR). Such long-term performance degradation is explained by the ray approximation in the depressed waveguide.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0asQKDGHzdc:QZe_E2maIgg:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0asQKDGHzdc:QZe_E2maIgg:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=0asQKDGHzdc:QZe_E2maIgg:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[756]]></prism:startingPage>
<prism:endingPage><![CDATA[765]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/0asQKDGHzdc/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ Acoustic communications]]></refworks:k1>
<refworks:k1><![CDATA[ decision feedback equalizers]]></refworks:k1>
<refworks:k1><![CDATA[ internal waves]]></refworks:k1>
<refworks:k1><![CDATA[ time reversal processing]]></refworks:k1>
<refworks:k1><![CDATA[ PHASE-CONJUGATION]]></refworks:k1>
<refworks:k1><![CDATA[ TEMPORAL COHERENCE]]></refworks:k1>
<refworks:k1><![CDATA[ INTENSITY FLUCTUATIONS]]></refworks:k1>
<refworks:k1><![CDATA[ SCATTERING EXPERIMENT]]></refworks:k1>
<refworks:k1><![CDATA[ OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ EQUALIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ DEPENDENCE]]></refworks:k1>
<refworks:k1><![CDATA[ SIGNALS]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 32; TC: 0; J9: IEEE J OCEANIC ENG; PG: 10; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Song, Aijun; Badiey, Mohsen] Univ Delaware, Coll Earth Ocean & Environm, Newark, DE 19716 USA. [Newhall, Arthur E.; Lynch, James F.] Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA. [DeFerrari, Harry A.] Univ Miami, Div Appl Marine Phys, Miami, FL 33149 USA. [Katsnelson, Boris G.] Voronezh State Univ, Dept Phys, Voronezh 394006, Russia.; Song, AJ, Univ Delaware, Coll Earth Ocean & Environm, Newark, DE 19716 USA.; ajsong@udel.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2060530]]></refworks:do>
<refworks:id><![CDATA[25227]]></refworks:id>
<refworks:cr><![CDATA[CR: APEL JR, 1997, IEEE J OCEANIC ENG, V22, P465 BADIEY M, 2002, IEEE J OCEANIC ENG, V27, P117 BADIEY M, 2005, J ACOUST SOC AM, V117, P613, DOI 10.1121/1.1828571 BADIEY M, 2007, J ACOUST SOC AM, V122, P747, DOI 10.1121/1.2722052 BREKHOVSKIKH LM, 2003, FUNDAMENTALS OCEAN A, P61 CARBONE NM, 2000, IEEE J OCEANIC ENG, V25, P84 CAREY WM, 1995, IEEE J OCEANIC ENG, V20, P321 DEFERRARI HA, 2008, J ACOUST SOC AM 2, V124, EL104, DOI 10.1121/1.2968304 EDELMANN GF, 2002, IEEE J OCEANIC ENG, V27, P602 FLYNN JA, 2004, IEEE J OCEANIC ENG, V29, P824, DOI 10.1109/JOE.2004.831618 GOMES J, 2008, J ACOUST SOC AM, V124, P1038, DOI 10.1121/1.2946711 HEADRICK RH, 2000, J ACOUST SOC AM, V107, P201 KATSNELSON B, 2008, J ACOUST SOC AM 2, V124, EL78, DOI 10.1121/1.2968294 KATSNELSON BG, 2002, SHALLOW WATER ACOUST, P30 KILFOYLE DB, 2000, IEEE J OCEANIC ENG, V25, P4 KUPERMAN WA, 1998, J ACOUST SOC AM, V103, P25 LUO J, 2008, J ACOUST SOC AM 2, V124, EL66, DOI 10.1121/1.2963087 NEWHALL AE, 2007, WHOI200704 PARVULESCU A, 1965, ELECTRON, V29, P223 PREISIG JC, 2005, J ACOUST SOC AM, V118, P263, DOI 10.1121/1.1907106 ROUSEFF D, 2001, IEEE J OCEANIC ENG, V26, P821 ROUSEFF D, 2002, J ACOUST SOC AM, V111, P1655 SONG A, 2008, J ACOUST SOC AM, V123, P856, DOI 10.1121/1.2828055 SONG HC, 2006, IEEE J OCEANIC ENG, V31, P487, DOI 10.1109/JOE.2006.876139 SONG HC, 2007, J ACOUST SOC AM, V121, P3277, DOI 10.1121/1.2721877 STOJANOVIC M, 1994, IEEE J OCEANIC ENG, V19, P100 YANG J, 2008, J ACOUST SOC AM, V124, EL166 YANG TC, 2003, IEEE J OCEANIC ENG, V28, P229, DOI 10.1109/JOE.2003.811895 YANG TC, 2004, P 18 INT C AC KYOT J, P975 YANG TC, 2005, IEEE J OCEANIC ENG, V30, P865, DOI 10.1109/JOE.2005.962126 YANG TC, 2006, J ACOUST SOC AM 1, V120, P2595, DOI 10.1121/1.2345910 YOO KB, 2005, IEEE J OCEANIC ENG, V30, P391, DOI 10.1109/JOE.2005.850867]]></refworks:cr>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100009]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25227</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25228">
<title><![CDATA[Underwater Tracking of Humpback Whales (Megaptera Novaeangliae) With High-Frequency Pingers and Acoustic Recording Tags]]></title>
<dc:creator><![CDATA[Schmidt,Val]]></dc:creator>
<dc:creator><![CDATA[ Weber,Thomas C.]]></dc:creator>
<dc:creator><![CDATA[ Wiley,David N.]]></dc:creator>
<dc:creator><![CDATA[ Johnson,Mark P.]]></dc:creator>
<description>A long-baseline (LBL) acoustic system has been developed for the tracking of humpback whales (Megaptera novaeangliae) that have been tagged with digital acoustic recording devices (DTAGs), providing quantitative observations of submerged whale behavior during bubble net feeding. The system includes three high-frequency acoustic sources deployed from small boats that follow the whale after the animal has been tagged. Integrated global positioning systems (GPSs) provide positioning and synchronized operation of the sources. Time-encoded acoustic signals from the sources are recorded along with whale vocalizations and ambient noise on the whale tag. Time-of-flight measurements, as measured by the tag acoustic data, are converted to range from the whale to each source with a measured sound-speed profile. A nonlinear least squares solution is then solved for the whale's position with a nominal positional fix rate of once per second. The system is demonstrated with data collected from a tagged animal in summer 2007. Dead-reckoned track generation methods commonly used in previous studies are shown to capture the qualitative nature of the whale track, albeit with poor absolute positional accuracy, and to distort the track when the whale's movement is predominantly vertical. In contrast, the LBL data can provide quantitative measures of whale behavior. Transit speeds between bubble net feeding events for this case study are found to range from 0.7 to 1.9 m . s(-1) (n = 8). The mean diameter of bubble net curtains are measured to range from 9.6 to 10.9 m. Whale speeds during bubble net rotations vary from 1.0 to 1.9 m . s(-1) (n = 6).&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=UPSsXbmxF-s:vWjvy-1UkH4:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=UPSsXbmxF-s:vWjvy-1UkH4:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=UPSsXbmxF-s:vWjvy-1UkH4:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC]]></dc:publisher>
<prism:publicationName><![CDATA[IEEE Journal of Oceanic Engineering]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[35]]></prism:volume> 
<prism:startingPage><![CDATA[821]]></prism:startingPage>
<prism:endingPage><![CDATA[836]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/UPSsXbmxF-s/refshare</link>
<refworks:FD><![CDATA[OCT]]></refworks:FD>
<refworks:k1><![CDATA[ acoustic positioning]]></refworks:k1>
<refworks:k1><![CDATA[ long-baseline (LBL) positioning]]></refworks:k1>
<refworks:k1><![CDATA[ marine mammal]]></refworks:k1>
<refworks:k1><![CDATA[ whale tracking]]></refworks:k1>
<refworks:k1><![CDATA[ NORTHERN ELEPHANT SEALS]]></refworks:k1>
<refworks:k1><![CDATA[ PHYSETER-MACROCEPHALUS]]></refworks:k1>
<refworks:k1><![CDATA[ DIVING BEHAVIOR]]></refworks:k1>
<refworks:k1><![CDATA[ MARINE MAMMALS]]></refworks:k1>
<refworks:k1><![CDATA[ SOUND]]></refworks:k1>
<refworks:k1><![CDATA[ ARRAY]]></refworks:k1>
<refworks:k1><![CDATA[ LOCALIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ HYDROPHONE]]></refworks:k1>
<refworks:k1><![CDATA[ CLICKS]]></refworks:k1>
<refworks:k1><![CDATA[ MODEL]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Civil]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ Engineering, Electrical & Electronic]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 43; TC: 0; J9: IEEE J OCEANIC ENG; PG: 16; GA: 688LP]]></refworks:no>
<refworks:pp><![CDATA[PISCATAWAY; 445 HOES LANE, PISCATAWAY, NJ 08855-4141 USA]]></refworks:pp>
<refworks:sn><![CDATA[0364-9059]]></refworks:sn>
<refworks:ad><![CDATA[[Schmidt, Val; Weber, Thomas C.] Univ New Hampshire, Ctr Coastal & Ocean Mapping, Durham, NH 03820 USA. [Wiley, David N.] Natl Oceanog & Atmospher Adm, Stellwagen Bank Natl Marine Sanctuary, Situate, MA 02040 USA. [Johnson, Mark P.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.; Schmidt, V, Univ New Hampshire, Ctr Coastal & Ocean Mapping, Durham, NH 03820 USA.; vschmidt@ccom.unh.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1109/JOE.2010.2068610]]></refworks:do>
<refworks:id><![CDATA[25228]]></refworks:id>
<refworks:cr><![CDATA[CR: *CIT, CORR CRYST CUT FREQ *CIT, 2007, AT CUT CRYST UN CS20, P25 ALLAN AL, 2004, MATHS MAP MAKERS, CH13 BAUMGARTNER MF, 2008, IEEE J OCEANIC ENG, V33, P146, DOI 10.1109/JOE.2007.912496 BURGESS WC, 1998, DEEP-SEA RES PT II, V45, P1327 FLETCHER S, 1996, J ACOUST SOC AM 1, V100, P2531 FRIEDLAENDER AS, 2009, MAR ECOL-PROG SER, V395, P91, DOI 10.3354/meps08003 GOLDBOGEN JA, 2006, J EXP BIOL, V209, P1231, DOI 10.1242/jeb.02135 GOLDBOGEN JA, 2007, MAR ECOL-PROG SER, V349, P289, DOI 10.3354/meps07066 GOODYEAR JD, 1993, J WILDLIFE MANAGE, V57, P503 HAIN JHW, 1995, MAR MAMMAL SCI, V11, P464 HELWEG DA, 2000, 1835 US NAV SPAWAR S HOOKER SK, 2001, MAMMAL REV, V31, P81 JOHNSON M, 2008, P R SOC B, V275, P133, DOI 10.1098/rspb.2007.1190 JOHNSON MP, 2003, IEEE J OCEANIC ENG, V28, P3, DOI 10.1109/JOE.2002.808212 KOOYMAN GL, 1976, SCIENCE, V193, P411 LAPLANCHE C, 2006, J ACOUST SOC AM, V119, P4047 LUCIFREDI I, 2007, J ACOUST SOC AM, V121, P1383, DOI 10.1121/1.2436643 MADSEN PT, 2002, J EXP BIOL, V205, P1899 MARTIN SW, 2005, J ACOUST SOC AM 1, V117, P2301, DOI 10.1121/1.1867913 MILLER JH, 2001, P IEEE MTS OC HON, P2104 MILLER PJO, 2004, J EXP BIOL, V207, P1953, DOI 10.1242/jeb.00993 MOHL B, 2001, J ACOUST SOC AM, V109, P434 NOAD M, 2003, P ANN C AUSTR MAR SC, P126 NOAD MJ, 2006, J ACOUST SOC AM, V120, A3012 NOAD MJ, 2007, MAR MAMMAL SCI, V23, P481, DOI 10.1111/j.1748-7692.2007.02414.x NOWACEK NP, 2001, P R SOC, V268, P1811 PORTER MB, 1987, J ACOUST SOC AM, V82, P1349 SHARPE FA, 2001, THESIS S FRASER U BU SOUTHALL BL, 2007, AQUAT MAMM, V33, R1 STIMPERT AK, 2007, BIOLOGY LETT, V3, P467, DOI 10.1098/rsbl.2007.0281 THODE A, 2004, J ACOUST SOC AM, V116, P245, DOI 10.1121/1.1758972 TIEMANN CO, 2001, P MTS IEEE OCEANS C, V3, P1395 TIEMANN CO, 2004, J ACOUST SOC AM, V115, P2834, DOI 10.1121/1.1643368 TIEMANN CO, 2006, J ACOUST SOC AM, V120, P2355, DOI 10.1121/1.2335577 TORRIERI DJ, 2005, PRINCIPLES SPREAD SP, CH7 WAHLBERG M, 2002, J EXP MAR BIOL ECOL, V281, P53 WARE C, 2006, IEEE COMPUT GRAPH, V26, P14 XUE H, 2010, J PHYS OCEANOGR, V30, P1111 XUE HJ, 2000, J PHYS OCEANOGR, V30, P1111 ZIMMER WMX, 2003, IEEE J OCEANIC ENG, V28, P13, DOI 10.1109/JOE.2002.808209 ZIMMER WMX, 2005, J ACOUST SOC AM 1, V117, P1473, DOI 10.1121/1.1828501 ZIMMER WMX, 2005, J ACOUST SOC AM, V117, P3919, DOI 10.1121/1.1910225]]></refworks:cr>
<refworks:jo><![CDATA[IEEE J.Ocean.Eng.]]></refworks:jo>
<refworks:an><![CDATA[000284851100015]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25228</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25229">
<title><![CDATA[Gene and protein structure of the mate recognition protein gene family in Brachionus manjavacas (Rotifera)]]></title>
<dc:creator><![CDATA[Gribble,Kristin E.]]></dc:creator>
<dc:creator><![CDATA[ Snell,Terry]]></dc:creator>
<dc:creator><![CDATA[ Welch,David B. Mark]]></dc:creator>
<description>The mate recognition protein (MRP) gene is a member of a family of extracellular matrix protein genes, called MRP Motif Repeat (MMR) genes, with no known homologs. Two sets of MMR genes, designated MMR-A and MMR-B, were found in Brachionus manjavacas. MMR-B has previously been shown to encode the MRP in the Brachionus plicatilis species complex. MMR family genes share the same basic structure: a signal peptide sequence, followed by nearly identical 276 bp (MMR-A) or 261 bp (MMR-B) repeats, with a truncated final repeat. Each repeat of the predicted MMR-A and -B proteins is expected to have a secondary structure of 5 alpha-helices, ranging in length from 11 to 20 amino acids, separated by coils of 1-3 amino acids. Hydrophobic and hydrophilic amino acids are predicted to be partitioned to opposite sides of each alpha-helix, suggesting that MMR proteins are globular with a hydrophobic core. MMR-A and MMR-B proteins vary in their post-translational modifications, resulting in differences in size and charge, and likely causing differences in the physical properties of the proteins on the surface of the female, and their ability to be recognized by a receptor on a male rotifer. The identity of MMR gene repeats is theorized to be maintained by concerted evolution, through a process of unequal crossing over and/or gene conversion, with new mutations likely to be lost. Rarely, however, the same process of concerted evolution can rapidly spread a mutation across all of the repeats. When a mutation results in conformational changes in the protein detectable by males, it could lead to reproductive isolation and thereby to speciation. Thus, changes in MRP could be a driving force in the high degree of species diversity seen within the B. plicatilis cryptic species complex.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ovflwc5S2HQ:UM6QErLdxq8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ovflwc5S2HQ:UM6QErLdxq8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=ovflwc5S2HQ:UM6QErLdxq8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[SPRINGER]]></dc:publisher>
<prism:publicationName><![CDATA[Hydrobiologia]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[662]]></prism:volume> 
<prism:startingPage><![CDATA[35]]></prism:startingPage>
<prism:endingPage><![CDATA[42]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/ovflwc5S2HQ/refshare</link>
<refworks:FD><![CDATA[MAR]]></refworks:FD>
<refworks:k1><![CDATA[ Mate recognition]]></refworks:k1>
<refworks:k1><![CDATA[ Protein structure]]></refworks:k1>
<refworks:k1><![CDATA[ Post-translational modification]]></refworks:k1>
<refworks:k1><![CDATA[ Glycoprotein]]></refworks:k1>
<refworks:k1><![CDATA[ Concerted evolution]]></refworks:k1>
<refworks:k1><![CDATA[ Pre-zygotic isolation]]></refworks:k1>
<refworks:k1><![CDATA[ BEHAVIORAL REPRODUCTIVE ISOLATION]]></refworks:k1>
<refworks:k1><![CDATA[ SPECIES COMPLEX]]></refworks:k1>
<refworks:k1><![CDATA[ CONCERTED]]></refworks:k1>
<refworks:k1><![CDATA[ EVOLUTION]]></refworks:k1>
<refworks:k1><![CDATA[ BDELLOID ROTIFERS]]></refworks:k1>
<refworks:k1><![CDATA[ PLICATILIS]]></refworks:k1>
<refworks:k1><![CDATA[ PHEROMONE]]></refworks:k1>
<refworks:k1><![CDATA[ IDENTIFICATION]]></refworks:k1>
<refworks:k1><![CDATA[ PREDICTION]]></refworks:k1>
<refworks:k1><![CDATA[ BOUNDARIES]]></refworks:k1>
<refworks:k1><![CDATA[ CHOICE]]></refworks:k1>
<refworks:k1><![CDATA[ Marine & Freshwater Biology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 32; TC: 0; J9: HYDROBIOLOGIA; PG: 8; GA: 689WC]]></refworks:no>
<refworks:pp><![CDATA[DORDRECHT; VAN GODEWIJCKSTRAAT 30, 3311 GZ DORDRECHT, NETHERLANDS]]></refworks:pp>
<refworks:sn><![CDATA[0018-8158]]></refworks:sn>
<refworks:ad><![CDATA[[Gribble, Kristin E.; Welch, David B. Mark] Marine Biol Lab, Josephine Bay Paul Ctr Comparat Mol Biol & Evolut, Woods Hole, MA 02543 USA. [Snell, Terry] Georgia Inst Technol, Sch Biol, Atlanta, GA 30332 USA.; Gribble, KE, Marine Biol Lab, Josephine Bay Paul Ctr Comparat Mol Biol & Evolut, Woods Hole, MA 02543 USA.; kgribble@mbl.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1007/s10750-010-0482-6]]></refworks:do>
<refworks:id><![CDATA[25229]]></refworks:id>
<refworks:cr><![CDATA[CR: BENDTSEN JD, 2004, J MOL BIOL, V340, P783, DOI 10.1016/j.jmb.2004.05.028 BENNETT RJ, 2003, MOL CELL BIOL, V23, P8189, DOI 10.1128/MCB.23.22.8189-8201.2003 BERRIEMAN HK, 2005, HYDROBIOLOGIA, V546, P125, DOI 10.1007/s10750-005-4109-2 BLOM N, 1999, J MOL BIOL, V294, P1351 DERRY AM, 2003, LIMNOL OCEANOGR, V48, P675 DOVER G, 1982, NATURE, V299, P111 ELDER JF, 1995, Q REV BIOL, V70, P297 FERRIS PJ, 1997, P NATL ACAD SCI USA, V94, P8634 FONTANETO D, 2007, HYDROBIOLOGIA, V583, P297, DOI 10.1007/s10750-007-0573-1 GARNIER J, 1978, J MOL BIOL, V120, P97 GILBERT JJ, 1963, J EXP BIOL, V40, P625 GILBERT JJ, 2005, HYDROBIOLOGIA, V546, P257, DOI 10.1007/s10750-005-4205-3 GOMEZ A, 1996, FUNCT ECOL, V10, P681 GOMEZ A, 2002, EVOLUTION, V56, P1431 GUILLARD RRL, 1975, CULTURE MARINE INVER HORTH L, 2007, GENOMICS, V90, P159, DOI 10.1016/j.ygeno.2007.03.021 LIAO DQ, 1999, AM J HUM GENET, V64, P24 MAYFIELD JA, 2001, SCIENCE, V292, P2482 NEI M, 1986, MOL BIOL EVOL, V3, P418 PUNTERVOLL P, 2003, NUCLEIC ACIDS RES, V31, P3625, DOI 10.1093/nar/gkg545 RICE P, 2000, TRENDS GENET, V16, P276 RICOMARTINEZ R, 1997, HYDROBIOLOGIA, V358, P71 ROZAS J, 2003, BIOINFORMATICS, V19, P2496, DOI 10.1093/bioinformatics/btg359 SNELL TW, 1983, EVOLUTION, V37, P1294 SNELL TW, 1989, HYDROBIOLOGIA, V186, P299 SNELL TW, 1995, MAR BIOL, V123, P347 SNELL TW, 2009, BMC BIOL, V7, ARTN 60 SNELL TW, 2010, MAR BIOTECHNOL, DOI 10.1007/S10126-010-9295-X SUATONI E, 2006, MOL PHYLOGENET EVOL, V41, P86, DOI 10.1016/j.ympev.2006.04.025 VACQUIER VD, 1998, SCIENCE, V281, P1995 WELCH DBM, 1998, HYDROBIOLOGIA, V387, P395 WELCH DBM, 2008, P NATL ACAD SCI USA, V105, P5145, DOI 10.1073/pnas.0800972105]]></refworks:cr>
<refworks:jo><![CDATA[Hydrobiologia]]></refworks:jo>
<refworks:an><![CDATA[000284960500006]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25229</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25230">
<title><![CDATA[Molecular evolution of the membrane associated progesterone receptor in the Brachionus plicatilis (Rotifera, Monogononta) species complex]]></title>
<dc:creator><![CDATA[Smith,Hilary A.]]></dc:creator>
<dc:creator><![CDATA[ Welch,David B. Mark]]></dc:creator>
<dc:creator><![CDATA[ Snell,Terry W.]]></dc:creator>
<description>Many studies have investigated physiological roles of the membrane associated progesterone receptor (MAPR), but little is known of its evolution. Marked variations in response to exogenous progesterone have been reported for four brachionid rotifer species, suggesting differences in progesterone signaling and reception. Here we report sequence variation for the MAPR gene in the Brachionus plicatilis species complex. Phylogenetic analysis of this receptor is compared with relatedness based on cytochrome c oxidase subunit 1 sequences. Nonsynonymous to synonymous site substitution rate ratios, amino acid divergence, and variations in predicted phosphorylation sites are examined to assess evolution of the MAPR among brachionid clades.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=TGLAX7zaqrU:NWlljdzLw_Q:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=TGLAX7zaqrU:NWlljdzLw_Q:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=TGLAX7zaqrU:NWlljdzLw_Q:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[SPRINGER]]></dc:publisher>
<prism:publicationName><![CDATA[Hydrobiologia]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[662]]></prism:volume> 
<prism:startingPage><![CDATA[99]]></prism:startingPage>
<prism:endingPage><![CDATA[106]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/TGLAX7zaqrU/refshare</link>
<refworks:FD><![CDATA[MAR]]></refworks:FD>
<refworks:k1><![CDATA[ d(N)/d(S)]]></refworks:k1>
<refworks:k1><![CDATA[ Gene tree]]></refworks:k1>
<refworks:k1><![CDATA[ PGRMC1]]></refworks:k1>
<refworks:k1><![CDATA[ Protein structure]]></refworks:k1>
<refworks:k1><![CDATA[ Signaling]]></refworks:k1>
<refworks:k1><![CDATA[ Substitution]]></refworks:k1>
<refworks:k1><![CDATA[ SEXUAL REPRODUCTION]]></refworks:k1>
<refworks:k1><![CDATA[ MAXIMUM-LIKELIHOOD]]></refworks:k1>
<refworks:k1><![CDATA[ PROTEIN]]></refworks:k1>
<refworks:k1><![CDATA[ SEQUENCE]]></refworks:k1>
<refworks:k1><![CDATA[ SELECTION]]></refworks:k1>
<refworks:k1><![CDATA[ AMPLIFICATION]]></refworks:k1>
<refworks:k1><![CDATA[ COMPONENT-1]]></refworks:k1>
<refworks:k1><![CDATA[ ADAPTATION]]></refworks:k1>
<refworks:k1><![CDATA[ SPECIATION]]></refworks:k1>
<refworks:k1><![CDATA[ PATTERNS]]></refworks:k1>
<refworks:k1><![CDATA[ Marine & Freshwater Biology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 38; TC: 0; J9: HYDROBIOLOGIA; PG: 8; GA: 689WC]]></refworks:no>
<refworks:pp><![CDATA[DORDRECHT; VAN GODEWIJCKSTRAAT 30, 3311 GZ DORDRECHT, NETHERLANDS]]></refworks:pp>
<refworks:sn><![CDATA[0018-8158]]></refworks:sn>
<refworks:ad><![CDATA[[Smith, Hilary A.; Snell, Terry W.] Georgia Inst Technol, Sch Biol, Atlanta, GA 30332 USA. [Welch, David B. Mark] Marine Biol Lab, Josephine Bay Paul Ctr Comparat Mol Biol & Evolut, Woods Hole, MA 02543 USA.; Smith, HA, Georgia Inst Technol, Sch Biol, Atlanta, GA 30332 USA.; hilary.smith@gatech.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Proceedings Paper]]></refworks:sf>
<refworks:do><![CDATA[10.1007/s10750-010-0484-4]]></refworks:do>
<refworks:id><![CDATA[25230]]></refworks:id>
<refworks:cr><![CDATA[CR: ABASCAL F, 2005, BIOINFORMATICS, V21, P2104, DOI 10.1093/bioinformatics/bti263 CAHILL MA, 2007, J STEROID BIOCHEM, V105, P16, DOI 10.1016/j.jsbmb.2007.02.002 CIVETTA A, 1998, MOL BIOL EVOL, V15, P901 DECASTRO E, 2006, NUCLEIC ACIDS RES, V34, W362, DOI 10.1093/nar/gkl124 EWING B, 1998, GENOME RES, V8, P186 FINN RD, 2008, NUCLEIC ACIDS RES, V36, D281, DOI 10.1093/nar/gkm960 FOLMER O, 1994, MOL MAR BIOL BIOTECH, V3, P294 FONTANETO D, 2007, HYDROBIOLOGIA, V583, P297, DOI 10.1007/s10750-007-0573-1 FROHMAN MA, 1988, P NATL ACAD SCI USA, V85, P8998 GELMAN A, 1992, STAT SCI, V7, P434 GIBRAT JF, 1996, CURR OPIN STRUC BIOL, V6, P377 GOMEZ A, 2002, EVOLUTION, V56, P1431 GORDON D, 1998, GENOME RES, V8, P195 HAAGLIAUTARD C, 2008, PLOS BIOL, V6, P1706, ARTN e204 HALL TA, 1999, NUCL ACIDS S SER, V41, P95 HUELSENBECK JP, 2001, BIOINFORMATICS, V17, P754 KETTERSON ED, 1999, AM NAT S, V154, S4 KISHINO H, 1989, J MOL EVOL, V29, P170 KROGH A, 2001, J MOL BIOL, V305, P567, DOI 10.1006/jmbi.2000.4315 LARKIN MA, 2007, BIOINFORMATICS, V23, P2947, DOI 10.1093/bioinformatics/btm404 LI WH, 1984, J MOL EVOL, V21, P58 MANSOURI MR, 2008, HUM MOL GENET, V17, P3776, DOI 10.1093/hmg/ddn274 MIFSUD W, 2002, GENOME BIOL, V3, ARTN 0068.1 NOTREDAME C, 2000, J MOL BIOL, V302, P205 PALME AE, 2008, MOL BIOL EVOL, V25, P2567, DOI 10.1093/molbev/msn194 RAMBAUT A, 2009, FIGTREE V1 2 2 ROHE HJ, 2009, PHARMACOL THERAPEUT, V121, P14, DOI 10.1016/j.pharmthera.2008.09.006 SCHWEDE T, 2003, NUCLEIC ACIDS RES, V31, P3381, DOI 10.1093/nar/gkg520 SNELL TW, 2005, HYDROBIOLOGIA, V546, P267, DOI 10.1007/s10750-005-4207-1 SNELL TW, 2006, MAR BIOL, V149, P763, DOI 10.1007/s00227-006-0251-2 SNELL TW, 2008, J EXP MAR BIOL ECOL, V363, P104, DOI 10.1016/j.jembe.2008.06.031 SNELL TW, 2009, BMC BIOL, V7, ARTN 60 SUATONI E, 2006, MOL PHYLOGENET EVOL, V41, P86, DOI 10.1016/j.ympev.2006.04.025 WANG YL, 2000, TRENDS BIOCHEM SCI, V25, P300 YANG ZH, 2002, MOL BIOL EVOL, V19, P908 YANG ZH, 2007, MOL BIOL EVOL, V24, P1586, DOI 10.1093/molbev/msm088 ZHANG JZ, 2005, MOL BIOL EVOL, V22, P2472, DOI 10.1093/molbev/msi237 ZWICKL DJ, 2006, GENETIC ALGORITHM AP, P115]]></refworks:cr>
<refworks:jo><![CDATA[Hydrobiologia]]></refworks:jo>
<refworks:an><![CDATA[000284960500013]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25230</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25231">
<title><![CDATA[Thoughts on a variable meridional overturning cell and a variable heat-flux to the atmosphere]]></title>
<dc:creator><![CDATA[Nof,Doron]]></dc:creator>
<dc:creator><![CDATA[ Van Gorder,Stephen]]></dc:creator>
<dc:creator><![CDATA[ Yu,Lisan]]></dc:creator>
<description>The atmospheric response to a potential slowdown of the Atlantic meridional overturning cell (AMOC) is examined using the nonlinear analytical approach (for Heinrich events) introduced by Sandal and Nof (Sandal, C. and Nof, D., A new analytical model for Heinrich events and climate instability. J. Phys. Oceanogr. 2008, 38, 451-466; SN, hereafter). Most numerical global climate models predict that the atmosphere should cool in response to the increased freshwater-fluxes (ohosingo) that slow the AMOC down and significantly reduce the heat-flux to the atmosphere. Our application of SN to the modern day climate suggests that the answer to the question of how the atmosphere responds to a slowing AMOC is not that simple. Within the (admittedly limited) dynamics which SN invoke, we find that, as the global numerical climate models predict, a slowdown of the AMOC will indeed cause the mean atmosphere of the entire Northern Hemisphere to cool. However, in contrast to the numerical predictions, our analytical approach suggests that a region in the immediate vicinity of the Atlantic convection (up to a distance of O(1000 km)) may warm up, not cool down (roughly 3 degrees C for 50% mass-transport reduction). For some extreme conditions of a constant atmospheric transport independent of the AMOC (which is not a part of the dynamics involved by SN), the atmosphere can indeed locally cool, but the cooling is minimal (less than 0.3 degrees C for a 50% ocean mass transport reduction), and the associated reduction in heat flux from the ocean to the atmosphere is almost totally negligible. We also place the SN results on a somewhat firmer ground by examining in detail about its closure condition and the most critical assumption adapted by SN. The first has to do with the ratio of the atmospheric and oceanic mass transports (assumed unity in SN) and the second involves up-to-date maps of the ocean-atmosphere heat-fluxes. We show that the system of governing equations admits physically relevant solutions only for particular relationships between the atmospheric and ocean mass transports participating in the ocean-atmosphere heat exchange. Still, as the analytics misses critical atmospheric components such as moisture and variability in the heat exchange interaction area, our results can only serve as an indicator of the problem complexity.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=hcNcG38bjaw:-CXnsAmpARI:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=hcNcG38bjaw:-CXnsAmpARI:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=hcNcG38bjaw:-CXnsAmpARI:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[TAYLOR & FRANCIS LTD]]></dc:publisher>
<prism:publicationName><![CDATA[Geophysical and Astrophysical Fluid Dynamics]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[105]]></prism:volume> 
<prism:startingPage><![CDATA[1]]></prism:startingPage>
<prism:endingPage><![CDATA[22]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/hcNcG38bjaw/refshare</link>
<refworks:k1><![CDATA[ Atmosphere]]></refworks:k1>
<refworks:k1><![CDATA[ MOC]]></refworks:k1>
<refworks:k1><![CDATA[ Heat flux]]></refworks:k1>
<refworks:k1><![CDATA[ CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ 26.5-DEGREES-N]]></refworks:k1>
<refworks:k1><![CDATA[ OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ MODEL]]></refworks:k1>
<refworks:k1><![CDATA[ Astronomy & Astrophysics]]></refworks:k1>
<refworks:k1><![CDATA[ Geochemistry & Geophysics]]></refworks:k1>
