Vast Coding

Sketchpy Python Library | How to use and How to Install

2022-05-01T10:23:00.028-07:00

How to use sketchpy library in python | How to install sketchpy library in python programming

Hello visitors, In this blogpost I will tell you about new python library called 'Sketchpy'

It's a new library in python programming. You can consider sketchpy as beginning level python project.

What is sketchpy?

Sketchpy is a library which allows you to draw any sketch using turtle graphics. In sketchpy library there are several classes and you can import these classes and then draw Rdj,Thalapathy Vijay,Apj Abdul kalam,etc. This library also contains very useful codes like image coordinates tracer,etc

Sketchpy is a beginning level python project to draw amazing and awesome animations,drawings,designs using python turtle graphics.

Usage

⬤ Install the package using pip install sketchpy

⬤ Import it as import sketchpy in your project

How to Install

⬤ Install using Terminal

⬤ Install using CMD {Command Prompt}

Install

pip install sketchpy

It will definetely work, but if not just use

pip install turtle open-cv wheel sketchpy

Example 1

This code will draw rdj {Robert Downey Jr.} by only three lines


from sketchpy import library as lib
    

    obj = lib.rdj()
    obj.draw()

Output

Output

Example 2

This code will draw Thalapathy Vijay by only three lines


from sketchpy import library as lib

    obj = lib.vijay()
    obj.draw()

Output

Output

Example 3

This code will draw BTS by only three lines


from sketchpy import library as lib
    
    obj = lib.bts()
    obj.draw()

Output

Output

These are the some examples of sketchpy library drawings/animations. You can also use svg file to draw it using turtle. Drawing using svg file post already available in my blog. You can check it under python turtle lable.

This is an amazing python library for beginners. You can also make your own sketches using this library. You can trace the coordinates of your image and then you can draw it using python turtle. Also you can draw your sketch by using svg file.

This library is built with

⬤ open-CV

⬤ svgpathtools

⬤ turtle

⬤ pillow

I hope you liked this post.

You can also Subscribe my Youtube Channel 'Vast Coding'

If you are facing any issues leave a comment on this post.

Python Turtle Graphics Avengers Logo

2022-04-28T00:02:00.003-07:00

How to make Avengers Logo using Python Turtle Graphics

In this blogpost I will show you how to make famous avengers logo using python turtle graphics in python programming. It is very easy to draw if you have knowledge about python turtle graphics.

What is Pyhon Turtle Graphics?

Turtle is a pre-installed Python library that enables users to create pictures and shapes by providing them with a virtual canvas. You can draw anything in python turtle graphics using commands. I have also made a tracer code in python programming which allows you to trace the x and y coordinates of any image and after tracing the coordinates you can easily put these coordinates in python turtle code and draw anything you want.

Python Libraries Needed : Turtle Graphics

INSTALLATION : Turtle is a pre-installed library. If it is not pre-installed in your system then,

Run the following command in terminal or cmd pip install turtle

Source Code : Here is the source code.You can copy this code from here and paste it to your favourite editor and run this code. You will definitely amazed after seeing the amazing output.


import turtle

def draw_circle(pen):
	# outer circle
	pen.setposition(0, -280)
	pen.pendown()
	pen.begin_fill()
	pen.color('red')
	pen.pencolor('white')
	pen.circle(300)
	pen.end_fill()
	pen.penup()

def draw_circle2(pen):
	# inner circle
	pen.pensize(2)
	pen.setposition(0, -230)
	pen.pendown()
	pen.begin_fill()
	pen.color('black')
	pen.circle(250)
	pen.end_fill()
	pen.penup()

def draw_A(pen):
	# drawing ‘A’
	pen.setposition(30, -110)
	pen.pendown()
	pen.begin_fill()
	pen.color('red')
	pen.pensize(10)
	pen.pencolor('white')
	pen.forward(23)
	pen.backward(123)
	pen.left(60)
	pen.backward(220)
	pen.right(60)
	pen.backward(100)
	pen.right(117)
	pen.backward(710)
	pen.right(63)
	pen.backward(110)
	pen.right(90)
	pen.backward(510)
	pen.right(90)
	pen.backward(100)
	pen.right(90)
	pen.backward(70)
	pen.end_fill()
	pen.penup()

def draw_triangle(pen):
	# Triangle shape in ‘A’ to make it look like 2d
	pen.pensize(10)
	pen.setposition(53, -40)
	pen.pendown()
	pen.begin_fill()
	pen.color('black')
	pen.pencolor('white')
	pen.right(90)
	pen.forward(100)
	pen.right(115)
	pen.forward(250)
	pen.right(157)
	pen.forward(227)
	pen.end_fill()

def draw_arrow(pen):
	# arrow
	pen.backward(80)
	pen.left(42)
	pen.forward(147)
	pen.right(83)
	pen.forward(140)

if __name__ == '__main__':
	win = turtle.Screen()
	win.bgcolor('black')

	avengers = turtle.Turtle()
	avengers.speed(10)
	avengers.pensize(10)
	avengers.penup()
	
	draw_circle(avengers)
	draw_circle2(avengers)
	draw_A(avengers)
	draw_triangle(avengers)
	draw_arrow(avengers)
	
	avengers.hideturtle()
	turtle.done()

Output :

In the Above image I have shown you the output of the upper code.

You can use any software to run this code which supports python like PYTHON IDLE, VS CODE ,PYCHARM, ETC

My Youtube Channel : Vast Coding {Search it on youtube}

Jr. NTR Drawing using Python Turtle Graphics

2022-04-24T20:12:00.005-07:00

Jr.NTR Drawing using Python Turtle Graphics | RRR Movie Hero Drawing

Note : If you are facing any issues to copy this code then click select all while copying the code. After that extract the code from the copied text. {Your mobile may lag for 3-5 seconds when you hold the code to copy,it is because the coordinates in the code are so long. Don't worry just wait 3-5 seconds after holding the text and click select all and copy the full page and paste it to your editor and from there copy the code}

Source Code :


import turtle as tu
tu.bgcolor("orange red")

