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                    <title>Nanomaterials News - Nanomaterials, Nanoparticles, and Nanotechnology</title>
            <link>https://phys.org/nanotech-news/nano-materials/</link>
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            <description>The latest science news on nanomaterials, nanotechnology, nanoparticles and nanoscience.</description>

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                    <title>Silver nanoparticles enable assembly of a theorized, previously unobserved crystal metallic structure</title>
                    <description>Using finely tuned nanoscale building blocks, researchers from Brown University and the University of Michigan College of Engineering have stabilized a fleeting structural phase of matter that had been predicted theoretically but never before stabilized in a physical material.</description>
                    <link>https://phys.org/news/2026-05-silver-nanoparticles-enable-theorized-previously.html</link>
                    <category>Nanophysics</category>                    <pubDate>Thu, 28 May 2026 17:30:01 EDT</pubDate>
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                    <title>Metamaterials enable control of heat transfer at nanoscale, potentially transforming energy and electronics</title>
                    <description>Heat behaves in predictable ways: a hot cup of coffee cools, a laptop warms your hands, the sun heats Earth. But at scales thousands of times smaller than a human hair, those rules begin to break down, and scientists are learning how to take advantage of that.</description>
                    <link>https://phys.org/news/2026-05-metamaterials-enable-nanoscale-potentially-energy.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 27 May 2026 17:40:05 EDT</pubDate>
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                    <title>DNA assembly insights could streamline design and manufacturing of nanostructures for medicine, materials and more</title>
                    <description>Researchers at The University of Texas at Austin have uncovered key principles that govern how DNA &quot;origami&quot; structures fold, findings that could make nanoscale materials faster and easier to manufacture. DNA origami is a technique that uses strands of DNA to self-assemble into tiny, programmable shapes. Although the method has shown promise for applications ranging from drug delivery to advanced materials, scientists have struggled to consistently achieve high yields, especially as structures become more complex.</description>
                    <link>https://phys.org/news/2026-05-dna-insights-nanostructures-medicine-materials.html</link>
                    <category>Bio &amp; Medicine</category>                    <pubDate>Wed, 27 May 2026 16:40:06 EDT</pubDate>
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                    <title>Researchers upcycle pomegranate peel into high-performance water purifier</title>
                    <description>Pomegranate peel discarded by food vendors could soon help clean up contaminated water, thanks to research from the Department of Chemistry at the Faculty of Science. Led by Professor Sam Li, the research team developed a nanoscale carbon material derived from the fruit waste that is capable of efficiently removing 4-nitrophenol (4-NP), a persistent industrial pollutant, from water.</description>
                    <link>https://phys.org/news/2026-05-upcycle-pomegranate-high-purifier.html</link>
                    <category>Nanomaterials</category>                    <pubDate>Tue, 26 May 2026 08:00:05 EDT</pubDate>
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                    <title>Tiny on-chip circuit could power next-generation quantum and AI technologies</title>
                    <description>Researchers from Monash University have developed a breakthrough nanoscale circuit that can generate, direct, and read light-based information, all on a single chip.</description>
                    <link>https://phys.org/news/2026-05-tiny-chip-circuit-power-generation.html</link>
                    <category>Nanophysics</category>                    <pubDate>Tue, 26 May 2026 04:00:02 EDT</pubDate>
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                    <title>When order gives way to chaos—the turbulent birth of magnetic nanovortices</title>
                    <description>Magnetic switching processes are considered a prime example of controllable physics at the nanometer scale: in certain thin-film systems, a short electrical current pulse is sufficient to reverse the magnetization in a targeted way. The underlying effect is the so-called spin–orbit torque: the current exerts a force on the magnetic moments in the material and can thus flip them in a controlled manner. This effect is expected to enable new data storage and computing architectures in the future.</description>
                    <link>https://phys.org/news/2026-05-chaos-turbulent-birth-magnetic-nanovortices.html</link>
                    <category>Nanophysics</category>                    <pubDate>Sun, 24 May 2026 16:00:01 EDT</pubDate>
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                    <title>Imaging ellipsometry tracks MXene thin-film quality during fabrication without damage</title>
                    <description>A German–Israeli research team led by Dr. Andreas Furchner has demonstrated how imaging ellipsometry enables non-destructive characterization and quality control of microstructured MXene thin films during device fabrication. The authors used two complementary ellipsometry approaches for precise, multi-scale access to key material properties. The work positions imaging ellipsometry as a powerful platform for monitoring thin-film uniformity, device integrity, and functionality throughout processing, including critical lithographic steps. The study was published in Applied Physics Letters and selected as an Editor&#039;s Pick.</description>
                    <link>https://phys.org/news/2026-05-imaging-ellipsometry-tracks-mxene-thin.html</link>