<refworks:k1><![CDATA[ Mechanics]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 19; TC: 0; J9: GEOPHYS ASTROPHYS FLUID DYNAM; PG: 22; GA: 689VX]]></refworks:no>
<refworks:pp><![CDATA[ABINGDON; 4 PARK SQUARE, MILTON PARK, ABINGDON OX14 4RN, OXON, ENGLAND]]></refworks:pp>
<refworks:sn><![CDATA[0309-1929]]></refworks:sn>
<refworks:ad><![CDATA[[Nof, Doron; Van Gorder, Stephen] Florida State Univ, Dept Oceanog, Tallahassee, FL 32303 USA. [Nof, Doron] Florida State Univ, Inst Geophys Fluid Dynam, Tallahassee, FL 32303 USA. [Yu, Lisan] Woods Hole Oceanog Inst, Dept Phys Oceanog, Woods Hole, MA 02543 USA.; Nof, D, Florida State Univ, Dept Oceanog, Tallahassee, FL 32303 USA.; nof@ocean.fsu.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1080/03091929.2010.481383]]></refworks:do>
<refworks:id><![CDATA[25231]]></refworks:id>
<refworks:cr><![CDATA[CR: BRAYSHAW DJ, 2009, J CLIMATE, V22, P3146, DOI 10.1175/2008JCLI2594.1 BRYDEN HL, 2005, NATURE, V438, P655, DOI 10.1038/nature04385 CUNNINGHAM SA, 2007, SCIENCE, V317, P935, DOI 10.1126/science.1141304 CURRY R, 2005, SCIENCE, V308, P1772, DOI 10.1126/science.1109477 DEBOER AM, 2007, OCEAN SCI, V3, P55 DEVERDIERE AC, 2007, J PHYS OCEANOGR, V37, P1142, DOI 10.1175/JPO3056.1 GUPTA SK, 2006, NASA GEWEX SURFACE R HARTMANN DL, 1994, GLOBAL PHYS CLIMATOL, P411 JOHNSON HL, 2007, CLIM DYNAM, V29, P821, DOI 10.1007/s00382-007-0262-9 KANZOW T, 2007, SCIENCE, V317, P938, DOI 10.1126/science.1141293 MEINEN CS, 2008, US CLIVAR VARIATIONS, V6, P1 NOF D, 2007, DEEP-SEA RES PT I, V54, P2005, DOI 10.1016/j.dsr.2007.08.006 NOF D, 2008, EOS T AM GEOPHYS UN, V89, P544 POLTON JA, 2007, OCEAN SCI, V3, P17 SANDAL C, 2008, J PHYS OCEANOGR, V38, P451, DOI 10.1175/2007JPO3722.1 TOMCZAK M, 1994, REGIONAL OCEANOGRAPH WARREN BA, 1983, J MAR RES, V41, P327 WEIJER W, 2001, J PHYS OCEANOGR, V31, P2385 YU LS, 2007, B AM METEOROL SOC, V88, P527, DOI 10.1175/BAMS-88-4-527]]></refworks:cr>
<refworks:jo><![CDATA[Geophys.Astrophys.Fluid Dyn.]]></refworks:jo>
<refworks:an><![CDATA[000284959800001]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25231</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25232">
<title><![CDATA[Observed 20th century desert dust variability: impact on climate and biogeochemistry]]></title>
<dc:creator><![CDATA[Mahowald,N. M.]]></dc:creator>
<dc:creator><![CDATA[ Kloster,S.]]></dc:creator>
<dc:creator><![CDATA[ Engelstaedter,S.]]></dc:creator>
<dc:creator><![CDATA[ Moore,J. K.]]></dc:creator>
<dc:creator><![CDATA[ Mukhopadhyay,S.]]></dc:creator>
<dc:creator><![CDATA[ McConnell,J. R.]]></dc:creator>
<dc:creator><![CDATA[ Albani,S.]]></dc:creator>
<dc:creator><![CDATA[ Doney,S. C.]]></dc:creator>
<dc:creator><![CDATA[ Bhattacharya,A.]]></dc:creator>
<dc:creator><![CDATA[ Curran,M. A. J.]]></dc:creator>
<dc:creator><![CDATA[ Flanner,M. G.]]></dc:creator>
<dc:creator><![CDATA[ Hoffman,F. M.]]></dc:creator>
<dc:creator><![CDATA[ Lawrence,D. M.]]></dc:creator>
<dc:creator><![CDATA[ Lindsay,K.]]></dc:creator>
<dc:creator><![CDATA[ Mayewski,P. A.]]></dc:creator>
<dc:creator><![CDATA[ Neff,J.]]></dc:creator>
<dc:creator><![CDATA[ Rothenberg,D.]]></dc:creator>
<dc:creator><![CDATA[ Thomas,E.]]></dc:creator>
<dc:creator><![CDATA[ Thornton,P. E.]]></dc:creator>
<dc:creator><![CDATA[ Zender,C. S.]]></dc:creator>
<description>Desert dust perturbs climate by directly and indirectly interacting with incoming solar and outgoing long wave radiation, thereby changing precipitation and temperature, in addition to modifying ocean and land biogeochemistry. While we know that desert dust is sensitive to perturbations in climate and human land use, previous studies have been unable to determine whether humans were increasing or decreasing desert dust in the global average. Here we present observational estimates of desert dust based on paleodata proxies showing a doubling of desert dust during the 20th century over much, but not all the globe. Large uncertainties remain in estimates of desert dust variability over 20th century due to limited data. Using these observational estimates of desert dust change in combination with ocean, atmosphere and land models, we calculate the net radiative effect of these observed changes (top of atmosphere) over the 20th century to be -0.14 +/- 0.11 W/m(2) (1990-1999 vs. 1905-1914). The estimated radiative change due to dust is especially strong between the heavily loaded 1980-1989 and the less heavily loaded 1955-1964 time periods (-0.57 +/- 0.46 W/m(2)), which model simulations suggest may have reduced the rate of temperature increase between these time periods by 0.11 degrees C. Model simulations also indicate strong regional shifts in precipitation and temperature from desert dust changes, causing 6 ppm (12 PgC) reduction in model carbon uptake by the terrestrial biosphere over the 20th century. Desert dust carries iron, an important micronutrient for ocean biogeochemistry that can modulate ocean carbon storage; here we show that dust deposition trends increase ocean productivity by an estimated 6% over the 20th century, drawing down an additional 4 ppm (8 PgC) of carbon dioxide into the oceans. Thus, perturbations to desert dust over the 20th century inferred from observations are potentially important for climate and biogeochemistry, and our understanding of these changes and their impacts should continue to be refined.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=2Qs2UNQ7UbQ:ZsecM0XQwpk:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=2Qs2UNQ7UbQ:ZsecM0XQwpk:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=2Qs2UNQ7UbQ:ZsecM0XQwpk:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[COPERNICUS GESELLSCHAFT MBH]]></dc:publisher>
<prism:publicationName><![CDATA[Atmospheric Chemistry and Physics]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[22]]></prism:number>
<prism:volume><![CDATA[10]]></prism:volume> 
<prism:startingPage><![CDATA[10875]]></prism:startingPage>
<prism:endingPage><![CDATA[10893]]></prism:endingPage> 
<refworks:created><![CDATA[3/1/2011 2:23:12 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[12/29/2011 4:12:38 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/2Qs2UNQ7UbQ/refshare</link>
<refworks:k1><![CDATA[ ATMOSPHERIC MINERAL AEROSOLS]]></refworks:k1>
<refworks:k1><![CDATA[ GENERAL-CIRCULATION MODEL]]></refworks:k1>
<refworks:k1><![CDATA[ ICE CORE]]></refworks:k1>
<refworks:k1><![CDATA[ RECORDS]]></refworks:k1>
<refworks:k1><![CDATA[ INTERANNUAL VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ RELATIVE IMPORTANCE]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON-DIOXIDE]]></refworks:k1>
<refworks:k1><![CDATA[ NORTH-ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ AFRICAN DUST]]></refworks:k1>
<refworks:k1><![CDATA[ UPPER OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ LAND-USE]]></refworks:k1>
<refworks:k1><![CDATA[ Meteorology & Atmospheric Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 98; TC: 0; J9: ATMOS CHEM PHYS; PG: 19; GA: 687EG]]></refworks:no>
<refworks:pp><![CDATA[GOTTINGEN; BAHNHOFSALLEE 1E, GOTTINGEN, 37081, GERMANY]]></refworks:pp>
<refworks:sn><![CDATA[1680-7316]]></refworks:sn>
<refworks:ad><![CDATA[[Mahowald, N. M.; Kloster, S.; Engelstaedter, S.; Albani, S.; Rothenberg, D.] Cornell Univ, Dept Earth & Atmospher Sci, Ithaca, NY 14853 USA. [Moore, J. K.; Zender, C. S.] Univ Calif Irvine, Dept Earth Syst Sci, Irvine, CA 92697 USA. [Mukhopadhyay, S.; Bhattacharya, A.] Harvard Univ, Dept Earth & Planetary Sci, Cambridge, MA 02138 USA. [McConnell, J. R.] Desert Res Inst, Div Hydrol Sci, Reno, NV 89512 USA. [Albani, S.] Univ Milano Bicocca, Dept Environm Sci, I-20126 Milan, Italy. [Doney, S. C.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Curran, M. A. J.] Australian Antarctic Div, Kingston, Tas 7050, Australia. [Curran, M. A. J.] Antarctic Climate & Ecosyst Cooperat Res Ctr, Hobart, Tas 7001, Australia. [Flanner, M. G.; Thornton, P. E.] Univ Michigan, Dept Atmospher Ocean & Space Sci, Ann Arbor, MI 48109 USA. [Hoffman, F. M.] Oak Ridge Natl Lab, Computat Earth Sci Grp, Oak Ridge, TN 37831 USA. [Lawrence, D. M.; Lindsay, K.] Natl Ctr Atmospher Res, Climate & Global Dynam Div, Boulder, CO 80307 USA. [Mayewski, P. A.] Univ Maine, Climate Change Inst, Orono, ME 04469 USA. [Neff, J.] Univ Colorado, Dept Geosci, Boulder, CO 80301 USA. [Neff, J.] Univ Colorado, Environm Studies Program, Boulder, CO 80301 USA. [Thomas, E.] British Antarctic Survey, Cambridge CB3 0ET, England.; Mahowald, NM, Cornell Univ, Dept Earth & Atmospher Sci, Ithaca, NY 14853 USA.; mahowald@cornell.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.5194/acp-10-10875-2010]]></refworks:do>
<refworks:id><![CDATA[25232]]></refworks:id>
<refworks:cr><![CDATA[CR: ALLAN R, 2006, J CLIMATE, V19, P5816 ANDERSEN KK, 1998, GEOPHYS RES LETT, V25, P2281 AUMONT O, 2008, GEOPHYS RES LETT, V35, ARTN L07607 BONAN GB, 2002, GLOBAL BIOGEOCHEM CY, V16, ARTN 1021 BONFILS C, 2001, J CLIMATE, V14, P3724 BOYD PW, 2001, DEEP-SEA RES PT II, V48, P2425 BROHAN P, 2006, J GEOPHYS RES-ATMOS, V111, ARTN D12106 COLLINS WD, 2006, J CLIMATE, V19, P2122 COLLINS WD, 2006, J CLIMATE, V19, P2144 DAI A, 2004, J HYDROMETEOROL, V5, P1117 DELMONTE B, 2007, LATE QUATERNARY INTE, P53 DELMONTE B, 2008, GEOPHYS RES LETT, V35, ARTN L08707 DEMOTT PJ, 2003, GEOPHYS RES LETT, V30, ARTN 1732 DENTENER FJ, 1996, J GEOPHYS RES-ATMOS, V101, P22869 DONARUMMO J, 2002, GEOPHYS RES LETT, V29, ARTN 1361 DONEY SC, 2009, J MARINE SYST, V76, P95, DOI 10.1016/j.jmarsys.2008.05.015 FALKOWSKI PG, 1998, SCIENCE, V281, P200 FLANNER MG, 2006, J GEOPHYS RES-ATMOS, V111, ARTN D12208 FLANNER MG, 2007, J GEOPHYS RES-ATMOS, V112, ARTN D11202 FLANNER MG, 2009, ATMOS CHEM PHYS, V9, P2481 FORSTER P, 2007, CLIMATE CHANGE 2007, P130 FUNG IY, 2000, GLOBAL BIOGEOCHEM CY, V14, P281 GAIERO DM, 2008, GEOPHYS RES LETT, V35, ARTN L08708 GILLETTE DA, 1988, J GEOPHYS RES, V93, P12645 GILLETTE DA, 1997, J GEOPHYS RES-ATMOS, V102, P25989 GINOUX P, 2001, J GEOPHYS RES-ATMOS, V106, P20255 GROUSSET FE, 2005, CHEM GEOL, V222, P149, DOI 10.1016/j.chemgeo.2005.05.006 HOOSE C, 2008, ENVIRON RES LETT, V3, ARTN 025003 JONES C, 2009, NATURE GEOSCI, V2, DOI 10.1038/NGEO1555 KASPARI S, 2007, GEOPHYS RES LETT, V34, ARTN L16701 KOHFELD KE, 2001, EARTH-SCI REV, V54, P81 KORETSKY CM, 1997, GEOCHIM COSMOCHIM AC, V61, P2193 KRISHNAMURTHY A, 2009, GLOBAL BIOGEOCHEM CY, V23, ARTN GB3016 LEQUERE C, 2009, NAT GEOSCI, V2, P831, DOI 10.1038/ngeo689 LI F, 2008, J GEOPHYS RES-ATMOS, V113, ARTN D10207 LUO C, 2003, J GEOPHYS RES-ATMOS, V108, ARTN 4447 MAHOWALD N, 1999, J GEOPHYS RES-ATMOS, V104, P15895 MAHOWALD N, 2003, J GEOPHYS RES-ATMOS, V108, ARTN 4352 MAHOWALD N, 2010, QUARTERNARY IN PRESS MAHOWALD NM, 2002, J GEOPHYS RES-ATMOS, V107, ARTN 4561 MAHOWALD NM, 2003, GEOPHYS RES LETT, V30, ARTN 1475 MAHOWALD NM, 2003, GEOPHYS RES LETT, V30, ARTN 1903 MAHOWALD NM, 2004, GEOPHYS RES LETT, V31, ARTN L24105 MAHOWALD NM, 2006, GEOPHYS RES LETT, V33, ARTN L20705 MAHOWALD NM, 2006, J GEOPHYS RES-ATMOS, V111, ARTN D10202 MAHOWALD NM, 2007, GEOPHYS RES LETT, V34, ARTN L18817 MAHOWALD NM, 2009, ANNU REV MAR SCI, V1, P245, DOI 10.1146/annurev.marine.010908.163727 MALTRUD M, 2010, ATMOSPHERIC CA UNPUB MARINO F, 2008, GEOCHEM GEOPHY GEOSY, V9, ARTN Q10018 MARTIN JH, 1991, LIMNOL OCEANOGR, V36, P1793 MAYEWSKI PA, 1995, ANTARCT RES SER, V67, P33 MCCONNELL J, 2008, P NATL ACAD SCI USA, V105, DOI 10.1073/PNAS.083564105 MCCONNELL JR, 2007, P NATL ACAD SCI USA, V104, P5743, DOI 10.1073/pnas.0607657104 MEEKER LD, 2002, HOLOCENE, V12, P257 MERCADO LM, 2009, NATURE, V458, P1014, DOI 10.1038/nature07949 MILLER RL, 1998, J CLIMATE, V11, P3247 MOORE CM, 2006, GLOBAL CHANGE BIOL, V12, P626, DOI 10.1111/j.1365-2486.2006.01122.x MOSLEYTHOMPSON E, 1990, J GLACIOL, V14, P199 MOULIN C, 2006, GEOPHYS RES LETT, V33, ARTN L18808 MUKHOPADHYAY S, 2008, GEOPHYS RES LETT, V35, ARTN L20820 MULITZA S, 2010, NATURE, V466, P226, DOI 10.1038/nature09213 NEFF JC, 2005, ECOL APPL, V15, P87 NEFF JC, 2008, NATURE GEOSCI, V1, DOI 10.1038/NGEO OKIN GS, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB2005 OLESON KW, 2008, J GEOPHYS RES-BIOGEO, V113, ARTN G01021 PAREKH P, 2006, GEOPHYS RES LETT, V33, ARTN L03610 PATTERSON DB, 1999, GEOCHIM COSMOCHIM AC, V63, P615 PERLWITZ J, 2001, J GEOPHYS RES-ATMOS, V106, P18167 PETIT JR, 1999, NATURE, V399, P429 PROSPERO JM, 1999, P NATL ACAD SCI USA, V96, P3396 PROSPERO JM, 2002, REV GEOPHYS, V40, ARTN 1002 PROSPERO JM, 2003, SCIENCE, V302, P1024 REHEIS MC, 1997, J GEOPHYS RES-ATMOS, V102, P25999 ROSENFELD D, 1996, J APPL METEOROL, V35, P1502 ROSENFELD D, 2001, P NATL ACAD SCI USA, V98, P5975 ROSENFELD D, 2008, SCIENCE, V321, P1309, DOI 10.1126/science.1160606 SASSEN K, 2002, GEOPHYS RES LETT, V29, P12002, ARTN 1465 SITCH S, 2008, GLOBAL CHANGE BIOL, V14, P2015, DOI 10.1111/j.1365-2486.2008.01626.x SMITH SD, 2000, NATURE, V408, P79 SOUNEY JM, 2002, J GEOPHYS RES, V107, P1 SWAP R, 1992, TELLUS B, V44, P133 TEGEN I, 1995, J GEOPHYS RES-ATMOS, V100, P18707 TEGEN I, 1998, J GEOPHYS RES-ATMOS, V103, P25975 TEGEN I, 2004, GEOPHYS RES LETT, V31, ARTN L05105 THOMPSON LG, 1984, J GEOPHYS RES-ATMOSP, V89, P4638 THOMPSON LG, 1995, SCIENCE, V269, P46 THOMPSON LG, 2000, SCIENCE, V289, P5486 THOMPSON LG, 2002, SCIENCE, V298, P589 THORNTON PE, 2007, GLOBAL BIOGEOCHEM CY, V21, ARTN GB4018 THORNTON PE, 2009, BIOGEOSCIENCES, V6, P2099 VITOUSEK P, 2003, INTERACTIONS MAJOR B, P177 WERNER M, 2002, J GEOPHYS RES-ATMOS, V107, ARTN 4744 WINCKLER G, 2005, PALEOCEANOGRAPHY, V20, ARTN PA4025 YOSHIOKA M, 2005, J GEOPHYS RES-ATMOS, V110, ARTN D18S17 YOSHIOKA M, 2007, J CLIMATE, V20, P1445, DOI 10.1175/JCLI4056.1 ZDANOWICZ CM, 1998, TELLUS B, V50, P506 ZENDER CS, 2003, J GEOPHYS RES-ATMOS, V108, ARTN 4416 ZENDER CS, 2003, J GEOPHYS RES-ATMOS, V108, ARTN 4543]]></refworks:cr>
<refworks:jo><![CDATA[Atmos.Chem.Phys.]]></refworks:jo>
<refworks:an><![CDATA[000284759500011]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25232</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25204">
<title><![CDATA[Precursor gas chemistry determines the crystallinity of carbon nanotubes synthesized at low temperature]]></title>
<dc:creator><![CDATA[Nessim,Gilbert D.]]></dc:creator>
<dc:creator><![CDATA[ Seita,Matteo]]></dc:creator>
<dc:creator><![CDATA[ Plata,Desirée L.]]></dc:creator>
<dc:creator><![CDATA[ O’Brien,Kevin P.]]></dc:creator>
<dc:creator><![CDATA[ John Hart,A.]]></dc:creator>
<dc:creator><![CDATA[ Meshot,Eric R.]]></dc:creator>
<dc:creator><![CDATA[ Reddy,Christopher M.]]></dc:creator>
<dc:creator><![CDATA[ Gschwend,Philip M.]]></dc:creator>
<dc:creator><![CDATA[ Thompson,Carl V.]]></dc:creator>
<description>Despite significant progress in carbon nanotube (CNT) synthesis by thermal chemical vapor deposition (CVD), the factors determining the structure of the resulting carbon filaments and other graphitic nanocarbons are not well understood. Here, we demonstrate that gas chemistry influences the crystal structure of carbon filaments grown at low temperatures (500 °C). Using thermal CVD, we decoupled the thermal treatment of the gaseous precursors (C2H4/H2/Ar) and the substrate-supported catalyst. Varying the preheating temperature of the feedstock gas, we observed a striking transition between amorphous carbon nanofibers (CNFs) and crystalline CNTs. These results were confirmed using both a hot-wall CVD system and a cold-wall CVD reactor. Analysis of the exhaust gases (by ex situ gas chromatography) showed increasing concentrations of specific volatile organic compounds (VOCs) and polycyclic aromatic hydrocarbons (PAHs) that correlated with the structural transition observed (characterized using high-resolution transmission electron microscopy). This suggests that the crystallinity of carbon filaments may be controlled by the presence of specific gas phase precursor molecules (e.g., VOCs and PAHs). Thus, direct delivery of these molecules in the CVD process may enable selective CNF or CNT formation at low substrate temperatures. The inherent scalability of this approach could impact many promising applications, especially in the electronics industry.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0URjUzRHr-0:tNupulKFKzE:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0URjUzRHr-0:tNupulKFKzE:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=0URjUzRHr-0:tNupulKFKzE:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Carbon]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[3]]></prism:number>
<prism:volume><![CDATA[49]]></prism:volume> 
<prism:startingPage><![CDATA[804]]></prism:startingPage>
<prism:endingPage><![CDATA[810]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:00:53 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/0URjUzRHr-0/refshare</link>
<refworks:FD><![CDATA[3]]></refworks:FD>
<refworks:sn><![CDATA[0008-6223]]></refworks:sn>
<refworks:do><![CDATA[DOI: 10.1016/j.carbon.2010.10.018]]></refworks:do>
<refworks:id><![CDATA[25204]]></refworks:id>
<refworks:ul><![CDATA[http://www.sciencedirect.com/science/article/B6TWD-518TDV7-4/2/dcd68620bef1f0a95793c17de1ea23c3]]></refworks:ul>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25204</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25205">
<title><![CDATA[An assessment of Arctic Ocean freshwater content changes from the 1990s to the 2006–2008 period]]></title>
<dc:creator><![CDATA[Rabe,Benjamin]]></dc:creator>
<dc:creator><![CDATA[ Karcher,Michael]]></dc:creator>
<dc:creator><![CDATA[ Schauer,Ursula]]></dc:creator>
<dc:creator><![CDATA[ Toole,John M.]]></dc:creator>
<dc:creator><![CDATA[ Krishfield,Richard A.]]></dc:creator>
<dc:creator><![CDATA[ Pisarev,Sergey]]></dc:creator>
<dc:creator><![CDATA[ Kauker,Frank]]></dc:creator>
<dc:creator><![CDATA[ Gerdes,Rüdiger]]></dc:creator>
<dc:creator><![CDATA[ Kikuchi,Takashi]]></dc:creator>
<description>Unprecedented summer-season sampling of the Arctic Ocean during the period 2006–2008 makes possible a quasi-synoptic estimate of liquid freshwater (LFW) inventories in the Arctic Ocean basins. In comparison to observations from 1992 to 1999, LFW content relative to a salinity of 35 in the layer from the surface to the 34 isohaline increased by 8400±2000 km3 in the Arctic Ocean (water depth greater than 500 m). This is close to the annual export of freshwater (liquid and solid) from the Arctic Ocean reported in the literature. Observations and a model simulation show regional variations in LFW were both due to changes in the depth of the lower halocline, often forced by regional wind-induced Ekman pumping, and a mean freshening of the water column above this depth, associated with an increased net sea ice melt and advection of increased amounts of river water from the Siberian shelves. Over the whole Arctic Ocean, changes in the observed mean salinity above the 34 isohaline dominated estimated changes in LFW content; the contribution to LFW change by bounding isohaline depth changes was less than a quarter of the salinity contribution, and non-linear effects due to both factors were negligible.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=J2b2WOCXxl0:1eGWF3Awxqw:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=J2b2WOCXxl0:1eGWF3Awxqw:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=J2b2WOCXxl0:1eGWF3Awxqw:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Deep Sea Research Part I: Oceanographic Research Papers]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[58]]></prism:volume> 
<prism:startingPage><![CDATA[173]]></prism:startingPage>
<prism:endingPage><![CDATA[185]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:03:56 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/J2b2WOCXxl0/refshare</link>
<refworks:FD><![CDATA[2]]></refworks:FD>
<refworks:k1><![CDATA[ Arctic]]></refworks:k1>
<refworks:k1><![CDATA[ Freshwater]]></refworks:k1>
<refworks:k1><![CDATA[ Observation]]></refworks:k1>
<refworks:k1><![CDATA[ Model]]></refworks:k1>
<refworks:k1><![CDATA[ IPY]]></refworks:k1>
<refworks:k1><![CDATA[ Upper ocean]]></refworks:k1>
<refworks:sn><![CDATA[0967-0637]]></refworks:sn>
<refworks:do><![CDATA[DOI: 10.1016/j.dsr.2010.12.002]]></refworks:do>
<refworks:id><![CDATA[25205]]></refworks:id>
<refworks:ul><![CDATA[http://www.sciencedirect.com/science/article/B6VGB-51PRY50-1/2/660b6942b8ffd4ebb074066d76a24080]]></refworks:ul>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25205</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25206">
<title><![CDATA[Chemistry of hot springs along the Eastern Lau Spreading Center]]></title>
<dc:creator><![CDATA[Mottl,Michael J.]]></dc:creator>
<dc:creator><![CDATA[ Seewald,Jeffrey S.]]></dc:creator>
<dc:creator><![CDATA[ Wheat,C. Geoffrey]]></dc:creator>
<dc:creator><![CDATA[ Tivey,Margaret K.]]></dc:creator>
<dc:creator><![CDATA[ Michael,Peter J.]]></dc:creator>
<dc:creator><![CDATA[ Proskurowski,Giora]]></dc:creator>
<dc:creator><![CDATA[ McCollom,Thomas M.]]></dc:creator>
<dc:creator><![CDATA[ Reeves,Eoghan]]></dc:creator>
<dc:creator><![CDATA[ Sharkey,Jessica]]></dc:creator>
<dc:creator><![CDATA[ You,C. -F]]></dc:creator>
<dc:creator><![CDATA[ Chan,L. -H]]></dc:creator>
<dc:creator><![CDATA[ Pichler,Thomas]]></dc:creator>
<description>The Eastern Lau Spreading Center (ELSC) is the southernmost part of the back-arc spreading axis in the Lau Basin, west of the Tonga trench and the active Tofua volcanic arc. Over its 397-km length it exhibits large and systematic changes in spreading rate, magmatic/tectonic processes, and proximity to the volcanic arc. In 2005, we collected 81 samples of vent water from six hydrothermal fields along the ELSC. The chemistry of these waters varies both within and between vent fields, in response to changes in substrate composition, temperature and pressure, pH, water/rock ratio, and input from magmatic gases and subducted sediment. Hot-spring temperatures range from 229° to 363 °C at the five northernmost fields, with a general decrease to the south that is reversed at the Mariner field. The southernmost field, Vai Lili, emitted water at up to 334 °C in 1989 but had a maximum venting temperature of only 121 °C in 2005, due to waning activity and admixture of bottom seawater into the subseafloor plumbing system. Chloride varies both within fields and from one field to another, from a low of 528 mmol/kg to a high of 656 mmol/kg, and may be enriched by phase separation and/or leaching of Cl from the rock. Concentrations of the soluble elements K, Rb, Cs, and B likewise increase southward as the volcanic substrate becomes more silica-rich, especially on the Valu Fa Ridge. Iodine and δ7Li increase southward, and δ11B decreases as B increases, apparently in response to increased input from subducted sediment as the arc is approached. Species that decrease southward as temperature falls are Si, H2S, Li, Na/Cl, Fe, Mn, and 87Sr/86Sr, whereas pH, alkalinity, Ca, and Sr increase. Oxygen isotopes indicate a higher water/rock ratio in the three systems on Valu Fa Ridge, consistent with higher porosity in more felsic volcanic rocks. Vent waters at the Mariner vent field on the Valu Fa Ridge are significantly hotter, more acid and metal-rich, less saline, and richer in dissolved gases and other volatiles, including H2S, CO2, and F, than the other vent fields, consistent with input of magmatic gases. The large variations in geologic and geophysical parameters produced by back-arc spreading along the ELSC, which exceed those along mid-ocean ridge spreading axes, produce similar large variations in the composition of vent waters, and thus provide new insights into the processes that control the chemistry of submarine hot springs.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=-SeFy1J19Ik:DYEWSIF29rc:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=-SeFy1J19Ik:DYEWSIF29rc:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=-SeFy1J19Ik:DYEWSIF29rc:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Geochimica et Cosmochimica Acta]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[4]]></prism:number>
<prism:volume><![CDATA[75]]></prism:volume> 
<prism:startingPage><![CDATA[1013]]></prism:startingPage>
<prism:endingPage><![CDATA[1038]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:05:36 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/-SeFy1J19Ik/refshare</link>
<refworks:FD><![CDATA[2/15]]></refworks:FD>
<refworks:sn><![CDATA[0016-7037]]></refworks:sn>
<refworks:do><![CDATA[DOI: 10.1016/j.gca.2010.12.008]]></refworks:do>
<refworks:id><![CDATA[25206]]></refworks:id>
<refworks:ul><![CDATA[http://www.sciencedirect.com/science/article/B6V66-51PRYDC-1/2/e2c064e9f5105704a49376c621142bba]]></refworks:ul>
<refworks:jo><![CDATA[Geochim.Cosmochim.Acta]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25206</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25207">
<title><![CDATA[Bacteria in Beach Sands: An Emerging Challenge in Protecting Coastal Water Quality and Bather Health]]></title>
<dc:creator><![CDATA[Halliday,Elizabeth]]></dc:creator>
<dc:creator><![CDATA[ Gast,Rebecca J.]]></dc:creator>
<description>To protect bather health at recreational beaches, fecal indicator bacterial standards are used to monitor water quality, and waters exceeding the standards are subsequently closed to bathers. However beachgoers are also in contact with beach sands, the sanitary quality of which is not included within beach monitoring programs. In fact, sands and sediments provide habitat where fecal bacterial populations may persist, and in some cases grow, in the coastal zone. Specific pathogens are less well studied in beach sands and sediments, but there is a body of evidence that they too may persist in these environments. This paper reviews the current state of knowledge regarding the abundance and distribution of fecal indicator bacteria and pathogens in beach sands of diverse climatological regions, and at beaches subjected to varied levels of anthropogenic impact. In all regions fecal indicator bacteria are nearly ubiquitous in beach sands, and similar relationships emerge among fecal indicator abundance in dry sand, submerged sands, and water. Taken together, these studies contextualize a potential public health issue and identify research questions that must be addressed in order to support future policy decisions.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ritMU0D_SCg:ogFvX0MEECg:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ritMU0D_SCg:ogFvX0MEECg:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=ritMU0D_SCg:ogFvX0MEECg:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[American Chemical Society]]></dc:publisher>
<prism:publicationName><![CDATA[Environmental science & technology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[45]]></prism:volume> 
<prism:startingPage><![CDATA[370]]></prism:startingPage>
<prism:endingPage><![CDATA[379]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:31:00 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/ritMU0D_SCg/refshare</link>