class googlemapslogo:
    def __init__(self):
        self.hairbeard =[(302, 221) ,(301, 231) ,(300, 238) ,(297, 246) ,(296, 254) ,(299, 265) ,(302, 274) ,(305, 284) ,(307, 294) ,(306, 303) ,(312, 312) ,(318, 320) ,(325, 324) ,(329, 328) ,(332, 336) ,(334, 343) ,(334, 354) ,(337, 346) ,(339, 352) ,(343, 346) ,(343, 343) ,(345, 336) ,(350, 330) ,(357, 328) ,(361, 325) ,(356, 325) ,(365, 324) ,(369, 323) ,(374, 322) ,(380, 321) ,(385, 321) ,(390, 323) ,(393, 327) ,(399, 331) ,(404, 332) ,(408, 332) ,(413, 332) ,(417, 331) ,(419, 329) ,(424, 329) ,(429, 331) ,(434, 335) ,(440, 340) ,(450, 349) ,(446, 349) ,(455, 356) ,(450, 356) ,(454, 359) ,(454, 364) ,(462, 362) ,(466, 358) ,(470, 356) ,(473, 352) ,(475, 347) ,(477, 342) ,(480, 342) ,(484, 338) ,(486, 334) ,(487, 330) ,(490, 323) ,(492, 320) ,(493, 311) ,(495, 310) ,(496, 304) ,(500, 299) ,(502, 293) ,(502, 303) ,(501, 307) ,(500, 313) ,(499, 319) ,(495, 324) ,(496, 331) ,(493, 337) ,(491, 343) ,(489, 345) ,(488, 350) ,(487, 356) ,(485, 361) ,(482, 364) ,(479, 369) ,(473, 375) ,(472, 381) ,(469, 386) ,(466, 391) ,(464, 395) ,(461, 403) ,(461, 400) ,(458, 402) ,(457, 406) ,(455, 403) ,(453, 405) ,(450, 408) ,(447, 413) ,(441, 419) ,(439, 423) ,(435, 427) ,(432, 432) ,(430, 435) ,(427, 440) ,(423, 444) ,(420, 447) ,(418, 452) ,(418, 449) ,(415, 450) ,(411, 456) ,(411, 452) ,(408, 459) ,(407, 455) ,(401, 463) ,(403, 456) ,(398, 464) ,(397, 459) ,(393, 465) ,(392, 461) ,(390, 466) ,(388, 464) ,(384, 466) ,(383, 463) ,(381, 465) ,(381, 460) ,(379, 459) ,(378, 466) ,(375, 459) ,(376, 467) ,(371, 459) ,(370, 463) ,(367, 455) ,(365, 463) ,(363, 458) ,(363, 462) ,(359, 453) ,(358, 457) ,(360, 461) ,(355, 456) ,(356, 461) ,(352, 453) ,(352, 457) ,(348, 448) ,(346, 453) ,(344, 447) ,(344, 451) ,(340, 443) ,(340, 447) ,(338, 437) ,(337, 444) ,(335, 439) ,(332, 441) ,(331, 436) ,(329, 434) ,(328, 431) ,(325, 421) ,(324, 415) ,(323, 428) ,(321, 416) ,(323, 406) ,(323, 402) ,(313, 396) ,(309, 392) ,(302, 380) ,(303, 385) ,(298, 378) ,(294, 372) ,(291, 366) ,(288, 360) ,(287, 353) ,(284, 343) ,(281, 330) ,(279, 318) ,(279, 305) ,(280, 294) ,(281, 283) ,(284, 272) ,(285, 265) ,(287, 257) ,(290, 250) ,(292, 240) ,(295, 232) ,(295, 224) ,(296, 218) ,(296, 208) ,(293, 198) ,(289, 194) ,(288, 188) ,(290, 181) ,(292, 172) ,(292, 166) ,(293, 157) ,(296, 148) ,(297, 137) ,(298, 130) ,(300, 121) ,(300, 114) ,(302, 105) ,(306, 98) ,(309, 93) ,(312, 88) ,(317, 85) ,(315, 78) ,(314, 69) ,(314, 59) ,(318, 50) ,(321, 45) ,(328, 39) ,(333, 34) ,(338, 32) ,(341, 25) ,(345, 23) ,(351, 21) ,(353, 18) ,(360, 17) ,(366, 13) ,(373, 9) ,(381, 7) ,(386, 4) ,(393, 6) ,(397, 7) ,(400, 7) ,(403, 9) ,(409, 8) ,(416, 7) ,(426, 8) ,(437, 8) ,(442, 9) ,(451, 11) ,(458, 13) ,(464, 14) ,(468, 17) ,(474, 19) ,(482, 22) ,(487, 26) ,(492, 28) ,(497, 32) ,(500, 34) ,(503, 36) ,(506, 39) ,(511, 44) ,(513, 44) ,(515, 47) ,(516, 48) ,(521, 54) ,(525, 62) ,(527, 71) ,(529, 76) ,(531, 83) ,(535, 87) ,(538, 96) ,(541, 105) ,(542, 114) ,(538, 117) ,(536, 121) ,(533, 126) ,(532, 135) ,(532, 140) ,(531, 146) ,(531, 149) ,(533, 156) ,(532, 165) ,(530, 174) ,(528, 183) ,(529, 191) ,(526, 200) ,(523, 206) ,(521, 212) ,(519, 215) ,(517, 223) ,(513, 229) ,(512, 236) ,(512, 240) ,(511, 246) ,(510, 257) ,(508, 256) ,(507, 252) ,(508, 247) ,(508, 243) ,(509, 237) ,(506, 229) ,(504, 227) ,(506, 225) ,(507, 216) ,(506, 205) ,(504, 198) ,(507, 198) ,(508, 191) ,(512, 191) ,(509, 181) ,(510, 177) ,(508, 171) ,(505, 163) ,(503, 157) ,(499, 158) ,(490, 158) ,(492, 155) ,(488, 156) ,(480, 158) ,(470, 156) ,(463, 153) ,(454, 149) ,(453, 156) ,(450, 149) ,(443, 143) ,(435, 142) ,(421, 141) ,(416, 139) ,(408, 132) ,(401, 131) ,(391, 130) ,(384, 131) ,(379, 129) ,(371, 123) ,(367, 118) ,(360, 111) ,(359, 110) ,(354, 115) ,(350, 116) ,(342, 119) ,(336, 126) ,(348, 123) ,(338, 131) ,(337, 136) ,(335, 142) ,(343, 141) ,(337, 150) ,(338, 157) ,(341, 166) ,(333, 165) ,(342, 170) ,(336, 172) ,(342, 173) ,(335, 176) ,(341, 177) ,(332, 181) ,(340, 185) ,(333, 187) ,(337, 191) ,(328, 194) ,(322, 195) ,(312, 196) ,(317, 198) ,(313, 200) ,(317, 207) ,(311, 207) ,(306, 208) ,(303, 214) ,(302, 222)]
        self.hairbg =[(335, 98) ,(341, 104) ,(352, 112) ,(360, 104) ,(367, 113) ,(373, 120) ,(382, 127) ,(386, 124) ,(392, 124) ,(403, 124) ,(411, 129) ,(420, 131) ,(435, 136) ,(446, 139) ,(451, 155) ,(457, 146) ,(463, 149) ,(476, 148) ,(491, 148) ,(499, 145) ,(498, 151) ,(512, 148) ,(521, 136) ,(528, 130) ,(518, 132) ,(506, 138) ,(508, 122) ,(496, 140) ,(489, 141) ,(485, 143) ,(495, 121) ,(484, 132) ,(487, 120) ,(486, 104) ,(485, 100) ,(474, 106) ,(480, 91) ,(471, 100) ,(470, 85) ,(465, 91) ,(451, 92) ,(434, 93) ,(448, 67) ,(441, 77) ,(436, 58) ,(435, 81) ,(432, 75) ,(424, 85) ,(417, 87) ,(409, 88) ,(412, 67) ,(408, 80) ,(400, 59) ,(395, 75) ,(399, 82) ,(402, 93) ,(403, 104) ,(399, 111) ,(389, 119) ,(377, 119) ,(371, 110) ,(379, 97) ,(377, 90) ,(376, 86) ,(380, 78) ,(374, 82) ,(375, 78) ,(370, 87) ,(362, 82) ,(362, 87) ,(359, 87) ,(354, 98) ,(353, 87) ,(347, 99) ,(339, 97) ,(335, 99)]
        self.face1 =[(326, 192) ,(326, 175) ,(326, 159) ,(330, 138) ,(334, 123) ,(347, 107) ,(363, 102) ,(379, 111) ,(391, 119) ,(399, 119) ,(416, 126) ,(433, 128) ,(439, 128) ,(462, 132) ,(476, 143) ,(502, 142) ,(514, 142) ,(521, 160) ,(519, 185) ,(513, 206) ,(512, 221) ,(511, 231) ,(510, 242) ,(508, 258) ,(508, 268) ,(507, 287) ,(505, 296) ,(501, 309) ,(499, 321) ,(493, 328) ,(490, 338) ,(483, 346) ,(470, 362) ,(451, 374) ,(440, 355) ,(426, 337) ,(402, 335) ,(389, 332) ,(372, 331) ,(360, 333) ,(355, 343) ,(338, 354) ,(327, 340) ,(309, 319) ,(301, 307) ,(301, 279) ,(293, 263) ,(296, 232) ,(300, 216) ,(305, 202) ,(314, 190) ,(327, 191) ,(331, 191)]
        self.face2 =[(441, 237) ,(442, 225) ,(439, 216) ,(450, 215) ,(461, 216) ,(475, 214) ,(480, 212) ,(483, 211) ,(487, 204) ,(488, 192) ,(484, 180) ,(484, 166) ,(493, 157) ,(505, 161) ,(504, 179) ,(508, 189) ,(502, 199) ,(504, 205) ,(504, 211) ,(506, 217) ,(505, 225) ,(507, 232) ,(508, 236) ,(508, 240) ,(508, 244) ,(506, 249) ,(507, 255) ,(505, 255) ,(499, 247) ,(490, 243) ,(485, 240) ,(478, 240) ,(474, 240) ,(466, 240) ,(453, 241) ,(445, 240) ,(441, 238)]
        self.face3 =[(329, 196) ,(334, 194) ,(340, 196) ,(340, 203) ,(345, 209) ,(350, 212) ,(350, 209) ,(358, 214) ,(363, 214) ,(368, 216) ,(378, 216) ,(385, 221) ,(393, 226) ,(401, 227) ,(410, 229) ,(398, 222) ,(386, 212) ,(400, 215) ,(391, 207) ,(405, 215) ,(398, 207) ,(406, 212) ,(401, 204) ,(407, 205) ,(412, 208) ,(418, 212) ,(416, 205) ,(422, 213) ,(426, 225) ,(423, 232) ,(426, 236) ,(431, 239) ,(437, 239) ,(443, 240) ,(450, 242) ,(454, 241) ,(455, 234) ,(456, 227) ,(456, 220) ,(450, 216) ,(455, 216) ,(464, 216) ,(470, 216) ,(480, 216) ,(487, 213) ,(480, 213) ,(489, 209) ,(486, 207) ,(492, 203) ,(486, 202) ,(499, 197) ,(488, 196) ,(498, 189) ,(487, 189) ,(493, 183) ,(490, 183) ,(486, 181) ,(496, 177) ,(486, 175) ,(496, 170) ,(487, 165) ,(480, 164) ,(492, 165) ,(500, 166) ,(505, 169) ,(500, 173) ,(502, 182) ,(504, 187) ,(501, 195) ,(506, 196) ,(506, 191) ,(509, 192) ,(509, 180) ,(508, 170) ,(507, 166) ,(504, 160) ,(505, 155) ,(491, 158) ,(481, 158) ,(472, 157) ,(464, 155) ,(456, 152) ,(452, 155) ,(450, 150) ,(447, 147) ,(442, 146) ,(435, 146) ,(429, 146) ,(421, 145) ,(415, 143) ,(407, 140) ,(413, 140) ,(407, 136) ,(402, 134) ,(392, 134) ,(386, 136) ,(379, 139) ,(377, 135) ,(373, 126) ,(366, 123) ,(362, 121) ,(358, 122) ,(353, 123) ,(348, 126) ,(344, 131) ,(342, 139) ,(342, 145) ,(352, 142) ,(357, 141) ,(366, 141) ,(376, 143) ,(387, 144) ,(382, 148) ,(392, 150) ,(399, 150) ,(410, 152) ,(418, 155) ,(424, 156) ,(433, 158) ,(439, 163) ,(429, 166) ,(438, 167) ,(436, 174) ,(422, 177) ,(410, 178) ,(399, 182) ,(390, 183) ,(403, 186) ,(388, 185) ,(373, 180) ,(373, 182) ,(361, 179) ,(350, 171) ,(348, 177) ,(343, 173) ,(341, 178) ,(340, 183) ,(341, 188) ,(336, 192) ,(328, 197)]
        self.sunglassesborder =[(324, 232) ,(331, 228) ,(338, 227) ,(345, 227) ,(357, 229) ,(368, 230) ,(378, 233) ,(387, 235) ,(394, 237) ,(403, 240) ,(410, 245) ,(411, 251) ,(407, 260) ,(404, 267) ,(398, 274) ,(392, 281) ,(386, 286) ,(378, 290) ,(370, 290) ,(358, 289) ,(350, 286) ,(343, 281) ,(334, 275) ,(326, 268) ,(321, 263) ,(320, 255) ,(320, 245) ,(322, 236) ,(325, 230) ,(336, 226) ,(346, 226) ,(352, 226) ,(362, 227) ,(370, 228) ,(379, 229) ,(389, 232) ,(399, 234) ,(407, 236) ,(418, 237) ,(427, 239) ,(437, 241) ,(447, 243) ,(462, 246) ,(475, 248) ,(483, 249) ,(489, 251) ,(496, 252) ,(502, 256) ,(509, 262) ,(512, 269) ,(512, 278) ,(507, 286) ,(503, 293) ,(497, 298) ,(492, 302) ,(483, 306) ,(474, 307) ,(465, 307) ,(455, 307) ,(444, 304) ,(439, 301) ,(432, 294) ,(430, 286) ,(429, 278) ,(430, 271) ,(430, 263) ,(431, 256) ,(434, 251) ,(441, 248) ,(450, 248) ,(458, 249) ,(465, 250) ,(474, 250) ,(480, 252) ,(487, 252) ,(496, 257) ,(505, 260)]
        self.sunglassescolor =[(326, 234) ,(332, 230) ,(337, 230) ,(344, 229) ,(352, 230) ,(360, 231) ,(369, 232) ,(378, 235) ,(387, 237) ,(395, 240) ,(403, 241) ,(409, 246) ,(409, 254) ,(407, 259) ,(405, 265) ,(401, 270) ,(396, 276) ,(391, 280) ,(385, 284) ,(378, 288) ,(366, 289) ,(360, 288) ,(351, 284) ,(344, 279) ,(336, 275) ,(330, 270) ,(326, 266) ,(322, 261) ,(321, 253) ,(321, 246) ,(322, 240) ,(326, 234)]
        self.sunglassescolor2 =[(436, 251) ,(448, 250) ,(459, 250) ,(468, 251) ,(478, 252) ,(486, 254) ,(494, 256) ,(503, 261) ,(510, 268) ,(510, 277) ,(507, 285) ,(501, 293) ,(493, 300) ,(484, 304) ,(476, 306) ,(465, 306) ,(456, 306) ,(446, 304) ,(439, 299) ,(434, 293) ,(430, 285) ,(430, 280) ,(431, 272) ,(431, 264) ,(432, 257) ,(437, 251)]
        self.eyebrow1 =[(327, 225) ,(335, 222) ,(340, 219) ,(344, 217) ,(345, 213) ,(351, 215) ,(357, 218) ,(365, 221) ,(365, 216) ,(376, 219) ,(380, 222) ,(388, 224) ,(392, 225) ,(400, 229) ,(408, 230) ,(412, 233) ,(407, 233) ,(402, 233) ,(396, 232) ,(389, 229) ,(379, 228) ,(372, 226) ,(364, 226) ,(355, 225) ,(348, 225) ,(341, 225) ,(337, 225) ,(333, 225) ,(327, 227) ,(325, 227)]
        self.eyebrow2 =[(452, 242) ,(459, 242) ,(468, 241) ,(476, 241) ,(474, 240) ,(482, 240) ,(488, 241) ,(493, 244) ,(498, 247) ,(503, 253) ,(495, 251) ,(489, 248) ,(481, 246) ,(476, 246) ,(472, 243) ,(468, 245) ,(466, 245) ,(463, 244) ,(457, 243) ,(453, 242)]
        self.face4 =[(304, 238) ,(313, 243) ,(314, 250) ,(315, 255) ,(318, 262) ,(322, 266) ,(327, 270) ,(331, 274) ,(337, 279) ,(344, 284) ,(352, 288) ,(343, 287) ,(352, 292) ,(346, 296) ,(337, 296) ,(329, 297) ,(347, 298) ,(341, 302) ,(337, 305) ,(331, 306) ,(337, 308) ,(334, 310) ,(327, 310) ,(323, 310) ,(329, 313) ,(332, 317) ,(337, 313) ,(342, 313) ,(349, 313) ,(344, 320) ,(347, 317) ,(353, 313) ,(356, 308) ,(358, 303) ,(365, 302) ,(364, 299) ,(366, 295) ,(367, 292) ,(372, 292) ,(377, 291) ,(384, 289) ,(376, 295) ,(371, 301) ,(367, 306) ,(362, 311) ,(360, 315) ,(358, 319) ,(356, 323) ,(354, 326) ,(350, 329) ,(346, 332) ,(346, 336) ,(342, 341) ,(341, 349) ,(337, 350) ,(334, 345) ,(333, 337) ,(329, 329) ,(320, 321) ,(311, 307) ,(307, 300) ,(303, 283) ,(298, 267) ,(297, 253) ,(298, 244) ,(301, 232) ,(304, 221) ,(308, 230) ,(315, 235) ,(319, 238) ,(319, 244) ,(316, 246) ,(309, 240) ,(304, 238)]
        self.k =[(358, 321) ,(360, 314) ,(365, 307) ,(369, 302) ,(373, 298) ,(377, 294) ,(380, 290) ,(387, 288) ,(383, 291) ,(378, 298) ,(377, 301) ,(375, 306) ,(371, 308) ,(368, 311) ,(365, 313) ,(362, 317) ,(358, 322)]
        self.nose1 =[(379, 318) ,(381, 316) ,(384, 316) ,(387, 318) ,(391, 321) ,(393, 325) ,(395, 330) ,(399, 331) ,(404, 333) ,(409, 333) ,(415, 332) ,(417, 330) ,(419, 328) ,(422, 325) ,(425, 324) ,(429, 325)]
        self.lips1 =[(353, 353) ,(356, 348) ,(360, 345) ,(365, 342) ,(370, 340) ,(377, 340) ,(383, 339) ,(390, 340) ,(395, 340) ,(403, 340) ,(407, 342) ,(414, 344) ,(421, 346) ,(428, 354) ,(431, 360) ,(434, 365) ,(433, 371) ,(432, 377) ,(423, 372) ,(420, 370) ,(412, 367) ,(406, 365) ,(397, 364) ,(389, 363) ,(384, 361) ,(378, 358) ,(372, 357) ,(367, 356) ,(361, 356) ,(353, 353)]
        self.h =[(355, 351) ,(363, 352) ,(369, 351) ,(379, 351) ,(384, 352) ,(389, 354) ,(393, 355) ,(396, 358) ,(402, 357) ,(407, 358) ,(413, 359) ,(419, 360) ,(425, 362) ,(429, 366)]
        self.m =[(364, 347) ,(368, 344) ,(373, 343) ,(378, 342) ,(375, 348) ,(380, 348) ,(384, 345) ,(389, 344) ,(394, 344) ,(399, 346) ,(396, 350) ,(399, 352) ,(404, 348) ,(409, 347) ,(415, 351) ,(418, 355) ,(421, 357) ,(421, 353) ,(430, 363) ,(431, 360) ,(427, 353) ,(421, 348) ,(417, 346) ,(409, 344) ,(399, 342) ,(393, 341) ,(388, 340) ,(382, 339) ,(374, 341) ,(370, 341) ,(363, 344) ,(359, 348)]
        self.nl =[(438, 301) ,(435, 305) ,(437, 311) ,(437, 317) ,(435, 322) ,(433, 325)]
        self.nlm =[(379, 305) ,(384, 308) ,(376, 308) ,(375, 313) ,(377, 315) ,(380, 313) ,(383, 312) ,(386, 313) ,(390, 316) ,(394, 320) ,(397, 324) ,(401, 328) ,(404, 329) ,(408, 331) ,(413, 329) ,(417, 326) ,(420, 323) ,(424, 321) ,(430, 322) ,(429, 321) ,(425, 320) ,(421, 321) ,(419, 322) ,(415, 325) ,(413, 327) ,(411, 327) ,(408, 328) ,(403, 327) ,(399, 324) ,(398, 321) ,(395, 317) ,(391, 314) ,(389, 311) ,(384, 308)]
        self.yy =[(376, 307) ,(376, 304) ,(379, 297) ,(383, 293) ,(389, 286) ,(395, 281) ,(400, 276) ,(404, 272) ,(409, 265) ,(411, 255) ,(417, 257) ,(415, 263) ,(415, 271) ,(414, 278) ,(413, 285) ,(413, 290) ,(411, 299) ,(410, 308) ,(410, 314) ,(406, 315) ,(402, 318) ,(396, 319) ,(393, 314) ,(388, 310) ,(384, 308) ,(377, 308)]
        self.yyy =[(419, 257) ,(423, 257) ,(429, 258) ,(428, 263) ,(429, 273) ,(429, 279) ,(429, 283) ,(429, 290) ,(432, 296) ,(436, 300) ,(434, 304) ,(436, 310) ,(436, 313) ,(434, 322) ,(433, 317) ,(430, 314) ,(426, 311) ,(425, 303) ,(424, 296) ,(420, 291) ,(419, 300) ,(419, 304) ,(417, 308) ,(415, 315) ,(412, 320) ,(412, 316) ,(412, 312) ,(412, 304) ,(415, 299) ,(415, 294) ,(416, 280) ,(418, 272) ,(417, 261) ,(419, 257) ,(419, 257) ,(423, 257) ,(429, 258) ,(428, 263) ,(429, 273) ,(429, 279) ,(429, 283) ,(429, 290) ,(432, 296) ,(436, 300) ,(434, 304) ,(436, 310) ,(436, 313) ,(434, 322) ,(433, 317) ,(430, 314) ,(426, 311) ,(425, 303) ,(424, 296) ,(420, 291) ,(419, 300) ,(419, 304) ,(417, 308) ,(415, 315) ,(412, 320) ,(412, 316) ,(412, 312) ,(412, 304) ,(415, 299) ,(415, 294) ,(416, 280) ,(418, 272) ,(417, 261) ,(419, 257)]
        self.s =[(289, 184) ,(294, 190) ,(297, 199) ,(301, 208) ,(304, 216) ,(308, 224) ,(311, 229) ,(317, 234) ,(321, 235)]
        self.ear1 =[(290, 195) ,(295, 203) ,(295, 212) ,(294, 224) ,(293, 234) ,(290, 243) ,(288, 252) ,(287, 257) ,(284, 269) ,(277, 265) ,(270, 259) ,(269, 251) ,(266, 239) ,(266, 231) ,(264, 223) ,(263, 214) ,(263, 208) ,(264, 201) ,(265, 197) ,(268, 194) ,(269, 189) ,(274, 186) ,(279, 186) ,(285, 190) ,(289, 194) ,(295, 204)]
        self.ear10 =[(279, 198) ,(276, 196) ,(271, 197) ,(270, 200) ,(267, 207) ,(267, 210) ,(267, 217) ,(267, 221) ,(267, 226) ,(269, 232) ,(270, 231) ,(269, 229) ,(269, 225) ,(269, 218) ,(271, 214) ,(272, 213) ,(273, 211) ,(275, 206) ,(278, 203) ,(279, 197)]
        self.ear12 =[(287, 214) ,(282, 217) ,(276, 220) ,(274, 226) ,(276, 232) ,(280, 236) ,(282, 240) ,(283, 248) ,(285, 247) ,(286, 243) ,(286, 238) ,(286, 235) ,(287, 232) ,(289, 229) ,(293, 224) ,(291, 218) ,(288, 214)]
        self.ear2 =[(510, 257) ,(511, 251) ,(512, 244) ,(513, 239) ,(516, 232) ,(519, 232) ,(525, 232) ,(529, 236) ,(529, 239) ,(530, 242) ,(528, 248) ,(524, 253) ,(523, 256) ,(521, 262) ,(519, 267) ,(516, 273) ,(514, 280) ,(512, 284) ,(510, 290) ,(507, 296) ,(502, 304) ,(504, 296) ,(505, 293) ,(507, 289) ,(510, 284) ,(513, 276) ,(513, 271) ,(511, 263) ,(510, 259)]
        self.sunl =[(513, 271) ,(519, 271) ,(519, 263) ,(518, 255) ,(518, 250) ,(517, 246) ,(515, 243) ,(513, 237) ,(516, 232) ,(517, 231) ,(514, 230)]
        self.face5 =[(435, 327) ,(440, 332) ,(443, 337) ,(447, 344) ,(450, 345) ,(449, 336) ,(448, 329) ,(448, 319) ,(449, 314) ,(461, 313) ,(466, 313) ,(477, 314) ,(474, 328) ,(473, 336) ,(468, 344) ,(468, 352) ,(476, 347) ,(476, 342) ,(482, 340) ,(485, 334) ,(490, 327) ,(492, 322) ,(494, 314) ,(498, 302) ,(501, 295) ,(494, 300) ,(494, 301) ,(489, 305) ,(483, 307) ,(473, 309) ,(462, 309) ,(452, 308) ,(444, 306) ,(440, 304) ,(440, 308) ,(440, 311) ,(439, 316) ,(438, 319) ,(436, 328)]
        self.sunl2 =[(411, 252) ,(417, 253) ,(423, 255) ,(428, 256) ,(431, 256)]
        self.j =[(354, 356) ,(355, 361) ,(355, 364) ,(362, 370) ,(366, 375) ,(370, 371) ,(376, 367) ,(382, 366) ,(390, 367) ,(397, 369) ,(403, 371) ,(410, 373) ,(411, 379) ,(416, 381) ,(419, 385) ,(421, 392) ,(425, 391) ,(427, 387) ,(430, 382) ,(433, 376) ,(434, 371) ,(431, 376) ,(425, 372) ,(418, 370) ,(413, 368) ,(406, 366) ,(401, 366) ,(396, 366) ,(391, 363) ,(382, 361) ,(379, 358) ,(370, 358) ,(364, 357) ,(355, 355)]
        self.c =[(518, 239) ,(523, 239) ,(523, 245) ,(522, 249) ,(520, 254) ,(518, 260) ,(515, 266) ,(513, 260) ,(514, 257) ,(514, 250) ,(514, 247) ,(515, 244) ,(516, 240) ,(517, 239)]
        self.neck =[(283, 346) ,(279, 354) ,(277, 366) ,(278, 373) ,(280, 382) ,(283, 388) ,(286, 392) ,(292, 398) ,(301, 404) ,(308, 410) ,(318, 417) ,(333, 421) ,(324, 390) ,(314, 380) ,(294, 357) ,(285, 345) ,(283, 345)]
        self.collar =[(283, 340) ,(284, 344) ,(278, 344) ,(276, 349) ,(273, 353) ,(272, 357) ,(269, 363) ,(266, 371) ,(264, 377) ,(262, 386) ,(261, 395) ,(260, 402) ,(259, 410) ,(259, 418) ,(259, 425) ,(264, 432) ,(270, 441) ,(274, 448) ,(280, 456) ,(286, 464) ,(293, 473) ,(298, 478) ,(302, 485) ,(308, 493) ,(311, 495) ,(315, 489) ,(318, 482) ,(323, 476) ,(330, 467) ,(337, 458) ,(344, 450) ,(347, 442) ,(334, 428) ,(319, 417) ,(314, 414) ,(307, 409) ,(300, 403) ,(293, 398) ,(286, 392) ,(281, 384) ,(278, 379) ,(278, 372) ,(278, 366) ,(280, 357) ,(281, 351) ,(283, 345)]
        self.collar2 =[(416, 451) ,(422, 460) ,(428, 467) ,(437, 476) ,(446, 484) ,(454, 494) ,(458, 489) ,(461, 481) ,(467, 469) ,(472, 458) ,(479, 447) ,(485, 436) ,(489, 426) ,(490, 411) ,(487, 401) ,(485, 392) ,(481, 382) ,(479, 376) ,(474, 375) ,(469, 377) ,(466, 387) ,(457, 397) ,(450, 404) ,(443, 414) ,(435, 425) ,(423, 431) ,(417, 436) ,(410, 447) ,(416, 451)]
        self.shirt =[(476, 375) ,(483, 381) ,(492, 382) ,(499, 386) ,(507, 388) ,(515, 388) ,(523, 391) ,(533, 396) ,(543, 399) ,(555, 403) ,(569, 408) ,(580, 411) ,(592, 414) ,(600, 419) ,(610, 423) ,(620, 429) ,(628, 433) ,(639, 440) ,(646, 448) ,(663, 456) ,(673, 464) ,(681, 470) ,(685, 477) ,(697, 491) ,(702, 503) ,(709, 516) ,(713, 529) ,(714, 538) ,(718, 550) ,(706, 561) ,(691, 561) ,(646, 561) ,(601, 561) ,(162, 560) ,(137, 561) ,(85, 560) ,(64, 560) ,(51, 560) ,(42, 559) ,(34, 559) ,(32, 559) ,(32, 556) ,(33, 549) ,(35, 535) ,(40, 525) ,(45, 516) ,(48, 510) ,(51, 504) ,(55, 499) ,(61, 491) ,(70, 481) ,(77, 477) ,(84, 470) ,(94, 464) ,(108, 457) ,(121, 453) ,(132, 447) ,(148, 438) ,(168, 429) ,(190, 419) ,(203, 412) ,(216, 406) ,(228, 401) ,(237, 397) ,(250, 392) ,(258, 389) ,(263, 387) ,(259, 407) ,(259, 417) ,(262, 433) ,(273, 448) ,(284, 463) ,(297, 479) ,(303, 486) ,(320, 475) ,(331, 462) ,(359, 469) ,(395, 466) ,(408, 460) ,(439, 451) ,(459, 425) ,(471, 409) ,(477, 388) ,(478, 374)]
        self.collarbg1 =[(282, 343) ,(276, 350) ,(273, 360) ,(270, 367) ,(267, 381) ,(264, 394) ,(264, 402) ,(263, 414) ,(264, 425) ,(270, 434) ,(277, 444) ,(285, 453) ,(293, 463) ,(299, 472) ,(306, 484) ,(310, 487) ,(317, 479) ,(322, 470) ,(329, 459) ,(335, 449) ,(330, 442) ,(322, 436) ,(322, 423) ,(309, 412) ,(301, 409) ,(288, 400) ,(279, 386) ,(277, 372) ,(276, 359) ,(281, 344)]
        self.collarbg2 =[(422, 451) ,(427, 458) ,(433, 465) ,(440, 473) ,(447, 478) ,(455, 486) ,(463, 475) ,(470, 457) ,(483, 434) ,(486, 422) ,(485, 410) ,(483, 394) ,(479, 383) ,(477, 381) ,(470, 389) ,(464, 399) ,(456, 410) ,(451, 417) ,(446, 423) ,(434, 435) ,(429, 443) ,(421, 453)]
        self.tie =[(329, 466) ,(333, 459) ,(340, 452) ,(347, 445) ,(362, 449) ,(380, 448) ,(407, 442) ,(414, 453) ,(418, 458) ,(419, 465) ,(413, 473) ,(410, 478) ,(404, 485) ,(406, 495) ,(413, 499) ,(419, 501) ,(425, 502) ,(429, 511) ,(433, 520) ,(438, 530) ,(441, 539) ,(448, 545) ,(456, 555) ,(462, 559) ,(449, 560) ,(421, 561) ,(388, 553) ,(385, 544) ,(381, 534) ,(378, 522) ,(376, 512) ,(375, 501) ,(373, 497) ,(370, 493) ,(359, 485) ,(348, 478) ,(340, 474) ,(329, 466)]
        self.d1 =[(315, 491) ,(318, 485) ,(320, 481) ,(325, 472) ,(330, 468) ,(340, 473) ,(349, 479) ,(356, 484) ,(366, 490) ,(374, 496) ,(375, 507) ,(377, 522) ,(380, 529) ,(383, 536) ,(386, 545) ,(389, 554) ,(393, 560) ,(382, 561) ,(374, 561) ,(364, 554) ,(362, 541) ,(363, 528) ,(364, 519) ,(364, 504) ,(364, 492) ,(356, 489) ,(357, 511) ,(352, 507) ,(342, 503) ,(335, 499) ,(325, 495) ,(314, 491)]
        self.d2 =[(109, 560) ,(104, 544) ,(99, 531) ,(91, 510) ,(89, 495) ,(103, 484) ,(120, 476) ,(135, 471) ,(156, 460) ,(170, 456) ,(179, 447) ,(192, 442) ,(203, 435) ,(213, 424) ,(219, 416) ,(238, 411) ,(239, 417) ,(240, 421) ,(248, 419) ,(258, 416) ,(261, 428) ,(267, 440) ,(276, 451) ,(283, 463) ,(292, 472) ,(300, 486) ,(308, 493) ,(313, 496) ,(316, 492) ,(328, 495) ,(339, 502) ,(348, 505) ,(356, 510) ,(356, 489) ,(363, 492) ,(364, 510) ,(362, 526) ,(363, 541) ,(363, 549) ,(363, 560) ,(338, 560) ,(313, 560) ,(294, 560) ,(238, 560) ,(216, 560) ,(206, 561) ,(197, 550) ,(185, 538) ,(163, 518) ,(141, 508) ,(150, 521) ,(155, 533) ,(163, 544) ,(172, 559) ,(169, 560) ,(151, 543) ,(161, 560) ,(153, 560) ,(132, 561) ,(113, 561) ,(107, 559)]
        self.d3 =[(72, 499) ,(80, 512) ,(85, 528) ,(90, 544) ,(73, 561) ,(72, 540) ,(73, 517) ,(72, 498)]
        self.d4 =[(412, 455) ,(417, 459) ,(417, 470) ,(409, 480) ,(404, 487) ,(406, 492) ,(411, 497) ,(419, 493) ,(426, 491) ,(440, 489) ,(446, 492) ,(454, 493) ,(447, 489) ,(439, 478) ,(433, 471) ,(428, 465) ,(422, 458) ,(417, 453) ,(413, 454) ,(413, 456)]
        self.d5 =[(486, 389) ,(489, 392) ,(492, 392) ,(497, 391) ,(504, 396) ,(512, 402) ,(523, 406) ,(531, 409) ,(546, 413) ,(552, 417) ,(543, 419) ,(527, 422) ,(514, 429) ,(506, 437) ,(519, 434) ,(531, 433) ,(495, 450) ,(527, 438) ,(512, 446) ,(527, 441) ,(539, 438) ,(556, 436) ,(567, 436) ,(578, 438) ,(587, 439) ,(599, 444) ,(618, 449) ,(634, 452) ,(648, 461) ,(659, 470) ,(670, 476) ,(682, 486) ,(672, 476) ,(682, 484) ,(689, 490) ,(695, 500) ,(697, 506) ,(701, 515) ,(703, 525) ,(710, 538) ,(711, 549) ,(714, 558) ,(701, 559) ,(691, 559) ,(680, 559) ,(668, 560) ,(654, 560) ,(648, 560) ,(635, 560) ,(616, 558) ,(599, 560) ,(582, 560) ,(569, 560) ,(554, 560) ,(530, 559) ,(510, 559) ,(492, 559) ,(464, 558) ,(456, 554) ,(449, 548) ,(443, 537) ,(435, 524) ,(431, 514) ,(426, 504) ,(417, 502) ,(412, 497) ,(427, 491) ,(432, 491) ,(441, 490) ,(451, 496) ,(457, 494) ,(461, 486) ,(464, 478) ,(470, 470) ,(475, 458) ,(481, 445) ,(488, 432) ,(489, 418) ,(489, 410) ,(486, 397) ,(488, 388)]
        self.d6 =[(374, 497) ,(377, 494) ,(381, 491) ,(386, 487) ,(393, 486) ,(400, 486)]
        self.d7 =[(179, 451) ,(190, 445) ,(205, 439) ,(241, 424) ,(246, 425) ,(253, 427) ,(259, 426) ,(261, 432) ,(266, 436) ,(271, 444) ,(276, 451) ,(282, 459) ,(287, 465) ,(283, 465) ,(272, 461) ,(267, 459) ,(257, 454) ,(263, 453) ,(268, 451) ,(272, 447) ,(268, 443) ,(265, 439) ,(263, 437) ,(257, 437) ,(251, 437) ,(241, 434) ,(238, 434) ,(240, 428) ,(239, 428) ,(232, 436) ,(218, 446) ,(207, 450) ,(199, 452) ,(185, 452) ,(179, 452)]
        self.d8 =[(361, 539) ,(354, 533) ,(344, 528) ,(334, 524) ,(321, 520) ,(304, 514) ,(289, 509) ,(275, 507) ,(250, 499) ,(265, 506) ,(284, 511) ,(297, 518) ,(244, 507) ,(261, 514) ,(273, 519) ,(288, 522) ,(300, 527) ,(315, 530) ,(330, 532) ,(330, 532) ,(347, 538) ,(361, 540)]
        self.pen = tu.Turtle()
        self.pen.speed(0)
        self.x_offset = 400
        self.y_offset = 300