                    <category>Nanophysics</category>                    <pubDate>Fri, 22 May 2026 18:40:01 EDT</pubDate>
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                    <title>Stressed crystal creates nanoscale patterns on chip materials at room temperature</title>
                    <description>A new chip-making technique exploits a material&#039;s crystal structure to create nanoscale patterns at room temperature directly onto hard materials used in devices, including silica. The method could make it easier to pattern chips relaying both electronic- and light-based signals, helping advance next-generation photonic and optoelectronic devices.</description>
                    <link>https://phys.org/news/2026-05-stressed-crystal-nanoscale-patterns-chip.html</link>
                    <category>Nanophysics</category>                    <pubDate>Fri, 22 May 2026 11:00:07 EDT</pubDate>
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                    <title>Complexity isn&#039;t subjective—the right amount results in new material properties</title>
                    <description>Complexity may seem subjective, but a quantitative measure of the complexity of nanomaterials was recently developed by a team of researchers from the University of Michigan Engineering, the University of Southern California Viterbi School of Engineering and the University of Illinois Urbana-Champaign. Their metric promises to take nanomaterials engineering from a process of discovery to one of design, enabling engineers to produce combinations of properties not seen in natural or existing man-made materials.</description>
                    <link>https://phys.org/news/2026-05-complexity-isnt-subjective-amount-results.html</link>
                    <category>Nanomaterials</category>                    <pubDate>Thu, 21 May 2026 18:20:01 EDT</pubDate>
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                    <title>Coupled DNA nanopores control molecular traffic inside synthetic cell microreactors</title>
                    <description>Living systems such as cells rely on membrane pores and channels to transport molecules, exchange signals, and organize biochemical reactions. These functions emerge from dynamic interactions between molecular components. Researchers at the University of Stuttgart have used DNA nanotechnology to develop a synthetic membrane architecture that mimics such interactions. The new platform enables coordinated molecular transport and programmable biochemical reactions inside an artificial compartment.</description>
                    <link>https://phys.org/news/2026-05-coupled-dna-nanopores-molecular-traffic.html</link>
                    <category>Bio &amp; Medicine</category>                    <pubDate>Thu, 21 May 2026 15:40:02 EDT</pubDate>
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                    <title>Chiral carbon nanotube films deliver giant light-conversion effect</title>
                    <description>A sheet of twisted carbon nanotubes has revealed a hidden talent scientists suspected for decades but had never managed to measure. Researchers at Rice University have created large, highly ordered films of chiral carbon nanotubes (CNTs), hollow cylinders of carbon atoms with either a left- or a right-handed twist. Measurements showed the crystalline films can convert the color of light at a rate two to three orders of magnitude greater than conventional materials.</description>
                    <link>https://phys.org/news/2026-05-chiral-carbon-nanotube-giant-conversion.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 20 May 2026 12:00:05 EDT</pubDate>
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                    <title>Quantum-scale simulations and AI uncover promising 2D perovskites for future energy tech</title>
                    <description>Researchers at Clarkson University are advancing the use of artificial intelligence and computational physics to accelerate discovery of next-generation materials for quantum technologies, optoelectronics, and renewable energy applications.</description>
                    <link>https://phys.org/news/2026-05-quantum-scale-simulations-ai-uncover.html</link>
                    <category>Nanophysics</category>                    <pubDate>Tue, 19 May 2026 18:20:01 EDT</pubDate>
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                    <title>New shell helps gold nanoparticles keep shape under laser heat longer</title>
                    <description>Gold nanoparticles, which are about one-thousandth the width of a human hair, can convert light they receive from a laser into heat. This capacity, known in medicine as photothermal therapy, is effective at destroying cancer cells without harming the surrounding healthy tissue. It&#039;s one of the techniques the scientific community is exploring in depth as an alternative chemotherapy, as it is less aggressive.</description>
                    <link>https://phys.org/news/2026-05-shell-gold-nanoparticles-laser-longer.html</link>
                    <category>Bio &amp; Medicine</category>                    <pubDate>Tue, 19 May 2026 15:00:08 EDT</pubDate>
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                    <title>Chemical pathway unlocks next-generation infrared III–V nanocrystals</title>
                    <description>A research team led by Professor Sohee Jeong at Sungkyunkwan University has uncovered a key chemical pathway for the controlled synthesis of III–V semiconductor quantum dots, a class of next-generation infrared materials expected to play an important role in autonomous driving sensors, smart sensing systems, night-vision devices, and short-wave infrared optoelectronics.</description>
                    <link>https://phys.org/news/2026-05-chemical-pathway-generation-infrared-iiiv.html</link>
                    <category>Nanophysics</category>                    <pubDate>Mon, 18 May 2026 13:20:05 EDT</pubDate>