<refworks:FD><![CDATA[01/15]]></refworks:FD>
<refworks:no><![CDATA[doi: 10.1021/es102747s; M3: doi: 10.1021/es102747s]]></refworks:no>
<refworks:sn><![CDATA[0013-936X]]></refworks:sn>
<refworks:lk><![CDATA[http://dx.doi.org/10.1021/es102747s]]></refworks:lk>
<refworks:do><![CDATA[10.1021/es102747s]]></refworks:do>
<refworks:id><![CDATA[25207]]></refworks:id>
<refworks:jo><![CDATA[Environ.Sci.Technol.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25207</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25208">
<title><![CDATA[Characterization of Cyanate Metabolism in Marine Synechococcus and Prochlorococcus spp.]]></title>
<dc:creator><![CDATA[Kamennaya,Nina A.]]></dc:creator>
<dc:creator><![CDATA[ Post,Anton F.]]></dc:creator>
<description>Cyanobacteria of the genera Synechococcus and Prochlorococcus are the most abundant photosynthetic organisms on earth, occupying a key position at the base of marine food webs. The cynS gene that encodes cyanase was identified among bacterial, fungal, and plant sequences in public databases, and the gene was particularly prevalent among cyanobacteria, including numerous Prochlorococcus and Synechococcus strains. Phylogenetic analysis of cynS sequences retrieved from the Global Ocean Survey database identified &gt;60% as belonging to unicellular marine cyanobacteria, suggesting an important role for cyanase in their nitrogen metabolism. We demonstrate here that marine cyanobacteria have a functionally active cyanase, the transcriptional regulation of which varies among strains and reflects the genomic context of cynS. In Prochlorococcus sp. strain MED4, cynS was presumably transcribed as part of the cynABDS operon, implying cyanase involvement in cyanate utilization. In Synechococcus sp. strain WH8102, expression was not related to nitrogen stress responses and here cyanase presumably serves in the detoxification of cyanate resulting from intracellular urea and/or carbamoyl phosphate decomposition. Lastly, we report on a cyanase activity encoded by cynH, a novel gene found in marine cyanobacteria only. The presence of dual cyanase genes in the genomes of seven marine Synechococcus strains and their respective roles in nitrogen metabolism remain to be clarified.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=F11GXV2DQaQ:bwixuvrPoV4:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=F11GXV2DQaQ:bwixuvrPoV4:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=F11GXV2DQaQ:bwixuvrPoV4:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER SOC MICROBIOLOGY]]></dc:publisher>
<prism:publicationName><![CDATA[Applied and Environmental Microbiology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1]]></prism:number>
<prism:volume><![CDATA[77]]></prism:volume> 
<prism:startingPage><![CDATA[291]]></prism:startingPage>
<prism:endingPage><![CDATA[301]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/F11GXV2DQaQ/refshare</link>
<refworks:FD><![CDATA[JAN]]></refworks:FD>
<refworks:k1><![CDATA[ TRANSCRIBED SPACER SEQUENCES]]></refworks:k1>
<refworks:k1><![CDATA[ CYANOBACTERIA]]></refworks:k1>
<refworks:k1><![CDATA[ GENOME]]></refworks:k1>
<refworks:k1><![CDATA[ OPERON]]></refworks:k1>
<refworks:k1><![CDATA[ PICOCYANOBACTERIA]]></refworks:k1>
<refworks:k1><![CDATA[ IDENTIFICATION]]></refworks:k1>
<refworks:k1><![CDATA[ VISUALIZATION]]></refworks:k1>
<refworks:k1><![CDATA[ DIVERSITY]]></refworks:k1>
<refworks:k1><![CDATA[ TRANSPORT]]></refworks:k1>
<refworks:k1><![CDATA[ ECOTYPES]]></refworks:k1>
<refworks:k1><![CDATA[ Biotechnology & Applied Microbiology]]></refworks:k1>
<refworks:k1><![CDATA[ Microbiology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 42; TC: 0; J9: APPL ENVIRON MICROBIOL; PG: 11; GA: 697WK]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 1752 N ST NW, WASHINGTON, DC 20036-2904 USA]]></refworks:pp>
<refworks:sn><![CDATA[0099-2240]]></refworks:sn>
<refworks:ad><![CDATA[[Post, Anton F.] Marine Biol Lab, Bay Paul Ctr Comparat Mol Biol & Evolut, Woods Hole, MA 02543 USA. [Kamennaya, Nina A.] Hebrew Univ Jerusalem, Dept Plant & Environm Sci, IL-91904 Jerusalem, Israel.; Post, AF, Marine Biol Lab, Bay Paul Ctr Comparat Mol Biol & Evolut, 7 MBL St, Woods Hole, MA 02543 USA.; apost@mbl.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1128/AEM.01272-10]]></refworks:do>
<refworks:id><![CDATA[25208]]></refworks:id>
<refworks:cr><![CDATA[CR: ANDERSON PM, 1980, BIOCHEMISTRY-US, V19, P2882 ANDERSON PM, 1990, FEMS MICROBIOL REV, V87, P247 BRADFORD MM, 1976, ANAL BIOCHEM, V72, P248, DOI 10.1016/0003-2697(76)90527-3 CHIN CCQ, 1983, J BIOL CHEM, V258, P276 DIRNHUBER P, 1948, BIOCHEM J, V42, P628 DUFRESNE A, 2008, GENOME BIOL, V9, NI239 EBBS S, 2004, CURR OPIN BIOTECH, V15, P231, DOI 10.1016/j.copbio.2004.03.006 EDGAR RC, 2004, NUCLEIC ACIDS RES, V32, P1792, DOI 10.1093/nar/gkh340 ELLEUCHE S, 2008, FUNGAL GENET BIOL, V45, P1458, DOI 10.1016/j.fgb.2008.08.005 ESPIE GS, 2007, J BACTERIOL, V189, P1013, DOI 10.1128/JB.01328-06 FUHRMAN JA, 2003, NATURE, V424, P1001, DOI 10.1038/4241001a FULLER NJ, 2003, APPL ENVIRON MICROB, V69, P2430, DOI 10.1128/AEM.69.5.2430-2443.2003 GELMAN A, 1992, STAT SCI, V7, P457 HARANO Y, 1997, J BACTERIOL, V179, P5744 HUELSENBECK JP, 2001, BIOINFORMATICS, V17, P754 JOHNSON WV, 1987, J BIOL CHEM, V262, P9021 KAMENNAYA NA, 2008, LIMNOL OCEANOGR, V53, P2485 KANEKO T, 1997, PLANT CELL PHYSIOL, V38, P1171 KANEKO T, 2007, DNA RES, V14, P247, DOI 10.1093/dnares/dsm026 KELLEY LA, 2009, NAT PROTOC, V4, P363, DOI 10.1038/nprot.2009.2 LAVIN P, 2008, REV CHIL HIST NAT, V81, P515 MAEDA S, 2009, J BACTERIOL, V191, P3265, DOI 10.1128/JB.00013-09 MARIER JR, 1964, ANAL BIOCHEM, V7, P304 MILLER AG, 1994, ARCH MICROBIOL, V162, P151 MOORE LR, 2002, LIMNOL OCEANOGR, V47, P989 PALENIK B, 2003, NATURE, V424, P1037, DOI 10.1038/nature01943 PARTHASARATHY H, 2007, PLOS BIOL, V5, P369, ARTN e83 PENNO S, 2006, ENVIRON MICROBIOL, V8, P1200, DOI 10.1111/j.1462-2920.2006.01010.x RIPPKA R, 1979, J GEN MICROBIOL, V111, P1 ROCAP G, 2002, APPL ENVIRON MICROB, V68, P1180, DOI 10.1128/AEM.68.3.1180-1191.2002 ROCAP G, 2003, NATURE, V424, P1042, DOI 10.1038/nature01947 RUTHERFORD K, 2000, BIOINFORMATICS, V16, P944 SCANLAN DJ, 2009, MICROBIOL MOL BIOL R, V73, P249, DOI 10.1128/MMBR.00035-08 SUNG YC, 1988, J BIOL CHEM, V263, P14769 SUNG YC, 1989, J BACTERIOL, V171, P4674 SWINGLEY WD, 2008, P NATL ACAD SCI USA, V105, P2005, DOI 10.1073/pnas.0709772105 TOLONEN AC, 2006, MOL SYST BIOL, V2, ARTN 53 WALSH MA, 2000, STRUCTURE, V8, P505 WATERBURY JB, 1986, PHOTOSYNTHETIC PICOP, V214, P71 WATERBURY JB, 1988, METHOD ENZYMOL, V167, P100 WATERBURY JB, 1989, BERGEYS MANUAL SYSTE, V3, P1728 WILSON D, 2009, NUCLEIC ACIDS RES, V37, D380, DOI 10.1093/nar/gkn762]]></refworks:cr>
<refworks:jo><![CDATA[Appl.Environ.Microbiol.]]></refworks:jo>
<refworks:an><![CDATA[000285550300031]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25208</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25209">
<title><![CDATA[Diversity in destinations, routes and timing of small adult and sub-adult striped bass Morone saxatilis on their southward autumn migration]]></title>
<dc:creator><![CDATA[Mather,M. E.]]></dc:creator>
<dc:creator><![CDATA[ Finn,J. T.]]></dc:creator>
<dc:creator><![CDATA[ Pautzke,S. M.]]></dc:creator>
<dc:creator><![CDATA[ Fox,D.]]></dc:creator>
<dc:creator><![CDATA[ Savoy,T.]]></dc:creator>
<dc:creator><![CDATA[ Brundage,H.M.,,III]]></dc:creator>
<dc:creator><![CDATA[ Deegan,L. A.]]></dc:creator>
<dc:creator><![CDATA[ Muth,R. M.]]></dc:creator>
<description>Almost three-quarters of the 46 young adult and sub-adult striped bass Morone saxatilis that were acoustically tagged in Plum Island Estuary, Massachusetts, U.S.A., in the summer of 2006 were detected in one or more southern coastal arrays during their autumn migration. On the basis of the trajectories along which these M. saxatilis moved from feeding to overwintering areas, three migratory groups emerged. After leaving Plum Island Estuary, about half of the fish were detected only in a mid-latitude array, Long Island Sound. The other half of the tagged fish were detected during autumn and winter in a more southern array, the Delaware Estuary. This latter group of fish may have used two routes. Some travelled to the Delaware Estuary through Long Island Sound while other fish may have taken a second, more direct, coastal route that did not include Long Island Sound. Consequently, a seemingly homogeneous group of fish tagged at the same time in the same non-natal feeding location exhibited a diversity of southward movement patterns that could affect population-level processes. These three groups that differed in overwintering location and migration route could be movement contingents with migratory connectivity.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=AZcvEK0niOU:9SHLTW8A-AY:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=AZcvEK0niOU:9SHLTW8A-AY:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=AZcvEK0niOU:9SHLTW8A-AY:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[WILEY-BLACKWELL PUBLISHING, INC]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of fish biology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[10]]></prism:number>
<prism:volume><![CDATA[77]]></prism:volume> 
<prism:startingPage><![CDATA[2326]]></prism:startingPage>
<prism:endingPage><![CDATA[2337]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/AZcvEK0niOU/refshare</link>
<refworks:FD><![CDATA[DEC]]></refworks:FD>
<refworks:k1><![CDATA[ coastal migration]]></refworks:k1>
<refworks:k1><![CDATA[ contingent]]></refworks:k1>
<refworks:k1><![CDATA[ Morone saxatilis]]></refworks:k1>
<refworks:k1><![CDATA[ overwinter]]></refworks:k1>
<refworks:k1><![CDATA[ ATLANTIC BLUEFIN TUNA]]></refworks:k1>
<refworks:k1><![CDATA[ SALMON SALMO-SALAR]]></refworks:k1>
<refworks:k1><![CDATA[ NORTH-SEA PLAICE]]></refworks:k1>
<refworks:k1><![CDATA[ COD]]></refworks:k1>
<refworks:k1><![CDATA[ GADUS-MORHUA]]></refworks:k1>
<refworks:k1><![CDATA[ POPULATION-STRUCTURE]]></refworks:k1>
<refworks:k1><![CDATA[ BEHAVIOR]]></refworks:k1>
<refworks:k1><![CDATA[ FIDELITY]]></refworks:k1>
<refworks:k1><![CDATA[ MOVEMENTS]]></refworks:k1>
<refworks:k1><![CDATA[ PATTERNS]]></refworks:k1>
<refworks:k1><![CDATA[ Fisheries]]></refworks:k1>
<refworks:k1><![CDATA[ Marine & Freshwater Biology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 39; TC: 0; J9: J FISH BIOL; PG: 12; GA: 693TZ]]></refworks:no>
<refworks:pp><![CDATA[MALDEN; COMMERCE PLACE, 350 MAIN ST, MALDEN 02148, MA USA]]></refworks:pp>
<refworks:sn><![CDATA[0022-1112]]></refworks:sn>
<refworks:ad><![CDATA[[Mather, M. E.] US Geol Survey, Massachusetts Cooperat Fish & Wildlife Res Unit, Amherst, MA 01003 USA. [Mather, M. E.; Finn, J. T.; Muth, R. M.] Univ Massachusetts, Dept Environm Conservat, Amherst, MA 01003 USA. [Fox, D.] Delaware State Univ, Dover, DE 19901 USA. [Savoy, T.] Connecticut Dept Environm Protect, Old Lyme, CT 06371 USA. [Brundage, H. M., III] Environm Res & Consulting Inc, Kennett Sq, PA 19348 USA. [Deegan, L. A.] Marine Biol Lab, Ctr Ecosyst, Woods Hole, MA 02543 USA.; Mather, ME, US Geol Survey, Massachusetts Cooperat Fish & Wildlife Res Unit, Amherst, MA 01003 USA.; mather@eco.umass.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1111/j.1095-8649.2010.02811.x]]></refworks:do>
<refworks:id><![CDATA[25209]]></refworks:id>
<refworks:cr><![CDATA[CR: AKESSON S, 2007, BIOSCIENCE, V57, P123, DOI 10.1641/B570207 ARMANNSSON H, 2007, ICES J MAR SCI, V64, P1006, DOI 10.1093/icesjms/fsm076 BAKER RR, 1978, EVOLUTIONARY ECOLOGY BAUER S, 2008, ECOLOGY, V89, P1953 BLOCK BA, 2005, NATURE, V434, P1121, DOI 10.1038/nature03463 BRIDGER CJ, 2003, REV FISH SCI, V11, P13 BUZBY KM, 2000, ENVIRON BIOL FISH, V59, P319 CALVERT AM, 2009, GLOBAL CHANGE BIOL, V15, P744, DOI 10.1111/j.1365-2486.2008.01733.x COLLETTE BB, 2002, FISHES GULF MAINE DINGLE H, 2007, BIOSCIENCE, V57, P113, DOI 10.1641/B570206 DORAZIO RM, 1994, T AM FISH SOC, V123, P950 ERICKSON DL, 2007, AM FISH S S, V56, P197 FERRY KH, 2003, THESIS U MASSACHUSET HUNTER E, 2003, P ROY SOC LOND B BIO, V270, P2097, DOI 10.1098/rspb.2003.2473 HUNTER E, 2004, J ANIM ECOL, V73, P377 JONES FRH, 1968, FISH MIGRATION KLEMETSEN A, 2003, ECOL FRESHW FISH, V12, P1 KNUTSEN JA, 2004, J FISH BIOL, V64, P89, DOI 10.1046/j.1095-8649.2003.00285.x KOSA JT, 2001, T AM FISH SOC, V130, P600 MATHER ME, 2009, FISH B-NOAA, V107, P329 MCCORMICK SD, 1998, CAN J FISH AQUAT S1, V55, P77 METCALFE JD, 2006, J FISH BIOL C, V69, P48, DOI 10.1111/j.1095-8649.2006.01275.x PAUTZKE SM, 2010, T AM FISH SOC, V139, P257, DOI 10.1577/T08-222.1 RAMENOFSKY M, 2007, BIOSCIENCE, V57, P135, DOI 10.1641/B570208 RIGHTON D, 2007, J MAR BIOL ASSOC UK, V87, P599, DOI 10.1017/S0025315407054641 ROBICHAUD D, 2004, FISH FISH, V5, P185 ROOKER JR, 2007, REV FISH SCI, V15, P265, DOI 10.1080/10641260701484135 ROSE GA, 1993, NATURE, V366, P458 SCHLOSSER IJ, 1991, BIOSCIENCE, V41, P704 SECOR DH, 1999, FISH RES, V43, P13 SMEDBOL RK, 2001, J FISH BIOL A, V59, P109 SOLMUNDSSON J, 2005, ICES J MAR SCI, V62, P189, DOI 10.1016/j.icesjms.2004.11.012 SZEDLMAYER ST, 2005, T AM FISH SOC, V134, P315, DOI 10.1577/T04-070.1 WALDMAN JR, 1990, T AM FISH SOC, V119, P910 WEBSTER MS, 2002, TRENDS ECOL EVOL, V17, P76 WENG KC, 2007, MAR BIOL, V152, P877, DOI 10.1007/s00227-007-0739-4 WILCOVE DS, 2008, PLOS BIOL, V6, P1361, ARTN e188 WINDLE MJS, 2005, FISH RES, V75, P193, DOI 10.1016/j.fishres.2005.05.006 WINGATE RL, 2007, T AM FISH SOC, V136, P95, DOI 10.1577/T06-056.1]]></refworks:cr>
<refworks:jo><![CDATA[J.Fish Biol.]]></refworks:jo>
<refworks:an><![CDATA[000285249600010]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25209</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25212">
<title><![CDATA[South Atlantic intermediate water mass geometry for the last glacial maximum from foraminiferal Cd/Ca]]></title>
<dc:creator><![CDATA[Makou,Matthew C.]]></dc:creator>
<dc:creator><![CDATA[ Oppo,Delia W.]]></dc:creator>
<dc:creator><![CDATA[ Curry,William B.]]></dc:creator>
<description>Paleoceanographic studies using benthic foraminiferal Cd as a nutrient tracer have provided a robust means of reconstructing glacial Atlantic Ocean water mass geometry, but a paucity of data from the South Atlantic above 1200 m has limited investigation of Antarctic Intermediate Water (AAIW) configuration and formation. A new Cd depth profile from Brazil margin sediments suggests that AAIW penetrated northward at 1100 m to at least 27 degrees S in the glacial Atlantic. It exhibited substantially reduced delta C-13(as) values, confirming preliminary evidence that this AAIW was unique to the glacial Atlantic and that it formed differently than today, with less atmospheric contact.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=HjilSOjQbjU:UrEQn4y7xQ8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=HjilSOjQbjU:UrEQn4y7xQ8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=HjilSOjQbjU:UrEQn4y7xQ8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Paleoceanography]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[25]]></prism:volume> 
<prism:startingPage><![CDATA[PA4101]]></prism:startingPage>
<prism:endingPage><![CDATA[PA4101]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/HjilSOjQbjU/refshare</link>
<refworks:FD><![CDATA[DEC 4]]></refworks:FD>
<refworks:k1><![CDATA[ PAST 25,000 YEARS]]></refworks:k1>
<refworks:k1><![CDATA[ NORTH-ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ DEEP-WATER]]></refworks:k1>
<refworks:k1><![CDATA[ OCEAN CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ THERMOHALINE CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ INDIAN-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ SEA-ICE]]></refworks:k1>
<refworks:k1><![CDATA[ DELTA-C-13]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON]]></refworks:k1>
<refworks:k1><![CDATA[ ISOTOPE]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:k1><![CDATA[ Paleontology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 42; TC: 0; J9: PALEOCEANOGRAPHY; PG: 7; GA: 690QV]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0883-8305]]></refworks:sn>
<refworks:ad><![CDATA[[Makou, Matthew C.; Oppo, Delia W.; Curry, William B.] Woods Hole Oceanog Inst, Dept Geol & Geophys, Woods Hole, MA 02543 USA.; Makou, MC, Ohio State Univ, Byrd Polar Res Ctr, 1090 Carmack Rd,Scott Hall 108, Columbus, OH 43210 USA.; makou.1@osu.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010PA001962]]></refworks:do>
<refworks:id><![CDATA[25212]]></refworks:id>
<refworks:cr><![CDATA[CR: BAINBRIDGE AE, 1981, HYDROGRAPHIC DATA GE, V1 BERTRAM CJ, 1995, PALEOCEANOGRAPHY, V10, P563 BEVERIDGE NAS, 1995, PALEOCEANOGRAPHY, V10, P643 BOYLE EA, 1982, SCIENCE, V218, P784 BOYLE EA, 1985, EARTH PLANET SC LETT, V76, P135 BOYLE EA, 1987, NATURE, V330, P35 BOYLE EA, 1988, PALEOCEANOGRAPHY, V3, P471 BOYLE EA, 1992, ANNU REV EARTH PL SC, V20, P245 BOYLE EA, 1995, PALEOCEANOGRAPHY, V10, P881 BOYLE EA, 1996, S ATLANTIC PRESENT P, P423 BROECKER WS, 1982, TRACERS SEA CAME RE, 2003, PALEOCEANOGRAPHY, V18, ARTN 1086 CROSTA X, 1998, GEOPHYS RES LETT, V25, P2703 CURRY WB, 1988, PALEOCEANOGRAPHY, V3, P317 CURRY WB, 2005, PALEOCEANOGRAPHY, V20, ARTN PA1017 DUPLESSY JC, 1988, PALEOCEANOGRAPHY, V3, P343 GORDON AL, 1986, J GEOPHYS RES-OCEANS, V91, P5037 KEELING RF, 2001, PALEOCEANOGRAPHY, V16, P112 LEA DW, 1995, PALEOCEANOGRAPHY, V10, P733, DOI 10.1029/95PA01546 LYNCHSTIEGLITZ J, 1994, PALEOCEANOGRAPHY, V9, P7 LYNCHSTIEGLITZ J, 1996, PALEOCEANOGRAPHY, V11, P191 LYNCHSTIEGLITZ J, 2007, SCIENCE, V316, P66, DOI 10.1126/science.1137127 MACKENSEN A, 1993, PALEOCEANOGRAPHY, V8, P587 MARCHITTO TM, 1998, NATURE, V393, P557 MARCHITTO TM, 2002, PALEOCEANOGRAPHY, V17, ARTN 1038 MARCHITTO TM, 2006, GEOCHEM GEOPHY GEOSY, V7, ARTN Q12003 MARTIN PA, 1998, PALEOCEANOGRAPHY, V13, P572 MARTINEZMENDEZ G, 2009, QUATERNARY SCI REV, V28, P3379, DOI 10.1016/j.quascirev.2009.09.022 MCCORKLE DC, 1995, PALEOCEANOGRAPHY, V10, P699 MOLLENHAUER G, 2004, GLOBAL PLANET CHANGE, V40, P249, DOI 10.1016/j.gloplacha.2003.08.002 MOOK WG, 1974, EARTH PLANET SC LETT, V22, P169 MURATLI JM, 2010, NAT GEOSCI, V3, P23, DOI 10.1038/NGEO715 OPPO DW, 1987, EARTH PLANET SC LETT, V86, P1 OPPO DW, 1994, PALEOCEANOGRAPHY, V9, P661 OPPO DW, 2000, PALEOCEANOGRAPHY, V15, P147 PAHNKE K, 2005, SCIENCE, V307, P1741, DOI 10.1126/science.1102163 PAHNKE K, 2008, NAT GEOSCI, V1, P870, DOI 10.1038/ngeo360 RICKABY REM, 2000, GEOCHIM COSMOCHIM AC, V64, P1229 RICKABY REM, 2005, GEOCHEM GEOPHY GEOSY, V6, ARTN Q05001 ROSENTHAL Y, 1997, PALEOCEANOGRAPHY, V12, P787 WILLAMOWSKI C, 2000, PALEOCEANOGRAPHY, V15, P515 ZAHN R, 2002, EARTH PLANET SC LETT, V200, P191]]></refworks:cr>
<refworks:jo><![CDATA[Paleoceanography]]></refworks:jo>
<refworks:an><![CDATA[000285020200003]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25212</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25213">
<title><![CDATA[Rapid Mixed Layer Deepening by the Combination of Langmuir and Shear Instabilities: A Case Study]]></title>
<dc:creator><![CDATA[Kukulka,Tobias]]></dc:creator>
<dc:creator><![CDATA[ Plueddemann,Albert J.]]></dc:creator>
<dc:creator><![CDATA[ Trowbridge,John H.]]></dc:creator>
<dc:creator><![CDATA[ Sullivan,Peter P.]]></dc:creator>
<description>Langmuir circulation (LC) is a turbulent upper-ocean process driven by wind and surface waves that contributes significantly to the transport of momentum, heat, and mass in the oceanic surface layer. The authors have previously performed a direct comparison of large-eddy simulations and observations of the upper-ocean response to a wind event with rapid mixed layer deepening. The evolution of simulated crosswind velocity variance and spatial scales, as well as mixed layer deepening, was only consistent with observations if LC effects are included in the model. Based on an analysis of these validated simulations, in this study the fundamental differences in mixing between purely shear-driven turbulence and turbulence with LC are identified. In the former case, turbulent kinetic energy (TKE) production due to shear instabilities is largest near the surface, gradually decreasing to zero near the base of the mixed layer. This stands in contrast to the LC case in which at middepth range TKE production can be dominated by Stokes drift shear. Furthermore, the Eulerian mean vertical shear peaks near the base of the mixed layer so that TKE production by mean shear flow is elevated there. LC transports horizontal momentum efficiently downward leading to an along-wind velocity jet below LC downwelling regions at the base of the mixed layer. Locally enhanced vertical shear instabilities as a result of this jet efficiently erode the thermocline. In turn, enhanced breaking internal waves inject cold deep water into the mixed layer, where LC currents transport temperature perturbation advectively. Thus. LC and locally generated shear instabilities work intimately together to facilitate strongly the mixed layer deepening process.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=hJSv4BQoIYk:f2-8kcbqH3k:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=hJSv4BQoIYk:f2-8kcbqH3k:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=hJSv4BQoIYk:f2-8kcbqH3k:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER METEOROLOGICAL SOC]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Physical Oceanography]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[11]]></prism:number>
<prism:volume><![CDATA[40]]></prism:volume> 
<prism:startingPage><![CDATA[2381]]></prism:startingPage>
<prism:endingPage><![CDATA[2400]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/hJSv4BQoIYk/refshare</link>
<refworks:FD><![CDATA[NOV]]></refworks:FD>
<refworks:k1><![CDATA[ LARGE-EDDY-SIMULATION]]></refworks:k1>
<refworks:k1><![CDATA[ BOUNDARY-LAYER]]></refworks:k1>
<refworks:k1><![CDATA[ BUBBLE CLOUDS]]></refworks:k1>
<refworks:k1><![CDATA[ UPPER OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ TURBULENCE]]></refworks:k1>
<refworks:k1><![CDATA[ WIND]]></refworks:k1>
<refworks:k1><![CDATA[ MODEL]]></refworks:k1>
<refworks:k1><![CDATA[ WAVES]]></refworks:k1>
<refworks:k1><![CDATA[ TRANSPORT]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 44; TC: 0; J9: J PHYS OCEANOGR; PG: 20; GA: 690AR]]></refworks:no>
<refworks:pp><![CDATA[BOSTON; 45 BEACON ST, BOSTON, MA 02108-3693 USA]]></refworks:pp>
<refworks:sn><![CDATA[0022-3670]]></refworks:sn>
<refworks:ad><![CDATA[[Kukulka, Tobias; Plueddemann, Albert J.] Woods Hole Oceanog Inst, Dept Phys Oceanog, Woods Hole, MA 02543 USA. [Kukulka, Tobias; Trowbridge, John H.] Woods Hole Oceanog Inst, Dept Appl Ocean Phys & Engn, Woods Hole, MA 02543 USA. [Sullivan, Peter P.] Natl Ctr Atmospher Res, Boulder, CO 80307 USA.; Kukulka, T, Univ Delaware, Newark, DE 19716 USA.; kukulka@udel.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1175/2010JPO4403.1]]></refworks:do>
<refworks:id><![CDATA[25213]]></refworks:id>
<refworks:cr><![CDATA[CR: BEARE RJ, 2006, BOUND-LAY METEOROL, V118, P247, DOI 10.1007/s10546-004-2820-6 CRAIG PD, 1994, J PHYS OCEANOGR, V24, P2546 CRAIK ADD, 1976, J FLUID MECH, V73, P401 DASARO EA, 1997, J PHYS OCEANOGR, V27, P2009 DEARDORFF JW, 1973, J FLUIDS ENG, V95, P429 DRAZIN PG, 2004, HYDRODYNAMIC STABILI FARMER D, 1995, J PHYS OCEANOGR, V25, P1426 GARGETT A, 2004, SCIENCE, V306, P1925, DOI 10.1126/science.1100849 GILL AE, 1982, ATMOSPHERE OCEAN DYN GNANADESIKAN A, 1995, J PHYS OCEANOGR, V25, P3148 GRANT ALM, 2009, J PHYS OCEANOGR, V39, P1871, DOI 10.1175/2009JPO4119.1 HARCOURT RR, 2008, J PHYS OCEANOGR, V38, P1542, DOI 10.1175/2007JPO3842.1 IVEY GN, 2008, ANNU REV FLUID MECH, V40, P169, DOI 10.1146/annurev.fluid.39.050905.110314 KUKULKA T, 2009, GEOPHYS RES LETT, V36, ARTN L10603 LANGMUIR I, 1938, SCIENCE, V87, P119 LEIBOVICH S, 1981, J FLUID MECH, V102, P141 LEIBOVICH S, 1983, ANNU REV FLUID MECH, V15, P391 LI M, 1997, J PHYS OCEANOGR, V27, P121 LI M, 2005, DEEP-SEA RES PT I, V52, P259, DOI 10.1016/j.dsr.2004.09.004 MCWILLIAMS JC, 1997, J FLUID MECH, V334, P1 MCWILLIAMS JC, 1999, J PHYS OCEANOGR, V29, P2523 MCWILLIAMS JC, 2000, SPILL SCI TECHNOL B, V6, P225 MELVILLE WK, 1996, ANNU REV FLUID MECH, V28, P279 MOENG CH, 1984, J ATMOS SCI, V41, P2052 PLUEDDEMANN AJ, 1996, J GEOPHYS RES-OCEANS, V101, P3525 POLTON JA, 2007, J GEOPHYS RES-OCEANS, V112, ARTN C09020 POPE SB, 2008, TURBULENT FLOWS PRICE JF, 1986, J GEOPHYS RES-OCEANS, V91, P8411 SKYLLINGSTAD ED, 1995, J GEOPHYS RES-OCEANS, V100, P8501 SKYLLINGSTAD ED, 2000, J PHYS OCEANOGR, V30, P1866 SMITH JA, 1989, J ATMOS OCEAN TECH, V9, P149 SMITH JA, 1992, J GEOPHYS RES-OCEANS, V97, P5651 SMITH JA, 1995, J ATMOS OCEAN TECH, V12, P617 SMITH JA, 1996, AIR SEA INTERFACE RA, P613 SMITH JA, 1998, J GEOPHYS RES-OCEANS, V103, P12649 SMITH JA, 1999, AIR SEA EXCHANGE PHY, P539 SMYTH WD, 2002, OCEAN DYNAM, V52, P104 SULLIVAN PP, 1994, BOUND-LAY METEOROL, V71, P247 SULLIVAN PP, 2007, J FLUID MECH, V593, P405, DOI 10.1017/S002211200700897X TEJADAMARTINEZ AE, 2007, J FLUID MECH, V576, P63, DOI 10.1017/S0022112006004587 TERRAY EA, 1996, J PHYS OCEANOGR, V26, P792 THORPE SA, 2004, ANNU REV FLUID MECH, V36, P55 WELLER RA, 1988, DEEP SEA RES A, V35, P711 ZEDEL L, 1991, J GEOPHYS RES-OCEANS, V96, P8889]]></refworks:cr>
<refworks:jo><![CDATA[J.Phys.Oceanogr.]]></refworks:jo>
<refworks:an><![CDATA[000284972900002]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25213</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25214">
<title><![CDATA[Detecting anthropogenic CO2 changes in the interior Atlantic Ocean between 1989 and 2005]]></title>
<dc:creator><![CDATA[Wanninkhof,Rik]]></dc:creator>
<dc:creator><![CDATA[ Doney,Scott C.]]></dc:creator>
<dc:creator><![CDATA[ Bullister,John L.]]></dc:creator>
<dc:creator><![CDATA[ Levine,Naomi M.]]></dc:creator>
<dc:creator><![CDATA[ Warner,Mark]]></dc:creator>
<dc:creator><![CDATA[ Gruber,Nicolas]]></dc:creator>
<description>Repeat observations along the meridional Atlantic section A16 from Iceland to 56 degrees S show substantial changes in the total dissolved inorganic carbon (DIC) concentrations in the ocean between occupations from 1989 through 2005. The changes correspond to the expected increase in DIC driven by the uptake of anthropogenic CO2 from the atmosphere, but the Delta DIC is more varied and larger, in some locations, than can be explained solely by this process. Concomitant large changes in oxygen (O-2) suggest that processes acting on the natural carbon cycle also contribute to Delta DIC. Precise partial pressure of CO2 measurements suggest small but systematic increases in the bottom waters. To isolate the anthropogenic CO2 component (Delta C-anthro) from Delta DIC, an extended multilinear regression approach is applied along isopycnal surfaces. This yields an average depth-integrated Delta C-anthro of 0.53 +/- 0.05 mol m(-2) yr(-1) with maximum values in the temperate zones of both hemispheres and a minimum in the tropical Atlantic. A higher decadal increase in the anthropogenic CO2 inventory is found for the South Atlantic compared to the North Atlantic. This anthropogenic CO2 accumulation pattern is opposite to that seen for the entire Anthropocene up to the 1990s. This change could perhaps be a consequence of the reduced downward transport of anthropogenic CO2 in the North Atlantic due to recent climate variability. Extrapolating the results for this section to the entire Atlantic basin (63 degrees N to 56 degrees S) yields an uptake of 5 +/- 1 Pg C decade(-1), which corresponds to about 25% of the annual global ocean uptake of anthropogenic CO2 during this period.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=wM6jCjVsO9I:uNSVwZyY9Uw:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=wM6jCjVsO9I:uNSVwZyY9Uw:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=wM6jCjVsO9I:uNSVwZyY9Uw:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Geophysical Research-Oceans]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[115]]></prism:volume> 