    def go(self, x, y):
        self.pen.penup()
        self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        self.pen.pendown()  


    def paint(self,coord,co=(0,0,0)):
        self.pen.color(co)
        t_x,t_y = coord[0]
        self.go(t_x,t_y)
        self.pen.fillcolor(co)
        self.pen.begin_fill()
        t = 0
        for i in coord[1:]:
            print(i)
            x,y = i
            if t:
                self.go(x,y)
                t = 0
                self.pen.begin_fill()
                continue
            if x == -1 and y == -1:
                t = 1
                self.pen.end_fill()
                continue
            else:
                self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset) 
        self.pen.end_fill()


    def draw_fn(self,coord,mode = 1,co = (0,0,0),thickness = 1):
        co = (co[0]/255,co[1]/255,co[2]/255)

        self.pen.color(co)

        if mode:
            self.pen.width(thickness)
            t_x,t_y = coord[0]
            self.go(t_x,t_y)
            t = 0
            for i in coord[1:]:
                print(i)
                x,y = i
                if t:
                    self.go(x,y)
                    t = 0
                    continue
                if x == -1 and y == -1:
                    t = 1
                    continue
                else:
                    self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        else:
            self.paint(coord=coord,co = co)

    
    def draw(self,retain=True):
        self.draw_fn(self.face1,co = (240, 195, 190),mode = 0)
        self.draw_fn(self.yy,co = (238, 157, 128),mode = 0)
        self.draw_fn(self.yyy,co = (238, 157, 128),mode = 0)
        self.draw_fn(self.nlm,co = (209, 133, 101),mode = 1,thickness=3)
        self.draw_fn(self.nl,co = (175, 94, 65),mode = 1,thickness=3)
        self.draw_fn(self.face2,co = (246, 174, 146),mode = 0)
        self.draw_fn(self.face3,co = (241, 157, 121),mode = 0)
        self.draw_fn(self.face4,co = (209, 128, 106),mode = 0)
        self.draw_fn(self.face5,co = (228, 147, 126),mode = 0)
        self.draw_fn(self.k,co = (140, 63, 37),mode = 0)
        self.draw_fn(self.nose1,co = (19, 0, 0),mode = 0,thickness=3)
        self.draw_fn(self.sunglassescolor,co = (71, 95, 97),mode = 0)
        self.draw_fn(self.sunglassescolor2,co = (71, 95, 97),mode = 0)
        self.draw_fn(self.eyebrow1,co = (30, 24, 24),mode = 0)
        self.draw_fn(self.eyebrow2,co = (30, 24, 24),mode = 0)
        self.draw_fn(self.sunglassesborder,co = (236, 225, 226),mode = 1,thickness=3)
        self.draw_fn(self.sunl2,co = (236, 225, 226),mode = 1,thickness=3)
        self.draw_fn(self.ear1,co = (247, 177, 157),mode = 0)
        self.draw_fn(self.ear10,co = (109, 27, 1),mode = 0)
        self.draw_fn(self.ear12,co = (109, 27, 1),mode = 0)
        self.draw_fn(self.ear2,co = (247, 177, 157),mode = 0)
        self.draw_fn(self.c,co = (152, 53, 17),mode = 0)
        self.draw_fn(self.sunl,co = (236, 225, 226),mode = 1,thickness=3)
        self.draw_fn(self.shirt,co = (241, 244, 253),mode = 0)
        self.draw_fn(self.tie,co = (174, 195, 238),mode = 0)
        self.draw_fn(self.d6,co = (124, 144, 194),mode = 1,thickness=3)
        self.draw_fn(self.d1,co = (125, 144, 203),mode = 0)
        self.draw_fn(self.d2,co = (214, 226, 248),mode = 0)
        self.draw_fn(self.d3,co = (214, 226, 248),mode = 0)
        self.draw_fn(self.d4,co = (125, 144, 203),mode = 0)
        self.draw_fn(self.d5,co = (214, 226, 248),mode = 0)
        self.draw_fn(self.d7,co = (125, 143, 202),mode = 0)
        self.draw_fn(self.d8,co = (125, 144, 203),mode = 0)
        self.draw_fn(self.collar,co = (241, 242, 255),mode = 0)
        self.draw_fn(self.collarbg1,co = (174, 195, 238),mode = 0)
        self.draw_fn(self.collar2,co = (241, 242, 255),mode = 0)
        self.draw_fn(self.collarbg2,co = (174, 195, 238),mode = 0)
        self.draw_fn(self.neck,co = (209, 129, 106),mode = 0)
        self.draw_fn(self.hairbeard,co = (34, 20, 20),mode = 0)
        self.draw_fn(self.j,co = (212, 133, 104),mode = 0)
        self.draw_fn(self.s,co = (213, 209, 209),mode = 1,thickness=4)
        self.draw_fn(self.hairbg,co = (0, 0, 0),mode = 0)
        self.draw_fn(self.lips1,co = (153, 48, 45),mode = 0)
        self.draw_fn(self.h,co = (43, 6, 7),mode = 1,thickness=3)
        self.draw_fn(self.m,co = (137, 35, 30),mode = 0)
        
        

        if retain:
            tu.done()

pen=googlemapslogo()
pen.draw()

Output/Result :

Rocking Star YASH Drawing using Python Turtle Graphics

2022-04-23T03:52:00.003-07:00

Rocking Star YASH Drawing using Python Turtle Graphics | Rocky Bhai | KGF Chapter 2 | Python Programming |

Source Code :