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                    <title>Exploiting interfacial ionic mobility to make heat-moldable nanoparticle aggregates</title>
                    <description>If you have ever warped a cheap plastic cup by pouring coffee into it, then you have witnessed thermoplasticity in action. Thermoplasticity is the ability of a material to become pliable under heating. In industry, thermoplasticity is exploited to form materials into complex shapes using heat. However, some materials, such as aggregates of nanoparticles, are not thermoplastic and cannot be easily processed without affecting their particle morphology and properties.</description>
                    <link>https://phys.org/news/2026-05-exploiting-interfacial-ionic-mobility-moldable.html</link>
                    <category>Nanophysics</category>                    <pubDate>Fri, 15 May 2026 14:00:09 EDT</pubDate>
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                    <title>Honey-like heat flow: A new heat transport regime discovered in ultrathin semiconductors</title>
                    <description>Controlling heat flow is a major challenge for many technologies. In electronic and photonic devices, for example, heat dissipation can limit the performance and efficiency, as well as their potential for further miniaturization. At the same time, two-dimensional (2D) materials, which are made of layers just a few atoms thick, have emerged as a promising platform in these fields. For example, 2D semiconductors are expected to be used in conduction channels of future transistors. However, their thermal behavior remains difficult to predict and control.</description>
                    <link>https://phys.org/news/2026-05-honey-regime-ultrathin-semiconductors.html</link>
                    <category>Nanophysics</category>                    <pubDate>Fri, 15 May 2026 09:20:01 EDT</pubDate>
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                    <title>Could sea squirts&#039; nano-packaging delivery system help restore sea forests?</title>
                    <description>How do sea squirts stay attached to rocks amid crashing waves and strong currents? Recent research has revealed that sea squirts do not simply secrete adhesive substances. Instead, they possess a unique system where they package these materials into nano-sized (nm) condensates, deliver them to the destination, and then unpack them for use onsite.</description>
                    <link>https://phys.org/news/2026-05-sea-squirts-nano-packaging-delivery.html</link>
                    <category>Bio &amp; Medicine</category>                    <pubDate>Fri, 15 May 2026 09:07:46 EDT</pubDate>
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                    <title>Researchers identify stability range for piezoelectric glycine using nanoconfinement</title>
                    <description>Have you ever wondered if the simple building blocks of life could one day power our wearable electronics? Glycine, the simplest amino acid found in our bodies, has a superpower in its β-phase form: it is highly piezoelectric, meaning it can convert mechanical pressure into electricity. However, this phase of glycine is unstable, usually transforming into a non-piezoelectric α-phase before we can ever use it in a device. We wanted to see if we could trap this elusive phase in tiny spaces to keep it stable.</description>
                    <link>https://phys.org/news/2026-05-stability-range-piezoelectric-glycine-nanoconfinement.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 13 May 2026 19:20:01 EDT</pubDate>
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                    <title>Optical meta‑conveyors enable programmable nanomanipulation along arbitrary open paths</title>
                    <description>The task of gently transporting a microscopic particle from one point to another along a winding path, and then bringing it back using nothing more than a single, compact chip is a challenge we set out to address in our new study, now published in Nature Communications.</description>
                    <link>https://phys.org/news/2026-05-optical-metaconveyors-enable-programmable-nanomanipulation.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 13 May 2026 18:00:02 EDT</pubDate>
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                    <title>Atomic step–terrace ordering enables unprecedented precision in mechanical testing</title>
                    <description>As modern technologies shrink to the nanoscale, surfaces increasingly dictate how materials deform, yield, and fail. Yet probing this regime has long been hindered by the challenge of preparing and controlling surfaces with true atomic precision, particularly at the outermost atomic layer.</description>
                    <link>https://phys.org/news/2026-05-atomic-stepterrace-enables-unprecedented-precision.html</link>
                    <category>Nanomaterials</category>                    <pubDate>Wed, 13 May 2026 09:09:37 EDT</pubDate>
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                    <title>Gold nanoparticles that behave like a liquid open path to adaptive materials</title>
                    <description>When inorganic nanoparticles come together, their optical, electronic, and magnetic properties depend strongly on how they are arranged. Being able to reorganize these arrangements in a controlled way could therefore provide a powerful method for tuning material properties.</description>
                    <link>https://phys.org/news/2026-05-gold-nanoparticles-liquid-path-materials.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 13 May 2026 08:39:46 EDT</pubDate>
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                    <title>&#039;Implosion carving&#039; shrinks 3D photonic devices 2,000-fold for visible-light computing</title>
                    <description>Using a new technique that can create vacancies at any site across a material and then shrink it to about 1/2,000 of its original volume, MIT researchers have designed nanotechnology devices that could be used for optical computing and other applications involving the manipulation of visible light.</description>