<prism:startingPage><![CDATA[C11028]]></prism:startingPage>
<prism:endingPage><![CDATA[C11028]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/wM6jCjVsO9I/refshare</link>
<refworks:FD><![CDATA[NOV 30]]></refworks:FD>
<refworks:k1><![CDATA[ EASTERN NORTH-ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ LAST 2 DECADES]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON-CYCLE]]></refworks:k1>
<refworks:k1><![CDATA[ ATMOSPHERIC CO2]]></refworks:k1>
<refworks:k1><![CDATA[ INTERANNUAL VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ PACIFIC-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ REDFIELD RATIOS]]></refworks:k1>
<refworks:k1><![CDATA[ SOUTH-ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ TROCA APPROACH]]></refworks:k1>
<refworks:k1><![CDATA[ STATION ALOHA]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 96; TC: 0; J9: J GEOPHYS RES-OCEANS; PG: 25; GA: 690QJ]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0148-0227]]></refworks:sn>
<refworks:ad><![CDATA[[Wanninkhof, Rik] NOAA, Ocean Chem Div, AOML, Miami, FL 33149 USA. [Bullister, John L.] NOAA, Ocean Climate Res Div, PMEL, Seattle, WA 98115 USA. [Doney, Scott C.; Levine, Naomi M.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Gruber, Nicolas] ETH, Inst Biogeochem & Pollutant Dynam, CH-8092 Zurich, Switzerland. [Levine, Naomi M.] Harvard Univ, OEB Dept, Cambridge, MA 02138 USA. [Warner, Mark] Univ Washington, Sch Oceanog, Seattle, WA 98195 USA.; Wanninkhof, R, NOAA, Ocean Chem Div, AOML, 4301 Rickenbacker Causeway, Miami, FL 33149 USA.; rik.wanninkhof@yahoo.com sdoney@whoi.edu john.l.bullister@noaa.gov nlevine@oeb.harvard.edu warner@u.washington.edu nicolas.gruber@env.ethz.ch]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010JC006251]]></refworks:do>
<refworks:id><![CDATA[25214]]></refworks:id>
<refworks:cr><![CDATA[CR: *INT OC COM, 2009, IOC TECH SER, V89 *US DOE, 1994, ORNLCDIAC74 US DEP E *WORLD OC CIRC EXP, 1994, WOCE OP MAN ANDERSON LA, 1994, GLOBAL BIOGEOCHEM CY, V8, P65 BATES NR, 2002, NATURE, V420, P489, DOI 10.1038/nature01253 BATES NR, 2007, J GEOPHYS RES-OCEANS, V112, ARTN C09013 BELKIN IM, 2004, GEOPHYS RES LETT, V31, ARTN L08306 BREWER PG, 1978, GEOPHYS RES LETT, V5, P997 BREWER PG, 1997, P NATL ACAD SCI USA, V94, P8308 BRIX H, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB4019 BROECKER WS, 1979, J GEOPHYS RES, V84, P1145, DOI 10.1029/JC084IC03P01145 BROECKER WS, 1982, TRACERS SEA BROWN PJ, 2010, J GEOPHYS RES-OCEANS, V115, ARTN C04016 CASTLE R, 1998, AOML32 NOAA ERL CHEN CT, 1979, NATURE, V277, P205, DOI 10.1038/277205A0 CHUNG SN, 2003, GLOBAL BIOGEOCHEM CY, V17, ARTN 1093 CRUTZEN PJ, 2003, CLIMATIC CHANGE, V61, P251 CURRY R, 2005, SCIENCE, V308, P1772, DOI 10.1126/science.1109477 DONEY SC, 1992, DEEP-SEA RES, V39, P1857 DONEY SC, 1997, DEEP-SEA RES PT I, V44, P603 DONEY SC, 1998, GEOPHYS RES LETT, V25, P1399 DONEY SC, 2006, J CLIMATE, V19, P3033 DONEY SC, 2007, J PHYS OCEANOGR, V37, P1918, DOI 10.1175/JPO3089.1 DONEY SC, 2009, J MARINE SYST, V76, P95, DOI 10.1016/j.jmarsys.2008.05.015 DORE JE, 2003, NATURE, V424, P754, DOI 10.1038/nature01885 EMERSON S, 2001, GLOBAL BIOGEOCHEM CY, V15, P535 FLETCHER SEM, 2006, GLOBAL BIOGEOCHEM CY, V20, ARTN GB2002 FRIEDLINGSTEIN P, 2006, J CLIMATE, V19, P3337 FRIIS K, 2005, DEEP-SEA RES PT I, V52, P681, DOI 10.1016/j.dsr.2004.11.017 GARZOLI S, 2010, ESA PUBL GOURETSKI VV, 2001, PROG OCEANOGR, V48, P337 GRUBER N, 1996, GLOBAL BIOGEOCHEM CY, V10, P809 GRUBER N, 1998, GLOBAL BIOGEOCHEM CY, V12, P165 GRUBER N, 2002, SCIENCE, V298, P2374 GRUBER N, 2002, SEA BIOL PHYSICAL IN, V12, P337 HANSELL DA, 2007, MAR CHEM, V106, P562, DOI 10.1016/j.marchem.2007.06.005 JOHNSON GC, 2005, GEOPHYS RES LETT, V32, ARTN L07602 JOHNSON GC, 2006, GEOPHYS RES LETT, V33, ARTN L14614 JOHNSON GC, 2007, PROG OCEANOGR, V73, P277, DOI 10.1016/j.pocean.2006.03.022 JOOS F, 1999, SCIENCE, V284, P464 KEELING CD, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB4006 KEELING RF, 2002, P NATL ACAD SCI USA, V99, P7848 KEY RM, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB4031 KEY RM, 2010, EARTH SYST SCI DATA, V2, P105, DOI 10.5194/ESSD-2-105-2010 KHATIWALA S, 2009, NATURE, V462, P346, DOI 10.1038/nature08526 KORTZINGER A, 1999, GEOPHYS RES LETT, V26, P2065 LEE K, 1997, J GEOPHYS RES-OCEANS, V102, P15693 LEE K, 2003, GLOBAL BIOGEOCHEM CY, V17, ARTN 1116 LEQUERE C, 2007, SCIENCE, V316, P1735, DOI 10.1126/science.1136188 LEQUERE C, 2009, NAT GEOSCI, V2, P831, DOI 10.1038/ngeo689 LEVINE NM, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C03019 LI YH, 2002, GLOBAL BIOGEOCHEM CY, V16, ARTN 1130 LOMONACO C, 2005, J GEOPHYS RES-OCEANS, V110, ARTN C06010 LOVENDUSKI NS, 2007, GLOBAL BIOGEOCHEM CY, V21, ARTN GB2026 LOVENDUSKI NS, 2008, GLOBAL BIOGEOCHEM CY, V22, ARTN GB3016 MARENGO JA, 2008, J CLIMATE, V21, P495, DOI 10.1175/2007JCLI1600.1 MATEAR RJ, 2000, GEOCHEM GEOPHY GEOSY, V1, P1050, DOI 10.1029/2000GC000086 MATSUMOTO K, 2005, GLOBAL BIOGEOCHEM CY, V19, ARTN GB3014 MCNEIL BI, 2003, SCIENCE, V299, P235 MURATA A, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C06007 PENG TH, 2003, DEEP-SEA RES PT II, V50, P3065, DOI 10.1016/j.dsr2.2003.09.001 PENG TH, 2010, DEEP-SEA RES PT I, V57, P755, DOI 10.1016/j.dsr.2010.03.008 PEREZ FF, 2008, BIOGEOSCIENCES, V5, P1669 PLATTNER GK, 2008, J CLIMATE, V21, P2721, DOI 10.1175/2007JCLI1905.1 QUAY P, 2007, GLOBAL BIOGEOCHEM CY, V21, ARTN GB1009 RODGERS KB, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C09013 SABINE CL, 2004, SCIENCE, V305, P367 SABINE CL, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C07021 SARMIENTO JL, 1992, J GEOPHYS RES-OCEANS, V97, P3621 SARMIENTO JL, 1996, SCIENCE, V274, P1346 SARMIENTO JL, 2002, PHYS TODAY, V55, P30 SARMIENTO JL, 2004, NATURE, V427, P56, DOI 10.1038/nature02127 SARMIENTO JL, 2007, GLOBAL BIOGEOCHEM CY, V21, ARTN GB1S90 SHULENBERGER E, 1981, DEEP-SEA RES, V28, P901 SOLOMON S, 2007, CLIMATE CHANGE 2007, P77 STOTT PA, 2008, GEOPHYS RES LETT, V35, ARTN L21702 STRAMMA L, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C04014 STRAMMA L, 2010, DEEP-SEA RES PT I, V57, P587, DOI 10.1016/j.dsr.2010.01.005 TANHUA T, 2006, GLOBAL BIOGEOCHEM CY, V20, ARTN GB4017 TANHUA T, 2007, P NATL ACAD SCI USA, V104, P3037, DOI 10.1073/pnas.0606574104 THOMAS H, 2008, GLOBAL BIOGEOCHEM CY, V22, ARTN GB4027 THORPE SA, 1984, ANN GEOPHYS, V2, P53 TOURATIER F, 2004, J MARINE SYST, V46, P181, DOI 10.1016/j.jmarsys.2003.11.020 TSUCHIYA M, 1992, DEEP-SEA RES, V39, P1885 TSUCHIYA M, 1994, J MAR RES, V52, P55 VAZQUEZRODRIGUEZ M, 2009, BIOGEOSCIENCES, V6, P439 WALLACE DWR, 1994, J GEOPHYS RES-OCEANS, V99, P7803 WALLACE DWR, 2001, OCEAN CIRCULATION CL, P489 WANNINKHOF R, 1993, MAR CHEM, V44, P189 WANNINKHOF R, 1999, TELLUS B, V51, P511 WANNINKHOF R, 2003, ORNLCDIAC140 WANNINKHOF R, 2006, RNLCDIAC151 WARNER MJ, 1985, DEEP-SEA RES, V32, P1485 WATSON AJ, 2009, SCIENCE, V326, P1391, DOI 10.1126/science.1177394 WAUGH DW, 2006, TELLUS B, V58, P376, DOI 10.1111/j.1600-0889.2006.00222.x YOOL A, 2010, BIOGEOSCIENCES, V7, P723]]></refworks:cr>
<refworks:jo><![CDATA[J.Geophys.Res.-Oceans]]></refworks:jo>
<refworks:an><![CDATA[000285019000001]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25214</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25215">
<title><![CDATA[Modeling the impact of declining sea ice on the Arctic marine planktonic ecosystem]]></title>
<dc:creator><![CDATA[Zhang,Jinlun]]></dc:creator>
<dc:creator><![CDATA[ Spitz,Yvette H.]]></dc:creator>
<dc:creator><![CDATA[ Steele,Michael]]></dc:creator>
<dc:creator><![CDATA[ Ashjian,Carin]]></dc:creator>
<dc:creator><![CDATA[ Campbell,Robert]]></dc:creator>
<dc:creator><![CDATA[ Berline,Leo]]></dc:creator>
<dc:creator><![CDATA[ Matrai,Patricia]]></dc:creator>
<description>We have developed a coupled 3-D pan-Arctic biology/sea ice/ocean model to investigate the impact of declining Arctic sea ice on the marine planktonic ecosystem over 1988-2007. The biophysical model results agree with satellite observations of a generally downward trend in summer sea ice extent during 1988-2007, resulting in an increase in the simulated photosynthetically active radiation (PAR) at the ocean surface and marine primary productivity (PP) in the upper 100 m over open water areas of the Arctic Ocean. The simulated Arctic sea ice thickness has decreased steadily during 1988-2007, leading to an increase in PAR and PP in sea ice-covered areas. The simulated total PAR in all areas of the Arctic Ocean has increased by 43%, from 146 TW in 1988 to 209 TW in 2007; the corresponding total PP has increased by 50%, from 456 Tg C yr(-1) in 1988 to 682 Tg C yr(-1) in 2007. The simulated PAR and PP increases mainly occur in the seasonally and permanently ice-covered Arctic Ocean. In addition to increasing PAR, the decline in sea ice tends to increase the nutrient availability in the euphotic zone by enhancing air-sea momentum transfer, leading to strengthened upwelling and mixing in the water column and therefore increased nutrient input into the upper ocean layers from below. The increasing nutrient availability also contributes to the increase in the simulated PP, even though significant surface nutrient drawdown in summer is simulated. In conjunction with increasing surface absorption of solar radiation and rising surface air temperature, the increasing surface water temperature in the Arctic Ocean peripheral seas further contributes to the increase in PP. As PP has increased, so has the simulated biomass of phytoplankton and zooplankton.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=kdoK8Agv_LY:g5-R3boZL3s:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=kdoK8Agv_LY:g5-R3boZL3s:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=kdoK8Agv_LY:g5-R3boZL3s:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Geophysical Research-Oceans]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[115]]></prism:volume> 
<prism:startingPage><![CDATA[C10015]]></prism:startingPage>
<prism:endingPage><![CDATA[C10015]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/kdoK8Agv_LY/refshare</link>
<refworks:FD><![CDATA[OCT 8]]></refworks:FD>
<refworks:k1><![CDATA[ UPPER WATER COLUMN]]></refworks:k1>
<refworks:k1><![CDATA[ BARENTS SEA]]></refworks:k1>
<refworks:k1><![CDATA[ INTERANNUAL VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ SOUTHERN-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ CHLOROPHYLL-A]]></refworks:k1>
<refworks:k1><![CDATA[ BERING-SEA]]></refworks:k1>
<refworks:k1><![CDATA[ ZOOPLANKTON COMMUNITY]]></refworks:k1>
<refworks:k1><![CDATA[ PHYTOPLANKTON GROWTH]]></refworks:k1>
<refworks:k1><![CDATA[ PRIMARY PRODUCTIVITY]]></refworks:k1>
<refworks:k1><![CDATA[ GRAZING IMPACT]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 108; TC: 0; J9: J GEOPHYS RES-OCEANS; PG: 24; GA: 690MX]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0148-0227]]></refworks:sn>
<refworks:ad><![CDATA[[Zhang, Jinlun; Steele, Michael] Univ Washington, Appl Phys Lab, Seattle, WA 98105 USA. [Ashjian, Carin] Woods Hole Oceanog Inst, Dept Biol, Woods Hole, MA 02543 USA. [Berline, Leo] Univ Paris 06, UMR 7093, Lab Oceanog Villefranche, Observ Oceanog, F-06234 Villefranche Sur Mer, France. [Campbell, Robert] Univ Rhode Isl, Grad Sch Oceanog, Narragansett, RI 02882 USA. [Matrai, Patricia] Bigelow Lab Ocean Sci, Boothbay Harbor, ME 04575 USA. [Spitz, Yvette H.] Oregon State Univ, Coll Ocean & Atmospher Sci, Corvallis, OR 97331 USA.; Zhang, JL, Univ Washington, Appl Phys Lab, 1013 NE 40th St, Seattle, WA 98105 USA.; zhang@apl.washington.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2009JC005387]]></refworks:do>
<refworks:id><![CDATA[25215]]></refworks:id>
<refworks:cr><![CDATA[CR: *U WA POL SCI CTR, 2001, SEARCH SSC SEARCH ST ANDERSEN OGN, 1989, ARCTIC SEAS CLIMATOL, P147 ARASHKEVICH E, 2002, J MARINE SYST, V38, P125 ARRIGO KR, 1993, J GEOPHYS RES-OCEANS, V98, P6929 ARRIGO KR, 2003, J GEOPHYS RES-OCEANS, V108, ARTN 3231 ARRIGO KR, 2008, GEOPHYS RES LETT, V35, ARTN L19603 ASHJIAN CJ, 2003, DEEP-SEA RES PT I, V50, P1235, DOI 10.1016/S0967-0637(03)00129-8 AUMONT O, 2003, GLOBAL BIOGEOCHEM CY, V17, ARTN 1060 BELCHANSKY GI, 2004, J CLIMATE, V17, P67 BLUHM BA, 2008, ECOL APPL S, V18, S77 BOOTH BC, 1997, DEEP-SEA RES PT II, V44, P1607 BRYAN K, 1969, J COMPUT PHYS, V4, P347 BUNKER AJ, 2004, MAR ECOL-PROG SER, V279, P161 CAMPBELL RG, 2009, DEEP-SEA RES PT II, V56, P1274, DOI 10.1016/j.dsr2.2008.10.027 CARMACK E, 2006, PROG OCEANOGR, V71, P145, DOI 10.1016/j.pocean.2006.10.005 CARMACK E, 2006, PROG OCEANOGR, V71, P446, DOI 10.1016/j.pocean.2006.10.004 CODISPOTI LA, 2005, DEEP-SEA RES PT II, V52, P3199, DOI 10.1016/j.dsr2.2005.10.007 CODISPOTI LA, 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GA, 1971, J GEOPHYS RES, V76, P1550 MEIER WN, 2007, ANN GLACIOL, V46, P428 MELNIKOV IA, 2002, DEEP-SEA RES PT I, V49, P1623 MOLINE MA, 2008, ANN NY ACAD SCI, V1134, P267, DOI 10.1196/annals.1439.010 MOLLER EF, 2006, DEEP-SEA RES PT I, V53, P76, DOI 10.1016/j.dsr.2005.09.007 MUNDY CJ, 2009, GEOPHYS RES LETT, V36, ARTN L17601 NGHIEM SV, 2007, GEOPHYS RES LETT, V34, ARTN L19504 OLLI K, 2007, PROG OCEANOGR, V72, P84, DOI 10.1016/j.pocean.2006.08.002 PABI S, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C08005 PEROVICH DK, 2003, J GEOPHYS RES-OCEANS, V108, ARTN 8050 PEROVICH DK, 2007, GEOPHYS RES LETT, V34, ARTN L19505 PEROVICH DK, 2008, GEOPHYS RES LETT, V35, ARTN L11501 PINKER RT, 1992, J CLIMATE, V5, P56 REDFIELD AC, 1963, SEA, V2, P26 REIGSTAD M, 2002, J MARINE SYST, V38, P9 RICHARDSON K, 2005, DEEP-SEA RES PT I, V52, P979, DOI 10.1016/j.dsr.2004.12.005 ROTHROCK DA, 1999, GEOPHYS RES LETT, V26, P3469 ROTHROCK DA, 2003, J GEOPHYS RES-OCEANS, V108, ARTN 3083 ROTHROCK DA, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C05003 SAKSHAUG E, 1992, ATMOS OCEAN, V30, P579 SAKSHAUG E, 2004, ORGANIC CARBON CYCLE, P57 SAMBROTTO RN, 1986, CONT SHELF RES, V5, P161 SCHMITTNER A, 2005, GLOBAL BIOGEOCHEM CY, V19, ARTN GB3004 SEMTNER AJ, 1986, P NATO ADV PHYSICAL, P187 SERREZE MC, 2007, SCIENCE, V315, P1533, DOI 10.1126/science.1139426 SHERR EB, 2003, DEEP-SEA RES PT I, V50, P557, DOI 10.1016/S0967-0637(03)00031-1 SHERR EB, 2009, DEEP-SEA RES PT II, V56, P1264, DOI 10.1016/j.dsr2.2008.10.036 SLAGSTAD D, 1991, POLAR RES, V10, P173 SMITH RD, 1992, PHYSICA D, V60, P38 SMITH WO, 1990, POLAR OCEANOGRAPHY B, P475 STEELE M, 2008, GEOPHYS RES LETT, V35, ARTN L02614 STROEVE J, 2006, ANN GLACIOL, V44, P367 STROEVE J, 2008, EOS T AGU, V89 THIBAULT D, 1999, DEEP-SEA RES PT I, V46, P1391 TREMBLAY JE, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C07S90 UTTAL T, 2002, B AM METEOROL SOC, V83, P255 WALSH JJ, 1994, PROG OCEANOGR, V34, P335 WALSH JJ, 1997, CONT SHELF RES, V17, P1 WALSH JJ, 2004, J GEOPHYS RES-OCEANS, V109, ARTN C05031 WALSH JJ, 2005, DEEP-SEA RES PT II, V52, P3541, DOI 10.1016/j.dsr2.2005.09.009 WASSMANN P, 1996, MAR ECOL-P S Z N I, V17, P447 WASSMANN P, 2006, J MARINE SYST, V59, P1, DOI 10.1016/j.jmarsys.2005.05.006 WHEELER PA, 1996, NATURE, V380, P697 WHEELER PA, 1997, DEEP-SEA RES PT II, V44, P1483 WHEELER PA, 1997, DEEP-SEA RES PT II, V44, P1571 ZHANG J, 1998, J PHYS OCEANOGR, V28, P191 ZHANG J, 2003, MON WEATHER REV, V131, P681 ZHANG JC, 2007, J GEOPHYS RES-SPACE, V112, ARTN A04208 ZHANG JL, 1997, J GEOPHYS RES-OCEANS, V102, P8691 ZHANG JL, 2000, J CLIMATE, V13, P3099 ZHANG JL, 2005, J GEOPHYS RES-OCEANS, V110, ARTN C08014 ZHANG JL, 2008, GEOPHYS RES LETT, V35, ARTN L08502]]></refworks:cr>
<refworks:jo><![CDATA[J.Geophys.Res.-Oceans]]></refworks:jo>
<refworks:an><![CDATA[000285010000001]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25215</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25216">
<title><![CDATA[Influences of the ocean surface mixed layer and thermohaline stratification on Arctic Sea ice in the central Canada Basin]]></title>
<dc:creator><![CDATA[Toole,J. M.]]></dc:creator>
<dc:creator><![CDATA[ Timmermans,M. -L]]></dc:creator>
<dc:creator><![CDATA[ Perovich,D. K.]]></dc:creator>
<dc:creator><![CDATA[ Krishfield,R. A.]]></dc:creator>
<dc:creator><![CDATA[ Proshutinsky,A.]]></dc:creator>
<dc:creator><![CDATA[ Richter-Menge,J. A.]]></dc:creator>
<description>Variations in the Arctic central Canada Basin mixed layer properties are documented based on a subset of nearly 6500 temperature and salinity profiles acquired by Ice-Tethered Profilers during the period summer 2004 to summer 2009 and analyzed in conjunction with sea ice observations from ice mass balance buoys and atmosphere-ocean heat flux estimates. The July-August mean mixed layer depth based on the Ice-Tethered Profiler data averaged 16 m (an overestimate due to the Ice-Tethered Profiler sampling characteristics and present analysis procedures), while the average winter mixed layer depth was only 24 m, with individual observations rarely exceeding 40 m. Guidance interpreting the observations is provided by a 1-D ocean mixed layer model. The analysis focuses attention on the very strong density stratification at the base of the mixed layer in the Canada Basin that greatly impedes surface layer deepening and thus limits the flux of deep ocean heat to the surface that could influence sea ice growth/decay. The observations additionally suggest that efficient lateral mixed layer restratification processes are active in the Arctic, also impeding mixed layer deepening.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=SKDTnH4rAuo:DiSVbxK0XZQ:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=SKDTnH4rAuo:DiSVbxK0XZQ:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=SKDTnH4rAuo:DiSVbxK0XZQ:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Geophysical Research-Oceans]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[115]]></prism:volume> 
<prism:startingPage><![CDATA[C10018]]></prism:startingPage>
<prism:endingPage><![CDATA[C10018]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/SKDTnH4rAuo/refshare</link>
<refworks:FD><![CDATA[OCT 8]]></refworks:FD>
<refworks:k1><![CDATA[ NEAR-INERTIAL MOTIONS]]></refworks:k1>
<refworks:k1><![CDATA[ ENERGY FLUX]]></refworks:k1>
<refworks:k1><![CDATA[ INTERNAL WAVES]]></refworks:k1>
<refworks:k1><![CDATA[ BEAUFORT SEA]]></refworks:k1>
<refworks:k1><![CDATA[ PACK]]></refworks:k1>
<refworks:k1><![CDATA[ ICE]]></refworks:k1>
<refworks:k1><![CDATA[ WIND]]></refworks:k1>
<refworks:k1><![CDATA[ VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ MODELS]]></refworks:k1>
<refworks:k1><![CDATA[ COVER]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 38; TC: 2; J9: J GEOPHYS RES-OCEANS; PG: 14; GA: 690MX]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0148-0227]]></refworks:sn>
<refworks:ad><![CDATA[[Toole, J. M.; Krishfield, R. A.; Proshutinsky, A.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Perovich, D. K.; Richter-Menge, J. A.] USA, Cold Reg Res & Engn Lab, Hanover, NH 03755 USA. [Timmermans, M. -L.] Yale Univ, New Haven, CT 06520 USA.; Toole, JM, Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2009JC005660]]></refworks:do>
<refworks:id><![CDATA[25216]]></refworks:id>
<refworks:cr><![CDATA[CR: ALFORD MH, 2001, J PHYS OCEANOGR, V31, P2359 ALFORD MH, 2003, GEOPHYS RES LETT, V30, ARTN 1424 BOCCALETTI G, 2007, J PHYS OCEANOGR, V37, P2228, DOI 10.1175/JPO3101.1 DASARO EA, 1985, J PHYS OCEANOGR, V15, P1043 DASARO EA, 1991, J GEOPHYS RES-OCEANS, V96, P12725 ELIPOT S, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C06003 FOFONOFF NP, 1983, UNESCO TECH PAPERS M, V44, P53 HALLE C, 2003, J GEOPHYS RES-OCEANS, V108, ARTN 3210 HYATT J, 2006, THESIS MIT WHOI JOIN JACKSON JM, 2010, J GEOPHYS RES-OCEANS, V115, ARTN C05021 JOHNSON GC, 2007, J ATMOS OCEAN TECH, V24, P1117, DOI 10.1175/JTECH2016.1 KRISHFIELD R, 2008, ITP DATA PROCE UNPUB KRISHFIELD R, 2008, J ATMOS OCEAN TECH, V25, P2091, DOI 10.1175/2008JTECHO587.1 LEVINE MD, 1985, J PHYS OCEANOGR, V15, P800 MARCUS T, 2000, IEEE T GEOPHYS REMOT, V38, P1387 MAYKUT GA, 1995, J GEOPHYS RES-OCEANS, V100, P24691 MCPHEE M, 2008, AIR ICE OCEAN INTERA MCPHEE MG, 1978, DYNAM ATMOS OCEANS, V2, P107 MCPHEE MG, 1999, J MARINE SYST, V21, P55 MORISON JH, 1986, GEOPHYSICS SEA ICE, P1163 PADMAN L, 1987, J GEOPHYS RES-OCEANS, V92, P10799, DOI 10.1029/JC092IC10P10799 PADMAN L, 1990, J GEOPHYS RES-OCEANS, V95, P9411 PEROVICH DK, 1990, J GEOPHYS RES-OCEANS, V95, P18233 PEROVICH DK, 2008, GEOPHYS RES LETT, V35, ARTN L11501 PINKEL R, 2008, J PHYS OCEANOGR, V38, P277, DOI 10.1175/2006JPO3558.1 PLUEDDEMANN AJ, 2006, DEEP-SEA RES PT II, V53, P5, DOI 10.1016/j.dsr2.2005.10.017 PRICE JF, 1986, J GEOPHYS RES-OCEANS, V91, P8411 PROSHUTINSKY A, 2007, J GEOPHYS RES-OCEANS, V112, ARTN C04S01 PROSHUTINSKY A, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C00A10 RICHTERMENGE JA, 2006, ANN GLACIOL, V44, P205 SHAW WJ, 2008, J GEOPHYS RES-OCEANS, V113, ARTN C08030 SHAW WJ, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C06012 SHIMADA K, 2001, GEOPHYS RES LETT, V28, P3441 SHIMADA K, 2006, J GEOPHYS RES, V33, DOI 10.1029/2005GL025624 SILVERTHORNE KE, 2009, J PHYS OCEANOGR, V39, P1035, DOI 10.1175/2008JPO3920.1 SKYLLINGSTAD ED, 2005, J GEOPHYS RES-OCEANS, V110, ARTN C05021 STEELE M, 2004, J GEOPHYS RES-OCEANS, V109, ARTN C02027 ZHANG JC, 2007, J GEOPHYS RES-SPACE, V112, ARTN A04208]]></refworks:cr>
<refworks:jo><![CDATA[J.Geophys.Res.-Oceans]]></refworks:jo>
<refworks:an><![CDATA[000285010000002]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25216</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25218">
<title><![CDATA[Denitrification and total nitrate uptake in streams of a tropical landscape]]></title>
<dc:creator><![CDATA[Potter,J. D.]]></dc:creator>
<dc:creator><![CDATA[ McDowell,W. H.]]></dc:creator>
<dc:creator><![CDATA[ Merriam,J. L.]]></dc:creator>
<dc:creator><![CDATA[ Peterson,B. J.]]></dc:creator>
<dc:creator><![CDATA[ Thomas,S. M.]]></dc:creator>
<description>Rapid increases in nitrogen (N) loading are occurring in many tropical watersheds, but the fate of N in tropical streams is not well documented. Rates of nitrate uptake and denitrification were measured in nine tropical low-order streams with contrasting land use as part of the Lotic Intersite Nitrogen eXperiment II (LINX II) in Puerto Rico using short term (24-hour) additions of (KNO3)-N-15 and NaBr. Background nitrate concentrations ranged from 105 to 997 mu g N/L, and stream nitrate uptake lengths were long, varying from 315 to 8480 m (median of 1200 m). Other indices of nitrate uptake (mass transfer coefficient, V-f [cm/s], and whole-stream nitrate uptake rate, U [mu g N.m(-2).s(-1)]) were low in comparison to other regions and were related to chemical, biological, and physical parameters. Denitrification rates were highly variable (0-133 mu g N.m(-2).min(-1); median = 15 mu g N.m(-2).min(-1)), were dominated by the end product N-2 (rather than N2O), and were best predicted by whole-stream respiration rates and stream NO3 concentration. Denitrification accounted for 1-97% of nitrate uptake with five of nine streams having 35% or more of nitrate uptake via denitrification, showing that denitrification is a substantial sink for nitrate in tropical streams. Whole-stream nitrate uptake and denitrification in our study streams closely followed first-order uptake kinetics, indicating that NO3 uptake is limited by delivery of substrate (NO3) to the organisms involved in uptake or denitrification. In the context of whole-catchment nitrogen budgets, our finding that in-stream denitrification results in lower proportional production of N2O than terrestrial denitrification suggests that small streams can be viewed as the preferred site of denitrification in a watershed in order to minimize greenhouse gas N2O emissions. Conservation of small streams is thus critical in tropical ecosystem management.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=Qixq_8lIvZE:Wr8-LfoO-Z8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=Qixq_8lIvZE:Wr8-LfoO-Z8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=Qixq_8lIvZE:Wr8-LfoO-Z8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[ECOLOGICAL SOC AMER]]></dc:publisher>
<prism:publicationName><![CDATA[Ecological Applications]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[8]]></prism:number>
<prism:volume><![CDATA[20]]></prism:volume> 
<prism:startingPage><![CDATA[2104]]></prism:startingPage>
<prism:endingPage><![CDATA[2115]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:25 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/Qixq_8lIvZE/refshare</link>
<refworks:FD><![CDATA[DEC]]></refworks:FD>
<refworks:k1><![CDATA[ denitrification]]></refworks:k1>
<refworks:k1><![CDATA[ N loading]]></refworks:k1>
<refworks:k1><![CDATA[ N2O emissions]]></refworks:k1>
<refworks:k1><![CDATA[ nitrate uptake]]></refworks:k1>
<refworks:k1><![CDATA[ Puerto Rico]]></refworks:k1>
<refworks:k1><![CDATA[ tropical streams]]></refworks:k1>
<refworks:k1><![CDATA[ tropics]]></refworks:k1>
<refworks:k1><![CDATA[ RIPARIAN NITROGEN DYNAMICS]]></refworks:k1>
<refworks:k1><![CDATA[ COASTAL MARINE ECOSYSTEMS]]></refworks:k1>
<refworks:k1><![CDATA[ RAIN-FOREST]]></refworks:k1>
<refworks:k1><![CDATA[ WATERSHEDS]]></refworks:k1>
<refworks:k1><![CDATA[ PUERTO-RICO]]></refworks:k1>
<refworks:k1><![CDATA[ HEADWATER STREAMS]]></refworks:k1>
<refworks:k1><![CDATA[ N-15 ADDITION]]></refworks:k1>
<refworks:k1><![CDATA[ FRESH-WATER]]></refworks:k1>
<refworks:k1><![CDATA[ OXIDE PRODUCTION]]></refworks:k1>
<refworks:k1><![CDATA[ REACH-SCALE]]></refworks:k1>
<refworks:k1><![CDATA[ CONSEQUENCES]]></refworks:k1>
<refworks:k1><![CDATA[ Ecology]]></refworks:k1>
<refworks:k1><![CDATA[ Environmental Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 55; TC: 0; J9: ECOL APPL; PG: 12; GA: 690IM]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 1990 M STREET NW, STE 700, WASHINGTON, DC 20036 USA]]></refworks:pp>
<refworks:sn><![CDATA[1051-0761]]></refworks:sn>