import turtle as tu

class rockingstaryash:
    def __init__(self):
        self.r =[(12, 336) ,(17, 296) ,(27, 236) ,(34, 186) ,(41, 141) ,(54, 75) ,(117, 76) ,(132, 82) ,(143, 94) ,(149, 114) ,(149, 137) ,(145, 156) ,(141, 171) ,(136, 183) ,(123, 199) ,(102, 210) ,(106, 230) ,(110, 248) ,(115, 270) ,(120, 290) ,(125, 309) ,(129, 336) ,(94, 338) ,(65, 210) ,(46, 336) ,(12, 336)]
        self.r1 =[(83, 104) ,(80, 123) ,(76, 145) ,(73, 164) ,(72, 179) ,(68, 191) ,(79, 190) ,(92, 184) ,(100, 173) ,(107, 156) ,(110, 139) ,(112, 128) ,(110, 119) ,(101, 108) ,(89, 106) ,(82, 105) ,(82, 104)]
        self.o =[(285, 77) ,(264, 73) ,(239, 75) ,(221, 82) ,(206, 95) ,(193, 118) ,(185, 139) ,(176, 170) ,(168, 209) ,(165, 245) ,(163, 270) ,(164, 289) ,(169, 310) ,(176, 322) ,(184, 331) ,(192, 333) ,(200, 326) ,(200, 317) ,(192, 298) ,(186, 283) ,(186, 273) ,(186, 255) ,(189, 238) ,(191, 215) ,(191, 197) ,(195, 158) ,(218, 126) ,(239, 103) ,(263, 103) ,(287, 89) ,(286, 77)]
        self.c =[(411, 74) ,(420, 71) ,(435, 71) ,(446, 73) ,(454, 74) ,(464, 79) ,(461, 101) ,(440, 91) ,(420, 84) ,(407, 76) ,(411, 74)]
        self.k =[(483, 121) ,(486, 104) ,(488, 85) ,(489, 75) ,(507, 75) ,(524, 76) ,(523, 88) ,(521, 104) ,(518, 121) ,(515, 138) ,(513, 151) ,(512, 161) ,(510, 174) ,(510, 184) ,(510, 193) ,(522, 172) ,(534, 150) ,(548, 125) ,(558, 106) ,(568, 89) ,(575, 76) ,(590, 76) ,(611, 76) ,(600, 95) ,(588, 117) ,(572, 144) ,(557, 170) ,(545, 190) ,(538, 201) ,(544, 224) ,(551, 248) ,(560, 282) ,(567, 314) ,(573, 336) ,(531, 336) ,(520, 313) ,(520, 282) ,(516, 250) ,(509, 215) ,(509, 199) ,(512, 192)]
        self.y =[(618, 76) ,(621, 97) ,(626, 127) ,(634, 165) ,(640, 193) ,(645, 224) ,(639, 257) ,(635, 283) ,(632, 310) ,(628, 334) ,(646, 335) ,(661, 336) ,(668, 307) ,(671, 275) ,(679, 232) ,(681, 220) ,(692, 200) ,(707, 171) ,(720, 145) ,(730, 122) ,(742, 94) ,(752, 75) ,(735, 74) ,(716, 76) ,(704, 102) ,(694, 127) ,(686, 148) ,(677, 167) ,(669, 192) ,(663, 154) ,(660, 124) ,(656, 92) ,(655, 74) ,(637, 75) ,(618, 76)]
        self.facecolor =[(251, 299) ,(257, 291) ,(263, 279) ,(268, 264) ,(272, 248) ,(275, 236) ,(278, 228) ,(278, 220) ,(275, 215) ,(279, 210) ,(287, 204) ,(297, 200) ,(311, 204) ,(319, 208) ,(329, 210) ,(343, 212) ,(359, 212) ,(373, 211) ,(387, 214) ,(395, 219) ,(405, 226) ,(413, 234) ,(423, 240) ,(433, 245) ,(445, 248) ,(447, 252) ,(451, 259) ,(455, 266) ,(460, 271) ,(466, 278) ,(469, 286) ,(469, 300) ,(471, 312) ,(473, 322) ,(479, 336) ,(483, 346) ,(489, 351) ,(489, 360) ,(489, 366) ,(488, 375) ,(485, 384) ,(487, 393) ,(487, 405) ,(486, 414) ,(480, 422) ,(471, 429) ,(465, 432) ,(458, 436) ,(451, 437) ,(448, 434) ,(441, 428) ,(438, 423) ,(431, 417) ,(426, 416) ,(417, 415) ,(405, 413) ,(400, 412) ,(393, 407) ,(392, 403) ,(398, 395) ,(388, 396) ,(380, 402) ,(375, 408) ,(369, 410) ,(364, 410) ,(358, 410) ,(349, 410) ,(340, 414) ,(329, 420) ,(317, 425) ,(309, 431) ,(303, 438) ,(295, 451) ,(288, 453) ,(281, 453) ,(269, 451) ,(261, 448) ,(258, 441) ,(256, 437) ,(249, 428) ,(248, 417) ,(247, 405) ,(244, 390) ,(243, 379) ,(247, 361) ,(247, 351) ,(246, 332) ,(247, 325) ,(247, 310) ,(251, 301)]
        self.facecolor1 =[(264, 302) ,(270, 292) ,(272, 287) ,(273, 282) ,(280, 271) ,(286, 261) ,(288, 252) ,(279, 263) ,(284, 245) ,(288, 234) ,(295, 226) ,(305, 222) ,(316, 223) ,(331, 220) ,(342, 220) ,(358, 218) ,(375, 220) ,(391, 226) ,(403, 236) ,(413, 244) ,(422, 252) ,(413, 249) ,(399, 246) ,(409, 254) ,(417, 256) ,(404, 256) ,(394, 257) ,(389, 266) ,(381, 275) ,(381, 286) ,(381, 297) ,(389, 305) ,(380, 310) ,(377, 316) ,(379, 325) ,(373, 319) ,(368, 326) ,(368, 338) ,(368, 350) ,(369, 360) ,(369, 372) ,(369, 387) ,(369, 398) ,(369, 404) ,(361, 405) ,(358, 395) ,(358, 379) ,(358, 355) ,(358, 330) ,(358, 316) ,(355, 312) ,(344, 312) ,(342, 309) ,(340, 302) ,(340, 291) ,(334, 279) ,(326, 269) ,(316, 266) ,(308, 270) ,(293, 277) ,(282, 285) ,(275, 291) ,(269, 298) ,(264, 301)]
        self.facecolor2 =[(293, 447) ,(288, 430) ,(287, 407) ,(287, 382) ,(287, 365) ,(282, 360) ,(296, 353) ,(309, 345) ,(316, 342) ,(295, 340) ,(284, 335) ,(289, 336) ,(289, 336) ,(297, 338) ,(307, 337) ,(316, 335) ,(322, 333) ,(332, 331) ,(338, 329) ,(332, 325) ,(319, 319) ,(308, 318) ,(301, 318) ,(293, 321) ,(289, 323) ,(285, 327) ,(280, 331) ,(276, 338) ,(264, 347) ,(265, 335) ,(272, 316) ,(280, 309) ,(286, 306) ,(294, 306) ,(305, 307) ,(320, 308) ,(333, 308) ,(345, 318) ,(346, 328) ,(337, 340) ,(326, 352) ,(315, 363) ,(320, 362) ,(328, 359) ,(340, 351) ,(337, 364) ,(337, 374) ,(333, 378) ,(324, 384) ,(320, 391) ,(316, 397) ,(307, 410) ,(303, 420) ,(300, 431) ,(299, 438) ,(293, 446)]
        self.nose =[(313, 365) ,(325, 354) ,(342, 337) ,(349, 324) ,(342, 314) ,(331, 308) ,(348, 311) ,(357, 312) ,(357, 326) ,(356, 344) ,(357, 364) ,(357, 380) ,(359, 395) ,(361, 405) ,(368, 406) ,(369, 386) ,(367, 361) ,(367, 346) ,(368, 330) ,(371, 318) ,(379, 326) ,(387, 335) ,(398, 343) ,(406, 348) ,(420, 356) ,(410, 368) ,(403, 368) ,(395, 361) ,(390, 349) ,(384, 339) ,(375, 329) ,(373, 326) ,(373, 345) ,(374, 360) ,(373, 374) ,(374, 385) ,(375, 389) ,(377, 384) ,(382, 378) ,(387, 373) ,(392, 370) ,(397, 370) ,(399, 375) ,(401, 382) ,(402, 389) ,(399, 394) ,(392, 395) ,(384, 399) ,(379, 401) ,(374, 406) ,(369, 410) ,(361, 409) ,(354, 404) ,(348, 402) ,(341, 402) ,(336, 404) ,(330, 403) ,(329, 395) ,(330, 390) ,(338, 379) ,(336, 369) ,(338, 360) ,(338, 354) ,(326, 361) ,(315, 366)]
        self.nose1 =[(334, 404) ,(339, 404) ,(344, 403) ,(349, 404) ,(355, 407) ,(360, 410) ,(365, 412) ,(372, 409) ,(378, 405) ,(383, 401) ,(390, 398) ,(397, 395)]
        self.facecolor3 =[(372, 325) ,(372, 335) ,(372, 348) ,(372, 363) ,(373, 376) ,(373, 386) ,(381, 379) ,(387, 371) ,(393, 368) ,(397, 368) ,(404, 374) ,(411, 381) ,(416, 390) ,(421, 396) ,(426, 404) ,(429, 409) ,(432, 413) ,(439, 411) ,(446, 413) ,(452, 420) ,(454, 427) ,(456, 434) ,(464, 433) ,(472, 430) ,(478, 422) ,(480, 412) ,(479, 398) ,(477, 378) ,(470, 349) ,(470, 355) ,(465, 365) ,(461, 373) ,(458, 386) ,(449, 380) ,(437, 370) ,(431, 365) ,(423, 355) ,(418, 360) ,(411, 367) ,(404, 369) ,(394, 359) ,(390, 348) ,(387, 340) ,(381, 334) ,(374, 325)]
        self.facecolor4 =[(401, 304) ,(408, 297) ,(413, 293) ,(398, 296) ,(390, 303) ,(381, 310) ,(375, 318) ,(379, 326) ,(389, 336) ,(396, 342) ,(405, 351) ,(413, 354) ,(421, 358) ,(427, 352) ,(421, 344) ,(430, 341) ,(442, 334) ,(429, 334) ,(412, 330) ,(409, 326) ,(420, 326) ,(433, 325) ,(449, 318) ,(439, 310) ,(423, 307) ,(410, 310) ,(402, 314) ,(394, 319) ,(390, 324) ,(399, 324) ,(406, 326) ,(411, 327)]
        self.eyebrowline =[(276, 329) ,(281, 323) ,(289, 318) ,(300, 316) ,(309, 315) ,(318, 315) ,(326, 317) ,(332, 320)]
        self.eyebrowline2 =[(393, 314) ,(400, 309) ,(407, 305) ,(418, 304) ,(430, 303) ,(436, 305) ,(446, 309) ,(455, 312)]
        self.ear1 =[(237, 356) ,(230, 359) ,(224, 362) ,(222, 367) ,(225, 377) ,(230, 384) ,(234, 390) ,(234, 400) ,(234, 409) ,(238, 417) ,(243, 423) ,(243, 416) ,(239, 407) ,(239, 400) ,(241, 391) ,(245, 382) ,(243, 372) ,(240, 364) ,(238, 356)]
        self.ear2 =[(226, 360) ,(225, 366) ,(226, 372) ,(231, 374) ,(233, 381) ,(235, 371) ,(235, 361) ,(238, 355) ,(231, 357) ,(226, 361)]
        self.ear3 =[(502, 353) ,(503, 362) ,(500, 371) ,(499, 379) ,(501, 385) ,(504, 388) ,(503, 377) ,(507, 369) ,(508, 363) ,(506, 359) ,(505, 355) ,(503, 353)]
        self.beard =[(326, 451) ,(330, 459) ,(337, 464) ,(346, 468) ,(355, 469) ,(368, 469) ,(381, 468) ,(395, 464) ,(406, 458) ,(412, 451) ,(411, 459) ,(413, 468) ,(419, 475) ,(417, 480) ,(405, 486) ,(390, 486) ,(378, 483) ,(371, 476) ,(362, 477) ,(351, 485) ,(345, 496) ,(334, 495) ,(322, 495) ,(317, 478) ,(316, 469) ,(323, 452)]
        self.shirt =[(223, 439) ,(210, 442) ,(195, 448) ,(177, 457) ,(160, 469) ,(143, 480) ,(123, 487) ,(104, 495) ,(87, 504) ,(71, 518) ,(61, 537) ,(51, 558) ,(40, 582) ,(33, 600) ,(23, 625) ,(20, 650) ,(19, 671) ,(12, 686) ,(11, 693) ,(23, 693) ,(40, 695) ,(55, 694) ,(77, 694) ,(93, 692) ,(114, 692) ,(146, 694) ,(177, 693) ,(246, 693) ,(361, 692) ,(501, 694) ,(565, 692) ,(635, 689) ,(710, 691) ,(750, 689) ,(744, 534) ,(727, 512) ,(710, 496) ,(695, 488) ,(667, 475) ,(642, 464) ,(616, 455) ,(596, 445) ,(576, 440) ,(552, 433) ,(522, 425) ,(514, 442) ,(506, 462) ,(502, 488) ,(494, 496) ,(490, 508) ,(485, 526) ,(478, 540) ,(467, 556) ,(454, 572) ,(436, 589) ,(421, 600) ,(401, 607) ,(379, 611) ,(360, 606) ,(337, 592) ,(321, 577) ,(319, 563) ,(302, 548) ,(289, 530) ,(274, 511) ,(261, 483) ,(251, 461) ,(232, 446) ,(228, 441) ,(222, 437)]
        self.shirt1 =[(19, 692) ,(16, 677) ,(14, 650) ,(14, 647) ,(23, 659) ,(31, 676) ,(34, 660) ,(32, 641) ,(32, 634) ,(41, 650) ,(46, 665) ,(54, 681) ,(62, 689) ,(73, 692) ,(80, 690) ,(72, 676) ,(56, 656) ,(45, 624) ,(45, 615) ,(59, 641) ,(73, 655) ,(79, 649) ,(70, 629) ,(70, 609) ,(70, 594) ,(79, 613) ,(86, 645) ,(96, 666) ,(102, 684) ,(106, 688) ,(114, 688) ,(121, 688) ,(118, 663) ,(100, 622) ,(82, 571) ,(73, 542) ,(85, 551) ,(99, 553) ,(112, 565) ,(121, 576) ,(132, 591) ,(134, 573) ,(112, 512) ,(147, 574) ,(157, 606) ,(168, 640) ,(172, 670) ,(177, 684) ,(179, 692) ,(189, 692) ,(195, 690) ,(187, 644) ,(164, 592) ,(147, 534) ,(134, 501) ,(149, 511) ,(166, 515) ,(180, 519) ,(191, 525) ,(194, 550) ,(190, 575) ,(192, 597) ,(194, 616) ,(201, 597) ,(202, 583) ,(196, 553) ,(196, 530) ,(194, 509) ,(183, 486) ,(179, 466) ,(195, 462) ,(205, 455) ,(211, 452) ,(222, 465) ,(228, 478) ,(228, 495) ,(228, 503) ,(241, 504) ,(250, 500) ,(258, 524) ,(266, 544) ,(274, 557) ,(288, 567) ,(303, 585) ,(318, 607) ,(330, 622) ,(343, 639) ,(358, 656) ,(383, 672) ,(405, 680) ,(413, 680) ,(420, 678) ,(429, 674) ,(423, 665) ,(387, 659) ,(403, 650) ,(405, 634) ,(400, 627) ,(402, 610) ,(414, 610) ,(431, 597) ,(447, 586) ,(456, 574) ,(468, 559) ,(485, 538) ,(496, 519) ,(498, 499) ,(502, 493) ,(504, 480) ,(517, 466) ,(525, 460) ,(532, 451) ,(532, 465) ,(531, 487) ,(531, 514) ,(535, 514) ,(547, 495) ,(553, 473) ,(553, 456) ,(554, 446) ,(562, 469) ,(563, 487) ,(556, 512) ,(560, 546) ,(570, 532) ,(577, 505) ,(587, 491) ,(600, 484) ,(611, 482) ,(623, 483) ,(636, 481) ,(646, 482) ,(651, 483) ,(659, 486) ,(647, 492) ,(619, 495) ,(614, 507) ,(597, 520) ,(596, 528) ,(592, 540) ,(588, 562) ,(589, 571) ,(594, 584) ,(595, 606) ,(598, 617) ,(600, 642) ,(608, 637) ,(617, 614) ,(623, 595) ,(634, 565) ,(651, 537) ,(655, 528) ,(670, 515) ,(683, 514) ,(692, 511) ,(710, 512) ,(693, 503) ,(684, 495) ,(697, 489) ,(708, 484) ,(720, 493) ,(723, 495) ,(735, 504) ,(755, 517) ,(752, 538) ,(752, 559) ,(749, 573) ,(735, 587) ,(722, 597) ,(700, 611) ,(712, 590) ,(714, 570) ,(714, 566) ,(695, 569) ,(688, 600) ,(686, 617) ,(682, 631) ,(681, 652) ,(698, 645) ,(704, 627) ,(721, 608) ,(740, 591) ,(749, 591) ,(742, 613) ,(725, 635) ,(717, 647) ,(710, 667) ,(738, 659) ,(742, 658) ,(720, 672) ,(719, 685) ,(751, 675) ,(746, 686) ,(695, 687) ,(668, 690) ,(614, 686) ,(566, 686) ,(511, 690) ,(481, 691) ,(430, 689) ,(358, 680) ,(325, 688) ,(273, 686) ,(233, 684) ,(191, 689) ,(164, 683) ,(162, 689) ,(140, 690) ,(113, 684) ,(80, 686) ,(47, 692) ,(32, 691) ,(11, 685)]
        self.shirt2 =[(20, 686) ,(23, 679) ,(23, 657) ,(39, 677) ,(42, 679) ,(43, 659) ,(45, 637) ,(54, 645) ,(69, 668) ,(78, 677) ,(87, 686) ,(88, 674) ,(83, 641) ,(81, 625) ,(81, 608) ,(83, 586) ,(85, 580) ,(90, 607) ,(99, 630) ,(124, 664) ,(132, 671) ,(132, 653) ,(125, 618) ,(114, 600) ,(103, 580) ,(138, 622) ,(146, 637) ,(152, 660) ,(155, 663) ,(157, 636) ,(157, 629) ,(149, 586) ,(148, 579) ,(145, 573) ,(187, 623) ,(206, 650) ,(238, 684) ,(234, 678) ,(228, 643) ,(228, 610) ,(228, 583) ,(218, 529) ,(209, 504) ,(229, 522) ,(249, 562) ,(258, 613) ,(260, 631) ,(265, 654) ,(273, 676) ,(274, 679) ,(278, 678) ,(285, 641) ,(282, 620) ,(279, 593) ,(256, 550) ,(281, 613) ,(293, 640) ,(301, 656) ,(321, 674) ,(323, 680) ,(344, 686) ,(358, 688) ,(386, 684) ,(428, 688) ,(430, 670) ,(419, 632) ,(420, 621) ,(456, 658) ,(457, 663) ,(462, 670) ,(470, 639) ,(469, 619) ,(456, 594) ,(477, 614) ,(492, 647) ,(497, 654) ,(501, 663) ,(514, 645) ,(517, 609) ,(518, 580) ,(519, 542) ,(529, 558) ,(539, 650) ,(539, 665) ,(552, 596) ,(565, 565) ,(583, 536) ,(608, 522) ,(631, 514) ,(613, 542) ,(591, 600) ,(587, 640) ,(591, 647) ,(597, 665) ,(601, 666) ,(620, 643) ,(627, 614) ,(629, 590) ,(625, 528) ,(615, 490) ,(671, 551) ,(679, 605) ,(671, 636) ,(670, 656) ,(675, 656) ,(693, 599) ,(695, 572) ,(691, 538) ,(681, 519) ,(698, 550) ,(715, 608) ,(727, 659) ,(723, 679) ,(721, 686) ,(692, 686) ,(675, 683) ,(634, 685) ,(589, 685) ,(547, 681) ,(476, 681) ,(414, 680) ,(363, 680) ,(315, 673) ,(244, 673) ,(208, 677) ,(135, 677) ,(95, 677) ,(49, 677) ,(21, 676)]
        self.beard1 =[(327, 452) ,(321, 458) ,(315, 466) ,(316, 473) ,(319, 479) ,(320, 487) ,(322, 478) ,(323, 490) ,(327, 482) ,(328, 490) ,(324, 497) ,(336, 488) ,(335, 494) ,(342, 484) ,(343, 492) ,(351, 484) ,(354, 479) ,(350, 480) ,(358, 477) ,(365, 476) ,(371, 473) ,(376, 479) ,(380, 484) ,(380, 479) ,(385, 484) ,(395, 487) ,(390, 478) ,(398, 482) ,(398, 477) ,(405, 482) ,(410, 488) ,(408, 471) ,(414, 480) ,(413, 474) ,(419, 477) ,(411, 466) ,(412, 459) ,(405, 463) ,(403, 468) ,(397, 469) ,(391, 473) ,(383, 472) ,(369, 472) ,(358, 473) ,(349, 476) ,(343, 481) ,(336, 481) ,(331, 467) ,(341, 466) ,(334, 460) ,(326, 451)]
        self.neck =[(328, 581) ,(335, 590) ,(343, 596) ,(352, 603) ,(361, 608) ,(374, 612) ,(390, 611) ,(408, 605) ,(424, 597) ,(440, 586) ,(461, 562) ,(479, 539) ,(488, 520) ,(488, 506) ,(485, 494) ,(474, 514) ,(459, 532) ,(432, 553) ,(399, 569) ,(366, 575) ,(332, 573) ,(330, 578) ,(328, 581)]
        self.hair1 = [(182, 356) ,(193, 360) ,(205, 361) ,(220, 362) ,(229, 359) ,(235, 356) ,(235, 366) ,(236, 376) ,(237, 382) ,(237, 389) ,(241, 383) ,(241, 378) ,(244, 375) ,(242, 371) ,(240, 366) ,(240, 363) ,(244, 369) ,(248, 369) ,(246, 365) ,(245, 358) ,(246, 335) ,(247, 328) ,(253, 335) ,(249, 322) ,(248, 312) ,(249, 302) ,(255, 295) ,(261, 284) ,(267, 269) ,(270, 260) ,(273, 245) ,(277, 235) ,(279, 224) ,(277, 216) ,(285, 205) ,(296, 203) ,(307, 203) ,(303, 206) ,(312, 206) ,(325, 210) ,(338, 213) ,(349, 213) ,(363, 211) ,(385, 215) ,(403, 226) ,(419, 237) ,(433, 246) ,(446, 249) ,(454, 262) ,(463, 271) ,(469, 288) ,(471, 312) ,(478, 335) ,(485, 347) ,(488, 351) ,(488, 359) ,(490, 373) ,(486, 384) ,(487, 397) ,(487, 402) ,(491, 409) ,(484, 402) ,(487, 412) ,(478, 422) ,(472, 430) ,(471, 422) ,(466, 429) ,(461, 432) ,(459, 437) ,(453, 437) ,(446, 437) ,(438, 426) ,(431, 417) ,(414, 414) ,(400, 413) ,(389, 401) ,(398, 395) ,(390, 397) ,(380, 401) ,(373, 409) ,(367, 411) ,(358, 408) ,(347, 409) ,(326, 417) ,(336, 418) ,(326, 422) ,(321, 420) ,(314, 428) ,(311, 430) ,(311, 425) ,(305, 438) ,(303, 431) ,(301, 442) ,(296, 448) ,(291, 457) ,(293, 447) ,(287, 455) ,(289, 448) ,(283, 453) ,(279, 446) ,(280, 452) ,(274, 454) ,(270, 450) ,(266, 450) ,(270, 445) ,(261, 450) ,(265, 443) ,(257, 447) ,(261, 436) ,(261, 431) ,(255, 434) ,(254, 428) ,(250, 428) ,(255, 419) ,(250, 425) ,(256, 415) ,(250, 418) ,(250, 405) ,(249, 415) ,(247, 402) ,(247, 395) ,(246, 387) ,(241, 395) ,(238, 401) ,(243, 409) ,(243, 421) ,(234, 396) ,(228, 385) ,(222, 366) ,(220, 364) ,(213, 363) ,(203, 366) ,(193, 372) ,(198, 381) ,(194, 398) ,(205, 377) ,(208, 379) ,(205, 387) ,(204, 406) ,(215, 431) ,(207, 417) ,(212, 404) ,(219, 395) ,(223, 386) ,(221, 405) ,(217, 415) ,(218, 424) ,(224, 418) ,(226, 410) ,(226, 425) ,(219, 441) ,(222, 441) ,(223, 450) ,(227, 446) ,(231, 454) ,(236, 466) ,(243, 474) ,(249, 480) ,(252, 485) ,(250, 499) ,(252, 514) ,(255, 505) ,(263, 519) ,(269, 526) ,(273, 536) ,(283, 547) ,(287, 555) ,(288, 551) ,(296, 556) ,(302, 564) ,(309, 570) ,(318, 572) ,(326, 585) ,(328, 580) ,(345, 588) ,(337, 583) ,(353, 587) ,(373, 593) ,(360, 586) ,(370, 589) ,(387, 591) ,(384, 587) ,(405, 586) ,(393, 585) ,(409, 581) ,(397, 581) ,(409, 579) ,(419, 579) ,(408, 575) ,(432, 573) ,(422, 572) ,(439, 568) ,(434, 567) ,(442, 564) ,(435, 562) ,(449, 556) ,(457, 544) ,(457, 553) ,(463, 540) ,(468, 532) ,(479, 519) ,(478, 509) ,(479, 523) ,(484, 508) ,(485, 498) ,(491, 508) ,(495, 496) ,(503, 485) ,(501, 480) ,(511, 483) ,(502, 474) ,(512, 476) ,(503, 470) ,(516, 474) ,(506, 469) ,(518, 470) ,(508, 465) ,(524, 468) ,(514, 463) ,(530, 457) ,(516, 459) ,(526, 454) ,(521, 450) ,(547, 444) ,(524, 441) ,(541, 441) ,(528, 438) ,(540, 435) ,(551, 433) ,(539, 431) ,(552, 420) ,(539, 425) ,(531, 426) ,(542, 419) ,(524, 421) ,(532, 417) ,(526, 416) ,(539, 412) ,(518, 414) ,(508, 403) ,(510, 388) ,(520, 409) ,(516, 386) ,(521, 375) ,(522, 366) ,(531, 379) ,(526, 361) ,(526, 353) ,(539, 336) ,(546, 313) ,(548, 290) ,(553, 277) ,(577, 270) ,(554, 268) ,(562, 265) ,(546, 264) ,(552, 261) ,(557, 255) ,(547, 259) ,(557, 247) ,(540, 248) ,(551, 236) ,(539, 240) ,(542, 233) ,(536, 226) ,(534, 214) ,(528, 202) ,(522, 199) ,(530, 198) ,(520, 190) ,(546, 194) ,(522, 187) ,(531, 183) ,(517, 184) ,(528, 176) ,(517, 181) ,(524, 177) ,(511, 178) ,(514, 174) ,(515, 151) ,(513, 160) ,(504, 153) ,(494, 136) ,(480, 121) ,(472, 113) ,(475, 106) ,(472, 107) ,(459, 93) ,(463, 102) ,(446, 92) ,(428, 81) ,(403, 74) ,(376, 71) ,(346, 70) ,(317, 81) ,(291, 77) ,(270, 88) ,(240, 92) ,(224, 101) ,(233, 98) ,(218, 114) ,(207, 131) ,(199, 146) ,(188, 161) ,(179, 185) ,(176, 219) ,(176, 243) ,(179, 263) ,(172, 273) ,(174, 293) ,(179, 311) ,(190, 320) ,(190, 325) ,(185, 328) ,(191, 337) ,(189, 347) ,(183, 353) ,(182, 354)]
        self.lips = [(327, 451) ,(337, 462) ,(351, 469) ,(370, 469) ,(387, 465) ,(404, 459) ,(411, 451) ,(401, 442) ,(391, 437) ,(383, 434) ,(377, 433) ,(370, 436) ,(365, 435) ,(360, 434) ,(354, 434) ,(347, 436) ,(342, 440) ,(336, 445) ,(327, 452) ,(339, 449) ,(350, 448) ,(361, 449) ,(371, 450) ,(382, 449) ,(392, 445) ,(402, 445) ,(390, 450) ,(379, 454) ,(366, 455) ,(356, 455) ,(345, 453) ,(336, 453) ,(332, 453)]
        self.lips1 =[(338, 462) ,(336, 456) ,(335, 452) ,(341, 453) ,(350, 453) ,(359, 454) ,(370, 454) ,(379, 453) ,(387, 451) ,(397, 449) ,(403, 446) ,(393, 446) ,(381, 449) ,(372, 451) ,(366, 449) ,(358, 449) ,(350, 449) ,(342, 449) ,(332, 450) ,(329, 451) ,(333, 457) ,(337, 461)]
        self.lips2 =[(337, 463) ,(337, 459) ,(337, 453) ,(345, 454) ,(356, 455) ,(366, 455) ,(377, 454) ,(386, 453) ,(396, 449) ,(401, 449) ,(407, 451) ,(401, 455) ,(395, 460) ,(388, 457) ,(383, 457) ,(377, 458) ,(373, 462) ,(368, 466) ,(364, 466) ,(361, 464) ,(355, 459) ,(351, 459) ,(344, 459) ,(342, 459) ,(342, 464) ,(340, 464) ,(337, 463)]
        self.eye1 =[(279, 335) ,(289, 326) ,(298, 321) ,(306, 319) ,(315, 320) ,(328, 324) ,(336, 328) ,(325, 330) ,(313, 334) ,(299, 337) ,(290, 335) ,(284, 331)]
        self.eyelid =[(294, 323) ,(295, 329) ,(304, 329) ,(305, 332) ,(301, 332) ,(297, 332) ,(304, 336) ,(310, 335) ,(316, 329) ,(316, 320) ,(306, 319) ,(299, 320) ,(295, 323)]
        self.eyelid2 =[(298, 324) ,(300, 325) ,(300, 328) ,(297, 328) ,(296, 327) ,(296, 325)]
        self.eye2 =[(390, 323) ,(397, 319) ,(407, 313) ,(417, 309) ,(426, 309) ,(436, 310) ,(442, 314) ,(447, 317) ,(439, 322) ,(430, 324) ,(418, 325) ,(407, 325) ,(400, 323) ,(391, 324)]
        self.eyelid3 =[(408, 313) ,(409, 318) ,(420, 319) ,(420, 321) ,(411, 322) ,(415, 325) ,(419, 325) ,(424, 325) ,(430, 320) ,(432, 314) ,(429, 310) ,(422, 310) ,(418, 310) ,(413, 311) ,(409, 313)]
        self.eyelid4 =[(410, 314) ,(412, 314) ,(411, 316) ,(409, 316) ,(409, 314)]
        self.eyebrow1 =[(261, 312) ,(266, 306) ,(277, 301) ,(288, 299) ,(305, 301) ,(315, 302) ,(324, 304) ,(320, 299) ,(328, 306) ,(323, 295) ,(331, 306) ,(335, 306) ,(329, 293) ,(321, 290) ,(309, 288) ,(297, 288) ,(283, 292) ,(287, 289) ,(292, 287) ,(297, 286) ,(293, 286) ,(289, 287) ,(285, 288) ,(277, 292) ,(273, 296) ,(268, 301) ,(264, 305) ,(261, 309)]
        self.eyebrow2 =[(393, 299) ,(397, 289) ,(406, 279) ,(421, 275) ,(440, 276) ,(433, 273) ,(442, 275) ,(452, 280) ,(460, 288) ,(463, 293) ,(453, 285) ,(446, 285) ,(432, 288) ,(422, 290) ,(407, 293) ,(395, 298)]
        self.pen = tu.Turtle()
        self.pen.speed(0)
        self.x_offset = 400
        self.y_offset = 400