                    <link>https://phys.org/news/2026-05-implosion-3d-photonic-devices-visible.html</link>
                    <category>Nanophysics</category>                    <pubDate>Tue, 12 May 2026 10:40:08 EDT</pubDate>
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                    <title>Machine learning proves that graphene is hydrophobic</title>
                    <description>For more than a decade, a fundamental mystery has surrounded graphene—the one-atom-thick &quot;wonder material&quot; known for its exceptional strength, conductivity, and transparency. Despite its seemingly simple structure, one basic question has remained unresolved: Does graphene attract water, or repel it?</description>
                    <link>https://phys.org/news/2026-05-machine-graphene-hydrophobic.html</link>
                    <category>Nanophysics</category>                    <pubDate>Mon, 11 May 2026 11:40:01 EDT</pubDate>
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                    <title>Nanoscale design channels hybrid light–vibration waves to carry heat more efficiently</title>
                    <description>Your phone warms up after a 20-minute FaceTime call. Your laptop hums loudly while editing a large video file. Heat is a by-product of modern electronics—from everyday gadgets to the high-resolution screens and processors that power electric vehicles.</description>
                    <link>https://phys.org/news/2026-05-nanoscale-channels-hybrid-lightvibration-efficiently.html</link>
                    <category>Nanophysics</category>                    <pubDate>Fri, 08 May 2026 09:40:13 EDT</pubDate>
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                    <title>Researchers combine five metals to build a better nanocrystal</title>
                    <description>A nanocrystal is an extraordinarily tiny piece of material—composed of anywhere from a few to a few thousand atoms—in which atoms are arranged in a precise, ordered structure. Think of it like taking a piece of gold and shrinking it down to the size of a few hundred atoms. It&#039;s still gold, still crystalline, just almost incomprehensibly small.</description>
                    <link>https://phys.org/news/2026-05-combine-metals-nanocrystal.html</link>
                    <category>Nanomaterials</category>                    <pubDate>Thu, 07 May 2026 14:00:11 EDT</pubDate>
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                    <title>Hourglass nanographenes unlock strong, robust multi-spin entanglement</title>
                    <description>Researchers from the National University of Singapore (NUS) and collaborators have developed a predictive design strategy for creating graphene-like molecules with multiple interacting spins and enhanced resilience to magnetic perturbations, opening new avenues for molecular-scale quantum information technologies and next-generation spintronics.</description>
                    <link>https://phys.org/news/2026-05-hourglass-nanographenes-strong-robust-multi.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 06 May 2026 19:30:01 EDT</pubDate>
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                    <title>Researchers discover a new pathway to building energy-efficient computing chips</title>
                    <description>The growing popularity of electronic devices—from fitness trackers and laptops to smartphones—is driving demand for more energy-efficient computing chips. Now, researchers have found a way to change the electronic properties of a common semiconductor material, potentially laying the foundation for faster, lower-power data storage and processing.</description>
                    <link>https://phys.org/news/2026-05-pathway-energy-efficient-chips.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 06 May 2026 19:00:05 EDT</pubDate>
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                    <title>Twisting atom-thin materials reveals new way to save computing energy</title>
                    <description>A recent study shows a new and potentially more energy-efficient way for information to be transmitted inside electronic systems, including computers and phones—without relying on electric currents or external magnetic fields.</description>
                    <link>https://phys.org/news/2026-05-atom-thin-materials-reveals-energy.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 06 May 2026 16:40:10 EDT</pubDate>
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                    <title>Casimir forces in twisted anisotropic gratings: A path to self-tuning nanophotonic systems</title>
                    <description>A team of scientists from Skoltech and MIPT has investigated how the Casimir effect can be used to precisely control the angular orientation of nanostructures. The results of the study have been published in the journal Physical Review A .</description>
                    <link>https://phys.org/news/2026-05-casimir-anisotropic-path-tuning-nanophotonic.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 06 May 2026 15:20:26 EDT</pubDate>
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                    <title>Room-temperature nanoscale measurements could accelerate molecular electronics research</title>
                    <description>Researchers at the University of Alicante (UA) have developed a highly precise method for measuring distances at the nanometer scale at room temperature, opening up new avenues in molecular electronics research. The team, based at the UA Quantum Transport Laboratory (QT-Lab), has also identified gold nanocontacts just three atoms thick for the first time, significantly advancing current understanding of electronic transport.</description>
                    <link>https://phys.org/news/2026-05-room-temperature-nanoscale-molecular-electronics.html</link>
                    <category>Nanophysics</category>                    <pubDate>Wed, 06 May 2026 14:40:05 EDT</pubDate>
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