<refworks:ad><![CDATA[[Potter, J. D.; McDowell, W. H.; Merriam, J. L.] Univ New Hampshire, Dept Nat Resources Environm, Durham, NH 03824 USA. [Peterson, B. J.; Thomas, S. M.] Marine Biol Lab, Ctr Ecosyst, Woods Hole, MA 02543 USA.; Potter, JD, Univ New Hampshire, Dept Nat Resources Environm, Durham, NH 03824 USA.; jody.potter@unh.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:id><![CDATA[25218]]></refworks:id>
<refworks:cr><![CDATA[CR: ALEXANDER RB, 2000, NATURE, V403, P758 AUMEN NG, 1990, J N AMER BENTHOL SOC, V9, P95 BENCALA KE, 1983, WATER RESOUR RES, V19, P732 BERNOT MJ, FRESHWATER IN PRESS BERNOT MJ, 2005, ECOSYSTEMS, V8, P442, DOI 10.1007/s10021-003-0143-6 BOHLKE JK, 2004, LIMNOL OCEANOGR, V49, P821 BOWDEN WB, 1992, BIOGEOCHEMISTRY, V18, P77 CHESTNUT TJ, 1999, BIOGEOCHEMISTRY, V46, P85 CHESTNUT TJ, 2000, J N AM BENTHOL SOC, V19, P199 COLE JJ, 1993, HUMANS COMPONENTS EC, P141 COLE JJ, 2001, ENVIRON SCI TECHNOL, V35, P991, DOI 10.1021/es0015848 DODDS WK, 2002, J N AM BENTHOL SOC, V21, P206 DOWNING JA, 1999, BIOGEOCHEMISTRY, V46, P104 DUFF JH, 1996, BIOGEOCHEMISTRY, V33, P179 EARL SR, 2006, ECOLOGY, V87, P3140 ERICKSON H, 2001, ECOSYSTEMS, V4, P67 FELLOWS CS, 2006, ECOSYSTEMS, V9, P788, DOI 10.1007/s10021-006-0005-5 FIRESTONE MK, 1980, SCIENCE, V208, P749 GALLOWAY JN, 1994, AMBIO, V23, P120 GRAU HR, 2003, BIOSCIENCE, V53, P1159 GRIMM NB, 2005, J N AM BENTHOL SOC, V24, P626 HALL RO, 2003, LIMNOL OCEANOGR, V48, P1120 HALL RO, 2009, LIMNOL OCEANOGR, V54, P653 LAURSEN AE, 2004, FRESHWATER BIOL, V49, P1448, DOI 10.1111/j.1365-2427.2004.01280.x LEWIS WM, 1999, BIOGEOCHEMISTRY, V46, P149 MACY JG, 2005, THESIS U NEW HAMPSHI MATSON PA, 1990, BIOSCIENCE, V40, P667 MATSON PA, 1999, BIOGEOCHEMISTRY, V46, P67 MCDOWELL WH, DISTURBANCE IN PRESS MCDOWELL WH, 1992, BIOGEOCHEMISTRY, V18, P53 MCDOWELL WH, 1994, LIMNOL OCEANOGR, V39, P111 MCDOWELL WH, 1996, BIOTROPICA A, V28, P577 MERRIAM JL, 2002, FRESHWATER BIOL, V47, P143 MULHOLLAND PJ, 2004, LIMNOL OCEANOGR, V49, P809 MULHOLLAND PJ, 2006, J N AM BENTHOL SOC, V25, P583 MULHOLLAND PJ, 2008, NATURE, V452, P202, DOI 10.1038/nature06686 MULHOLLAND PJ, 2009, LIMNOL OCEANOGR, V54, P666 NEILL C, 2006, HYDROL PROCESS, V20, P2563, DOI 10.1002/hyp.6216 NEWBOLD JD, 1981, CAN J FISH AQUAT SCI, V38, P860 OBRIEN JM, 2007, BIOGEOCHEMISTRY, V84, P31, DOI 10.1007/s10533-007-9073-7 ORTIZZAYAS JR, 2006, BIOGEOCHEMISTRY, V79, P109, DOI 10.1007/s10533-006-9005-y PETERSON BJ, 2001, SCIENCE, V292, P86 PRINGLE CM, 1986, HYDROBIOLOGIA, V134, P207 RUNKEL RL, 1998, 984018 USGS RUNKEL RL, 2002, J N AM BENTHOL SOC, V21, P529 SEITZINGER S, 2006, ECOL APPL, V16, P2064 SEITZINGER SP, 1988, LIMNOL OCEANOGR, V33, P702 SEITZINGER SP, 1998, GLOBAL BIOGEOCHEM CY, V12, P93 SEITZINGER SP, 2000, CHEMOSPHERE GLOBAL C, V2, P267 TURNER RE, 1994, NATURE, V368, P619 VALETT HM, 1996, LIMNOL OCEANOGR, V41, P333 VITOUSEK PM, 1997, ECOL APPL, V7, P737 WANG WC, 1976, SCIENCE, V194, P685 WEBSTER JR, 2003, FRESHWATER BIOL, V48, P1329 WOLLHEIM WM, 2001, LIMNOL OCEANOGR, V46, P1]]></refworks:cr>
<refworks:jo><![CDATA[Ecol.Appl.]]></refworks:jo>
<refworks:an><![CDATA[000284996600005]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25218</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25203">
<title><![CDATA[Review of Florida red tide and human health effects]]></title>
<dc:creator><![CDATA[Fleming,Lora E.]]></dc:creator>
<dc:creator><![CDATA[ Kirkpatrick,Barbara]]></dc:creator>
<dc:creator><![CDATA[ Backer,Lorraine C.]]></dc:creator>
<dc:creator><![CDATA[ Walsh,Cathy J.]]></dc:creator>
<dc:creator><![CDATA[ Nierenberg,Kate]]></dc:creator>
<dc:creator><![CDATA[ Clark,John]]></dc:creator>
<dc:creator><![CDATA[ Reich,Andrew]]></dc:creator>
<dc:creator><![CDATA[ Hollenbeck,Julie]]></dc:creator>
<dc:creator><![CDATA[ Benson,Janet]]></dc:creator>
<dc:creator><![CDATA[ Cheng,Yung Sung]]></dc:creator>
<dc:creator><![CDATA[ Naar,Jerome]]></dc:creator>
<dc:creator><![CDATA[ Pierce,Richard]]></dc:creator>
<dc:creator><![CDATA[ Bourdelais,Andrea J.]]></dc:creator>
<dc:creator><![CDATA[ Abraham,William M.]]></dc:creator>
<dc:creator><![CDATA[ Kirkpatrick,Gary]]></dc:creator>
<dc:creator><![CDATA[ Zaias,Julia]]></dc:creator>
<dc:creator><![CDATA[ Wanner,Adam]]></dc:creator>
<dc:creator><![CDATA[ Mendes,Eliana]]></dc:creator>
<dc:creator><![CDATA[ Shalat,Stuart]]></dc:creator>
<dc:creator><![CDATA[ Hoagland,Porter]]></dc:creator>
<dc:creator><![CDATA[ Stephan,Wendy]]></dc:creator>
<dc:creator><![CDATA[ Bean,Judy]]></dc:creator>
<dc:creator><![CDATA[ Watkins,Sharon]]></dc:creator>
<dc:creator><![CDATA[ Clarke,Tainya]]></dc:creator>
<dc:creator><![CDATA[ Byrne,Margaret]]></dc:creator>
<dc:creator><![CDATA[ Baden,Daniel G.]]></dc:creator>
<description>This paper reviews the literature describing research performed over the past decade on the known and possible exposures and human health effects associated with Florida red tides. These harmful algal blooms are caused by the dinoflagellate, Karenia brevis, and similar organisms, all of which produce a suite of natural toxins known as brevetoxins. Florida red tide research has benefited from a consistently funded, long-term research program, that has allowed an interdisciplinary team of researchers to focus their attention on this specific environmental issue—one that is critically important to Gulf of Mexico and other coastal communities. This long-term interdisciplinary approach has allowed the team to engage the local community, identify measures to protect public health, take emerging technologies into the field, forge advances in natural products chemistry, and develop a valuable pharmaceutical product. The review includes a brief discussion of the Florida red tide organisms and their toxins, and then focuses on the effects of these toxins on animals and humans, including how these effects predict what we might expect to see in exposed people.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=3Oz2EQA58I8:BBA0j3Di1GA:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=3Oz2EQA58I8:BBA0j3Di1GA:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=3Oz2EQA58I8:BBA0j3Di1GA:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Harmful Algae]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[10]]></prism:volume> 
<prism:startingPage><![CDATA[224]]></prism:startingPage>
<prism:endingPage><![CDATA[233]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 6:58:22 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:24 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/3Oz2EQA58I8/refshare</link>
<refworks:FD><![CDATA[1]]></refworks:FD>
<refworks:k1><![CDATA[ Brevetoxins]]></refworks:k1>
<refworks:k1><![CDATA[ Florida red tide]]></refworks:k1>
<refworks:k1><![CDATA[ Harmful algal bloom (HAB)]]></refworks:k1>
<refworks:k1><![CDATA[ Karenia brevis]]></refworks:k1>
<refworks:k1><![CDATA[ Marine toxin diseases]]></refworks:k1>
<refworks:k1><![CDATA[ Neurotoxic fish poisoning]]></refworks:k1>
<refworks:k1><![CDATA[ Neurotoxic shellfish poisoning (NSP)]]></refworks:k1>
<refworks:k1><![CDATA[ Red tide]]></refworks:k1>
<refworks:k1><![CDATA[ Respiratory irritation]]></refworks:k1>
<refworks:k1><![CDATA[ Shellfish poisoning]]></refworks:k1>
<refworks:sn><![CDATA[1568-9883]]></refworks:sn>
<refworks:do><![CDATA[DOI: 10.1016/j.hal.2010.08.006]]></refworks:do>
<refworks:id><![CDATA[25203]]></refworks:id>
<refworks:ul><![CDATA[http://www.sciencedirect.com/science/article/B73D7-50W1THM-1/2/fd08c805ea14294ddbfd800e477a44b9]]></refworks:ul>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25203</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25210">
<title><![CDATA[Nursing vocalization of a polar bear cub]]></title>
<dc:creator><![CDATA[Derocher,Andrew E.]]></dc:creator>
<dc:creator><![CDATA[ van Parijs,Sofie M.]]></dc:creator>
<dc:creator><![CDATA[ Wiig,Oystein]]></dc:creator>
<description>We recorded the nursing vocalization of a wild polar bear (Ursus maritimus) cub in Svalbard, Norway and describe it with the term humming. From a 3-minute recording of the vocalization, we found the sounds composed of between 30-55 pulses with a mean of 0.05 (SE = 0.002) seconds in duration, a frequency with the greatest energy at 0.28 kHz (SE = 0.06), and a mean maximum frequency of 0.85 kHz (SE = 0.15). The function of the pulsed vocalization is unknown but may relate to comfort and contentment or to stimulate milk release by the mother.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0ess5lMXT7w:XFtlqw4M_gI:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=0ess5lMXT7w:XFtlqw4M_gI:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=0ess5lMXT7w:XFtlqw4M_gI:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[INT ASSOC BEAR RESEARCH & MANAGEMENT-IBA]]></dc:publisher>
<prism:publicationName><![CDATA[Ursus]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[21]]></prism:volume> 
<prism:startingPage><![CDATA[189]]></prism:startingPage>
<prism:endingPage><![CDATA[191]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:24 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/0ess5lMXT7w/refshare</link>
<refworks:k1><![CDATA[ polar bear]]></refworks:k1>
<refworks:k1><![CDATA[ Ursus maritimus]]></refworks:k1>
<refworks:k1><![CDATA[ vocalization]]></refworks:k1>
<refworks:k1><![CDATA[ URSUS-MARITIMUS]]></refworks:k1>
<refworks:k1><![CDATA[ Zoology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 18; TC: 0; J9: URSUS; PG: 3; GA: 684BB]]></refworks:no>
<refworks:pp><![CDATA[KNOXVILLE; UNIV, TENNESSEE, 274 ELLINGTON HALL, KNOXVILLE, TN 379996 USA]]></refworks:pp>
<refworks:sn><![CDATA[1537-6176]]></refworks:sn>
<refworks:ad><![CDATA[[Derocher, Andrew E.] Univ Alberta, Dept Biol Sci, Edmonton, AB T6G 2E9, Canada. [van Parijs, Sofie M.] NE Fisheries Sci Ctr, Natl Marine Fisheries Serv, Woods Hole, MA 02543 USA. [Wiig, Oystein] Univ Oslo, Natl Ctr Biosystemat, Nat Hist Museum, N-0318 Oslo, Norway.; Derocher, AE, Univ Alberta, Dept Biol Sci, Edmonton, AB T6G 2E9, Canada.; derocher@ualberta.ca]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:id><![CDATA[25210]]></refworks:id>
<refworks:cr><![CDATA[CR: *PETT EL, 1996, AB BATS TALLB 51 S 7 EWER RF, 1973, CARNIVORES GANZBERGER K, 1995, ZOOL GART, V65, P237 JONKEL CJ, 1971, WILDLIFE MONOGRAPH, V27 LATOUR PB, 1981, CAN J ZOOL, V59, P1775 MALYOV AV, 1991, OCCASIONAL PAPERS IU, V7 PETERS G, 1989, CARNIVORE BEHAV ECOL, P14 PETERS G, 2007, ACTA THERIOL, V52, P379 PRUITT CH, 1977, ANIMALS COMMUNICATE, P767 SCHALLER GB, 1985, GIANT PANDAS WOLONG SCHNEIDER KM, 1933, ZOOL GART, V6, P224 SIEBER OJ, 1984, BEHAVIOUR, V90, P130 STIRLING I, 1974, ZOOLOGY, V52, P1191 STIRLING I, 1978, CAN J ZOOL, V56, P1768 STIRLING I, 1989, J WILDLIFE DIS, V25, P159, UNSP 2716095 WEISSENGRUBER GE, 2001, J ANAT 3, V198, P309 WEMMER C, 1976, J ZOOLOGY LONDON, V180, P425 WIIG O, 1992, POLAR REC, V28, P157]]></refworks:cr>
<refworks:jo><![CDATA[Ursus]]></refworks:jo>
<refworks:an><![CDATA[000284520900005]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25210</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25211">
<title><![CDATA[Permafrost and Wetland Carbon Stocks]]></title>
<dc:creator><![CDATA[Davidson,Eric A.]]></dc:creator>
<dc:publisher><![CDATA[AMER ASSOC ADVANCEMENT SCIENCE]]></dc:publisher>
<prism:publicationName><![CDATA[Science]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[6008]]></prism:number>
<prism:volume><![CDATA[330]]></prism:volume> 
<prism:startingPage><![CDATA[1176]]></prism:startingPage>
<prism:endingPage><![CDATA[1177]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:24 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/JhCvV9tPeDA/refshare</link>
<refworks:FD><![CDATA[NOV 26]]></refworks:FD>
<refworks:k1><![CDATA[ Multidisciplinary Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 3; TC: 0; J9: SCIENCE; PG: 2; GA: 685FE]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 1200 NEW YORK AVE, NW, WASHINGTON, DC 20005 USA]]></refworks:pp>
<refworks:sn><![CDATA[0036-8075]]></refworks:sn>
<refworks:ad><![CDATA[Woods Hole Res Ctr, Falmouth, MA 02540 USA.; Davidson, EA, Woods Hole Res Ctr, Falmouth, MA 02540 USA.; edavidson@whrc.org]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Letter]]></refworks:sf>
<refworks:id><![CDATA[25211]]></refworks:id>
<refworks:cr><![CDATA[CR: DAVIDSON EA, 2006, NATURE, V440, P165, DOI 10.1038/nature04514 MIKAN CJ, 2002, SOIL BIOL BIOCHEM, V34, P1785 TARNOCAI C, 2009, GLOBAL BIOGEOCHEM CY, V23, ARTN GB2023]]></refworks:cr>
<refworks:jo><![CDATA[Science]]></refworks:jo>
<refworks:an><![CDATA[000284613700015]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><description>&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=JhCvV9tPeDA:zlzAWZFq3U4:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=JhCvV9tPeDA:zlzAWZFq3U4:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=JhCvV9tPeDA:zlzAWZFq3U4:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25211</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25217">
<title><![CDATA[Dynamic millennial-scale climate changes in the northwestern Pacific over the past 40,000 years]]></title>
<dc:creator><![CDATA[Chen,M. -T]]></dc:creator>
<dc:creator><![CDATA[ Lin,X. P.]]></dc:creator>
<dc:creator><![CDATA[ Chang,Y. -P]]></dc:creator>
<dc:creator><![CDATA[ Chen,Y. -C]]></dc:creator>
<dc:creator><![CDATA[ Lo,L.]]></dc:creator>
<dc:creator><![CDATA[ Shen,C. -C]]></dc:creator>
<dc:creator><![CDATA[ Yokoyama,Y.]]></dc:creator>
<dc:creator><![CDATA[ Oppo,D. W.]]></dc:creator>
<dc:creator><![CDATA[ Thompson,W. G.]]></dc:creator>
<dc:creator><![CDATA[ Zhang,R.]]></dc:creator>
<description>Ice core records of polar temperatures and greenhouse gases document abrupt millennial-scale oscillations that suggest the reduction or shutdown of thermohaline Circulation (THC) in the North Atlantic Ocean may induce the abrupt cooling in the northern hemisphere. It remains unknown, however, whether the sea surface temperature (SST) is cooling or warming in the Kuroshio of the Northwestern Pacific during the cooling event. Here we present an AMS C-14-dated foraminiferal Mg/Ca SST record from the central Okinawa Trough and document that the SST variations exhibit two steps of warming since 21 ka - at 14.7 ka and 12.8 ka, and a cooling (similar to 1.5 degrees C) during the interval of the Younger Dryas. By contrast, we observed no SST change or oceanic warming (similar to 1.5-2 degrees C) during the episodes of Northern Hemisphere cooling between similar to 21-40 ka. We therefore suggest that the "Antarctic-like" timing and amplitude of millennial-scale SST variations in the subtropical Northwestern Pacific between 20-40 ka may have been determined by rapid ocean adjustment processes in response to abrupt wind stress and meridional temperature gradient changes in the North Pacific. Citation: Chen, M.-T., X. P. Lin, Y.-P. Chang, Y.-C. Chen, L. Lo, C.-C. Shen, Y. Yokoyama, D. W. Oppo, W. G. Thompson, and R. Zhang (2010), Dynamic millennial-scale climate changes in the northwestern Pacific over the past 40,000 years, Geophys. Res. Lett., 37, L23603, doi:10.1029/2010GL045202.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ZIChIiQjti4:0RQg3l2QSPA:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ZIChIiQjti4:0RQg3l2QSPA:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=ZIChIiQjti4:0RQg3l2QSPA:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Geophysical Research Letters]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[37]]></prism:volume> 
<prism:startingPage><![CDATA[L23603]]></prism:startingPage>
<prism:endingPage><![CDATA[L23603]]></prism:endingPage> 
<refworks:created><![CDATA[2/25/2011 7:54:45 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/25/2011 7:55:24 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/ZIChIiQjti4/refshare</link>
<refworks:FD><![CDATA[DEC 3]]></refworks:FD>
<refworks:k1><![CDATA[ EAST-ASIAN MONSOON]]></refworks:k1>
<refworks:k1><![CDATA[ NORTHERN-HEMISPHERE]]></refworks:k1>
<refworks:k1><![CDATA[ LAST DEGLACIATION]]></refworks:k1>
<refworks:k1><![CDATA[ SULU SEA]]></refworks:k1>
<refworks:k1><![CDATA[ VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ LINK]]></refworks:k1>
<refworks:k1><![CDATA[ CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ ANTARCTICA]]></refworks:k1>
<refworks:k1><![CDATA[ GREENLAND]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 23; TC: 0; J9: GEOPHYS RES LETT; PG: 5; GA: 690OW]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0094-8276]]></refworks:sn>
<refworks:ad><![CDATA[[Chen, M. -T.; Chang, Y. -P.; Chen, Y. -C.] Natl Taiwan Ocean Univ, Inst Appl Geosci, Chilung 20224, Taiwan. [Lin, X. P.] Ocean Univ China, Phys Oceanog Lab, Qingdao 266003, Peoples R China. [Lo, L.; Shen, C. -C.] Natl Taiwan Univ, Dept Geosci, Taipei 10617, Taiwan. [Yokoyama, Y.] Univ Tokyo, Atmosphere & Ocean Res Inst, Kashiwanoha, Chiba 2778564, Japan. [Yokoyama, Y.] Univ Tokyo, Dept Earth & Planetary Sci, Kashiwanoha, Chiba 2778564, Japan. [Yokoyama, Y.] Japan Agcy Marine Earth Sci & Technol, Inst Biogeosci, Yokosuka, Kanagawa 2370061, Japan. [Oppo, D. W.; Thompson, W. G.] Woods Hole Oceanog Inst, Dept Geol & Geophys, Woods Hole, MA 02543 USA. [Zhang, R.] NOAA, Geophys Fluid Dynam Lab, Princeton, NJ 08540 USA.; Chen, MT, Natl Taiwan Ocean Univ, Inst Appl Geosci, Chilung 20224, Taiwan.; mtchen@ntou.edu.tw]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010GL045202]]></refworks:do>
<refworks:id><![CDATA[25217]]></refworks:id>
<refworks:cr><![CDATA[CR: ANDERSEN KK, 2004, NATURE, V431, P147, DOI 10.1038/nature02805 BARBANTE C, 2006, NATURE, V444, P195, DOI 10.1038/nature05301 BLUNIER T, 2001, SCIENCE, V291, P109 CHANG P, 2008, NAT GEOSCI, V1, P444, DOI 10.1038/ngeo218 CHIANG JCH, 2005, CLIM DYNAM, V25, P477, DOI 10.1007/s00382-005-0040-5 KIEFER T, 2005, QUATERNARY SCI REV, V24, P1063, DOI 10.1016/j.quascirev.2004.02.021 KOTILAINEN AT, 1995, NATURE, V377, P323 KUTZBACH JE, 1986, J ATMOS SCI, V43, P1726, DOI 10.1175/1520-0469(1986)0432.0.C0;2 LEA DW, 2006, QUATERNARY SCI REV, V25, P1152, DOI 10.1016/j.quascirev.2005.11.010 LEVITUS S, 1994, WORLD OCEAN ATLAS, V4, P129 LIU QY, 2005, GEOPHYS RES LETT, V32, ARTN L24604 OKUMURA YM, 2009, J CLIMATE, V22, P1424, DOI 10.1175/2008JCLI2511.1 OPPO DW, 2003, GEOCHEM GEOPHY GEOSY, V4, ARTN 1003 OPPO DW, 2005, GEOLOGY, V33, P785, DOI 10.1130/G21867.1 ROSENTHAL Y, 2003, GEOPHYS RES LETT, V30, ARTN 1428 SAWADA K, 1998, NATURE, V392, P592 STEINKE S, 2005, GEOCHEM GEOPHY GEOSY, V6, ARTN Q11005 SUN YB, 2005, PALEOCEANOGRAPHY, V20, ARTN PA4005 WANG YJ, 2008, NATURE, V451, P1090, DOI 10.1038/nature06692 WU LX, 2008, J CLIMATE, V21, P3002, DOI 10.1175/2007JCLI1858.1 YU LS, 2007, B AM METEOROL SOC, V88, P527, DOI 10.1175/BAMS-88-4-527 ZHANG LP, 2010, J GEOPHYS RES-OCEANS, V115, ARTN C08031 ZHANG R, 2005, J CLIMATE, V18, P1853]]></refworks:cr>
<refworks:jo><![CDATA[Geophys.Res.Lett.]]></refworks:jo>
<refworks:an><![CDATA[000285015100003]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25217</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25193">
<title><![CDATA[Golgi Cells Operate as State-Specific Temporal Filters at the Input Stage of the Cerebellar Cortex]]></title>
<dc:creator><![CDATA[Heine,Shane A.]]></dc:creator>
<dc:creator><![CDATA[ Highstein,Stephen M.]]></dc:creator>
<dc:creator><![CDATA[ Blazquez,Pablo M.]]></dc:creator>
<description>Cerebellar processing of incoming information begins at the synapse between mossy fibers and granule cells, a synapse that is strongly controlled through Golgi cell inhibition. Thus, Golgi cells are uniquely positioned to control the flow of information into the cerebellar cortex and understanding their responses during behavior is essential to understanding cerebellar function. Here we show, for the first time, that Golgi cells express a unique oculomotor-related signal that can be used to provide state-and time-specific filtering of granule cell activity. We used newly established criteria to identify the unique electrophysiological signature of Golgi cells and recorded these neurons in the squirrel monkey ventral paraflocculus during oculomotor behaviors. We found that they carry eye movement, but not vestibular or visual, information and that this eye movement information is only expressed within a specific range of eye positions for each neuron. In addition, simultaneous recordings of Golgi cells and nearby mossy fibers revealed that Golgi cells have the opposite directional tuning of the mossy fiber(s) that likely drive their responses, and that these responses are more sluggish than their mossy fiber counterparts. Because the mossy fiber inputs appear to convey the activity of burst-tonic neurons in the brainstem, Golgi cell responses reflect a time-filtered negative image of the motor command sent to the extraocular muscles. We suggest a role for Golgi cells in the construction of forward models of movement, commonly hypothesized as a major function of the cerebellar cortex in motor control.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=GHbGBxibWqg:DoCSnlyBTCY:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=GHbGBxibWqg:DoCSnlyBTCY:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=GHbGBxibWqg:DoCSnlyBTCY:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[SOC NEUROSCIENCE]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Neuroscience]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[50]]></prism:number>
<prism:volume><![CDATA[30]]></prism:volume> 
<prism:startingPage><![CDATA[17004]]></prism:startingPage>
<prism:endingPage><![CDATA[17014]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/GHbGBxibWqg/refshare</link>
<refworks:FD><![CDATA[DEC 15]]></refworks:FD>
<refworks:k1><![CDATA[ RAPID BEHAVIORAL MODIFICATION]]></refworks:k1>
<refworks:k1><![CDATA[ PURSUIT EYE-MOVEMENTS]]></refworks:k1>
<refworks:k1><![CDATA[ VESTIBULOOCULAR]]></refworks:k1>
<refworks:k1><![CDATA[ REFLEX]]></refworks:k1>
<refworks:k1><![CDATA[ MOSSY FIBERS]]></refworks:k1>
<refworks:k1><![CDATA[ SMOOTH-PURSUIT]]></refworks:k1>
<refworks:k1><![CDATA[ PRIMATE FLOCCULUS]]></refworks:k1>
<refworks:k1><![CDATA[ RHESUS]]></refworks:k1>
<refworks:k1><![CDATA[ MACAQUE]]></refworks:k1>
<refworks:k1><![CDATA[ PURKINJE-CELLS]]></refworks:k1>
<refworks:k1><![CDATA[ HEAD ROTATION]]></refworks:k1>
<refworks:k1><![CDATA[ RAT]]></refworks:k1>
<refworks:k1><![CDATA[ Neurosciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 38; TC: 0; J9: J NEUROSCI; PG: 11; GA: 695AF]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 11 DUPONT CIRCLE, NW, STE 500, WASHINGTON, DC 20036 USA]]></refworks:pp>
<refworks:sn><![CDATA[0270-6474]]></refworks:sn>
<refworks:ad><![CDATA[[Heine, Shane A.; Blazquez, Pablo M.] Washington Univ, Dept Otolaryngol, St Louis, MO 63110 USA. [Highstein, Stephen M.] Marine Biol Lab, Woods Hole, MA 02543 USA.; Blazquez, PM, 4566 Scott Ave, St Louis, MO 63110 USA.; pablo@pcg.wustl.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1523/JNEUROSCI.3513-10.2010]]></refworks:do>
<refworks:id><![CDATA[25193]]></refworks:id>
<refworks:cr><![CDATA[CR: BARMACK NH, 2008, J NEUROSCI, V28, P1140, DOI 10.1523/JNEUROSCI.3942-07.2008 BLAZQUEZ PM, 2003, J NEUROSCI, V23, P9742 CAJAL SRY, 1911, HISTOLOGIE SYSTEME N CHADDERTON P, 2004, NATURE, V428, P856, DOI 10.1038/nature02442 CHANPALAY V, 1971, Z ANAT ENTWICKLUNGS, V133, P274 DANGELO E, 2009, TRENDS NEUROSCI, V32, P30, DOI 10.1016/j.tins.2008.09.007 DIEUDONNE S, 1998, J PHYSIOL-LONDON, V510, P845 EBNER T, 2008, CEREBELLUM, V7, P583, DOI 10.1007/s12311-008-0059-3 ECCLES J, 1967, CEREBELLUM NEURONAL ECCLES JC, 1964, NATURE, V204, P1265 FORTI L, 2006, J PHYSIOL-LONDON, V574, P711, DOI 10.1113/jphysiol.2006.110858 GHASIA FF, 2008, J NEUROSCI, V28, P5082, DOI 10.1523/JNEUROSCI.0513-08.2008 GREEN AM, 2007, J NEUROSCI, V27, P1346, DOI 10.1523/JNEUROSCI.3822-06.2007 HOLT GR, 1996, J NEUROPHYSIOL, V75, P1806 HOLTZMAN T, 2006, J PHYSIOL-LONDON, V574, P491, DOI 10.1113/jphysiol.2006.108282 ILG UJ, 2008, BRAIN COGNITION, V68, P229, DOI 10.1016/j.bandc.2008.08.014 KANICHAY RT, 2008, J NEUROSCI, V28, P8955, DOI 10.1523/JNEUROSCI.5469-07.2008 LANGER T, 1985, J COMP NEUROL, V235, P1 LISBERGER SG, 1978, J NEUROPHYSIOL, V41, P733 LISBERGER SG, 1978, J NEUROPHYSIOL, V41, P764 LUJAN R, 1997, J CHEM NEUROANAT, V13, P219 MAEX R, 1998, J NEUROPHYSIOL, V80, P2521 MAEX R, 2000, J PHYSIOL-LONDON, V523, P175 MILES FA, 1980, J NEUROPHYSIOL, V43, P1437 MUSTARI MJ, 1988, J NEUROPHYSIOL, V60, P664 NAKAMAGOE K, 2000, SCIENCE, V288, P857 NODA H, 1986, J PHYSIOL-LONDON, V379, P39 NODA H, 1987, J PHYSIOL-LONDON, V387, P611 PALAY S, 1974, CEREBELLAR CORTEX CY PASALAR S, 2006, NAT NEUROSCI, V9, P1404, DOI 10.1038/nn1783 PRSA M, 2009, J NEUROSCI, V29, P250, DOI 10.1523/JNEUROSCI.4791-08.2009 SHIN SL, 2007, PLOS ONE, V2, ARTN e485 SIMPSON JI, 2005, PROG BRAIN RES, V148, P329, DOI 10.1016/S0079-6123(04)48026-1 SNELLMAN J, 2008, PROG RETIN EYE RES, V27, P450, DOI 10.1016/j.preteyeres.2008.03.003 TAHON K, 2005, NEUROSCI LETT, V390, P156, DOI 10.1016/j.neulet.2005.08.018 THACH WT, 1968, J NEUROPHYSIOL, V31, P785 VOS BP, 1999, EUR J NEUROSCI, V11, P2621 WATANABE D, 2003, NEURON, V39, P821]]></refworks:cr>
<refworks:jo><![CDATA[J.Neurosci.]]></refworks:jo>
<refworks:an><![CDATA[000285342300025]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25193</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25196">
<title><![CDATA[Constraining ventilation during deepwater formation using deep ocean measurements of the dissolved gas ratios Ar-40/Ar-36, N-2/Ar, and Kr/Ar]]></title>
<dc:creator><![CDATA[Nicholson,David]]></dc:creator>
<dc:creator><![CDATA[ Emerson,Steven]]></dc:creator>
<dc:creator><![CDATA[ Caillon,Nicolas]]></dc:creator>
<dc:creator><![CDATA[ Jouzel,Jean]]></dc:creator>
<dc:creator><![CDATA[ Hamme,Roberta C.]]></dc:creator>
<description>The concentration of inert gases and their isotopes in the deep ocean are useful as tracers of air-sea gas exchange during deepwater formation. Delta Kr/Ar, Delta N-2/Ar, and delta Ar-40 were measured in deep profiles of samples collected in the northwest Pacific, subtropical North Pacific and tropical Atlantic oceans. For the ocean below 2000 m, we determined a mean Delta Kr/Ar composition of -0.96% +/- 0.16%, a mean Delta N-2/Ar of 1.29% +/- 0.21% relative to equilibrium saturation, and for delta Ar-40 a value of 1.188% +/- 0.055% relative to air. These data are used to constrain high-latitude ventilation processes in the framework of three-box and seven-box ocean models. For the three-box model tracer data, we constrain the appropriate surface area of the high-latitude region in both models to be 3.6% (+2.5%, -1.7%) of ocean surface area and the bubble air injection rate to be 22.7 (+8.8, -7.3) mol air m(-2) yr(-1). Results for the seven-box model were similar, with a high-latitude area of 3.3% (+2.2%, -1.3%). Our results provide geochemical support for suggestions that the effective area of high-latitude ventilation is much smaller than the region of elevated preformed nutrients and demonstrate that noble gases strongly constrain the ocean solubility pump. Reducing high-latitude surface area weakens the CO2 solubility pump in the box models and limits communication between the atmosphere and deep ocean. These tracers should be useful constraints on high-latitude ventilation and the strength of the solubility pump in more complex ocean general circulation models.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=FfjbcdOUmqo:xVXJr2jrIZA:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=FfjbcdOUmqo:xVXJr2jrIZA:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=FfjbcdOUmqo:xVXJr2jrIZA:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Journal of Geophysical Research-Oceans]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[115]]></prism:volume> 