    def go(self, x, y):
        self.pen.penup()
        self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        self.pen.pendown()  


    def paint(self,coord,co=(0,0,0)):
        self.pen.color(co)
        t_x,t_y = coord[0]
        self.go(t_x,t_y)
        self.pen.fillcolor(co)
        self.pen.begin_fill()
        t = 0
        for i in coord[1:]:
            print(i)
            x,y = i
            if t:
                self.go(x,y)
                t = 0
                self.pen.begin_fill()
                continue
            if x == -1 and y == -1:
                t = 1
                self.pen.end_fill()
                continue
            else:
                self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset) 
        self.pen.end_fill()


    def draw_fn(self,coord,mode = 1,co = (0,0,0),thickness = 1):
        co = (co[0]/255,co[1]/255,co[2]/255)

        self.pen.color(co)

        if mode:
            self.pen.width(thickness)
            t_x,t_y = coord[0]
            self.go(t_x,t_y)
            t = 0
            for i in coord[1:]:
                print(i)
                x,y = i
                if t:
                    self.go(x,y)
                    t = 0
                    continue
                if x == -1 and y == -1:
                    t = 1
                    continue
                else:
                    self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        else:
            self.paint(coord=coord,co = co)

    
    def draw(self,retain=True):
        self.draw_fn(self.r,co =(237, 7, 7),mode=0)
        self.draw_fn(self.r1,co =(247, 247, 247),mode=0)
        self.draw_fn(self.o,co =(237, 7, 7),mode=0)
        self.draw_fn(self.c,co =(237, 7, 7),mode=0)
        self.draw_fn(self.k,co =(237, 7, 7),mode=0)
        self.draw_fn(self.y,co =(237, 7, 7),mode=0)
        self.draw_fn(self.facecolor,co =(239, 203, 184),mode=0)
        self.draw_fn(self.facecolor1,co =(228, 174, 146),mode=0)
        self.draw_fn(self.facecolor2,co =(228, 174, 146),mode=0)
        self.draw_fn(self.nose,co =(233, 187, 164),mode=0)
        self.draw_fn(self.nose1,co =(58, 35, 34),mode=1,thickness=2)
        self.draw_fn(self.facecolor3,co=(228, 174, 146),mode=0)
        self.draw_fn(self.facecolor4,co=(228, 174, 146),mode=0)
        self.draw_fn(self.eyebrowline,co =(15, 14, 14),mode=1,thickness=2)
        self.draw_fn(self.eyebrowline2,co =(15, 14, 14),mode=1,thickness=2)
        self.draw_fn(self.shirt,co=(61, 184, 179),mode=0)
        self.draw_fn(self.shirt1,co=(48, 167, 161),mode=0)
        self.draw_fn(self.shirt2,co=(41, 121, 118),mode=0)
        self.draw_fn(self.neck,co=(225, 164, 143),mode=0)
        self.draw_fn(self.hair1,co = (57, 35, 37),mode = 0)
        self.draw_fn(self.beard,co=(227, 174, 143),mode=0)
        self.draw_fn(self.beard1,co=(178, 116, 100),mode=0)
        self.draw_fn(self.ear1,co = (230, 171, 139),mode = 0)
        self.draw_fn(self.ear2,co = (183, 121, 96),mode = 0)
        self.draw_fn(self.ear3,co = (230, 171, 139),mode = 0)
        self.draw_fn(self.lips,co = (184, 88, 89),mode = 0)
        self.draw_fn(self.lips1,co = (61, 31, 33),mode = 0)
        self.draw_fn(self.lips2,co = (149, 63, 66),mode = 0)
        self.draw_fn(self.eye1,co = (58, 35, 34),mode = 1,thickness=2)
        self.draw_fn(self.eyelid,co = (58, 35, 34),mode = 0)
        self.draw_fn(self.eyelid2,co = (255, 244, 243),mode = 0)
        self.draw_fn(self.eye2,co = (58, 35, 34),mode = 1,thickness=2)
        self.draw_fn(self.eyelid3,co = (58, 35, 34),mode = 0)
        self.draw_fn(self.eyelid4,co = (255, 244, 243),mode = 0)
        self.draw_fn(self.eyebrow1,co = (58, 35, 33),mode = 0)
        self.draw_fn(self.eyebrow2,co = (58, 35, 33),mode = 0)

        if retain:
            tu.done()

pen=rockingstaryash()
pen.draw()

Output:

Draw anyone's Sketch using Python Turtle Graphics in Python Programming

2022-04-03T05:03:00.003-07:00

Draw anyone's Sketch using Python Turtle Graphics in Python Programming 👨‍💻🔥

In this post ,I will tell you about How to make Anyone's Sketch in Python using svg file and using these libraries: Turtle,cv2(opencv-python),svgpathtools,svg.path and tqdm.

You can install these libraries using pip command.

Turtle is pre-installed in mostly all programming softwares.

And here are the pip commands to install other libraries :

pip install opencv-python

pip install svgpathtools

pip install svg.path

pip install tqdm

𝗦𝘁𝗲𝗽𝘀 𝘁𝗼 𝗺𝗮𝗸𝗲 𝘀𝗸𝗲𝘁𝗰𝗵 :

1)Go to https://svgconvert.com/#/

2)Upload the image and change the threshold value according to the image and download it as a svg file.

3)Save the code and svg file in the same folder.

Source Code :


import turtle as tu
import cv2
from svgpathtools import svg2paths2
from svg.path import parse_path
from tqdm import tqdm
class sketch_from_svg:

    def __init__(self,path,scale=30,x_offset=400,y_offset=400):

        self.path = path
        self.x_offset = x_offset
        self.y_offset = y_offset
        self.scale = scale

    def hex_to_rgb(self,string):
        strlen = len(string)
        if string.startswith('#'):
            if strlen == 7:
                r = string[1:3]
                g = string[3:5]
                b = string[5:7]
            elif strlen == 4:
                r = string[1:2]*2
                g = string[2:3]*2
                b = string[3:4]*2
        elif strlen == 3:
                r = string[0:1]*2
                g = string[1:2]*2
                b = string[2:3]*2
        else:
            r = string[0:2]
            g = string[2:4]
            b = string[4:6]
        
        return int(r,16)/255,int(g,16)/255, int(b,16)/255

    

    def load_svg(self):
        print('loading data')
        paths,attributes,svg_att = svg2paths2(self.path)
        h = svg_att["height"]
        w = svg_att['width']
        self.height = int(h[:h.find('.')])
        self.width = int(w[:w.find('.')])

        res = []
        for i in tqdm(attributes):
            path = parse_path(i['d'])
            co = i['fill']
            #print(co)
            col = self.hex_to_rgb(co)
            #print(col)
            n = len(list(path))+2       
            pts = [((int((p.real/self.width)*self.scale))-self.x_offset, (int((p.imag/self.height)*self.scale))-self.y_offset) for p in (path.point(i/n) for i in range(0,n+1))]
            res.append((pts,col))
            #res.append(pts)
        print('svg data loaded')
        return res

    def move_to(self,x, y):
        self.pen.up()
        self.pen.goto(x,y)
        self.pen.down()


    def draw(self,retain=True):
        coordinates = self.load_svg()
        self.pen = tu.Turtle()
        self.pen.speed(0)
        for path_col in coordinates:
            f = 1
            self.pen.color('black')
            #print(path_col)
            path = path_col[0]
            #print(path_col)
            col = path_col[1]
            #print(col)
            self.pen.color(col)
            self.pen.begin_fill()
            next = 0
            for coord in path:
                #for coord in path_col:
                x,y = coord
                y *= -1
                #print(x,y)
                if f:
                    self.move_to(x, y)
                    f=0
                else:
                    self.pen.goto(x,y)
            self.pen.end_fill()

        if retain == True:
            tu.done()
pen= sketch_from_svg('filename.svg',scale=80)
pen.draw()

Note : Change the filename in line 96 according to your filename and save the code and svg file in same folder to run the code.

Output Example :

MS Dhoni Sketch by using this Code

If you like this post, Subscribe my YouTube Channel called "Vast Coding".

Click to redirect.

Your Queries:

netflix logo python code

netflix logo using python

netflix logo in python

netflix logo code python

python code for netflix logo

python netflix logo

python turtle graphics tutorial

python turtle graphics design

cool python turtle graphics

python turtle graphics game

Robert Downey Jr - Tony Stark - Ironman Sketch using Python Turtle Graphics

2022-04-01T05:47:00.003-07:00

Robert Downey Jr Sketch using Python Turtle Graphics👨‍💻

About Python Turtle Graphics :

Turtle graphics is a popular way for introducing programming to kids. It was part of the original Logo programming language developed by Wally Feurzeig, Seymour Papert and Cynthia Solomon in 1967. Imagine a robotic turtle starting at (0, 0) in the x-y plane. After an import turtle , give it the command turtle.

Note: If you are facing any issue to copy the code then copy the full page clicking 'select all',paste it to your notepad and copy the code from there.

Here is the source code :


import turtle as tu


class rdj:
    def __init__(self):
        self.mouth = [(374, 382),(368, 382),(359, 382),(347, 379),(339, 381),(334, 384),(323, 380),(315, 380),(293, 385),(321, 387),(339, 387),(345, 386),(357, 385),(374, 383),(-1, -1),(389, 389),(393, 387),(395, 381),(395, 373),(377, 362),(366, 357),(358, 360),(351, 357),(345, 354),(344, 357),(337, 355),(333, 357),(327, 355),(323, 357),(303, 362),(293, 365),(286, 367),(282, 374),(277, 376),(279, 394),(286, 390),(293, 380),(297, 378),(302, 378),(304, 375),(307, 378),(310, 374),(313, 377),(315, 373),(319, 375),(322, 374),(325, 376),(329, 375),(336, 375),(342, 374),(350, 374),(353, 376),(357, 374),(369, 374),(372, 377),(374, 374),(377, 378),(383, 379),(389, 389),]
        self.nose = [(342, 305),(342, 313),(344, 321),(344, 328),(343, 335),(338, 342),(331, 344),(322, 343),(313, 340),(310, 339),(307, 339),(303, 333),(301, 338),(305, 343),(313, 344),(323, 349),(332, 353),(343, 345),(346, 342),(354, 342),(359, 338),(360, 329),(355, 322),(348, 320),(348, 323),(354, 325),(356, 331),(353, 336),(348, 335),(350, 330),(348, 323),(343, 305),]
        self.dress = [(56, 513),(222, 433),(247, 393),(249, 408),(254, 425),(265, 456),(265, 456),(273, 478),(280, 495),(283, 509),(294, 539),(302, 527),(314, 515),(328, 503),(347, 491),(350, 493),(340, 499),(349, 507),(359, 517),(380, 498),(397, 505),(412, 516),(425, 526),(432, 533),(435, 539),(399, 523),(399, 530),(395, 538),(353, 539),(347, 530),(320, 519),(300, 539),(293, 539),(-1, -1),(363, 507),(391, 478),(401, 458),(422, 408),(423, 398),(420, 407),(400, 440),(386, 460),(377, 471),(371, 475),(366, 480),(357, 482),(348, 478),(339, 470),(330, 462),(316, 453),(301, 444),(276, 420),(248, 391),(253, 399),(267, 419),(278, 430),(288, 441),(295, 445),(303, 453),(326, 475),(338, 484),(347, 492),(353, 498),(363, 508),(371, 500),(-1, -1),(427, 401),(437, 486),(441, 526),(443, 539),(624, 539),(625, 477),(528, 449),(477, 428),(447, 412),(428, 401),]
        self.face = [(328, 461),(316, 457),(305, 453),(297, 446),(286, 436),(284, 434),(280, 431),(277, 431),(279, 428),(275, 428),(272, 423),(262, 411),(250, 395),(244, 387),(241, 382),(238, 377),(235, 372),(236, 367),(234, 363),(234, 358),(231, 354),(231, 349),(230, 346),(231, 343),(228, 339),(229, 336),(226, 330),(227, 324),(223, 320),(224, 317),(221, 311),(216, 310),(212, 306),(213, 302),(216, 308),(220, 306),(220, 297),(217, 294),(219, 284),(216, 279),(216, 272),(211, 266),(208, 272),(206, 266),(207, 256),(205, 249),(204, 243),(204, 237),(208, 233),(208, 229),(206, 229),(206, 222),(202, 215),(202, 210),(197, 204),(198, 197),(193, 193),(192, 173),(190, 170),(191, 166),(190, 162),(191, 159),(188, 154),(186, 148),(188, 142),(188, 135),(188, 127),(191, 122),(186, 121),(177, 112),(185, 115),(179, 105),(188, 114),(182, 98),(191, 109),(194, 104),(200, 101),(194, 99),(203, 94),(206, 85),(211, 82),(218, 80),(213, 78),(208, 79),(212, 76),(218, 76),(216, 69),(218, 64),(219, 70),(221, 75),(223, 68),(230, 64),(231, 58),(234, 56),(235, 52),(236, 47),(240, 42),(242, 35),(252, 32),(270, 28),(283, 28),(290, 28),(297, 29),(304, 33),(318, 29),(332, 28),(346, 27),(356, 27),(366, 29),(379, 36),(363, 24),(375, 26),(389, 36),(397, 40),(405, 45),(411, 54),(422, 61),(429, 70),(433, 83),(435, 91),(436, 79),(436, 99),(436, 106),(441, 99),(435, 113),(450, 108),(469, 111),(477, 108),(473, 114),(467, 126),(477, 120),(479, 124),(471, 132),(473, 136),(472, 145),(483, 148),(479, 151),(480, 161),(483, 168),(480, 173),(480, 178),(476, 184),(474, 190),(472, 196),(465, 197),(462, 204),(462, 211),(461, 217),(459, 224),(463, 231),(456, 229),(452, 237),(449, 245),(448, 254),(448, 262),(450, 257),(452, 251),(454, 244),(458, 239),(462, 243),(462, 251),(458, 246),(456, 251),(454, 255),(458, 257),(452, 266),(454, 273),(455, 282),(452, 288),(453, 296),(458, 286),(457, 295),(453, 303),(449, 304),(448, 297),(450, 290),(453, 280),(448, 273),(448, 280),(446, 288),(445, 300),(444, 308),(448, 315),(454, 311),(454, 317),(449, 319),(443, 316),(442, 327),(439, 339),(437, 350),(433, 362),(430, 370),(430, 378),(426, 385),(420, 393),(416, 399),(411, 404),(408, 409),(403, 414),(399, 419),(394, 427),(386, 435),(381, 441),(376, 444),(371, 448),(367, 451),(359, 456),(352, 458),(348, 461),(341, 461),(336, 463),(330, 459),(328, 462),(316, 457),]
        self.iface = [(311, 400),(324, 402),(338, 402),(347, 402),(356, 399),(363, 397),(359, 402),(356, 408),(353, 414),(348, 419),(349, 426),(359, 426),(362, 430),(367, 433),(374, 434),(376, 436),(379, 432),(383, 433),(385, 427),(393, 419),(394, 416),(398, 413),(400, 408),(401, 394),(408, 402),(415, 394),(421, 385),(424, 380),(424, 373),(427, 367),(432, 353),(434, 345),(436, 339),(434, 330),(438, 322),(438, 312),(437, 310),(440, 309),(441, 293),(443, 288),(441, 284),(444, 275),(440, 265),(442, 233),(439, 227),(439, 221),(434, 211),(425, 203),(432, 203),(421, 192),(430, 196),(421, 187),(430, 187),(419, 178),(432, 180),(420, 172),(428, 174),(422, 165),(415, 159),(413, 147),(408, 140),(403, 140),(402, 138),(395, 139),(394, 136),(388, 138),(386, 136),(379, 138),(377, 133),(372, 134),(369, 131),(364, 134),(360, 133),(355, 135),(353, 131),(348, 132),(347, 127),(346, 131),(343, 127),(336, 131),(331, 128),(327, 130),(323, 126),(319, 129),(313, 125),(309, 131),(306, 126),(303, 131),(297, 126),(296, 131),(289, 127),(287, 130),(282, 126),(280, 132),(274, 128),(274, 135),(268, 131),(264, 135),(256, 134),(256, 139),(251, 138),(252, 142),(246, 142),(247, 146),(244, 149),(245, 154),(239, 154),(243, 160),(236, 163),(242, 164),(233, 169),(238, 170),(231, 177),(237, 176),(227, 184),(237, 180),(229, 190),(237, 189),(229, 198),(237, 195),(232, 202),(239, 205),(229, 212),(238, 210),(232, 215),(238, 215),(233, 220),(227, 227),(224, 237),(224, 246),(226, 253),(226, 259),(227, 267),(227, 277),(224, 291),(223, 304),(225, 311),(228, 319),(231, 330),(234, 340),(235, 349),(237, 361),(241, 372),(248, 385),(252, 391),(258, 397),(264, 402),(268, 396),(272, 398),(272, 406),(279, 414),(278, 419),(284, 426),(292, 431),(292, 435),(296, 438),(299, 438),(301, 442),(308, 439),(313, 435),(317, 435),(319, 430),(321, 428),(325, 426),(327, 426),(332, 424),(331, 416),(326, 416),(318, 408),(318, 404),(311, 400),(324, 402),]
        self.ebrow = [(339, 243),(339, 248),(343, 254),(350, 256),(358, 251),(367, 248),(382, 247),(397, 249),(407, 252),(418, 258),(419, 253),(414, 245),(399, 235),(391, 235),(381, 237),(372, 238),(361, 243),(353, 245),(343, 255),(-1, -1),(321, 246),(320, 258),(314, 257),(305, 254),(263, 253),(245, 259),(243, 257),(246, 250),(253, 245),(260, 242),(269, 241),(276, 241),(282, 243),(291, 245),(305, 245),(311, 249),(319, 252),(322, 246),]
        self.lines = [(345, 313),(344, 308),(343, 297),(343, 282),(-1, -1),(367, 340),(384, 357),(-1, -1),(295, 337),(280, 359),(-1, -1),(385, 278),(394, 278),(400, 273),(408, 264),(400, 261),(389, 257),(377, 258),(371, 260),(358, 269),(362, 272),(-1, -1),(395, 257),(371, 254),(353, 263),(-1, -1),(303, 274),(309, 273),(297, 263),(290, 262),(272, 262),(261, 270),(256, 271),(262, 271),(269, 277),(283, 281),(-1, -1),(255, 267),(271, 260),(282, 259),(291, 259),(300, 260),(311, 264),]
        self.eyes = [(375, 260),(375, 266),(378, 271),(384, 273),(389, 270),(391, 267),(392, 264),(391, 260),(388, 258),(384, 257),(379, 257),(375, 261),(-1,-1),(291, 263),(292, 269),(289, 273),(286, 276),(281, 276),(276, 273),(274, 269),(274, 265),(276, 263),(281, 262),(287, 262),(291, 263),]
        self.eball = [(281, 266),(279, 267),(277, 266),(277, 264),(279, 263),(281, 264),(281, 266),(-1, -1),(379, 259),(382, 260),(382, 263),(380, 264),(378, 263),(377, 261),(379, 259),]
        self.pen = tu.Turtle()
        self.pen.hideturtle()
        self.pen.speed(0)
        self.x_offset = 300
        self.y_offset = 300


    def go(self, x, y):
        self.pen.penup()
        self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        self.pen.pendown()  


    def paint(self,coord,co=(0,0,0)):
        self.pen.color(co)
        t_x,t_y = coord[0]
        self.go(t_x,t_y)
        self.pen.fillcolor(co)
        self.pen.begin_fill()
        t = 0
        for i in coord[1:]:
            print(i)
            x,y = i
            if t:
                self.go(x,y)
                t = 0
                self.pen.begin_fill()
                continue
            if x == -1 and y == -1:
                t = 1
                self.pen.end_fill()
                continue
            else:
                self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset) 
        self.pen.end_fill()


    def draw_fn(self,coord,mode = 1,co = (0,0,0),thickness = 1):
        co = (co[0]/255,co[1]/255,co[2]/255)

        self.pen.color(co)

        if mode:
            self.pen.width(thickness)
            t_x,t_y = coord[0]
            self.go(t_x,t_y)
            t = 0
            for i in coord[1:]:
                print(i)
                x,y = i
                if t:
                    self.go(x,y)
                    t = 0
                    continue
                if x == -1 and y == -1:
                    t = 1
                    continue
                else:
                    self.pen.goto(x-self.x_offset,(y*-1)+self.y_offset)
        else:
            self.paint(coord=coord,co = co)

    
    def draw(self,retain=True):
        self.draw_fn(self.dress,mode = 0)
        self.draw_fn(self.face,mode = 0)
        self.draw_fn(self.iface,co = (255,255,255),mode = 0)
        self.draw_fn(self.mouth,mode = 0)
        self.draw_fn(self.nose,mode = 0)
        self.draw_fn(self.ebrow,mode = 0)
        self.draw_fn(self.lines,mode = 1,thickness=2)
        self.draw_fn(self.eyes,mode = 0)
        self.draw_fn(self.eball,mode = 0,co = (255,255,255))
        if retain:
            tu.done()
pen = rdj()
pen.draw()

If you like this you can also subscribe my Youtube Channel "Vast Coding"

OUTPUT

Robert Downey Jr

Youtube Video :

🔵If you have any queries regarding this , comment on this post !

Your Queries:

netflix logo python code

netflix logo using python

netflix logo in python

netflix logo code python

python code for netflix logo

python netflix logo

Beautiful 3D Design using Python Turtle Graphics 🔥🔥

2021-10-30T02:59:00.024-07:00

Beautiful 3D Design using Python Turtle Graphics 🔥🔥

Source Code:-


import turtle as t
import colorsys

###############

t.bgcolor('black')
t.speed('fastest')
t.pensize(2)
hue=0.0
t.hideturtle()

###############

for i in range (1000):
	color = colorsys.hsv_to_rgb(hue,1,1)
	t.pencolor(color)
	t.fd(i)
	t.rt(98.5)
	t.circle(50)
	hue +=0.005
	
t.exitonclick()

Output

Note:- Subscribe my Youtube Channel "Vast Coding"👈 Click on it.

Vibrant Circle using Python Turtle Graphics | Corona Shape using Python Turtle | Python Project | Vast Coding

2021-10-13T11:05:00.004-07:00

Vibrant Circle using Python Turtle Graphics,Corona Shape using Python Turtle,Python Project | Vast Coding

Here is the Source Code:-

Vibrant Circle.py


import turtle
t = turtle.Turtle()
s = turtle.Screen()
s.bgcolor('black')
t.pencolor('red')
a = 0
b = 0
t.speed(0)
t.penup()    
t.goto(0,200)
t.pendown()
while True:
    t.forward(a)
    t.right(b)
    a+=3
    b+=1
    if b==210:
        break
    t.hideturtle()
turtle.done()

Output:-

Output

Note:- Please help me to grow my Youtube Channel called "Vast Coding"

Balloon Shooter Game using Python | Python Project | Simple Python Game | Vast Coding

2021-10-10T05:32:00.006-07:00

Balloon Shooter Game using Python | Python Project | Simple Python Game | Vast Coding

"You can download the source code by the download button at the end of this page"

Here is the Source Code:-

Balloon Shooter2.py


import pygame
import sys
import random
from math import *

pygame.init()

width = 720
height = 1200

display = pygame.display.set_mode((width, height))
pygame.display.set_caption("Balloon Shooter")
clock = pygame.time.Clock()

margin = 100
lowerBound = 100

score = 0

# Colors
white = (230, 230, 230)
lightBlue = (174, 214, 241)
red = (231, 76, 60)
lightGreen = (25, 111, 61)
darkGray = (40, 55, 71)
darkBlue = (21, 67, 96)
green = (35, 155, 86)
yellow = (244, 208, 63)
blue = (46, 134, 193)
purple = (155, 89, 182)
orange = (243, 156, 18)

font = pygame.font.SysFont("Snap ITC", 25)

# Balloon Class
class Balloon:
    def __init__(self, speed):
        self.a = random.randint(30, 40)
        self.b = self.a + random.randint(0, 10)
        self.x = random.randrange(margin, width - self.a - margin)
        self.y = height - lowerBound
        self.angle = 90
        self.speed = -speed
        self.probPool = [-1, -1, -1, 0, 0, 0, 0, 1, 1, 1]
        self.length = random.randint(50, 100)
        self.color = random.choice([red, green, purple, orange, yellow, blue])

    # Move balloon around the Screen
    def move(self):
        direct = random.choice(self.probPool)

        if direct == -1:
            self.angle += -10
        elif direct == 0:
            self.angle += 0
        else:
            self.angle += 10

        self.y += self.speed*sin(radians(self.angle))
        self.x += self.speed*cos(radians(self.angle))

        if (self.x + self.a > width) or (self.x < 0):
            if self.y > height/5:
                self.x -= self.speed*cos(radians(self.angle)) 
            else:
                self.reset()
        if self.y + self.b < 0 or self.y > height + 30:
            self.reset()

    # Show/Draw the balloon  
    def show(self):
        pygame.draw.line(display, darkBlue, (self.x + self.a/2, self.y + self.b), (self.x + self.a/2, self.y + self.b + self.length))
        pygame.draw.ellipse(display, self.color, (self.x, self.y, self.a, self.b))
        pygame.draw.ellipse(display, self.color, (self.x + self.a/2 - 5, self.y + self.b - 3, 10, 10))

    # Check if Balloon is bursted
    def burst(self):
        global score
        pos = pygame.mouse.get_pos()

        if onBalloon(self.x, self.y, self.a, self.b, pos):
            score += 1
            self.reset()

    # Reset the Balloon
    def reset(self):
        self.a = random.randint(30, 40)
        self.b = self.a + random.randint(0, 10)
        self.x = random.randrange(margin, width - self.a - margin)
        self.y = height - lowerBound 
        self.angle = 90
        self.speed -= 0.002
        self.probPool = [-1, -1, -1, 0, 0, 0, 0, 1, 1, 1]
        self.length = random.randint(50, 100)
        self.color = random.choice([red, green, purple, orange, yellow, blue])

balloons = []
noBalloon = 10
for i in range(noBalloon):
    obj = Balloon(random.choice([1, 1, 2, 2, 2, 2, 3, 3, 3, 4]))
    balloons.append(obj)

def onBalloon(x, y, a, b, pos):
    if (x < pos[0] < x + a) and (y < pos[1] < y + b):
        return True
    else:
        return False

# show the location of Mouse
def pointer():
    pos = pygame.mouse.get_pos()
    r = 25
    l = 20
    color = lightGreen
    for i in range(noBalloon):
        if onBalloon(balloons[i].x, balloons[i].y, balloons[i].a, balloons[i].b, pos):
            color = red
    pygame.draw.ellipse(display, color, (pos[0] - r/2, pos[1] - r/2, r, r), 4)
    pygame.draw.line(display, color, (pos[0], pos[1] - l/2), (pos[0], pos[1] - l), 4)
    pygame.draw.line(display, color, (pos[0] + l/2, pos[1]), (pos[0] + l, pos[1]), 4)
    pygame.draw.line(display, color, (pos[0], pos[1] + l/2), (pos[0], pos[1] + l), 4)
    pygame.draw.line(display, color, (pos[0] - l/2, pos[1]), (pos[0] - l, pos[1]), 4)

def lowerPlatform():
    pygame.draw.rect(display, darkGray, (0, height - lowerBound, width, lowerBound))

def showScore():
    scoreText = font.render("Balloons Bursted : " + str(score), True, white)
    display.blit(scoreText, (150, height - lowerBound + 50))


def close():
    pygame.quit()
    sys.exit()

def game():
    global score
    loop = True

    while loop:
        for event in pygame.event.get():
            if event.type == pygame.QUIT:
                close()
            if event.type == pygame.KEYDOWN:
                if event.key == pygame.K_q:
                    close()
                if event.key == pygame.K_r:
                    score = 0
                    game()

            if event.type == pygame.MOUSEBUTTONDOWN:
                for i in range(noBalloon):
                    balloons[i].burst()

        display.fill(lightBlue)
        
        for i in range(noBalloon):
            balloons[i].show()

        pointer()
        
        for i in range(noBalloon):
            balloons[i].move()

        
        lowerPlatform()
        showScore()
        pygame.display.update()
        clock.tick(60)


game()

Output:-

Output

Download the Source Code and All files from here 👇

Steps to run code:-

1) Download the zip file from the download button.

2)Make a folder in your storage.

3)Extract zip file in the folder.

4)Open Pydroid3 and then open.py files.

5)Run the code and Enjoy your Game😃

Note:- Please help me to grow my Youtube Channel called "Vast Coding"👈Click on this,you will be automatically redirected to my channel.

Carrom Board Game using Python | Simple Python Project | Vast Coding

2021-10-09T04:06:00.009-07:00

Carrom Board Game using Python | Simple Python Project | Vast Coding

Here is the Source Code:-

Note:- If you are facing any issues to copy the code,like:-"Failed to copy to the clipboard"

Then copy it in two or three parts.


import pygame, sys,math
from pygame.locals import *
from math import *
pygame.init()
screen = pygame.display.set_mode((600, 600))
background=(255,255,255)
screen.fill(background)
pygame.display.set_caption("Carrom")
width=535
height=535
friction=0.2
border=65
mod = lambda v: sqrt(v[0] * v[0] + v[1] * v[1])
black=(0,0,0)
player1_color=(40,40,40)
player2_color=(180,180,180)
white=(255,255,255)
yellow=(255,255,0)
pink=(255,20,147)
def repaint():    
    pygame.draw.rect(screen,(0,0,0),Rect((40,40),(520,520)))
    pygame.draw.rect(screen,(230,210,140),Rect((65,65),(470,470)))
    pygame.draw.rect(screen,(0,0,0),Rect((180,140),(240,20)))
    pygame.draw.rect(screen,(230,210,140),Rect((185,145),(230,10)))
    pygame.draw.circle(screen,(139,0,0),(180,150),10)
    pygame.draw.circle(screen,(139,0,0),(420,150),10)
    pygame.draw.rect(screen,(0,0,0),Rect((180,440),(240,20)))
    pygame.draw.rect(screen,(230,210,140),Rect((185,445),(230,10)))
    pygame.draw.circle(screen,(160,0,0),(180,450),10)
    pygame.draw.circle(screen,(160,0,0),(420,450),10)
    pygame.draw.rect(screen,(0,0,0),Rect((140,180),(20,240)))
    pygame.draw.rect(screen,(230,210,140),Rect((145,185),(10,230)))
    pygame.draw.circle(screen,(139,0,0),(150,180),10)
    pygame.draw.circle(screen,(139,0,0),(150,420),10)
    pygame.draw.rect(screen,(0,0,0),Rect((440,180),(20,240)))
    pygame.draw.rect(screen,(230,210,140),Rect((445,185),(10,230)))
    pygame.draw.circle(screen,(139,0,0),(450,180),10)
    pygame.draw.circle(screen,(139,0,0),(450,420),10)
    pygame.draw.circle(screen,(139,0,0),(300,300),60,2)
    pygame.draw.circle(screen,(139,0,0),(300,300),70,2)
    pygame.draw.circle(screen,(139,10,0),(300,300),20,4)
    pygame.draw.circle(screen,(139,10,0),(300,300),11,0)
    pygame.draw.circle(screen,white,(80,80),20)
    pygame.draw.circle(screen,white,(520,80),20)
    pygame.draw.circle(screen,white,(80,520),20)
    pygame.draw.circle(screen,white,(520,520),20)
def move(coin1,coin2):    
    center1 = [coin1.rect.x+coin1.radius, coin1.rect.y+coin1.radius]
    center2 = [coin2.rect.x+coin2.radius, coin2.rect.y+coin2.radius]
    distx = abs(center1[0]-center2[0])
    disty = abs(center1[1]-center2[1])
    #the distance between the centers of coins
    dist = [abs(center1[0]-center2[0]), abs(center1[1]-center2[1])]
    if mod(dist)==0:
        cos_theta = 1
        sin_theta = 0
    else:
        cos_theta = abs(distx)/mod(dist)
        sin_theta = abs(disty)/mod(dist)
    if mod(dist)<coin1.radius + coin2.radius:
        diff = coin1.radius + coin2.radius - mod(dist)        
        if coin2.rect.x>=coin1.rect.x:
            coin2.rect.x += ceil(diff*cos_theta/2)
            coin1.rect.x -= ceil(diff*cos_theta/2)
        else:
            coin1.rect.x += ceil(diff*cos_theta/2)
            coin2.rect.x -= ceil(diff*cos_theta/2)
        if coin2.rect.y>=coin1.rect.y:
            coin2.rect.y += ceil(diff*cos_theta/2)
            coin1.rect.y -= ceil(diff*cos_theta/2)
        else:
            coin1.rect.y += ceil(diff*cos_theta/2)
            coin2.rect.y += ceil(diff*cos_theta/2)
def collision(coin1,coin2):    
    v=(coin1.rect.x-coin2.rect.x,coin1.rect.y-coin2.rect.y)  
    m=math.sqrt(math.pow(v[0],2)+math.pow(v[1],2))    
    if m>0:
        n=(v[0]/m,v[1]/m)
    else:
        n=(0,0)    
    t=((-n[1]),n[0])
    move(coin1,coin2)   
    v_r=(coin1.velx,coin1.vely)
    v_s=(coin2.velx,coin2.vely)
    v_rnormal=(v_r[0]*n[0])+(v_r[1]*n[1])
    v_rtangent=(v_r[0]*t[0])+(v_r[1]*t[1])
    v_snormal=(v_s[0]*n[0])+(v_s[1]*n[1])
    v_stangent=(v_s[0]*t[0])+(v_s[1]*t[1])
    v_rnn=v_snormal*0.75
    v_snn=v_rnormal*0.75
    v_rnormal=((v_rnn*n[0]),(v_rnn*n[1]))
    v_snormal=((v_snn*n[0]),(v_snn*n[1]))
    v_rtangent=((v_rtangent*t[0]),(v_rtangent*t[1]))
    v_stangent=((v_stangent*t[0]),(v_stangent*t[1]))
    v_r=((v_rnormal[0]+v_rtangent[0]),(v_rnormal[1]+v_rtangent[1]))
    v_s=((v_snormal[0]+v_stangent[0]),(v_snormal[1]+v_stangent[1]))
    coin1.velx=v_r[0]
    coin1.vely=v_r[1]
    coin2.velx=v_s[0]
    coin2.vely=v_s[1]
def inhole(sprite):
    (centerx,centery)=sprite.rect.center
    a=78
    b=522
    dist= math.sqrt((centerx-a)**2 + (centery-a)**2)
    if dist<=(2*sprite.radius+20)/3:
        return True
    dist= math.sqrt((centerx-a)**2 + (centery-b)**2)
    if dist<=(2*sprite.radius+20)/3:
         return True
    dist= math.sqrt((centerx-b)**2 + (centery-a)**2)
    if dist<=(2*sprite.radius+20)/3:
        return True
    dist= math.sqrt((centerx-b)**2 + (centery-b)**2)
    if dist<=(2*sprite.radius+20)/3:
         return True
    return False         
class Coins(pygame.sprite.Sprite):
    def __init__(self,radius,colour):
        pygame.sprite.Sprite.__init__(self)
        self.image=pygame.Surface([(2*radius),(2*radius)])
        self.image.fill((255,255,255))
        self.image.set_colorkey((255,255,255))
        pygame.draw.ellipse(self.image,colour,[0,0,(2*radius),(2*radius)])
        self.rect=self.image.get_rect()
        self.radius=radius
        self.angle=0
        self.velx=0
        self.vely=0
        self.collided=False
        self.colour=colour        
    def collide(self,coin_array):
        for coin in coin_array:
            if coin!= self:
                self.other_list.add(coin)
        for coin in self.other_list:
            collision(self,coin)                            
    def update(self):
        self.rect.x +=self.velx
        self.rect.y +=self.vely