<prism:startingPage><![CDATA[C11015]]></prism:startingPage>
<prism:endingPage><![CDATA[C11015]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/FfjbcdOUmqo/refshare</link>
<refworks:FD><![CDATA[NOV 19]]></refworks:FD>
<refworks:k1><![CDATA[ ANTARCTIC SEA-ICE]]></refworks:k1>
<refworks:k1><![CDATA[ ATMOSPHERIC CO2]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON-DIOXIDE]]></refworks:k1>
<refworks:k1><![CDATA[ BOX MODELS]]></refworks:k1>
<refworks:k1><![CDATA[ AIR]]></refworks:k1>
<refworks:k1><![CDATA[ EXCHANGE]]></refworks:k1>
<refworks:k1><![CDATA[ NEON]]></refworks:k1>
<refworks:k1><![CDATA[ SOLUBILITY]]></refworks:k1>
<refworks:k1><![CDATA[ CLIMATE]]></refworks:k1>
<refworks:k1><![CDATA[ PUMP]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 46; TC: 0; J9: J GEOPHYS RES-OCEANS; PG: 15; GA: 683NY]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0148-0227]]></refworks:sn>
<refworks:ad><![CDATA[[Nicholson, David] Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods Hole, MA 02543 USA. [Emerson, Steven] Univ Washington, Sch Oceanog, Seattle, WA 98195 USA. [Caillon, Nicolas; Jouzel, Jean] CE Saclay, UVSQ, CNRS, Lab Sci Climat & Environm,IPSL,CEA, F-91191 Gif Sur Yvette, France. [Hamme, Roberta C.] Univ Victoria, Sch Earth & Ocean Sci, Bob Wright Ctr A405, Victoria, BC V8W 3V6, Canada.; Nicholson, D, Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, MS 25,266 Woods Hole Rd, Woods Hole, MA 02543 USA.; dnicholson@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010JC006152]]></refworks:do>
<refworks:id><![CDATA[25196]]></refworks:id>
<refworks:cr><![CDATA[CR: ARCHER DE, 2000, GLOBAL BIOGEOCHEM CY, V14, P1219 ARCHER DE, 2003, PALEOCEANOGRAPHY, V18, ARTN 1012 BROECKER WS, 1982, TRACERS SEA DEVOL AH, 2006, DEEP-SEA RES PT I, V53, P1533, DOI 10.1016/j.dsr.2006.07.005 EMERSON S, 1999, MAR CHEM, V64, P337 EMERSON S, 2008, CHEM OCEANOGRAPHY MA FUCHS G, 1987, J GEOPHYS RES-OCEANS, V92, P6559 GILDOR H, 2001, J GEOPHYS RES-OCEANS, V106, P9117 GLUECKAUF E, 1951, COMPENDIUM METEOROLO, P1 HAMME RC, 2002, GEOPHYS RES LETT, V29, ARTN 2120 HAMME RC, 2004, DEEP-SEA RES PT I, V51, P1517, DOI 10.1016/j.dsr.2004.06.009 HAMME RC, 2004, MAR CHEM, V91, P53, DOI 10.1016/j.marchem.2004.05.001 HAMME RC, 2006, J MAR RES, V64, P73 HAMME RC, 2007, DEEP-SEA RES PT I, V54, P939, DOI 10.1016/j.dsr.2007.03.008 HOHMANN R, 2002, J GEOPHYS RES-OCEANS, V107, ARTN 3198 ITO T, 2005, J MAR RES, V63, P813 ITO T, 2006, GLOBAL BIOGEOCHEM CY, V20, ARTN GB3019 JAHNE B, 1987, J GEOPHYS RES-OCEANS, V92, P10767 JAHNE B, 1987, J GEOPHYS RES-OCEANS, V92, P1937 KNOX F, 1984, J GEOPHYS RES-ATMOSP, V89, P4629 KNOX M, 1992, J GEOPHYS RES-OCEANS, V97, P20335 LEDWELL JR, 1984, GAS TRANSFER WATER S, P293 LEVITUS S, 1982, CLIMATOLOGICAL ATLAS LUTHI D, 2008, NATURE, V453, P379, DOI 10.1038/nature06949 MARINOV I, 2006, NATURE, V441, P964, DOI 10.1038/nature04883 MARTIN JH, 1990, NATURE, V345, P156 NIGHTINGALE PD, 2000, GLOBAL BIOGEOCHEM CY, V14, P373 PETIT JR, 1999, NATURE, V399, P429 RODEHACKE CB, 2007, OCEAN DYNAM, V57, P1, DOI 10.1007/s10236-006-0073-2 SARMIENTO JL, 1984, NATURE, V308, P621 SEVERINGHAUS JP, 2003, GEOCHIM COSMOCHIM AC, V67, P325 SIEGENTHALER U, 1984, NATURE, V308, P624 SIGMAN DM, 2000, NATURE, V407, P859 SIGMAN DM, 2004, NATURE, V428, P59, DOI 10.1038/nature02357 STANLEY RHR, 2006, J MAR RES, V64, P267 STANLEY RHR, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C11020 STEPHENS BB, 2000, NATURE, V404, P171 TOGGWEILER JR, 1999, PALEOCEANOGRAPHY, V14, P571 TOGGWEILER JR, 2003, GLOBAL BIOGEOCHEM CY, V17, ARTN 1026 TOGGWEILER JR, 2003, GLOBAL BIOGEOCHEM CY, V17, ARTN 1027 WANNINKHOF R, 1992, J GEOPHYS RES, V97, P7373, DOI 10.1029/92JC00188 WATSON AJ, 1991, NATURE, V349, P145 WEISS RF, 1974, MAR CHEM, V2, P203 WEISS RF, 1978, J CHEM ENG DATA, V23, P69 WELL R, 2003, DEEP-SEA RES PT I, V50, P721, DOI 10.1016/S0967-0637(03)00058-X ZEEBE RE, 2001, CO2 SEAWATER EQUILIB]]></refworks:cr>
<refworks:jo><![CDATA[J.Geophys.Res.-Oceans]]></refworks:jo>
<refworks:an><![CDATA[000284483700004]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25196</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25197">
<title><![CDATA[Widespread influence of resuspended sediments on oceanic particulate organic carbon: Insights from radiocarbon and aluminum contents in sinking particles]]></title>
<dc:creator><![CDATA[Hwang,Jeomshik]]></dc:creator>
<dc:creator><![CDATA[ Druffel,Ellen R. M.]]></dc:creator>
<dc:creator><![CDATA[ Eglinton,Timothy I.]]></dc:creator>
<description>Particulate organic carbon (POC) in the ocean often exhibits more depleted radiocarbon contents (lower Delta C-14 values) than expected if its sole source were POC recently synthesized by primary production and export from the overlying surface waters. An examination of available Delta C-14 data sets for sinking POC show that this phenomenon is both common and globally widespread. Also, a strong correlation is found to exist between Delta C-14 values of organic carbon and aluminum content in sinking particles that is consistent over a range of oceanic settings. Together, these findings imply that aged organic carbon associated with lithogenic material from sediment resuspension is responsible for the observed low Delta C-14 values as opposed to other processes such as incorporation of dissolved inorganic carbon or dissolved organic carbon into POC at depth. An estimate based on POC flux- weighted Delta C-14 values shows that about 35% of sinking POC at the locations studied is derived from resuspended sediment. Our results suggest that resuspension of sediment and its subsequent lateral transport is an important component of the oceanic carbon cycle and should be considered in models of oceanic carbon export and burial.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=XgdvCwlcRIs:Ew5V19KR68c:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=XgdvCwlcRIs:Ew5V19KR68c:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=XgdvCwlcRIs:Ew5V19KR68c:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Global Biogeochemical Cycles]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[24]]></prism:volume> 
<prism:startingPage><![CDATA[GB4016]]></prism:startingPage>
<prism:endingPage><![CDATA[GB4016]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/XgdvCwlcRIs/refshare</link>
<refworks:FD><![CDATA[NOV 20]]></refworks:FD>
<refworks:k1><![CDATA[ EQUATORIAL PACIFIC-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ MIDDLE ATLANTIC BIGHT]]></refworks:k1>
<refworks:k1><![CDATA[ DEEP-WATER COLUMN]]></refworks:k1>
<refworks:k1><![CDATA[ CONTINENTAL-SHELF]]></refworks:k1>
<refworks:k1><![CDATA[ NORTHEAST PACIFIC]]></refworks:k1>
<refworks:k1><![CDATA[ LATERAL PARTICLE]]></refworks:k1>
<refworks:k1><![CDATA[ COMPOUND]]></refworks:k1>
<refworks:k1><![CDATA[ CLASSES]]></refworks:k1>
<refworks:k1><![CDATA[ ARCTIC-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ JAPAN SEA]]></refworks:k1>
<refworks:k1><![CDATA[ TEMPORAL VARIABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ Environmental Sciences]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:k1><![CDATA[ Meteorology & Atmospheric Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 93; TC: 0; J9: GLOBAL BIOGEOCHEM CYCLE; PG: 10; GA: 683MT]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0886-6236]]></refworks:sn>
<refworks:ad><![CDATA[[Hwang, Jeomshik; Eglinton, Timothy I.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Hwang, Jeomshik] Pohang Univ Sci & Technol, POSTECH Ocean Sci & Technol Inst, Pohang 790784, South Korea. [Eglinton, Timothy I.] Univ Calif Irvine, Dept Earth Syst Sci, Irvine, CA 92697 USA.; Hwang, J, Woods Hole Oceanog Inst, Woods Hole Rd, Woods Hole, MA 02543 USA.; jhwang@postech.ac.kr]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010GB003802]]></refworks:do>
<refworks:id><![CDATA[25197]]></refworks:id>
<refworks:cr><![CDATA[CR: ANDERSON RF, 1988, CONTINENTAL SHELF RE, V8, P925, DOI 10.1016/0278-4343(88)90082-9 ANDERSON RF, 1994, DEEP SEA RES 2, V41, P669 ARAMAKI T, 2007, RADIOCARBON, V49, P915 ARMSTRONG RA, 2002, DEEP-SEA RES PT II, V49, P219 BAUER JE, 2002, DEEP-SEA RES PT II, V49, P4387 BEAUPRE SR, 2009, DEEP-SEA RES PT I, V56, P1717, DOI 10.1016/j.dsr.2009.05.008 BENTHIEN A, 2000, DEEP-SEA RES PT I, V47, P2369 BISCAYE PE, 1988, CONTINENT SHELF RES, V8, P855 BOTHNER MH, 1981, ESTUAR COAST SHELF S, V13, P213 CHARETTE MA, 2001, J GEOPHYS RES-OCEANS, V106, P11553 CHERRIER J, 1999, LIMNOL OCEANOGR, V44, P730 COLLIER R, 2000, DEEP-SEA RES PT II, V47, P3491 COPPOLA L, 2007, CHEM GEOL, V243, P142, DOI 10.1016/j.chemgeo.2007.05.020 DRUFFEL ERM, 1986, RADIOCARBON, V28, P397 DRUFFEL ERM, 1990, NATURE, V347, P172 DRUFFEL ERM, 1992, J GEOPHYS RES, V97, P639, DOI 10.1029/92JC01511 DRUFFEL ERM, 1998, DEEP-SEA RES PT II, V45, P667 DRUFFEL ERM, 1998, GEOPHYS RES LETT, V25, P1733 DUCE RA, 1991, CYCLES, V5, P193, DOI 10.1029/91GB01778 DUNBAR RB, 1998, J GEOPHYS RES-OCEANS, V103, P30741 DUNNE JP, 2007, GLOBAL BIOGEOCHEM CY, V21, ARTN GB4006 EGLINTON TI, 2002, GEOCHEM GEOPHY GEOSY, V3, ARTN 1050 FRANCOIS R, 2002, GLOBAL BIOGEOCHEM CY, V16, ARTN 1087 FREUDENTHAL T, 2001, MAR GEOL, V177, P93 GONI MA, 2005, MAR CHEM, V93, P53, DOI 10.1016/j.marchem.2004.08.001 GUSTAFSSON O, 2009, SCIENCE, V323, P495, DOI 10.1126/science.1164857 HAY BJ, 1990, DEEP-SEA RES, V37, P911 HEDGES JI, 1992, MAR CHEM, V39, P67 HONDA MC, 2000, MAR CHEM, V68, P231 HONJO S, 1982, SCIENCE, V216, P516 HONJO S, 1995, DEEP SEA RES 2, V42, P831 HONJO S, 1999, DEEP-SEA RES PT II, V46, P1859 HONJO S, 2008, PROG OCEANOGR, V76, P217, DOI 10.1016/j.pocean.2007.11.003 HONJO S, 2010, PROG OCEANOGR, V85, P137, DOI 10.1016/j.pocean.2010.02.009 HWANG J, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB4015 HWANG J, 2005, GLOBAL BIOGEOCHEM CY, V19, ARTN GB2018 HWANG J, 2006, GEOPHYS RES LETT, V33, ARTN L23610 HWANG J, 2008, GEOPHYS RES LETT, V35, ARTN L11607 HWANG J, 2009, DEEP-SEA RES PT I, V56, P1284, DOI 10.1016/j.dsr.2009.01.012 HWANG J, 2009, DEEP-SEA RES PT I, V56, P1792, DOI 10.1016/j.dsr.2009.05.007 HWANG JS, 2003, SCIENCE, V299, P881 HWANG JS, 2006, MAR CHEM, V98, P315, DOI 10.1016/j.marchem.2005.10.008 INGALLS AE, 2006, P NATL ACAD SCI USA, V103, P6442, DOI 10.1073/pnas.0510157103 INGAMELLS CO, 1970, ANAL CHIM ACTA, V52, P323 INTHORN M, 2006, GEOLOGY, V34, P205, DOI 10.1130/G22153.1 JAHNKE RA, 1996, GLOBAL BIOGEOCHEM CY, V10, P71 JONES GA, 1994, DEEP-SEA RES PT I, V41, P531 JONES GA, 1994, NUCL INSTRUM METH B, V92, P426 KAO SJ, 1996, LIMNOL OCEANOGR, V41, P1749 KARAKAS G, 2006, J GEOPHYS RES-OCEANS, V111, ARTN C06025 KARNER MB, 2001, NATURE, V409, P507 KEIL RG, 1994, GEOCHIM COSMOCHIM AC, V58, P879 KEIL RG, 1994, NATURE, V370, P549 KEIL RG, 1999, MAR GEOL, V161, P13 KLAAS C, 2002, GLOBAL BIOGEOCHEM CY, V16, ARTN 1116 LAM PJ, 2008, GEOPHYS RES LETT, V35, ARTN L07608 LEVIN I, 2000, RADIOCARBON, V42, P69 LOH AN, 2004, NATURE, V430, P877, DOI 10.1038/nature02780 MACDONALD RW, 2002, DEEP-SEA RES PT I, V49, P1769 MARTIN JH, 1987, DEEP-SEA RES, V34, P267 MASIELLO CA, 1998, DEEP-SEA RES PT II, V45, P617 MASIELLO CA, 2001, GLOBAL BIOGEOCHEM CY, V15, P407 MAYER LM, 1994, GEOCHIM COSMOCHIM AC, V58, P1271 MCCAVE IN, 1983, J GEOPHYS RES, V88, P7647 MCCAVE IN, 2001, DEEP-SEA RES PT II, V48, P3107 MEASURES CI, 2000, GLOBAL BIOGEOCHEM CY, V14, P317 MINAKAWA M, 1998, J OCEANOGR, V54, P629, DOI 10.1007/BF02823283 MOLLENHAUER G, 2006, DEEP-SEA RES PT I, V53, P1224, DOI 10.1016/j.dsr.2006.05.005 MORAN SB, 1991, GEOCHIM COSMOCHIM AC, V55, P2745 MURRAY RW, 1996, GEOCHIM COSMOCHIM AC, V60, P3869 NAKATSUKA T, 1997, DEEP-SEA RES PT I, V44, P1957 NELSON JR, 1987, CONT SHELF RES, V7, P307 OHKOUCHI N, 2002, SCIENCE, V298, P1224, DOI 10.1126/science.1075287 OTOSAKA S, 2004, MAR CHEM, V91, P143, DOI 10.1016/j.marchem.2004.06.006 OTOSAKA S, 2008, J OCEANOGR, V64, P911 PEARSON A, 2001, GEOCHIM COSMOCHIM AC, V65, P3123 PILSKALN CH, 2006, EOS T AGU, V87 RAU GH, 1986, DEEP-SEA RES, V33, P349 REA DK, 1995, PALEOCEANOGRAPHY, V10, P251 SANTSCHI PH, 1999, CONT SHELF RES, V19, P609 SHERRELL RM, 1998, DEEP-SEA RES PT II, V45, P733 SMITH KL, 2001, LIMNOL OCEANOGR, V46, P543 SUZUKI T, 1988, TELLUS B, V40, P42 TAYLOR SR, 1964, GEOCHIM COSMOCHIM AC, V28, P1273 THOMSEN L, 2000, DEEP-SEA RES PT I, V47, P1881 TOWNSEND DW, 1992, CONT SHELF RES, V12, P367 TSUNOGAI S, 1999, TELLUS B, V51, P701 VOGEL JS, 1987, NUCL INSTRUM METH B, V29, P50 VOLK T, 1985, GEOPHYS MONOGR, V32, P99 WAKEHAM SG, 2006, EOS T AGU, V87 WANG XC, 1996, GEOPHYS RES LETT, V23, P3583 WANG XC, 1998, GEOCHIM COSMOCHIM AC, V62, P1365 WUCHTER C, 2003, FEMS MICROBIOL LETT, V219, P203, DOI 10.1016/S0378-1097(03)00060-0]]></refworks:cr>
<refworks:jo><![CDATA[Global Biogeochem.Cycles]]></refworks:jo>
<refworks:an><![CDATA[000284480600001]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25197</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25198">
<title><![CDATA[Natural organobromine in marine sediments: New evidence of biogeochemical Br cycling]]></title>
<dc:creator><![CDATA[Leri,Alessandra C.]]></dc:creator>
<dc:creator><![CDATA[ Hakala,J. Alexandra]]></dc:creator>
<dc:creator><![CDATA[ Marcus,Matthew A.]]></dc:creator>
<dc:creator><![CDATA[ Lanzirotti,Antonio]]></dc:creator>
<dc:creator><![CDATA[ Reddy,Christopher M.]]></dc:creator>
<dc:creator><![CDATA[ Myneni,Satish C. B.]]></dc:creator>
<description>Organobromine (Br-org) compounds, commonly recognized as persistent, toxic anthropogenic pollutants, are also produced naturally in terrestrial and marine systems. Several enzymatic and abiotic bromination mechanisms have been identified, as well as an array of natural Brorg molecules associated with various marine organisms. The fate of the carbon-bromine functionality in the marine environment, however, remains largely unexplored. Oceanographic studies have noted an association between bromine (Br) and organic carbon (C-org) in marine sediments. Even so, there has been no direct chemical evidence that Br in the sediments exists in a stable form apart from inorganic bromide (Br-inorg), which is widely presumed conservative in marine systems. To investigate the scope of natural Brorg production and its fate in the environment, we probed Br distribution and speciation in estuarine and marine sediments using in situ X-ray spectroscopy and spectromicroscopy. We show that Br-org is ubiquitous throughout diverse sedimentary environments, occurring in correlation with C-org and metals such as Fe, Ca, and Zn. Analysis of sinking particulate carbon from the seawater column links the Brorg observed in sediments to biologically produced Br-org compounds that persist through humification of natural organic matter (NOM). Br speciation varies with sediment depth, revealing biogeochemical cycling of Br between organic and inorganic forms as part of the burial and degradation of NOM. These findings illuminate the chemistry behind the association of Br with C-org in marine sediments and cast doubt on the paradigmatic classification of Br as a conservative element in seawater systems.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=4IwY5S2tKzI:c5SZaJjUaZY:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=4IwY5S2tKzI:c5SZaJjUaZY:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=4IwY5S2tKzI:c5SZaJjUaZY:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Global Biogeochemical Cycles]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[24]]></prism:volume> 
<prism:startingPage><![CDATA[GB4017]]></prism:startingPage>
<prism:endingPage><![CDATA[GB4017]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/4IwY5S2tKzI/refshare</link>
<refworks:FD><![CDATA[NOV 24]]></refworks:FD>
<refworks:k1><![CDATA[ RAY-ABSORPTION SPECTROSCOPY]]></refworks:k1>
<refworks:k1><![CDATA[ BROMINATED FLAME RETARDANTS]]></refworks:k1>
<refworks:k1><![CDATA[ ORGANIC-CARBON RATIOS]]></refworks:k1>
<refworks:k1><![CDATA[ MEDITERRANEAN SEDIMENTS]]></refworks:k1>
<refworks:k1><![CDATA[ CONSTRUCTED WETLANDS]]></refworks:k1>
<refworks:k1><![CDATA[ PEAT BOGS]]></refworks:k1>
<refworks:k1><![CDATA[ MATTER]]></refworks:k1>
<refworks:k1><![CDATA[ ORGANOHALOGENS]]></refworks:k1>
<refworks:k1><![CDATA[ HALOGEN]]></refworks:k1>
<refworks:k1><![CDATA[ WATER]]></refworks:k1>
<refworks:k1><![CDATA[ Environmental Sciences]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:k1><![CDATA[ Meteorology & Atmospheric Sciences]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 52; TC: 0; J9: GLOBAL BIOGEOCHEM CYCLE; PG: 15; GA: 686NS]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0886-6236]]></refworks:sn>
<refworks:ad><![CDATA[[Leri, Alessandra C.; Myneni, Satish C. B.] Princeton Univ, Dept Chem, Princeton, NJ 08544 USA. [Hakala, J. Alexandra; Myneni, Satish C. B.] Princeton Univ, Dept Geosci, Princeton, NJ 08544 USA. [Marcus, Matthew A.] Univ Calif Berkeley, Lawrence Berkeley Lab, Adv Light Source, Berkeley, CA 94720 USA. [Lanzirotti, Antonio] Univ Chicago, Consortium Adv Radiat Sources, Chicago, IL 60637 USA. [Reddy, Christopher M.] Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods Hole, MA 02543 USA. [Myneni, Satish C. B.] Univ Calif Berkeley, Lawrence Berkeley Lab, Div Earth Sci, Berkeley, CA 94720 USA.; Leri, AC, Marymount Manhattan Coll, Dept Nat Sci & Math, 221 E 71st St, New York, NY 10021 USA.; aleri@mmm.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010GB003794]]></refworks:do>
<refworks:id><![CDATA[25198]]></refworks:id>
<refworks:cr><![CDATA[CR: AHN YB, 2003, APPL ENVIRON MICROB, V69, P4159, DOI 10.1128/AEM.69.7.4159-4166.2003 BERGER DL, 1984, ANAL CHEM, V56, UNSP S00216- BERTSCH PM, 2001, CHEM REV, V101, P1809, DOI 10.1021/cr990070s BIESTER H, 2004, ENVIRON SCI TECHNOL, V38, P1984, DOI 10.1021/es0348492 BIESTER H, 2006, BIOGEOSCIENCES, V3, P53 BOYD PW, 2007, PROG OCEANOGR, V72, P276 BUTLER A, 2004, NAT PROD REP, V21, P180, DOI 10.1039/b302337k CARPENTER LJ, 2000, J GEOPHYS RES-ATMOS, V105, P20539 COOK MS, 2005, DEEP-SEA RES PT II, V52, P2163, DOI 10.1016/j.dsr2.2005.07.004 DARNERUD PO, 2003, ENVIRON INT, V29, P841, DOI 10.1016/S0160-4120(03)00107-7 DEMBITSKY VM, 2002, RUSS J BIOORG CHEM+, V28, P170 FIELMAN KT, 2001, ENVIRON TOXICOL CHEM, V20, P738 GOUTX M, 2007, LIMNOL OCEANOGR, V52, P1645 GRIBBLE GJ, 2000, ENVIRON SCI POLLUT R, V7, P37 GRIBBLE GW, 2003, CHEMOSPHERE, V52, P289, DOI 10.1016/S0045-6535(03)00207-8 HARPER F, 1984, GROUND WATER MONIT R, V4, P46 HONDA MC, 1997, J OCEANOGR, V53, P645 JOHANSSON C, 1994, ENVIRON INT, V20, P103 KEPPLER F, 2000, NATURE, V403, P298 KERFOOT WC, 1999, LIMNOL OCEANOGR, V44, P1232 KING GM, 1986, NATURE, V323, P257 LABARRE S, 2010, MAR DRUGS, V8, P988, DOI 10.3390/md8040988 LANE AL, 2009, P NATL ACAD SCI USA, V106, P7314, DOI 10.1073/pnas.0812020106 LATURNUS F, 2000, FRESEN J ANAL CHEM, V368, P297 LEHMANN MF, 2005, GLOBAL BIOGEOCHEM CY, V19, ARTN GB4005 LERI AC, 2006, ANAL CHEM, V78, P5711, DOI 10.1021/ac060476m MAHN CL, 2001, MAR GEOL, V174, P323 MARCUS MA, 2004, J SYNCHROTRON RADI 3, V11, P239, DOI 10.1107/S0909049504005837 MARTIN JB, 1993, GEOCHIM COSMOCHIM AC, V57, P4377 MAYER LM, 1981, ORGANIC GEOCHEMISTRY, V3, P37, DOI 10.1016/0146-6380(81)90011-5 MAYER LM, 2007, MAR CHEM, V107, P244, DOI 10.1016/j.marchem.2007.07.007 MORRIS AW, 1966, DEEP-SEA RES, V13, P699 MULLER G, 1996, J PRAK CHEM-CHEM ZTG, V338, P23 NORSTROM RJ, 2002, ENVIRON SCI TECHNOL, V36, P4783, DOI 10.1021/es025831e PELIZZETTI E, 2002, ENVIRONM SCI, P83 PHEDORIN MA, 2000, NUCL INSTRUM METH A, V448, P400 PRICE NB, 1970, J MAR RES, V28, P22 PRUYSERS PA, 1991, MAR GEOL, V100, P137, DOI 10.1016/0025-3227(91)90230-2 PUTSCHEW A, 2003, ANAL BIOANAL CHEM, V375, P781, DOI 10.1007/s00216-003-1797-1 QUACK B, 2004, GEOPHYS RES LETT, V31, ARTN L23S05 RESSLER T, 1998, J SYNCHROTRON RADI 2, V5, P118 ROBINSON RS, 2004, PALEOCEANOGRAPHY, V19, ARTN PA3001 SANTILLO D, 2003, ENVIRON INT, V29, P725, DOI 10.1016/S0160-4120(03)00115-6 SANTOS IR, 2007, MAR CHEM, V107, P464, DOI 10.1016/j.marchem.2007.09.006 SCHOLER HE, 2003, HANDB ENVIRON CHEM P, V3, P63 SIMMONS RC, 1992, J ENVIRON QUAL, V21, P659 TANNER CC, 1995, WATER SCI TECHNOL, V32, P229 TENHAVEN HL, 1988, ORG GEOCHEM, V13, P255 THEILER R, 1978, SCIENCE, V202, P1094 WEAVER RW, 2003, ENVIRON TECHNOL, V24, P77 WEVER R, 1991, ENVIRON SCI TECHNOL, V25, P446 ZIEGLER M, 2008, GEOCHEM GEOPHY GEOSY, V9, ARTN Q05009]]></refworks:cr>
<refworks:jo><![CDATA[Global Biogeochem.Cycles]]></refworks:jo>
<refworks:an><![CDATA[000284703600001]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25198</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25201">
<title><![CDATA[Authigenic Pb isotopes from the Laurentian Fan: Changes in chemical weathering and patterns of North American freshwater runoff during the last deglaciation]]></title>
<dc:creator><![CDATA[Kurzweil,Florian]]></dc:creator>
<dc:creator><![CDATA[ Gutjahr,Marcus]]></dc:creator>
<dc:creator><![CDATA[ Vance,Derek]]></dc:creator>
<dc:creator><![CDATA[ Keigwin,Lloyd]]></dc:creator>
<description>Climate-dependent chemical weathering trends have a strong impact on the dissolved Pb isotopic composition of continental runoff during glacial terminations, so that this tracer can be used to reconstruct the impact of the North American deglaciation on aspects of freshwater runoff and ocean chemistry. Here we present authigenic Fe-Mn oxyhydroxide-derived Pb isotope records from lower Laurentian Fan sediments that trace the local deglacial continental runoff signal through the Gulf of St. Lawrence. We use these records to investigate changes in the Pb isotopic composition of the North American runoff, and their relationship to deglacial processes. The new Pb isotope records are very similar to those from the subtropical deep NW Atlantic locations, though the new data are at higher resolution and exhibit much greater amplitudes of change due to their Laurentide Ice Sheet-proximal setting. Unradiogenic compositions (Pb-206/Pb-204 as low as 18.8 at 18.5 ka) during the latest glacial change towards highly radiogenic compositions during the early Holocene (Pb-206/Pb-204 = 20.1 at 11.2 ka). Late Holocene Pb-206/Pb-204 values return to intermediate values around Pb-206/Pb-204 = 19.6. These new data support previous inferences that the Pb isotopic composition of the deep Atlantic is controlled during deglaciation by changes in the pattern and intensity of continental chemical weathering. In more detail, the most significant change in the entire Pb isotope record starts at 12.5 ka and lasts until about 11 ka. This observation, of strong Pb isotopic changes across a climatically cold period in the North Atlantic region, suggests that at this location Pb isotopic compositions recorded in deep marine authigenic Fe-Mn oxyhydroxides not only trace deglacial changes in chemical weathering intensity but also highly depend on major freshwater runoff routes in interior North America. Our data suggest a gradual opening of the eastward freshwater runoff route in the course of the Younger Dryas. (C) 2010 Elsevier B.V. All rights reserved.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=VBtEVUrqrrw:yiVSURrRxH0:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=VBtEVUrqrrw:yiVSURrRxH0:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=VBtEVUrqrrw:yiVSURrRxH0:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[ELSEVIER SCIENCE BV]]></dc:publisher>
<prism:publicationName><![CDATA[Earth and Planetary Science Letters]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[3-4]]></prism:number>
<prism:volume><![CDATA[299]]></prism:volume> 
<prism:startingPage><![CDATA[458]]></prism:startingPage>
<prism:endingPage><![CDATA[465]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/VBtEVUrqrrw/refshare</link>
<refworks:FD><![CDATA[NOV 1]]></refworks:FD>
<refworks:k1><![CDATA[ Pb isotopes]]></refworks:k1>
<refworks:k1><![CDATA[ chemical weathering]]></refworks:k1>
<refworks:k1><![CDATA[ freshwater runoff]]></refworks:k1>
<refworks:k1><![CDATA[ Laurentide Ice Sheet]]></refworks:k1>
<refworks:k1><![CDATA[ deglaciation]]></refworks:k1>
<refworks:k1><![CDATA[ Laurentian Fan]]></refworks:k1>
<refworks:k1><![CDATA[ Fe-Mn oxyhydroxides]]></refworks:k1>
<refworks:k1><![CDATA[ ABRUPT CLIMATE OSCILLATIONS]]></refworks:k1>
<refworks:k1><![CDATA[ ICE-SHEET]]></refworks:k1>
<refworks:k1><![CDATA[ YOUNGER DRYAS]]></refworks:k1>
<refworks:k1><![CDATA[ ACCESSORY]]></refworks:k1>
<refworks:k1><![CDATA[ PHASES]]></refworks:k1>
<refworks:k1><![CDATA[ SOUTHERN-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ LABRADOR SEA]]></refworks:k1>
<refworks:k1><![CDATA[ DEEP-WATER]]></refworks:k1>
<refworks:k1><![CDATA[ SOIL AGE]]></refworks:k1>
<refworks:k1><![CDATA[ ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ Geochemistry & Geophysics]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 55; TC: 0; J9: EARTH PLANET SCI LETT; PG: 8; GA: 687CI]]></refworks:no>
<refworks:pp><![CDATA[AMSTERDAM; PO BOX 211, 1000 AE AMSTERDAM, NETHERLANDS]]></refworks:pp>
<refworks:sn><![CDATA[0012-821X]]></refworks:sn>
<refworks:ad><![CDATA[[Kurzweil, Florian; Gutjahr, Marcus; Vance, Derek] Univ Bristol, Bristol Isotope Grp, Dept Earth Sci, Bristol BS8 1RJ, Avon, England. [Keigwin, Lloyd] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.; Kurzweil, F, Univ Munster, Inst Geol & Palaontol, Corrensstr 24, D-48149 Munster, Germany.; f_kurz01@uni-muenster.de]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1016/j.epsl.2010.09.031]]></refworks:do>
<refworks:id><![CDATA[25201]]></refworks:id>