        if (self.rect.x) > width-(2*self.radius):
               self.rect.x = 2*(width - (2*self.radius)) - self.rect.x
               self.velx = -1*abs(self.velx)

        elif (self.rect.x) < (65):
               self.rect.x = 2*(65)- self.rect.x
               self.velx = abs(self.velx)

        if (self.rect.y) > height-(2*self.radius):
               self.rect.y = 2*(height - (2*self.radius)) - self.rect.y
               self.vely = -1*abs(self.vely)

        elif (self.rect.y) < (65):
               self.rect.y = 2*(65) - self.rect.y
               self.vely = abs(self.vely)
        if mod([self.velx, self.vely])==0:
            self.velx = 0
            self.vely = 0
        else:
            self.velx = self.velx - friction * self.velx / mod([self.velx, self.vely]) 
            self.vely = self.vely - friction * self.vely / mod([self.velx, self.vely]) 
            if abs(self.velx)<friction:
                self.velx = 0
            if abs(self.vely)<friction:
                self.vely = 0        
coin_list=pygame.sprite.Group()
coin_array=pygame.sprite.Group()
striker=Coins(15,(255,240,120))
striker.rect.x=282
striker.rect.y=435
coin_array.add(striker)
coin11=Coins(11,player2_color)
coin11.rect.x=288
coin11.rect.y=288-27
coin_array.add(coin11)
coin_list.add(coin11)
coin22=Coins(11,player2_color)
coin22.rect.x=288
coin22.rect.y=288+27
coin_array.add(coin22)
coin_list.add(coin22)
coin3=Coins(11,player2_color)
coin3.rect.x=288-27
coin3.rect.y=288
coin_array.add(coin3)
coin_list.add(coin3)
coin4=Coins(11,player2_color)
coin4.rect.x=288+27
coin4.rect.y=288
coin_array.add(coin4)
coin_list.add(coin4)
coin6=Coins(11,player1_color)
coin6.rect.x=288+21
coin6.rect.y=288+21
coin_array.add(coin6)
coin_list.add(coin6)
coin7=Coins(11,player1_color)
coin7.rect.x=288+21
coin7.rect.y=288-21
coin_array.add(coin7)
coin_list.add(coin7)
coin8=Coins(11,player1_color)
coin8.rect.x=288-21
coin8.rect.y=288+21
coin_array.add(coin8)
coin_list.add(coin8)
coin9=Coins(11,player1_color)
coin9.rect.x=288-21
coin9.rect.y=288-21
coin_array.add(coin9)
coin_list.add(coin9)
coin10=Coins(11,player2_color)
coin10.rect.x=288-38
coin10.rect.y=288-38
coin_array.add(coin10)
coin_list.add(coin10)
coin11=Coins(11,player2_color)
coin11.rect.x=288-38
coin11.rect.y=288+38
coin_array.add(coin11)
coin_list.add(coin11)
coin12=Coins(11,player2_color)
coin12.rect.x=288+38
coin12.rect.y=288-38
coin_array.add(coin12)
coin_list.add(coin12)
coin13=Coins(11,player2_color)
coin13.rect.x=288+38
coin13.rect.y=288+38
coin_array.add(coin13)
coin_list.add(coin13)
coin14=Coins(11,player2_color)
coin14.rect.x=288-36
coin14.rect.y=288+38
coin_array.add(coin14)
coin_list.add(coin9)
coin15=Coins(11,player1_color)
coin15.rect.x=288
coin15.rect.y=288-49
coin_array.add(coin15)
coin_list.add(coin15)
coin16=Coins(11,player1_color)
coin16.rect.x=288-49
coin16.rect.y=288
coin_array.add(coin16)
coin_list.add(coin16)
coin17=Coins(11,player1_color)
coin17.rect.x=288+49
coin17.rect.y=288
coin_array.add(coin17)
coin_list.add(coin17)
coin18=Coins(11,player1_color)
coin18.rect.x=288
coin18.rect.y=288+49
coin_array.add(coin18)
coin_list.add(coin18)
queen=Coins(11,(255,30,177))
queen.rect.x=289
queen.rect.y=289
coin_array.add(queen)
coin_list.add(queen)
repaint()
coin_array.draw(screen)
clock=pygame.time.Clock()
speed=200
attempt=0
queen_gone_temp=0
queen_gone_final=0
x=300
y=450
movex=0
movey=0
flag=0
degree=0.04
i=0
player=0
player1_points=0
player2_points=0
foul=0
while True:
    for event in pygame.event.get():
        if event.type == QUIT:
            pygame.quit()
            sys.exit() 
        
        if flag==0:
            if player==0:
                x,y=pygame.mouse.get_pos()
                y=450;
                
                if(x<180):
                     x=180
                if(x>420):
                     x=420
            else:
                x,y=pygame.mouse.get_pos()
                y=150;
                
                if(x<180):
                     x=180
                if(x>420):
                     x=420               
            striker.rect.x=x-striker.radius
            striker.rect.y=y-striker.radius
            striker_center=(striker.rect.x+striker.radius,striker.rect.y+striker.radius)
            repaint()
            coin_array.draw(screen)
        if event.type == pygame.MOUSEBUTTONDOWN:             
            if flag==0:
                flag=1               
            elif flag==1:
                flag=2         
        if flag==1:
            x_point,y_point=pygame.mouse.get_pos()
            if player==0:#down player
                if(y_point<470):
                     y_point=480
                if(y_point>535):
                    y_point=535
                if(x_point<65):
                    x_point=65
                if(x_point>535):
                    x_point=535
            if player==1:
                if(y_point>120):
                     y_point=120
                if(y_point<65):
                    y_point=65
                if(x_point<65):
                    x_point=65
                if(x_point>535):
                    x_point=535            
            repaint()
            coin_array.draw(screen)
            line=pygame.draw.line(screen,black,(striker_center[0],striker_center[1]),(x_point,y_point),3)                    
        if flag==2:
            flag=3
            i=25
            striker.velx=(striker_center[0]-x_point)/4
            striker.vely=(striker_center[1]-y_point)/4             
    if flag==3:         
        coin_array.update()        
        for coin1 in coin_array:
            for coin2 in coin_list:
                if coin1 is not coin2 and pygame.sprite.collide_circle(coin1, coin2) and not coin1.collided and not coin2.collided:
                    collision(coin1, coin2)
                    for coin1 in coin_list:
                        for coin2 in coin_list:
                            if coin1 is not coin2:
                                move(coin1, coin2)                        
                    coin1.collided, coin2.collided = True, True                   
        for coin in coin_array:
            coin.collided = False
            if inhole(coin):
                if coin is not striker:
                    coin_array.remove(coin)
                    coin_array.remove(coin)
                    if coin.colour==(255,30,177):
                        queen_gone_temp=1                                             
                    if coin.colour==player1_color:
                        if queen_gone_temp==1:
                            player1_points+=5
                            queen_gone_final=1
                            coin_array.remove(queen)                            
                        else:                            
                            player1_points+=1                            
                    elif coin.colour==player2_color:
                        if queen_gone_temp==1:
                            player2_points+=5
                            queen_gone_final=1
                            coin_queen.remove(queen)
                            attempt=1
                        else:
                            player2_points+=1
                    else:
                        if queen_gone_temp==1:
                            attempt=1
                        print ('Player1 Points= {}'.format(player1_points,"\n"))
                        print ('Player2 Points= {}'.format(player2_points,"\n"))
                if coin is not queen and not striker:
                    if queen_gone_temp==1 and attempt==1:
                        queen=Coins(11,(255,30,177))
                        queen.rect.x=289
                        queen.rect.y=289
                        coin_array.add(queen)
                        coin_list.add(queen)                                           
                if coin is striker:
                    print ("foul")
                    if player==0:
                        player1_points-=1
                    else:
                        player2_points-=1
                    coin_array.remove(striker)
                    foul=1                                                             
        repaint()
        coin_array.draw(screen)
    boardHalt = True    
    for coin in coin_array:
        if coin.velx!=0 or coin.vely!=0:
            boardHalt = False
            break    
    if boardHalt and flag==3:
            x=300
            y=450
            flag=0
            striker.velx=0
            striker.vely=0
            striker.angle=0
            coin_array.vely=0
            coin_array.velx=0         
            if(foul==1):
                striker=Coins(15,(255,240,120))
                coin_array.add(striker)
                foul=0
            if player==0:
                player=1
            else:
                player=0                               
    pygame.display.update()
    clock.tick(100)

Output :-

Output

Note:- Please help me to grow my Youtube Channel called Vast Coding. 👈Click on this you will automatically redirected to my channel.

Flappy Bird Game using Python 🔥🔥 Python in Pydroid3 | Amazing Python Project | Vast Coding

2021-10-07T23:16:00.007-07:00

Flappy Bird Game using Python 🔥🔥 Python in Pydroid3 | Amazing Python Project | Vast Coding

Here is the Source Code:-

main.py


import pygame
import random

from objects import Grumpy, Pipe, Base, Score

# Setup *******************************************

pygame.init()
SCREEN = WIDTH, HEIGHT = 288, 512
display_height = 0.80 * HEIGHT
info = pygame.display.Info()

width = info.current_w
height = info.current_h

if width >= height:
	win = pygame.display.set_mode(SCREEN, pygame.NOFRAME)
else:
	win = pygame.display.set_mode(SCREEN, pygame.NOFRAME | pygame.SCALED | pygame.FULLSCREEN)

# win = pygame.display.set_mode(SCREEN, pygame.SCALED | pygame.FULLSCREEN)
clock = pygame.time.Clock()
FPS = 60

# COLORS

RED = (255, 0, 0)
WHITE = (255, 255, 255)
BLACK = (0, 0, 0)

# Backgrounds

bg1 = pygame.image.load('Assets/background-day.png')
bg2 = pygame.image.load('Assets/background-night.png')

bg = random.choice([bg1, bg2])

im_list = [pygame.image.load('Assets/pipe-green.png'), pygame.image.load('Assets/pipe-red.png')]
pipe_img = random.choice(im_list)

gameover_img =  pygame.image.load('Assets/gameover.png')
flappybird_img =  pygame.image.load('Assets/flappybird.png')
flappybird_img = pygame.transform.scale(flappybird_img, (200,80))

# Sounds & fx


die_fx = pygame.mixer.Sound('Sounds/die.wav')
hit_fx = pygame.mixer.Sound('Sounds/hit.wav')
point_fx = pygame.mixer.Sound('Sounds/point.wav')
swoosh_fx = pygame.mixer.Sound('Sounds/swoosh.wav')
wing_fx = pygame.mixer.Sound('Sounds/wing.wav')

# Objects

pipe_group = pygame.sprite.Group()
base = Base(win)
score_img = Score(WIDTH // 2, 50, win)
grumpy = Grumpy(win)

# Variables

base_height = 0.80 * HEIGHT
speed = 0
game_started = False
game_over = False
restart = False
score = 0
start_screen = True
pipe_pass = False
pipe_frequency = 1600

running =  True
while running:
	win.blit(bg, (0,0))
	
	if start_screen:
		speed = 0
		grumpy.draw_flap()
		base.update(speed)
		
		win.blit(flappybird_img, (40, 50))
	else:
		
		if game_started and not game_over:
			
			next_pipe = pygame.time.get_ticks()
			if next_pipe - last_pipe >= pipe_frequency:
				y = display_height // 2
				pipe_pos = random.choice(range(-100,100,4))
				height = y + pipe_pos
				
				top = Pipe(win, pipe_img, height, 1)
				bottom = Pipe(win, pipe_img, height, -1)
				pipe_group.add(top)
				pipe_group.add(bottom)
				last_pipe = next_pipe
		
		pipe_group.update(speed)
		base.update(speed)	
		grumpy.update()
		score_img.update(score)
		
		if pygame.sprite.spritecollide(grumpy, pipe_group, False) or grumpy.rect.top <= 0:
			game_started = False
			if grumpy.alive:
				hit_fx.play()
				die_fx.play()
			grumpy.alive = False
			grumpy.theta = grumpy.vel * -2
	
		if grumpy.rect.bottom >= display_height:
			speed = 0
			game_over = True
	
		if len(pipe_group) > 0:
			p = pipe_group.sprites()[0]
			if grumpy.rect.left > p.rect.left and grumpy.rect.right < p.rect.right and not pipe_pass and grumpy.alive:
				pipe_pass = True
	
			if pipe_pass:
				if grumpy.rect.left > p.rect.right:
					pipe_pass = False
					score += 1
					point_fx.play()
					
	if not grumpy.alive:
		win.blit(gameover_img, (50,200))
		
	for event in pygame.event.get():
		if event.type == pygame.QUIT:
			running = False
		if event.type == pygame.KEYDOWN:
			if event.key == pygame.K_ESCAPE or \
				event.key == pygame.K_q:
				running = False
		if event.type == pygame.MOUSEBUTTONDOWN:
			if start_screen:
				game_started = True
				speed = 2
				start_screen = False

				game_over = False
			#	grumpy.reset()
				last_pipe = pygame.time.get_ticks() - pipe_frequency
				next_pipe = 0
				pipe_group.empty()
				
				speed = 2
				score = 0
				
			if game_over:
				start_screen = True
				grumpy = Grumpy(win)
				pipe_img = random.choice(im_list)
				bg = random.choice([bg1, bg2])
				
			

	clock.tick(FPS)
	pygame.display.update()
pygame.quit()

objects.py


import pygame
import random

SCREEN = WIDTH, HEIGHT = 288, 512
display_height = 0.80 * HEIGHT

pygame.mixer.init()
wing_fx = pygame.mixer.Sound('Sounds/wing.wav')

class Grumpy:
	def __init__(self, win):
		self.win = win

		self.im_list = []
		bird_color = random.choice(['red', 'blue', 'yellow'])
		for i in range(1,4):
			img =  pygame.image.load(f'Assets/Grumpy/{bird_color}{i}.png')
			self.im_list.append(img)
		
		self.reset()
		
	def update(self):
		# gravity
		self.vel += 0.3
		if self.vel >= 8:
			self.vel = 8
		if self.rect.bottom <= display_height:
			self.rect.y += int(self.vel)
		
		if self.alive:
			
			# jump
			if pygame.mouse.get_pressed()[0] == 1 and not self.jumped:
				wing_fx.play()
				self.jumped = True
				self.vel = -6
			if pygame.mouse.get_pressed()[0] == 0:
				self.jumped = False
			
			self.flap_counter()
			
			self.image = pygame.transform.rotate(self.im_list[self.index], self.vel * -2)
		else:
			if self.rect.bottom <= display_height:
				self.theta -= 2
			self.image = pygame.transform.rotate(self.im_list[self.index], self.theta)
			
	#	if not alive:
	#		self.image = self.im_list[1]
		
		self.win.blit(self.image, self.rect)
		
	def flap_counter(self):
		#animation
		self.counter += 1
		if self.counter > 5:
			self.counter = 0
			self.index += 1
		if self.index >= 3:
			self.index = 0
			
	def draw_flap(self):
		self.flap_counter()
		if self.flap_pos <= -10 or self.flap_pos > 10:
			self.flap_inc *= -1
		self.flap_pos += self.flap_inc
		self.rect.y += self.flap_inc
		self.rect.x = WIDTH // 2 - 20
		self.image = self.im_list[self.index]
		self.win.blit(self.image, self.rect)
		
	def reset(self):
		self.index = 0
		self.image = self.im_list[self.index]
		self.rect = self.image.get_rect()
		self.rect.x = 60
		self.rect.y = int(display_height) // 2
		self.counter = 0
		self.vel = 0
		self.jumped = False
		self.alive = True
		self.theta = 0
		self.mid_pos = display_height // 2
		self.flap_pos = 0
		self.flap_inc = 1

class Base:
	def __init__(self, win):
		self.win = win

		self.image1 = pygame.image.load('Assets/base.png')
		self.image2 = self.image1
		self.rect1 = self.image1.get_rect()
		self.rect1.x = 0
		self.rect1.y = int(display_height)
		self.rect2 = self.image2.get_rect()
		self.rect2.x = WIDTH
		self.rect2.y = int(display_height)
		
	def update(self, speed):
		self.rect1.x -= speed
		self.rect2.x -= speed
		
		if self.rect1.right <= 0:
			self.rect1.x = WIDTH - 5
		if self.rect2.right <= 0:
			self.rect2.x = WIDTH - 5

		self.win.blit(self.image1, self.rect1)
		self.win.blit(self.image2, self.rect2)


class Pipe(pygame.sprite.Sprite):
	def __init__(self, win, image, y, position):
		super(Pipe, self).__init__()
		
		self.win = win
		self.image = image
		self.rect = self.image.get_rect()
		pipe_gap = 100 // 2
		x = WIDTH

		if position == 1:
			self.image = pygame.transform.flip(self.image, False, True)
			self.rect.bottomleft = (x, y - pipe_gap)
		elif position == -1:
			self.rect.topleft = (x, y + pipe_gap)
		
	def update(self, speed):
		self.rect.x -= speed
		if self.rect.right < 0:
			self.kill()
		self.win.blit(self.image,  self.rect)
		
class Score:
	def __init__(self, x, y, win):
		self.score_list = []
		for score in range(10):
			img = pygame.image.load(f'Assets/Score/{score}.png')
			self.score_list.append(img)
			self.x = x
			self.y = y

		self.win = win
		
	def update(self, score):
		score = str(score)
		for index, num in enumerate(score):
			self.image = self.score_list[int(num)]
			self.rect = self.image.get_rect()
			self.rect.topleft = self.x - 15 * len(score) + 30 * index, self.y
			self.win.blit(self.image, self.rect)import pygame
import random