<refworks:cr><![CDATA[CR: ALLEMAN LY, 1999, GEOPHYS RES LETT, V26, P1477 ANDERSEN KK, 2004, NATURE, V431, P147, DOI 10.1038/nature02805 ANDERSON RF, 2009, SCIENCE, V323, P1443, DOI 10.1126/science.1167441 ANDERSON SP, 2007, ANNU REV EARTH PL SC, V35, P375 BAKER J, 2004, CHEM GEOL, V211, P275, DOI 10.1016/j.chemgeo.2004.06.030 BARKER S, 2009, NATURE, V457, P1097, DOI 10.1038/nature07770 BAYON G, 2002, CHEM GEOL, V187, P179 BAYON G, 2004, EARTH PLANET SC LETT, V224, P477, DOI 10.1016/j.epsl.2004.05.033 BLUM JD, 1995, NATURE, V373, P415 CARLSON AE, 2007, P NATL ACAD SCI USA, V104, P6556, DOI 10.1073/pnas.0611313104 CHENG H, 2009, SCIENCE, V326, P248, DOI 10.1126/science.1177840 CLARK PU, 2001, SCIENCE, V293, P283 CLARK PU, 2006, QUATERNARY SCI REV, V25, P3150, DOI 10.1016/j.quascirev.2006.07.008 DENTON GH, 2010, SCIENCE, V328, P1652, DOI 10.1126/science.1184119 DYKE AS, 2003, 1547 GEOL SURV CAN N EREL YG, 1994, GEOCHIM COSMOCHIM AC, V58, P5299 FAGEL N, 2002, GEOCHIM COSMOCHIM AC, V66, P2569 FISHER TG, 2006, QUATERNARY SCI REV, V25, P2688, DOI 10.1016/j.quascirev.2006.05.007 FOSTER GL, 2006, NATURE, V444, P918, DOI 10.1038/nature05365 FRANK M, 2002, REV GEOPHYS, V40, ARTN 1001 GHERARDI JM, 2009, PALEOCEANOGRAPHY, V24, ARTN PA2204 GUTJAHR M, 2007, CHEM GEOL, V242, P351, DOI 10.1016/j.chemgeo.2007.03.021 GUTJAHR M, 2009, EARTH PLANET SC LETT, V286, P546, DOI 10.1016/j.epsl.2009.07.020 HARLAVAN Y, 1998, GEOCHIM COSMOCHIM AC, V62, P33 HARLAVAN Y, 2002, GEOCHIM COSMOCHIM AC, V66, P837 HARLAVAN Y, 2009, GEOCHIM COSMOCHIM AC, V73, P320, DOI 10.1016/j.gca.2008.11.002 HAYS JD, 1976, SCIENCE, V194, P1121, DOI 10.1126/J.1365-194.4270.1121 HEMMING SR, 2004, REV GEOPHYS, V42, ARTN RG1005 HENDERSON GM, 2002, GEOCHIM COSMOCHIM AC, V66, P257 KEIGWIN LD, 1995, PALEOCEANOGRAPHY, V10, P973 KEIGWIN LD, 2005, PALEOCEANOGRAPHY, V20, ARTN PA2003 KENNETT JP, 1975, SCIENCE, V188, P147 KNIES J, 2007, GEOLOGY, V35, P1075, DOI 10.1130/G23966A.1 LEVENTER A, 1982, EARTH PLANET SC LETT, V59, P11 LICCIARDI JM, 1999, GEOPH MONOG SERIES, V112, P177 LOWELL TV, 2009, QUATERNARY SCI REV, V28, P1597, DOI 10.1016/j.quascirev.2009.02.025 LUGMAIR GW, 1992, GEOCHIM COSMOCHIM AC, V56, P1673 MARSHALL SJ, 1999, QUATERNARY RES, V52, P300 MCMANUS JF, 2004, NATURE, V428, P834, DOI 10.1038/nature02494 MILLOT R, 2002, EARTH PLANET SC LETT, V196, P83 MOORE TC, 2005, PALEOCEANOGRAPHY, V20, ARTN PA4021 REYNOLDS BC, 1999, EARTH PLANET SC LETT, V173, P381 RIEBE CS, 2004, EARTH PLANET SC LETT, V224, P547, DOI 10.1016/j.epsl.2004.05.019 ROBINSON LF, 2005, SCIENCE, V310, P1469, DOI 10.1126/science.1114832 SCHAULE BK, 1981, EARTH PLANET SC LETT, V54, P97 SHAW J, 2006, QUATERNARY SCI REV, V25, P2059, DOI 10.1016/j.quascirev.2006.03.002 SIGMAN DM, 2000, NATURE, V407, P859 SKINNER LC, 2010, SCIENCE, V328, P1147, DOI 10.1126/science.1183627 TARASOV L, 2005, NATURE, V435, P662, DOI 10.1038/nature03617 TAYLOR A, 1995, GEOLOGY, V23, P979 TELLER IT, 2005, QUATERNARY SCI REV, V24, P1890 VANCE D, 2009, NATURE, V458, P493, DOI 10.1038/nature07828 VONBLANCKENBURG F, 2001, PALEOCEANOGRAPHY, V16, P424 YU ZC, 1998, SCIENCE, V282, P2235 YU ZC, 2001, EARTH-SCI REV, V52, P333]]></refworks:cr>
<refworks:jo><![CDATA[Earth Planet.Sci.Lett.]]></refworks:jo>
<refworks:an><![CDATA[000284751200022]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25201</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25191">
<title><![CDATA[A molecular phylogeny of the Thaliacea]]></title>
<dc:creator><![CDATA[Govindarajan,Annette F.]]></dc:creator>
<dc:creator><![CDATA[ Bucklin,Ann]]></dc:creator>
<dc:creator><![CDATA[ Madin,Laurence P.]]></dc:creator>
<description>Thaliaceans are gelatinous holoplanktonic tunicates comprised of around 72 described species in three orders: the Pyrosomatida (pyrosomes), Salpida (salps) and Doliolida (doliolids). Despite their interesting biology and important role in ocean ecosystems, relatively little is known about their evolutionary relationships with other tunicate lineages and with each other. Here, using 40 newly obtained 18S rDNA sequences, we present a molecular phylogeny of the Thaliacea. Our results show the pyrosomes branching off first and support their division into the Pyrostremmatinae and Pyrosomatinae. Within the Salpida, we found the subfamily Salpinae is paraphyletic with the morphologically divergent Cyclosalpinae. We also resolved the uncertainty regarding Weelia (Salpa) cylindrica, finding it to be relatively distantly related to Salpa aspera, Salpa maxima, Salpa fusiformis and Salpa thompsoni.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=cekltbUwE-c:zjBNN12uYDk:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=cekltbUwE-c:zjBNN12uYDk:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=cekltbUwE-c:zjBNN12uYDk:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Journal of Plankton Research]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<refworks:created><![CDATA[2/24/2011 4:35:42 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/cekltbUwE-c/refshare</link>
<refworks:k1><![CDATA[ Thaliacea]]></refworks:k1>
<refworks:k1><![CDATA[ salps]]></refworks:k1>
<refworks:k1><![CDATA[ pyrosomes]]></refworks:k1>
<refworks:k1><![CDATA[ doliolids]]></refworks:k1>
<refworks:k1><![CDATA[ phylogeny]]></refworks:k1>
<refworks:do><![CDATA[10.1093/plankt/fbq157]]></refworks:do>
<refworks:id><![CDATA[25191]]></refworks:id>
<refworks:ul><![CDATA[http://plankt.oxfordjournals.org/content/early/2010/12/14/plankt.fbq157.abstract]]></refworks:ul>
<refworks:jo><![CDATA[Journal of Plankton Research]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25191</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25192">
<title><![CDATA[Water mass-specificity of bacterial communities in the North Atlantic revealed by massively parallel sequencing]]></title>
<dc:creator><![CDATA[Agogue,Helene]]></dc:creator>
<dc:creator><![CDATA[ Lamy,Dominique]]></dc:creator>
<dc:creator><![CDATA[ Neal,Phillip R.]]></dc:creator>
<dc:creator><![CDATA[ Sogin,Mitchell L.]]></dc:creator>
<dc:creator><![CDATA[ Herndl,Gerhard J.]]></dc:creator>
<description>Bacterial assemblages from subsurface (100 m depth), meso- (200-1000 m depth) and bathy-pelagic (below 1000 m depth) zones at 10 stations along a North Atlantic Ocean transect from 60 degrees N to 5 degrees S were characterized using massively parallel pyrotag sequencing of the V6 region of the 16S rRNA gene (V6 pyrotags). In a dataset of more than 830 000 pyrotags, we identified 10 780 OTUs of which 52% were singletons. The singletons accounted for less than 2% of the OTU abundance, whereas the 100 and 1000 most abundant OTUs represented 80% and 96% respectively of all recovered OTUs. Non-metric Multi-Dimensional Scaling and Canonical Correspondence Analysis of all the OTUs excluding the singletons revealed a clear clustering of the bacterial communities according to the water masses. More than 80% of the 1000 most abundant OTUs corresponded to Proteobacteria of which 55% were Alphaproteobacteria, mostly composed of the SAR11 cluster. Gammaproteobacteria increased with depth and included a relatively large number of OTUs belonging to Alteromonadales and Oceanospirillales. The bathypelagic zone showed higher taxonomic evenness than the overlying waters, albeit bacterial diversity was remarkably variable. Both abundant and low-abundance OTUs were responsible for the distinct bacterial communities characterizing the major deep-water masses. Taken together, our results reveal that deep-water masses act as bio-oceanographic islands for bacterioplankton leading to water mass-specific bacterial communities in the deep waters of the Atlantic.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=JUftJnEh3Ig:SwLnjrDaN38:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=JUftJnEh3Ig:SwLnjrDaN38:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=JUftJnEh3Ig:SwLnjrDaN38:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[WILEY-BLACKWELL PUBLISHING, INC]]></dc:publisher>
<prism:publicationName><![CDATA[Molecular ecology]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[2]]></prism:number>
<prism:volume><![CDATA[20]]></prism:volume> 
<prism:startingPage><![CDATA[258]]></prism:startingPage>
<prism:endingPage><![CDATA[274]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/JUftJnEh3Ig/refshare</link>
<refworks:FD><![CDATA[JAN]]></refworks:FD>
<refworks:k1><![CDATA[ bacterial biogeography]]></refworks:k1>
<refworks:k1><![CDATA[ bacterial diversity]]></refworks:k1>
<refworks:k1><![CDATA[ deep water masses]]></refworks:k1>
<refworks:k1><![CDATA[ massively parallel tag sequencing]]></refworks:k1>
<refworks:k1><![CDATA[ North Atlantic Ocean]]></refworks:k1>
<refworks:k1><![CDATA[ RIBOSOMAL-RNA GENES]]></refworks:k1>
<refworks:k1><![CDATA[ DEEP-SEA]]></refworks:k1>
<refworks:k1><![CDATA[ MICROBIAL DIVERSITY]]></refworks:k1>
<refworks:k1><![CDATA[ RARE BIOSPHERE]]></refworks:k1>
<refworks:k1><![CDATA[ ARCTIC-OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ SAR202 BACTERIOPLANKTON]]></refworks:k1>
<refworks:k1><![CDATA[ SAR11 CLUSTER]]></refworks:k1>
<refworks:k1><![CDATA[ SARGASSO SEA]]></refworks:k1>
<refworks:k1><![CDATA[ GENOMICS]]></refworks:k1>
<refworks:k1><![CDATA[ ECOLOGY]]></refworks:k1>
<refworks:k1><![CDATA[ Biochemistry & Molecular Biology]]></refworks:k1>
<refworks:k1><![CDATA[ Evolutionary Biology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 83; TC: 0; J9: MOL ECOL; PG: 17; GA: 703HY]]></refworks:no>
<refworks:pp><![CDATA[MALDEN; COMMERCE PLACE, 350 MAIN ST, MALDEN 02148, MA USA]]></refworks:pp>
<refworks:sn><![CDATA[0962-1083]]></refworks:sn>
<refworks:ad><![CDATA[[Lamy, Dominique; Herndl, Gerhard J.] Univ Vienna, Dept Marine Biol, A-1090 Vienna, Austria. [Agogue, Helene; Lamy, Dominique; Herndl, Gerhard J.] Royal Netherlands Inst Sea Res NIOZ, Dept Biol Oceanog, NL-1790 AB Den Burg, Netherlands. [Neal, Phillip R.; Sogin, Mitchell L.] Josephine Bay Paul Ctr Comparat Mol Biol & Evolut, Marine Biol Lab, Woods Hole, MA 02543 USA.; Herndl, GJ, Univ Vienna, Dept Marine Biol, Althanstr 14, A-1090 Vienna, Austria.; gerhard.herndl@univie.ac.at]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1111/j.1365-294X.2010.04932.x]]></refworks:do>
<refworks:id><![CDATA[25192]]></refworks:id>
<refworks:cr><![CDATA[CR: AGOGUE H, 2008, NATURE, V456, P788, DOI 10.1038/nature07535 ANDERSSON AF, 2009, ISME J, V4, P171 ARISTEGUI J, 2009, LIMNOL OCEANOGR, V54, P1501 AZAM F, 1983, MAR ECOL-PROG SER, V10, P257 BALTAR F, 2009, LIMNOL OCEANOGR, V54, P182 BECKING LGM, 1934, GEOBIOLOGIE INLEIDIN BOCHDANSKY AB, 2010, P NATL ACAD SCI USA, V107, P8287, DOI 10.1073/pnas.0913744107 BROWN MV, 2009, ISME J, V3, P1374, DOI 10.1038/ismej.2009.86 BUNGE J, 2011, P PAC S BIO IN PRESS CLARKE KR, 2001, CHANGE MARINE COMMUN DELONG EE, 2005, NAT REV MICROBIOL, V3, P459, DOI 10.1038/nrmicro1158 DELONG EF, 1997, APPL ENVIRON MICROB, V63, P2105 DELONG EF, 2006, SCIENCE, V311, P496, DOI 10.1126/science.1120250 DEWIT R, 2006, ENVIRON MICROBIOL, V8, P755, DOI 10.1111/j.1462-2920.2006.01017.x FENCHEL T, 2004, BIOSCIENCE, V54, P777 FIELD KG, 1997, APPL ENVIRON MICROB, V63, P63 FINLAY BJ, 2002, SCIENCE, V296, P1061 FUHRMAN JA, 1989, MAR ECOL-PROG SER, V57, P207 FUHRMAN JA, 1997, MAR ECOL-PROG SER, V150, P275 FUHRMAN JA, 2008, P NATL ACAD SCI USA, V105, P7774, DOI 10.1073/pnas.0803070105 GALAND PE, 2009, ISME J, V3, P860, DOI 10.1038/ismej.2009.23 GALAND PE, 2009, P NATL ACAD SCI USA, V106, P22427, DOI 10.1073/pnas.0908284106 GALAND PE, 2010, ISME J, V4, P564, DOI 10.1038/ismej.2009.134 GALLAGHER JM, 2004, FEMS MICROBIOL ECOL, V47, P249, DOI 10.1016/S0168-6496(03)00281-2 GARCIAMARTINEZ J, 2000, MOL ECOL, V9, P935 GILBERT JA, 2009, ENVIRON MICROBIOL, V11, P3132, DOI 10.1111/j.1462-2920.2009.02017.x GIOVANNONI SJ, 1990, NATURE, V345, P60 GOFFREDI SK, 2007, APPL ENVIRON MICROB, V73, P2314, DOI 10.1128/AEM.01986-06 GOMEZALVAREZ V, 2009, ISME J, V11, P1314 GORDON DA, 1996, APPL ENVIRON MICROB, V62, P1171 HANDELSMAN J, 2004, MICROBIOL MOL BIOL R, V68, P669, DOI 10.1128/MMBR.68.4.669-685.2004 HEWSON I, 2006, LIMNOL OCEANOGR, V51, P1274 HUBBEL SP, 2001, UNIFIED NEUTRAL THEO HUBER JA, 2007, SCIENCE, V318, P97, DOI 10.1126/science.1146689 HUSE SM, 2007, GENOME BIOL, V8, ARTN R143 HUSE SM, 2008, PLOS GENET, V4, UNSP E10000255 HUSE SM, 2010, ENVIRON MICROBIOL, V12, P1889, DOI 10.1111/j.1462-2920.2010.02193.x KARL DM, 2002, TRENDS MICROBIOL, V10, P410 KIMURA H, 2003, MAR BIOTECHNOL, V5, P593, DOI 10.1007/s10126-002-0117-7 KIRCHMAN DL, 2005, LIMNOL OCEANOGR, V50, P1697 KIRCHMAN DL, 2010, ENVIRON MICROBIOL, V12, P1132, DOI 10.1111/j.1462-2920.2010.02154.x KRUSKAL JB, 1964, PSYCHOMETRIKA, V29, P1 KRUSKAL JB, 1964, PSYCHOMETRIKA, V29, P115 KUNIN V, 2009, ENVIRON MICROBIOL, V1, P118 LAURO FM, 2007, APPL ENVIRON MICROB, V73, P838, DOI 10.1128/AEM.01726-06 LAURO FM, 2008, EXTREMOPHILES, V12, P15, DOI 10.1007/s00792-006-0059-5 LOPEZGARCIA P, 2001, FEMS MICROBIOL ECOL, V36, P193 MARGULIES M, 2005, NATURE, V437, P376, DOI 10.1038/nature03959 MARTINCUADRADO AB, 2007, PLOS ONE, V2, ARTN e914 MARTINY JBH, 2006, NAT REV MICROBIOL, V4, P102, DOI 10.1038/nrmicro1341 MOESENEDER MM, 2001, J MICROBIOL METH, V44, P159 MORRIS RM, 2002, NATURE, V420, P806, DOI 10.1038/nature01240 MORRIS RM, 2004, APPL ENVIRON MICROB, V70, P2836, DOI 10.1128/AEM.70.5.2836-2842.2004 OLSEN GJ, 1986, ANNU REV MICROBIOL, V40, P337 OMALLEY MA, 2008, STUD HIST PHILOS BIO, V39, P314 PALACIOS C, 2008, PLOS ONE, V3, ARTN e3853 PEDROSALIO C, 2006, TRENDS MICROBIOL, V14, P257, DOI 10.1016/j.tim.2006.04.007 PEET RK, 1974, ANNU REV ECOL SYST, V5, P285, DOI 10.1146/ANNUREV.ES.05.110174.001441 PERNTHALER A, 2008, P NATL ACAD SCI USA, V105, P7052, DOI 10.1073/pnas.0711303105 PHAM VD, 2008, ENVIRON MICROBIOL, V10, P2313, DOI 10.1111/j.1462-2920.2008.01657.x POMMIER T, 2005, AQUAT MICROB ECOL, V41, P79 POMMIER T, 2007, MOL ECOL, V16, P867, DOI 10.1111/j.1365-294X.2006.03189.x PRUESSE E, 2007, NUCLEIC ACIDS RES, V35, P7188, DOI 10.1093/nar/gkm864 QUINCE C, 2009, NAT METHODS, V6, P639, DOI 10.1038/NMETH.1361 RECHE I, 2005, ECOLOGY, V86, P1715 REEDER J, 2009, NAT METHODS, V6, P636, DOI 10.1038/nmeth0909-636 ROUSE GW, 2009, MAR BIOL, V156, P395, DOI 10.1007/s00227-008-1091-z SLOAN WT, 2006, ENVIRON MICROBIOL, V8, P732, DOI 10.1111/j.1462-2920.2005.00956.x SOGIN ML, 2006, P NATL ACAD SCI USA, V103, P12115, DOI 10.1073/pnas.0605127103 SUZUKI MT, 2004, MICROBIAL ECOL, V48, P473, DOI 10.1007/s00248-004-0213-5 TERBRAAK CJF, 1989, HYDROBIOLOGIA, V184, P169 TERBRAAK CJF, 1995, AQUAT SCI, V57, P255 TOMCZAK M, 2003, REGIONAL OCEANOGRAPH TREUSCH AH, 2009, ISME J, V3, P1148, DOI 10.1038/ismej.2009.60 VANAKEN HM, 2000, DEEP-SEA RES PT I, V47, P757 VANAKEN HM, 2000, DEEP-SEA RES PT I, V47, P789 VANAKEN HM, 2007, OCEANIC THERMOHALINE VARELA MM, 2008, ENVIRON MICROBIOL, V10, P110, DOI 10.1111/j.1462-2920.2007.01437.x VARELA MM, 2008, ENVIRON MICROBIOL, V10, P1903, DOI 10.1111/j.1462-2920.2008.01627.x WITTEBOLLE L, 2009, NATURE, V458, P623, DOI 10.1038/nature07840 WOODCOCK S, 2007, FEMS MICROBIOL ECOL, V62, P171, DOI 10.1111/j.1574-6941.2007.00379.x WRIGHT TD, 1997, APPL ENVIRON MICROB, V63, P1441 ZABALLOS M, 2006, FEMS MICROBIOL ECOL, V56, P389, DOI 10.1111/j.1574-6941.2006.00060.x]]></refworks:cr>
<refworks:jo><![CDATA[Mol.Ecol.]]></refworks:jo>
<refworks:an><![CDATA[000285970200008]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2011]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25192</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25194">
<title><![CDATA[Update on CO2 emissions]]></title>
<dc:creator><![CDATA[Friedlingstein,P.]]></dc:creator>
<dc:creator><![CDATA[ Houghton,R. A.]]></dc:creator>
<dc:creator><![CDATA[ Marland,G.]]></dc:creator>
<dc:creator><![CDATA[ Hackler,J.]]></dc:creator>
<dc:creator><![CDATA[ Boden,T. A.]]></dc:creator>
<dc:creator><![CDATA[ Conway,T. J.]]></dc:creator>
<dc:creator><![CDATA[ Canadell,J. G.]]></dc:creator>
<dc:creator><![CDATA[ Raupach,M. R.]]></dc:creator>
<dc:creator><![CDATA[ Ciais,P.]]></dc:creator>
<dc:creator><![CDATA[ Le Quere,C.]]></dc:creator>
<dc:publisher><![CDATA[NATURE PUBLISHING GROUP]]></dc:publisher>
<prism:publicationName><![CDATA[Nature Geoscience]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[12]]></prism:number>
<prism:volume><![CDATA[3]]></prism:volume> 
<prism:startingPage><![CDATA[811]]></prism:startingPage>
<prism:endingPage><![CDATA[812]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/ncgAbPGNj9s/refshare</link>
<refworks:FD><![CDATA[DEC]]></refworks:FD>
<refworks:k1><![CDATA[ CARBON-DIOXIDE]]></refworks:k1>
<refworks:k1><![CDATA[ SINKS]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 10; TC: 0; J9: NAT GEOSCI; PG: 2; GA: 687DO]]></refworks:no>
<refworks:pp><![CDATA[NEW YORK; 75 VARICK ST, 9TH FLR, NEW YORK, NY 10013-1917 USA]]></refworks:pp>
<refworks:sn><![CDATA[1752-0894]]></refworks:sn>
<refworks:ad><![CDATA[[Friedlingstein, P.] Univ Exeter, Coll Engn Math & Phys Sci, Exeter EX4 4QF, Devon, England. [Houghton, R. A.; Hackler, J.] Woods Hole Res Ctr, Falmouth, MA 02540 USA. [Marland, G.; Boden, T. A.] Oak Ridge Natl Lab, Carbon Dioxide Informat Anal Ctr, Oak Ridge, TN 37831 USA. [Conway, T. J.] NOAA, Earth Syst Res Lab, Boulder, CO 80305 USA. [Canadell, J. G.; Raupach, M. R.] CSIRO Marine & Atmospher Res, Global Carbon Project, Canberra, ACT 2601, Australia. [Ciais, P.] CEA CNRS UVSQ, Lab Sci Climat & Environm, F-91191 Gif Sur Yvette, France. [Le Quere, C.] Univ E Anglia, Sch Environm Sci, Norwich NR4 7TJ, Norfolk, England. [Le Quere, C.] British Antarctic Survey, Cambridge BC3 0ET, England.; Friedlingstein, P, Univ Exeter, Coll Engn Math & Phys Sci, Exeter EX4 4QF, Devon, England.; p.friedlingstein@exeter.ac.uk]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Letter]]></refworks:sf>
<refworks:do><![CDATA[10.1038/ngeo1022]]></refworks:do>
<refworks:id><![CDATA[25194]]></refworks:id>
<refworks:cr><![CDATA[CR: *BP, 2010, STAT REV WORLD EN *INT MON FUND, 2010, WORLD EC OUTL UPD *UN FAO, 2010, GLOB FOR RES ASS 201 CANADELL JG, 2007, P NATL ACAD SCI USA, V104, P18866, DOI 10.1073/pnas.0702737104 HANSEN MC, 2009, ENVIRON RES LETT, V4, ARTN 034001 HOUGHTON RA, 2003, GLOBAL CHANGE BIOL, V9, P500 LEQUERE C, 2009, NAT GEOSCI, V2, P831, DOI 10.1038/ngeo689 MARLAND G, 1984, TELLUS B, V36, P232 RAUPACH M, 2007, P NATL ACAD SCI USA, V104, P9913 REGALADO A, 2010, SCIENCE, V329, P1270]]></refworks:cr>
<refworks:jo><![CDATA[Nat.Geosci.]]></refworks:jo>
<refworks:an><![CDATA[000284755800002]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><description>&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ncgAbPGNj9s:JcVE1D2M_5w:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=ncgAbPGNj9s:JcVE1D2M_5w:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=ncgAbPGNj9s:JcVE1D2M_5w:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25194</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25195">
<title><![CDATA[Extent and frequency of vessel oil spills in US marine protected areas]]></title>
<dc:creator><![CDATA[Dalton,Tracey]]></dc:creator>
<dc:creator><![CDATA[ Jin,Di]]></dc:creator>
<description>Little is known about how marine protected areas (MPAs) may be vulnerable to vessel oil spills in the United States. This study investigated individual size, frequency, and total amount of vessel oil spilled in US MPAs, and how characteristics of MPAs and individual spill events influenced spills. Vessel oil spills in US waters (2002-06) and MPA boundaries were mapped. Total number and volume of oil spills inside and outside MPAs were computed. Results show that the presence of a MPA does not seem to prevent vessel oil spills or reduce the amount of oil spilled, and that a variety of MPA attributes (e.g., scale of protection, fishing restrictions, and others) and spill event characteristics (e.g., vessel type, year of spill, and others) affect oil spills inside and outside MPAs. These results can be used to develop MPA rules and marine transportation policies that reduce the vulnerability of sensitive resources to oil spills. (C) 2010 Elsevier Ltd. All rights reserved.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=grdDEY8ofqg:hwwN0Lbr_9k:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=grdDEY8ofqg:hwwN0Lbr_9k:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=grdDEY8ofqg:hwwN0Lbr_9k:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[PERGAMON-ELSEVIER SCIENCE LTD]]></dc:publisher>
<prism:publicationName><![CDATA[Marine pollution bulletin]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[11]]></prism:number>
<prism:volume><![CDATA[60]]></prism:volume> 
<prism:startingPage><![CDATA[1939]]></prism:startingPage>
<prism:endingPage><![CDATA[1945]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/grdDEY8ofqg/refshare</link>
<refworks:FD><![CDATA[NOV]]></refworks:FD>
<refworks:k1><![CDATA[ Marine protected areas]]></refworks:k1>
<refworks:k1><![CDATA[ Oil spills]]></refworks:k1>
<refworks:k1><![CDATA[ Maritime safety]]></refworks:k1>
<refworks:k1><![CDATA[ United States]]></refworks:k1>
<refworks:k1><![CDATA[ DETERMINANTS]]></refworks:k1>
<refworks:k1><![CDATA[ ECOSYSTEMS]]></refworks:k1>
<refworks:k1><![CDATA[ ACCIDENTS]]></refworks:k1>
<refworks:k1><![CDATA[ RESERVES]]></refworks:k1>
<refworks:k1><![CDATA[ TANKER]]></refworks:k1>
<refworks:k1><![CDATA[ SIZE]]></refworks:k1>
<refworks:k1><![CDATA[ Environmental Sciences]]></refworks:k1>
<refworks:k1><![CDATA[ Marine & Freshwater Biology]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 23; TC: 0; J9: MAR POLLUT BULL; PG: 7; GA: 685YA]]></refworks:no>
<refworks:pp><![CDATA[OXFORD; THE BOULEVARD, LANGFORD LANE, KIDLINGTON, OXFORD OX5 1GB, ENGLAND]]></refworks:pp>
<refworks:sn><![CDATA[0025-326X]]></refworks:sn>
<refworks:ad><![CDATA[[Dalton, Tracey] Univ Rhode Isl, Marine Affairs Dept, Kingston, RI 02881 USA. [Jin, Di] Woods Hole Oceanog Inst, Marine Policy Ctr, Woods Hole, MA 02543 USA.; Dalton, T, Univ Rhode Isl, Marine Affairs Dept, Kingston, RI 02881 USA.; dalton@uri.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1016/j.marpolbul.2010.07.036]]></refworks:do>
<refworks:id><![CDATA[25195]]></refworks:id>
<refworks:cr><![CDATA[CR: 2003, OIL SEA, V3 *NAT MAR PROT AR C, 2008, FRAM NAT SYST MAR PR *US EIA, 2010, US PROD SUPPL CRUD O *USA CORPS ENG, 2009, WAT COMM US CAL YE 5 ANDERSON EE, 1995, LAND ECON, V71, P216 BOERSMA PD, 1999, ECOL ECON, V31, P287 CAPUZZO J, 1987, LONG TERM ENV EFFECT COHEN MJ, 1995, LAND ECON, V71, P5 DETJEN M, 2006, MAR POLICY, V30, P442, DOI 10.1016/j.marpol.2005.04.002 GALASSO G, 2000, MARINE SANCTUARIES C HALPERN BS, 2003, ECOL APPL S, V13, S117 ISLAM MS, 2004, MAR POLLUT BULL, V48, P624, DOI 10.1016/j.marpolbul.2003.12.004 JAMESON SC, 2002, MAR POLLUT BULL, V44, P1177 JIN D, 1994, ENVIRON RESOUR ECON, V4, P555 JIN D, 2008, MARITIME SAFETY SECU, P55 KITEPOWELL HL, 1997, J TRANSP ECON POLICY, V31, P147 LESTER SE, 2009, MAR ECOL-PROG SER, V384, P33, DOI 10.3354/meps08029 MASCIA MB, 2004, MARINE RESERVES GUID PALUMBI S, 2002, MARINE RESERVES TOOL RAPPORT DJ, 1998, TRENDS ECOL EVOL, V13, P397 SCOVAZZI T, 2004, INT J MARINE COASTAL, V19 TALLEY WK, 1999, TRANSPORT RES D-TR E, V4, P413 TALLEY WK, 2000, INT J MARITIME EC, V2, P217]]></refworks:cr>
<refworks:jo><![CDATA[Mar.Pollut.Bull.]]></refworks:jo>
<refworks:an><![CDATA[000284662800016]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25195</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25199">
<title><![CDATA[High particle export over the continental shelf of the west Antarctic Peninsula]]></title>
<dc:creator><![CDATA[Buesseler,Ken O.]]></dc:creator>
<dc:creator><![CDATA[ McDonnell,Andrew M. P.]]></dc:creator>
<dc:creator><![CDATA[ Schofield,Oscar M. E.]]></dc:creator>
<dc:creator><![CDATA[ Steinberg,Deborah K.]]></dc:creator>
<dc:creator><![CDATA[ Ducklow,Hugh W.]]></dc:creator>
<description>Drifting cylindrical traps and the flux proxy Th-234 indicate more than an order of magnitude higher sinking fluxes of particulate carbon and Th-234 in January 2009 than measured by a time-series conical trap used regularly on the shelf of the west Antarctic Peninsula (WAP). The higher fluxes measured in this study have several implications for our understanding of the WAP ecosystem. Larger sinking fluxes result in a revised export efficiency of at least 10% (C flux/net primary production) and a requisite lower regeneration efficiency in surface waters. High fluxes also result in a large supply of sinking organic matter to support subsurface and benthic food webs on the continental shelf. These new findings call into question the magnitude of seasonal and interannual variability in particle flux and reaffirm the difficulty of using moored conical traps as a quantitative flux collector in shallow waters. Citation: Buesseler, K. O., A. M. P. McDonnell, O. M. E. Schofield, D. K. Steinberg, and H. W. Ducklow (2010), High particle export over the continental shelf of the west Antarctic Peninsula, Geophys. Res. Lett., 37, L22606, doi: 10.1029/2010GL045448.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=cwyBm4BXlBg:w_hIVFGbX80:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=cwyBm4BXlBg:w_hIVFGbX80:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=cwyBm4BXlBg:w_hIVFGbX80:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Geophysical Research Letters]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[37]]></prism:volume> 
<prism:startingPage><![CDATA[L22606]]></prism:startingPage>
<prism:endingPage><![CDATA[L22606]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/cwyBm4BXlBg/refshare</link>
<refworks:FD><![CDATA[NOV 24]]></refworks:FD>
<refworks:k1><![CDATA[ ROSS SEA]]></refworks:k1>
<refworks:k1><![CDATA[ WATER-COLUMN]]></refworks:k1>
<refworks:k1><![CDATA[ BRANSFIELD STRAIT]]></refworks:k1>
<refworks:k1><![CDATA[ AQUATIC SYSTEMS]]></refworks:k1>
<refworks:k1><![CDATA[ SEDIMENT]]></refworks:k1>
<refworks:k1><![CDATA[ TRAPS]]></refworks:k1>
<refworks:k1><![CDATA[ TWILIGHT ZONE]]></refworks:k1>
<refworks:k1><![CDATA[ TIME-SERIES]]></refworks:k1>
<refworks:k1><![CDATA[ UPPER OCEAN]]></refworks:k1>
<refworks:k1><![CDATA[ LONG-TERM]]></refworks:k1>
<refworks:k1><![CDATA[ TH-234]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 33; TC: 0; J9: GEOPHYS RES LETT; PG: 5; GA: 686NK]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0094-8276]]></refworks:sn>
<refworks:ad><![CDATA[[Buesseler, Ken O.; McDonnell, Andrew M. P.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Schofield, Oscar M. E.] Rutgers State Univ, Inst Marine & Coastal Sci, New Brunswick, NJ 08901 USA. [Steinberg, Deborah K.] Virginia Inst Marine Sci, Coll William & Mary, Gloucester Point, VA 23062 USA. [Ducklow, Hugh W.] Marine Biol Lab, Ctr Ecosyst, Woods Hole, MA 02543 USA.; Buesseler, KO, Woods Hole Oceanog Inst, Mail Stop 25, Woods Hole, MA 02543 USA.; kbuesseler@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010GL045448]]></refworks:do>
<refworks:id><![CDATA[25199]]></refworks:id>
<refworks:cr><![CDATA[CR: ANADON R, 2002, DEEP-SEA RES PT II, V49, P883 ANTIA AN, 2005, BIOGEOSCIENCES DISCU, V2, P275 BUESSELER KO, 1998, GLOBAL BIOGEOCHEM CY, V12, P297 BUESSELER KO, 2006, MAR CHEM, V100, P213, DOI 10.1016/j.marchem.2005.10.013 BUESSELER KO, 2007, J MAR RES, V65, P345 BUESSELER KO, 2009, DEEP-SEA RES PT I, V56, P1143, DOI 10.1016/j.dsr.2009.04.001 BUESSELER KO, 2009, LIMNOL OCEANOGR, V54, P1210 COCHRAN JK, 2000, DEEP-SEA RES PT II, V47, P3451 COCHRAN JK, 2009, DEEP-SEA RES PT II, V56, P1487, DOI 10.1016/j.dsr2.2008.12.034 DUCKLOW HW, 2006, DEEP-SEA RES PT II, V53, P834, DOI 10.1016/j.dsr2.2006.02.009 DUCKLOW HW, 2008, DEEP-SEA RES PT II, V55, P1945, DOI 10.1016/j.dsr2.2008.05.014 DUCKLOW HW, 2008, DEEP-SEA RES PT II, V55, P2118, DOI 10.1016/j.dsr2.2008.04.028 FLEISHER MQ, 2003, DEEP-SEA RES PT II, V50, P693 GARDNER WD, 2000, CHANGING OCEAN CARBO, P240 KARL DM, 1991, DEEP-SEA RES, V38, R5, DOI 10.1016/0198-0149(91)90098-Z KNOX GA, 2006, BIOL SO OCEAN LAMBORG CH, 2008, DEEP-SEA RES PT II, V55, P1540, DOI 10.1016/j.dsr2.2008.04.011 LUTZ MJ, 2007, J GEOPHYS RES-OCEANS, V112, ARTN C10011 MCCLINTIC MA, 2008, DEEP-SEA RES PT II, V55, P2425, DOI 10.1016/j.dsr2.2008.06.003 MCDONNELL AMP, 2010, LIMNOL OCEANOGR, V55, P2085, DOI 10.4319/lo.2010.55.5.2085 MONTESHUGO MA, 2008, DEEP-SEA RES PT II, V55, P2106, DOI 10.1016/j.dsr2.2008.04.036 PALANQUES A, 2002, DEEP-SEA RES PT II, V49, P903 PETERSON ML, 1993, LIMNOL OCEANOGR, V38, P1741, DOI 10.4319/L0.1993.38.8.1741 PIKE SM, 2005, J RADIOANAL NUCL CH, V263, P355, DOI 10.1007/s10967-005-0062-9 SAVOYE N, 2006, MAR CHEM, V100, P234, DOI 10.1016/j.marchem.2005.10.014 SMITH CR, 2006, DEEP-SEA RES PT II, V53, P875, DOI 10.1016/j.dsr2.2006.02.001 STEINBERG DK, 2001, DEEP-SEA RES PT II, V48, P1405 SWEENEY C, 2000, DEEP-SEA RES PT II, V47, P3369 VANDERLOEFF MR, 2006, MAR CHEM, V100, P190, DOI 10.1016/j.marchem.2005.10.012 VAUGHAN DG, 2003, CLIMATIC CHANGE, V60, P243 VERNET M, 2008, DEEP-SEA RES PT II, V55, P2068, DOI 10.1016/j.dsr2.2008.05.021 WAPLES JT, 2006, MAR CHEM, V100, P166, DOI 10.1016/j.marchem.2005.10.011 WEFER G, 1988, DEEP-SEA RES, V35, P891, DOI 10.1016/0198-0149(88)90066-0]]></refworks:cr>
<refworks:jo><![CDATA[Geophys.Res.Lett.]]></refworks:jo>
<refworks:an><![CDATA[000284702800006]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25199</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25200">
<title><![CDATA[Mixing by shear instability at high Reynolds number]]></title>
<dc:creator><![CDATA[Geyer,W. R.]]></dc:creator>
<dc:creator><![CDATA[ Lavery,A. C.]]></dc:creator>
<dc:creator><![CDATA[ Scully,M. E.]]></dc:creator>
<dc:creator><![CDATA[ Trowbridge,J. H.]]></dc:creator>
<description>Shear instability is the dominant mechanism for converting fluid motion to mixing in the stratified ocean and atmosphere. The transition to turbulence has been well characterized in laboratory settings and numerical simulations at moderate Reynolds number-it involves "rolling up", i.e., overturning of the density structure within the cores of the instabilities. In contrast, measurements in an energetic estuarine shear zone reveal that the mixing induced by shear instability at high Reynolds number does not primarily occur by overturning in the cores; rather it results from secondary shear instabilities within the zones of intensified shear separating the cores. This regime is not likely to be observed in the relatively low Reynolds number flows of the laboratory or in direct numerical simulations, but it is likely a common occurrence in the ocean and atmosphere. Citation: Geyer, W. R., A. C. Lavery, M. E. Scully, and J. H. Trowbridge (2010), Mixing by shear instability at high Reynolds number, Geophys. Res. Lett., 37, L22607, doi:10.1029/2010GL045272.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=i5pEHMP5D-U:ZiC4Y82M-G8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=i5pEHMP5D-U:ZiC4Y82M-G8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=i5pEHMP5D-U:ZiC4Y82M-G8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[AMER GEOPHYSICAL UNION]]></dc:publisher>
<prism:publicationName><![CDATA[Geophysical Research Letters]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:volume><![CDATA[37]]></prism:volume> 
<prism:startingPage><![CDATA[L22607]]></prism:startingPage>
<prism:endingPage><![CDATA[L22607]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/i5pEHMP5D-U/refshare</link>
<refworks:FD><![CDATA[NOV 25]]></refworks:FD>
<refworks:k1><![CDATA[ STRATIFIED FLUID]]></refworks:k1>
<refworks:k1><![CDATA[ INTERNAL WAVES]]></refworks:k1>
<refworks:k1><![CDATA[ TURBULENCE]]></refworks:k1>
<refworks:k1><![CDATA[ TRANSITION]]></refworks:k1>
<refworks:k1><![CDATA[ STABILITY]]></refworks:k1>
<refworks:k1><![CDATA[ LAYERS]]></refworks:k1>
<refworks:k1><![CDATA[ FLOWS]]></refworks:k1>
<refworks:k1><![CDATA[ Geosciences, Multidisciplinary]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 21; TC: 0; J9: GEOPHYS RES LETT; PG: 5; GA: 686NO]]></refworks:no>
<refworks:pp><![CDATA[WASHINGTON; 2000 FLORIDA AVE NW, WASHINGTON, DC 20009 USA]]></refworks:pp>
<refworks:sn><![CDATA[0094-8276]]></refworks:sn>
<refworks:ad><![CDATA[[Geyer, W. R.; Lavery, A. C.; Trowbridge, J. H.] Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA. [Scully, M. E.] Old Dominion Univ, Ctr Coastal Phys Oceanog, Norfolk, VA 23508 USA.; Geyer, WR, Woods Hole Oceanog Inst, Mail Stop 12, Woods Hole, MA 02543 USA.; rgeyer@whoi.edu]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1029/2010GL045272]]></refworks:do>
<refworks:id><![CDATA[25200]]></refworks:id>
<refworks:cr><![CDATA[CR: CAULFIELD CP, 1996, DYNAM ATMOS OCEANS, V23, P125 CAULFIELD CP, 2000, J FLUID MECH, V413, P1 CORCOS GM, 1976, J FLUID MECH, V73, P241 DRAZIN, 1981, HYDRODYNAMIC STABILI FARMER DM, 1989, P R SOC, V455, P3221 GEYER W, 2008, ENVIRON FLUID MECH, V8, P495, DOI 10.1007/s10652-008-9107-2 GEYER WR, 1987, J PHYS OCEANOGR, V17, P1668 HAZEL P, 1972, J FLUID MECH, V51, P39 HEBERT D, 1992, J PHYS OCEANOGR, V22, P1346 KOOP CG, 1979, J FLUID MECH, V93, P135 LAVERY AC, 2010, ICES J MAR SCI, V67, P379, DOI 10.1093/icesjms/fsp242 MILES JW, 1961, J FLUID MECH, V10, P496 MOUM JN, 2003, J PHYS OCEANOGR, V33, P2093 SEIM HE, 1994, J GEOPHYS RES-OCEANS, V99, P10049 SHAW WJ, 2001, J ATMOS OCEAN TECH, V18, P1540 SMYTH WD, 2001, J PHYS OCEANOGR, V31, P1969 SMYTH WD, 2003, J FLUID MECH, V497, P67, DOI 10.1017/S0022112003006591 STAQUET C, 1995, J FLUID MECH, V296, P73 STILLINGER DC, 1983, J FLUID MECH, V131, P91 TEDFORD EW, 2009, J GEOPHYS RES-OCEANS, V114, ARTN C11006 THORPE SA, 1973, J FLUID MECH, V61, P731]]></refworks:cr>
<refworks:jo><![CDATA[Geophys.Res.Lett.]]></refworks:jo>
<refworks:an><![CDATA[000284703200005]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25200</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25202">
<title><![CDATA[Reconnaissance dating A new radiocarbon method applied to assessing the temporal distribution of Southern Ocean deep-sea corals]]></title>
<dc:creator><![CDATA[Burke,Andrea]]></dc:creator>
<dc:creator><![CDATA[ Robinson,Laura F.]]></dc:creator>
<dc:creator><![CDATA[ McNichol,Ann P.]]></dc:creator>
<dc:creator><![CDATA[ Jenkins,William J.]]></dc:creator>
<dc:creator><![CDATA[ Scanlon,Kathryn M.]]></dc:creator>
<dc:creator><![CDATA[ Gerlach,Dana S.]]></dc:creator>
<description>We have developed a rapid reconnaissance method of preparing graphite for C-14/C-12 analysis Carbonate (similar to 15 mg) is combusted using an elemental analyzer and the resulting CO2 is converted to graphite using a sealed tube zinc reduction method Over 85% (n=45 replicates on twenty-one individual corals) of reconnaissance ages measured on corals ranging in age from 500 to 33 000 radiocarbon years (Ryr) are within two standard deviations of ages generated using standard hydrolysis methods on the same corals and all reconnaissance ages are within 300 Ryr of the standard hydrolysis ages Replicate measurements on three individual aragonitic corals yielded ages of 1076 +/- 35 Ryr (standard deviation n=5) 10 739 +/- 47 Ryr (n=8) and 40 146 +/- 3500 Ryr (n=9) No systematic biases were found using different cleaning methods or variable sample sizes Analysis of C-13/C-12 was made concurrently with the C-14/C-12 measurement to correct for natural fractionation and for fractionation during sample processing and analysis This technique provides a new rapid method for making accurate percent-level C-14/C-12 analyses that may be used to establish the rates and chronology of earth system processes where survey-type modes of age estimation are desirable For example applications may include creation of sediment core-top maps preliminary age models for sediment cores and growth rate studies of marine organisms such as corals or mollusks We applied the reconnaissance method to more than 100 solitary deep-sea corals collected in the Drake Passage in the Southern Ocean to investigate their temporal and spatial distribution The corals used in this study are part of a larger sample set and the subset that was dated was chosen based on species as opposed to preservation state so as to exclude obvious temporal biases Similar to studies in other regions the distribution of deep-sea corals is not constant through time across the Drake Passage Most of the corals from the Burdwood Bank (continental shelf of Argentina) have ages ranging between 0 and 2500 calendar years whereas most of the corals from the Sars Seamount in the Drake Passage have ages between 10 000 and 12 500 calendar years Such differences may be caused in part by sampling biases but may also be caused by changes in larval transport nutrient supply or other environmental pressures (C) 2010 Elsevier Ltd All rights reserved&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=tfp5BRLz26w:V1VXqMeWTSk:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=tfp5BRLz26w:V1VXqMeWTSk:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=tfp5BRLz26w:V1VXqMeWTSk:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<dc:publisher><![CDATA[PERGAMON-ELSEVIER SCIENCE LTD]]></dc:publisher>
<prism:publicationName><![CDATA[Deep-Sea Research Part I-Oceanographic Research Papers]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[11]]></prism:number>
<prism:volume><![CDATA[57]]></prism:volume> 
<prism:startingPage><![CDATA[1510]]></prism:startingPage>
<prism:endingPage><![CDATA[1520]]></prism:endingPage> 
<refworks:created><![CDATA[2/24/2011 7:02:11 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/24/2011 7:02:52 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/tfp5BRLz26w/refshare</link>
<refworks:FD><![CDATA[NOV]]></refworks:FD>
<refworks:k1><![CDATA[ Deep sea corals]]></refworks:k1>
<refworks:k1><![CDATA[ Age survey]]></refworks:k1>
<refworks:k1><![CDATA[ Radiocarbon dating]]></refworks:k1>
<refworks:k1><![CDATA[ Biogeography]]></refworks:k1>
<refworks:k1><![CDATA[ EASTERN NORTH-ATLANTIC]]></refworks:k1>
<refworks:k1><![CDATA[ LAST DEGLACIATION]]></refworks:k1>
<refworks:k1><![CDATA[ HIGH-PRECISION]]></refworks:k1>
<refworks:k1><![CDATA[ GRAPHITE]]></refworks:k1>
<refworks:k1><![CDATA[ TARGETS]]></refworks:k1>
<refworks:k1><![CDATA[ CARBON-CYCLE]]></refworks:k1>
<refworks:k1><![CDATA[ C-14]]></refworks:k1>
<refworks:k1><![CDATA[ WATER]]></refworks:k1>
<refworks:k1><![CDATA[ AGE]]></refworks:k1>
<refworks:k1><![CDATA[ RATES]]></refworks:k1>
<refworks:k1><![CDATA[ CIRCULATION]]></refworks:k1>
<refworks:k1><![CDATA[ Oceanography]]></refworks:k1>
<refworks:no><![CDATA[PT: J; NR: 52; TC: 0; J9: DEEP-SEA RES PT I-OCEANOG RES; PG: 11; GA: 687CE]]></refworks:no>
<refworks:pp><![CDATA[OXFORD; THE BOULEVARD, LANGFORD LANE, KIDLINGTON, OXFORD OX5 1GB, ENGLAND]]></refworks:pp>
<refworks:sn><![CDATA[0967-0637]]></refworks:sn>
<refworks:ad><![CDATA[[Burke, Andrea] Woods Hole Oceanog Inst, Dept Marine Geol & Geophys, MIT WHOI Joint Program, Woods Hole, MA 02543 USA. [Robinson, Laura F.; Jenkins, William J.] Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods Hole, MA 02543 USA. [McNichol, Ann P.; Gerlach, Dana S.] Woods Hole Oceanog Inst, Dept Marine Geol & Geophys, Woods Hole, MA 02543 USA. [Scanlon, Kathryn M.] US Geol Survey, Woods Hole, MA 02543 USA.; Burke, A, Woods Hole Oceanog Inst, Dept Marine Geol & Geophys, MIT WHOI Joint Program, 360 Woods Hole Rd MS 24, Woods Hole, MA 02543 USA.]]></refworks:ad>
<refworks:la><![CDATA[English]]></refworks:la>
<refworks:sf><![CDATA[Article]]></refworks:sf>
<refworks:do><![CDATA[10.1016/j.dsr.2010.07.010]]></refworks:do>
<refworks:id><![CDATA[25202]]></refworks:id>
<refworks:cr><![CDATA[CR: *US DEP COMM, ETOPO2V2 GLOB GRIDD ADKINS JF, 1998, SCIENCE, V280, P725 ADKINS JF, 1999, RECONSTRUCTING OCEAN, P103 ADKINS JF, 2002, RADIOCARBON, V44, P567 ADKINS JF, 2003, GEOCHIM COSMOCHIM AC, V67, P1129, DOI 10.1016/s0016-7037(00)01203-6 ADKINS JF, 2004, EARTH PLANET SC LETT, V227, P481, DOI 10.1016/j.epsl.2004.08.022 ANDERSEN MB, 2008, EARTH PLANET SC LETT, V265, P229, DOI 10.1016/j.cpsi.2007.10.010 ANDERSON RF, 2009, SCIENCE, V323, P1443, DOI 10.1126/science.1167441 BERKMAN PA, 1996, GEOPHYS RES LETT, V23, P363 BJORCK S, 1991, RADIOCARBON DATING R, P55 BOARETTO E, 2002, J QUATERNARY SCI, V17, P633, DOI 10.1002/jqs.702 BOUTTON TW, 1991, CARBON ISOTOPE TECHN, P173 BROECKER WS, 1998, PALEOCEANOGRAPHY, V13, P119 CAO L, 2007, QUATERNARY SCI REV, V26, P732, DOI 10.1016/j.quascirev.2006.10.001 CHENG H, 2000, GEOCHIM COSMOCHIM AC, V64, P2401 ELTGROTH SF, 2006, PALEOCEANOGRAPHY, V21, ARTN PA4207 FRANK N, 2004, EARTH PLANET SC LETT, V219, P297, DOI 10.1016/S0012-821X(03)00721-0 FREIWALD A, 2003, OCEAN MARGIN SYSTEMS, P365 GOLDSTEIN SJ, 2001, EARTH PLANET SC LETT, V193, P167 HALL BL, 2010, EARTH PLANET SC LETT, V296, P115, DOI 10.1016/j.epsl.2010.04.054 HUGHEN K, 2004, SCIENCE, V303, P202 JOUZEL J, 2004, EPICA DOME C ICE COR JULL AJT, 1986, RADIOCARBON, V28, P191 KANO A, 2007, GEOLOGY, V35, P1051, DOI 10.1130/G23917A.1 KEY RM, 2004, GLOBAL BIOGEOCHEM CY, V18, ARTN GB4031 MCMANUS JF, 2004, NATURE, V428, P834, DOI 10.1038/nature02494 OGNIBENE TJ, 2003, ANAL CHEM, V75, P2192, DOI 10.1021/ac026334j OLSSON IU, 1970, NOBEL S, P17 ORSI AH, 1995, DEEP-SEA RES PT I, V42, P641, DOI 10.1016/0967-0637(95)00021-W PECK LS, 1996, NATURE, V380, P207 REIMER PJ, 2009, RADIOCARBON, V51, P1111 ROARK EB, 2009, P NATL ACAD SCI USA, V106, P5204, DOI 10.1073/pnas.0810875106 ROBERTS ML, 2009, P 20 INT RAD C RAD K ROBINSON LF, 2005, SCIENCE, V310, P1469, DOI 10.1126/science.1114832 ROBINSON LF, 2007, B MAR SCI, V81, P371 ROBINSON LF, 2009, GEOLOGY, V37, P195, DOI 10.1130/G25363A1 ROZANSKI K, 1992, RADIOCARBON, V34, P506 SANTOS GM, 2007, NUCL INSTRUM METH B, V259, P293, DOI 10.1016/j.nimb.2007.01.172 SCHNEIDER RJ, 1995, RADIOCARBON, V37, P693 SCHRODERRITZRAU A, 2005, ERLANGEN EARTH CONF, P157 SCOTT EM, 2003, RADIOCARBON, V45, R7 SHEN GT, 1988, CHEM GEOL, V67, P47 SLOTA PJ, 1987, RADIOCARBON, V29, P303 SOHN RA, 2002, GEOCHEMISTRY GEOPHYS, V3 SOWERS T, 1995, SCIENCE, V269, P210 STUIVER M, 1977, RADIOCARBON, V19, P355 STUIVER M, 1980, RADIOCARBON, V22, R6 STUIVER M, 1986, RADIOCARBON, V28, R2 STUIVER M, 1993, RADIOCARBON, V35, P35 VOGEL JS, 1984, NUCL INSTRUM METH B, V5, P289 VOGEL JS, 1992, RAPID PRODUCTION GRA, P344 XU XM, 2007, NUCL INSTRUM METH B, V259, P320, DOI 10.1016/j.nimb.2007.01.175]]></refworks:cr>
<refworks:jo><![CDATA[Deep-Sea Res.Part I-Oceanogr.Res.Pap.]]></refworks:jo>
<refworks:an><![CDATA[000284750700012]]></refworks:an>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr>
<refworks:YR><![CDATA[2010]]></refworks:YR><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25202</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25183">
<title><![CDATA[Expansion of voltage-dependent Na+ channel gene family in early tetrapods coincided with the emergence of terrestriality and increased brain complexity]]></title>
<dc:creator><![CDATA[Zakon,Harold H.]]></dc:creator>
<dc:creator><![CDATA[ Jost,Manda C.]]></dc:creator>
<dc:creator><![CDATA[ Lu,Ying]]></dc:creator>
<description>Mammals have 10 voltage-dependent sodium (Nav) channel genes. Nav channels are expressed in different cell types with different sub-cellular distributions and are critical for many aspects of neuronal processing. The last common ancestor of teleosts and tetrapods had four Nav channel genes presumably on four different chromosomes. In the lineage leading to mammals a series of tandem duplications on two of these chromosomes more than doubled the number of Nav channel genes. It is unknown when these duplications occurred, whether they occurred against a backdrop of duplication of flanking genes on their chromosomes, or as an expansion of ion channel genes in general. We estimated key dates of the Nav channel gene family expansion by phylogenetic analysis using teleost, elasmobranch, lungfish, amphibian, avian, lizard, and mammalian Nav channel sequences, as well as chromosomal synteny for tetrapod genes. We tested, and exclude, the null hypothesis that Nav channel genes reside in regions of chromosomes prone to duplication by demonstrating the lack of duplication or duplicate retention of surrounding genes. We also find no comparable expansion in other voltage dependent ion channel gene families of tetrapods following the teleost-tetrapod divergence. We posit a specific expansion of the Nav channel gene family in the Devonian and Carboniferous periods when tetrapods evolved, diversified, and invaded the terrestrial habitat. During this time the amniote forebrain evolved greater anatomical complexity and novel tactile sensory receptors appeared. The duplication of Nav channel genes allowed for greater regional specialization in Nav channel expression, variation in sub-cellular localization, and enhanced processing of somatosensory input.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=p1iVgQC5ipA:hQfjGdvMpVM:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=p1iVgQC5ipA:hQfjGdvMpVM:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=p1iVgQC5ipA:hQfjGdvMpVM:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Molecular biology and evolution]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<refworks:created><![CDATA[2/11/2011 5:11:59 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/11/2011 5:25:54 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/p1iVgQC5ipA/refshare</link>
<refworks:k1><![CDATA[ Sodium channel]]></refworks:k1>
<refworks:k1><![CDATA[ tetrapods]]></refworks:k1>
<refworks:k1><![CDATA[ amniotes]]></refworks:k1>
<refworks:k1><![CDATA[ terrestriality]]></refworks:k1>
<refworks:k1><![CDATA[ gene duplication]]></refworks:k1>
<refworks:k1><![CDATA[ brain]]></refworks:k1>
<refworks:do><![CDATA[10.1093/molbev/msq325]]></refworks:do>
<refworks:id><![CDATA[25183]]></refworks:id>
<refworks:ul><![CDATA[http://mbe.oxfordjournals.org/content/early/2010/12/09/molbev.msq325.abstract]]></refworks:ul>
<refworks:jo><![CDATA[Molecular Biology and Evolution]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25183</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25179">
<title><![CDATA[The northeast US application of ATLANTIS: A full system model exploring marine ecosystem dynamics in a living marine resource management context]]></title>
<refworks:t2><![CDATA[3rd GLOBEC OSM: From ecosystem function to ecosystem prediction]]></refworks:t2>
<dc:creator><![CDATA[Link,Jason S.]]></dc:creator>
<dc:creator><![CDATA[ Fulton,Elizabeth A.]]></dc:creator>
<dc:creator><![CDATA[ Gamble,Robert J.]]></dc:creator>
<description>Understanding marine ecosystem dynamics is a key challenge and opportunity facing us. One of the ways we can continue to unravel and understand marine ecosystem dynamics is via ecosystem modeling. We used one such model, ATLANTIS, to help explore the dynamics of the Northeast United States (NEUS) Continental Shelf Large Marine Ecosystem (LME). We have parameterized ATLANTIS for the NEUS LME by including major functional groups across a range of biota, the physiographic dynamics of the ecosystem, and the major fishing fleets. The objectives of this work were to describe the application of this ATLANTIS NEUS model; briefly highlight modeling skill; note areas for further improvement, data gaps, major lessons learned, and how our understanding of the ecosystem was enhanced as we executed the modeling process; and note how these model outputs could inform living marine resource management in this region. The preliminary results we show here describe outputs from a multivariate, multispecies, multifactorial modeling approach. Our modeling skill is reasonable, as determined by the fact that over 90% of our fleet effort estimates, nearly 80% of our functional group catches, and 100% of our main functional group biomasses were within limits of tolerance. Moreover, the general patterns and phenology of major events were replicated consistently, both in space and time across a broad suite of physical, chemical, biological and human factors. These include several taxa groups such as primary producers, zooplankton, benthos, fishes, marine mammals, as well as nutrients, landings, and fishing effort. Conversely, as expected, there were some groups or fleets that did exceed levels of tolerance. These were mostly invertebrate groups such as shrimp, squid or gelatinous zooplankton, groups which are notorious for being difficult to model. Yet the major taxa groups and main fishing fleets were all well within levels of tolerance. Thus, we assert that with the majority of all main processes and state variables simulated, this ATLANTIS model can indeed reasonably approximate observations for the NEUS LME across a range of factors, and more importantly can be used to evaluate the relative prominence across a range of factors that contribute to the dynamics of this marine ecosystem.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=bsVXC_5zoYs:rxYt6V7C5N8:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=bsVXC_5zoYs:rxYt6V7C5N8:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=bsVXC_5zoYs:rxYt6V7C5N8:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Progress in Oceanography]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1-4]]></prism:number>
<prism:volume><![CDATA[87]]></prism:volume> 
<prism:startingPage><![CDATA[214]]></prism:startingPage>
<prism:endingPage><![CDATA[234]]></prism:endingPage> 
<refworks:created><![CDATA[2/11/2011 4:57:35 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/11/2011 5:25:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/bsVXC_5zoYs/refshare</link>
<refworks:FD><![CDATA[/10; 2010]]></refworks:FD>
<refworks:no><![CDATA[12; M3: doi: DOI: 10.1016/j.pocean.2010.09.020]]></refworks:no>
<refworks:sn><![CDATA[0079-6611]]></refworks:sn>
<refworks:lk><![CDATA[http://www.sciencedirect.com/science/article/B6V7B-514P5S9-2/2/9228270c8045477d9f453fa294164558]]></refworks:lk>
<refworks:id><![CDATA[25179]]></refworks:id>
<refworks:jo><![CDATA[Prog.Oceanogr.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25179</feedburner:origLink></item>
<item rdf:about="http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25180">
<title><![CDATA[Understanding climate impacts on recruitment and spatial dynamics of Atlantic cod in the Gulf of Maine: Integration of observations and modeling]]></title>
<refworks:t2><![CDATA[3rd GLOBEC OSM: From ecosystem function to ecosystem prediction]]></refworks:t2>
<dc:creator><![CDATA[Runge,Jeffrey A.]]></dc:creator>
<dc:creator><![CDATA[ Kovach,Adrienne I.]]></dc:creator>
<dc:creator><![CDATA[ Churchill,James H.]]></dc:creator>
<dc:creator><![CDATA[ Kerr,Lisa A.]]></dc:creator>
<dc:creator><![CDATA[ Morrison,John R.]]></dc:creator>
<dc:creator><![CDATA[ Beardsley,Robert C.]]></dc:creator>
<dc:creator><![CDATA[ Berlinsky,David L.]]></dc:creator>
<dc:creator><![CDATA[ Chen,Changsheng]]></dc:creator>
<dc:creator><![CDATA[ Cadrin,Steven X.]]></dc:creator>
<dc:creator><![CDATA[ Davis,Cabell S.]]></dc:creator>
<dc:creator><![CDATA[ Ford,Kathryn H.]]></dc:creator>
<dc:creator><![CDATA[ Grabowski,Jonathan H.]]></dc:creator>
<dc:creator><![CDATA[ Howell,W. H.]]></dc:creator>
<dc:creator><![CDATA[ Ji,Rubao]]></dc:creator>
<dc:creator><![CDATA[ Jones,Rebecca J.]]></dc:creator>
<dc:creator><![CDATA[ Pershing,Andrew J.]]></dc:creator>
<dc:creator><![CDATA[ Record,Nicholas R.]]></dc:creator>
<dc:creator><![CDATA[ Thomas,Andrew C.]]></dc:creator>
<dc:creator><![CDATA[ Sherwood,Graham D.]]></dc:creator>
<dc:creator><![CDATA[ Tallack,Shelly M. L.]]></dc:creator>
<dc:creator><![CDATA[ Townsend,David W.]]></dc:creator>
<description>We put forward a combined observing and modeling strategy for evaluating effects of environmental forcing on the dynamics of spatially structured cod populations spawning in the western Gulf of Maine. Recent work indicates at least two genetically differentiated complexes in this region: a late spring spawning, coastal population centered in Ipswich Bay, and a population that spawns in winter inshore and on nearshore banks in the Gulf of Maine and off southern New England. The two populations likely differ in trophic interactions and in physiological and behavioral responses to different winter and spring environments. Coupled physical-biological modeling has advanced to the point where within-decade forecasting of environmental conditions for recruitment to each of the two populations is feasible. However, the modeling needs to be supported by hydrographic, primary production and zooplankton data collected by buoys, and by data from remote sensing and fixed station sampling. Forecasts of environmentally driven dispersal and growth of planktonic early life stages, combined with an understanding of possible population-specific predator fields, usage of coastal habitat by juveniles and adult resident and migratory patterns, can be used to develop scenarios for spatially explicit population responses to multiple forcings, including climate change, anthropogenic impacts on nearshore juvenile habitat, connectivity among populations and management interventions such as regional fisheries closures.&lt;div class="feedflare"&gt;
&lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=dMuZBpQyms0:5-7dp682upM:yIl2AUoC8zA"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?d=yIl2AUoC8zA" border="0"&gt;&lt;/img&gt;&lt;/a&gt; &lt;a href="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?a=dMuZBpQyms0:5-7dp682upM:F7zBnMyn0Lo"&gt;&lt;img src="http://feeds.feedburner.com/~ff/WoodsHoleAuthorsResearch?i=dMuZBpQyms0:5-7dp682upM:F7zBnMyn0Lo" border="0"&gt;&lt;/img&gt;&lt;/a&gt;
&lt;/div&gt;</description>
<prism:publicationName><![CDATA[Progress in Oceanography]]></prism:publicationName> 
<refworks:rwtype><![CDATA[Journal Article]]></refworks:rwtype>
<prism:number><![CDATA[1-4]]></prism:number>
<prism:volume><![CDATA[87]]></prism:volume> 
<prism:startingPage><![CDATA[251]]></prism:startingPage>
<prism:endingPage><![CDATA[263]]></prism:endingPage> 
<refworks:created><![CDATA[2/11/2011 4:57:35 PM GMT ]]></refworks:created>
<refworks:modified><![CDATA[2/11/2011 5:25:53 PM GMT ]]></refworks:modified><link>http://feedproxy.google.com/~r/WoodsHoleAuthorsResearch/~3/dMuZBpQyms0/refshare</link>
<refworks:FD><![CDATA[/10; 2010]]></refworks:FD>
<refworks:no><![CDATA[12; M3: doi: DOI: 10.1016/j.pocean.2010.09.016]]></refworks:no>
<refworks:sn><![CDATA[0079-6611]]></refworks:sn>
<refworks:lk><![CDATA[http://www.sciencedirect.com/science/article/B6V7B-514BPD5-1/2/3aa953f15252112e5b92cad5da3b519b]]></refworks:lk>
<refworks:id><![CDATA[25180]]></refworks:id>
<refworks:jo><![CDATA[Prog.Oceanogr.]]></refworks:jo>Anonymous 
<refworks:ol><![CDATA[Unknown(0)]]></refworks:ol>
<refworks:sr><![CDATA[Print(0)]]></refworks:sr><feedburner:origLink>http://www.refworks.com/refshare?site=038911150689600000/RWWS4A671057/Woods%20Hole%20Authors%20Research&amp;rn=25180</feedburner:origLink></item>

</rdf:RDF>