SCREEN = WIDTH, HEIGHT = 288, 512
display_height = 0.80 * HEIGHT

pygame.mixer.init()
wing_fx = pygame.mixer.Sound('Sounds/wing.wav')

class Grumpy:
	def __init__(self, win):
		self.win = win

		self.im_list = []
		bird_color = random.choice(['red', 'blue', 'yellow'])
		for i in range(1,4):
			img =  pygame.image.load(f'Assets/Grumpy/{bird_color}{i}.png')
			self.im_list.append(img)
		
		self.reset()
		
	def update(self):
		# gravity
		self.vel += 0.3
		if self.vel >= 8:
			self.vel = 8
		if self.rect.bottom <= display_height:
			self.rect.y += int(self.vel)
		
		if self.alive:
			
			# jump
			if pygame.mouse.get_pressed()[0] == 1 and not self.jumped:
				wing_fx.play()
				self.jumped = True
				self.vel = -6
			if pygame.mouse.get_pressed()[0] == 0:
				self.jumped = False
			
			self.flap_counter()
			
			self.image = pygame.transform.rotate(self.im_list[self.index], self.vel * -2)
		else:
			if self.rect.bottom <= display_height:
				self.theta -= 2
			self.image = pygame.transform.rotate(self.im_list[self.index], self.theta)
			
	#	if not alive:
	#		self.image = self.im_list[1]
		
		self.win.blit(self.image, self.rect)
		
	def flap_counter(self):
		#animation
		self.counter += 1
		if self.counter > 5:
			self.counter = 0
			self.index += 1
		if self.index >= 3:
			self.index = 0
			
	def draw_flap(self):
		self.flap_counter()
		if self.flap_pos <= -10 or self.flap_pos > 10:
			self.flap_inc *= -1
		self.flap_pos += self.flap_inc
		self.rect.y += self.flap_inc
		self.rect.x = WIDTH // 2 - 20
		self.image = self.im_list[self.index]
		self.win.blit(self.image, self.rect)
		
	def reset(self):
		self.index = 0
		self.image = self.im_list[self.index]
		self.rect = self.image.get_rect()
		self.rect.x = 60
		self.rect.y = int(display_height) // 2
		self.counter = 0
		self.vel = 0
		self.jumped = False
		self.alive = True
		self.theta = 0
		self.mid_pos = display_height // 2
		self.flap_pos = 0
		self.flap_inc = 1

class Base:
	def __init__(self, win):
		self.win = win

		self.image1 = pygame.image.load('Assets/base.png')
		self.image2 = self.image1
		self.rect1 = self.image1.get_rect()
		self.rect1.x = 0
		self.rect1.y = int(display_height)
		self.rect2 = self.image2.get_rect()
		self.rect2.x = WIDTH
		self.rect2.y = int(display_height)
		
	def update(self, speed):
		self.rect1.x -= speed
		self.rect2.x -= speed
		
		if self.rect1.right <= 0:
			self.rect1.x = WIDTH - 5
		if self.rect2.right <= 0:
			self.rect2.x = WIDTH - 5

		self.win.blit(self.image1, self.rect1)
		self.win.blit(self.image2, self.rect2)


class Pipe(pygame.sprite.Sprite):
	def __init__(self, win, image, y, position):
		super(Pipe, self).__init__()
		
		self.win = win
		self.image = image
		self.rect = self.image.get_rect()
		pipe_gap = 100 // 2
		x = WIDTH

		if position == 1:
			self.image = pygame.transform.flip(self.image, False, True)
			self.rect.bottomleft = (x, y - pipe_gap)
		elif position == -1:
			self.rect.topleft = (x, y + pipe_gap)
		
	def update(self, speed):
		self.rect.x -= speed
		if self.rect.right < 0:
			self.kill()
		self.win.blit(self.image,  self.rect)
		
class Score:
	def __init__(self, x, y, win):
		self.score_list = []
		for score in range(10):
			img = pygame.image.load(f'Assets/Score/{score}.png')
			self.score_list.append(img)
			self.x = x
			self.y = y

		self.win = win
		
	def update(self, score):
		score = str(score)
		for index, num in enumerate(score):
			self.image = self.score_list[int(num)]
			self.rect = self.image.get_rect()
			self.rect.topleft = self.x - 15 * len(score) + 30 * index, self.y
			self.win.blit(self.image, self.rect)

Output:-

Output

Download Source Code and All Files from here👇

Steps to run code:-

1) Download the zip file from the download button.

2)Make a folder in your storage.

3)Extract zip file in the folder.

4)Open Pydroid3 and then open.py files.

5)Run the code and Enjoy your Game😃

Note:- Please help me to grow my Youtube Channel called "Vast Coding"

One Plus 1+ Logo using Python Turtle Graphics | Python Project | Vast Coding

2021-10-05T00:44:00.010-07:00

One Plus Logo using Python Turtle Programming | Simple Python Project | Vast Coding

Source Code Credit:- SUBHANKER CODES 👈(Click to redirect on his YouTube Channel)

Here is the Source Code:-


import turtle as t
t.speed(3)
t.bgcolor('black')
t.up()
t.pencolor('red')
t.fillcolor('red')
t.setpos(200,20)
t.rt(90)
t.down()
t.begin_fill()
t.fd(300)
t.rt(90)
t.fd(500)
t.rt(90)
t.fd(500)
t.rt(90)
t.fd(300)
t.rt(90)
t.fd(40)
t.rt(90)
t.fd(260)
t.lt(90)
t.fd(420)
t.lt(90)
t.fd(420)
t.lt(90)
t.fd(260)
t.rt(90)
t.fd(40)
t.lt(90)
t.end_fill()
t.up()
t.fd(60)
t.down()
t.begin_fill()
t.fd(100)
t.rt(90)
t.fd(100)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(100)
t.rt(90)
t.fd(100)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(100)
t.rt(90)
t.fd(100)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(100)
t.rt(90)
t.fd(100)
t.lt(90)
t.fd(40)
t.end_fill()
t.up()
t.rt(180)
t.fd(250)
t.down()
t.begin_fill()
t.fd(80)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(50)
t.rt(90)
t.fd(160)
t.rt(90)
t.fd(50)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(140)
t.lt(90)
t.fd(40)
t.lt(90)
t.fd(50)
t.rt(90)
t.fd(200)
t.lt(90)
t.fd(10)
t.end_fill()
t.ht()
t.done()

Output:-

Output

Note:- Please help me to grow my Youtube Channel called "Vast Coding"

Netflix Logo using Python Turtle Programming | Simple Python Project | Vast Coding

2021-10-03T07:50:00.005-07:00

Netflix Logo using Python Turtle Programming | Simple Python Project | Vast Coding

Here is the Source Code:-

import turtle
t = turtle.Turtle()
t.speed(10)
turtle.bgcolor("white")
t.color("white")
t.up()
t.goto(-80,50)
t.down()
t.fillcolor("black")
t.begin_fill()
t.forward(200)
t.setheading(270)
s = 360
for i in range(9):
    s = s - 10
    t.setheading(s)
    t.forward(10)

    
t.forward(180)
s = 270
for i in range(9):
    s = s - 10
    t.setheading(s)
    t.forward(10)

t.forward(200)
s = 180
for i in range(9):
    s = s - 10
    t.setheading(s)
    t.forward(10)

t.forward(180)
s = 90
for i in range(9):
    s = s - 10
    t.setheading(s)
    t.forward(10)
t.forward(30)    
t.end_fill()
t.up()
t.color("black")
t.setheading(270)
t.forward(240)
t.setheading(0)
t.down()
t.color("red")
t.fillcolor("#E50914")
t.begin_fill()
t.forward(30)
t.setheading(90)
t.forward(180)
t.setheading(180)
t.forward(30)
t.setheading(270)
t.forward(180)
t.end_fill()
t.setheading(0)
t.up()
t.forward(75)
t.down()
t.color("red")
t.fillcolor("#E50914")
t.begin_fill()
t.forward(30)
t.setheading(90)
t.forward(180)
t.setheading(180)
t.forward(30)
t.setheading(270)
t.forward(180)
t.end_fill()
t.color("red")
t.fillcolor("red")
t.begin_fill()
t.setheading(113)
t.forward(195)
t.setheading(0)
t.forward(31)
t.setheading(293)
t.forward(196)
t.end_fill()
t.hideturtle()
turtle.done()

Output:-

Output

Note:- Please help me to grow my Channel Called "Vast Coding"

Python Logo by Python Turtle Graphics | Simple Python Project | Simple Python Turtle Programming

2021-10-02T06:17:00.007-07:00

Python Logo by Python Turtle Graphics | Simple Python Project | Vast Coding

Here is the Source Code:-

import turtle

t = turtle.Turtle()

s = turtle.Screen()

s.bgcolor("black")

t.speed(0)

t.pensize(2)

t.pencolor("white")

def s_curve():

for i in range(90):

t.left(1)

t.forward(1)

def r_curve():

for i in range(90):

t.right(1)

t.forward(1)

def l_curve():

s_curve()

t.forward(80)

s_curve()

def l_curve1():

s_curve()

t.forward(90)

s_curve()

def half():

t.forward(50)

s_curve()

t.forward(90)

l_curve()

t.forward(40)

t.left(90)

t.forward(80)

t.right(90)

t.forward(10)

t.right(90)

t.forward(120) #on test

l_curve1()

t.forward(30)

t.left(90)

t.forward(50)

r_curve()

t.forward(40)

t.end_fill()

def get_pos():

t.penup()

t.forward(20)

t.right(90)

t.forward(10)

t.right(90)

t.pendown()

def eye():

t.penup()

t.right(90)

t.forward(160)

t.left(90)

t.forward(70)

t.pencolor("black")

t.dot(35)

def sec_dot():

t.left(90)

t.penup()

t.forward(310)

t.left(90)

t.forward(120)

t.pendown()

t.dot(35)

t.fillcolor("#306998")

t.begin_fill()

half()

t.end_fill()

get_pos()

t.fillcolor("#FFD43B")

t.begin_fill()

half()

t.end_fill()

eye()

sec_dot()

def pause():

t.speed(2)

for i in range(100):

t.left(90)

pause()

Output:-

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

Akemi Homura(Anime Character) Drawing using Python Turtle Programming | Simple Python Turtle Graphics | Vast Coding

2021-09-30T07:51:00.004-07:00

Akemi Homura(Anime Character) Drawing using Python Turtle Programming | Simple Python Turtle Graphics | Vast Coding

Here is the Source Code:-

Wait at least 30seconds after running this code,it will draw anime character after 30seconds automatically.

import turtle as te

import time

WriteStep = 15 # Sampling times of Bessel function

Speed = 5

Width = 600 # Interface width

Height = 500 # Interface height

Xh = 0 # Record the handle of the previous Bessel function

Yh = 0

def Bezier(p1, p2, t): # First order Bessel function

return p1 * (1 - t) + p2 * t

def Bezier_2(x1, y1, x2, y2, x3, y3): # Second-order Bessel function

te.goto(x1, y1)

te.pendown()

for t in range(0, WriteStep + 1):

x = Bezier(Bezier(x1, x2, t / WriteStep),

Bezier(x2, x3, t / WriteStep), t / WriteStep)

y = Bezier(Bezier(y1, y2, t / WriteStep),

Bezier(y2, y3, t / WriteStep), t / WriteStep)

te.goto(x, y)

te.penup()

def Bezier_3(x1, y1, x2, y2, x3, y3, x4, y4): # Third-order Bessel function

x1 = -Width / 2 + x1

y1 = Height / 2 - y1

x2 = -Width / 2 + x2

y2 = Height / 2 - y2

x3 = -Width / 2 + x3

y3 = Height / 2 - y3

x4 = -Width / 2 + x4

y4 = Height / 2 - y4 # Coordinate transformation

te.goto(x1, y1)

te.pendown()

for t in range(0, WriteStep + 1):

x = Bezier(Bezier(Bezier(x1, x2, t / WriteStep), Bezier(x2, x3, t / WriteStep), t / WriteStep),

Bezier(Bezier(x2, x3, t / WriteStep), Bezier(x3, x4, t / WriteStep), t / WriteStep), t / WriteStep)

y = Bezier(Bezier(Bezier(y1, y2, t / WriteStep), Bezier(y2, y3, t / WriteStep), t / WriteStep),

Bezier(Bezier(y2, y3, t / WriteStep), Bezier(y3, y4, t / WriteStep), t / WriteStep), t / WriteStep)

te.goto(x, y)

te.penup()

def Moveto(x, y): # Move to svg coordinates (x, y)

te.penup()

te.goto(-Width / 2 + x, Height / 2 - y)

def line(x1, y1, x2, y2): # Connect two points under svg coordinates

te.penup()

te.goto(-Width / 2 + x1, Height / 2 - y1)

te.pendown()

te.goto(-Width / 2 + x2, Height / 2 - y2)

te.penup()

def lineto(dx, dy): # Connect the current point and the point with relative coordinates (dx, dy)

te.pendown()

te.goto(te.xcor() + dx, te.ycor() - dy)

te.penup()

def Lineto(x, y): # Connect the current point and svg coordinates (x, y)

te.pendown()

te.goto(-Width / 2 + x, Height / 2 - y)

te.penup()

def Horizontal(x): # Make the horizontal line with the abscissa x in the svg coordinates

te.pendown()

te.setx(x - Width / 2)

te.penup()

def horizontal(dx): # Make the horizontal line with relative abscissa dx

te.seth(0)

te.pendown()

te.fd(dx)

te.penup()

def vertical(dy): # Make the vertical line with the relative ordinate dy

te.seth(-90)

te.pendown()

te.fd(dy)

te.penup()

te.seth(0)

def polyline(x1, y1, x2, y2, x3, y3): # Make a polyline under svg coordinates

te.penup()

te.goto(-Width / 2 + x1, Height / 2 - y1)

te.pendown()

te.goto(-Width / 2 + x2, Height / 2 - y2)

te.goto(-Width / 2 + x3, Height / 2 - y3)

te.penup()

def Curveto(x1, y1, x2, y2, x, y): # Third-order Bezier curve to (x, y)

te.penup()

X_now = te.xcor() + Width / 2

Y_now = Height / 2 - te.ycor()

Bezier_3(X_now, Y_now, x1, y1, x2, y2, x, y)

global Xh

global Yh

Xh = x - x2

Yh = y - y2

def curveto_r(x1, y1, x2, y2, x, y): # Third-order Bezier curve to relative coordinates (x, y)

te.penup()

X_now = te.xcor() + Width / 2

Y_now = Height / 2 - te.ycor()

Bezier_3(X_now, Y_now, X_now + x1, Y_now + y1,

X_now + x2, Y_now + y2, X_now + x, Y_now + y)

global Xh

global Yh

Xh = x - x2

Yh = y - y2

def Smooth(x2, y2, x, y): # Smooth the third-order Bezier curve to (x, y)

global Xh

global Yh

te.penup()

X_now = te.xcor() + Width / 2

Y_now = Height / 2 - te.ycor()

Bezier_3(X_now, Y_now, X_now + Xh, Y_now + Yh, x2, y2, x, y)

Xh = x - x2

Yh = y - y2

def smooth_r(x2, y2, x, y): # Smooth the third-order Bezier curve to relative coordinates (x, y)

global Xh

global Yh

te.penup()

X_now = te.xcor() + Width / 2

Y_now = Height / 2 - te.ycor()

Bezier_3(X_now, Y_now, X_now + Xh, Y_now + Yh,

X_now + x2, Y_now + y2, X_now + x, Y_now + y)

Xh = x - x2

Yh = y - y2

te.tracer(10)

te.setup(Width, Height, 0, 0)

te.pensize(1)

te.speed(Speed)

te.penup()

# Layer_2

time.sleep(20)

te.color("black", "#F2F2F2") # Coat

Moveto(61, 462)

te.begin_fill()

smooth_r(12, -41, 27, -58)

curveto_r(-6, -36, 6, -118, 9, -132)

curveto_r(-15, -27, -23, -51, -26, -74)

curveto_r(4, -66, 38, -105, 65, -149)

Horizontal(486)

curveto_r(12, 24, 40, 99, 33, 114)

curveto_r(39, 82, 55, 129, 39, 144)

smooth_r(-31, 23, -39, 28)

smooth_r(-12, 37, -12, 37)

lineto(50, 92)

Horizontal(445)

smooth_r(-29, -38, -31, -46)

smooth_r(78, -107, 72, -119)

Smooth(355, 178, 340, 176)

Smooth(272, 63, 264, 64)

smooth_r(-29, 67, -27, 73)

Curveto(99, 292, 174, 428, 173, 439)

smooth_r(-8, 23, -8, 23)

Lineto(61, 462)

te.end_fill()

Moveto(60.5, 461.5) # Shadow

te.color("black", "#D3DFF0")

te.begin_fill()

curveto_r(0, 0, 17, -42, 27, -59)

curveto_r(-6, -33, 6, -128, 10, -133)

curveto_r(-15, -10, -27, -66, -27.285, -75)

te.pencolor("#D3DFF0")

curveto_r(12.285, 11, 82.963, 156, 82.963, 156)

te.pencolor("black")

smooth_r(12.322, 75, 19.322, 86)

curveto_r(-1, 11, -8, 25, -8, 25)

Horizontal(60.5)

te.end_fill()

Moveto(444.5, 464)

te.begin_fill()

curveto_r(0, 0, -29, -36, -31, -46)

smooth_r(53.59, -82.337, 53.59, -82.337)

te.pencolor("#D3DFF0")

smooth_r(86.41, -47.663, 96.072, -54.85)

Curveto(563.5, 297.5, 570.5, 299.5, 518.5, 334)

te.pencolor("black")

curveto_r(-2, 16, -12, 33, -12, 37)

smooth_r(50, 92, 50, 93)

Horizontal(444.5)

te.end_fill()

Moveto(195, 49)

te.begin_fill()

te.pencolor("#D3DFF0")

polyline(195, 49, 175.5, 106.5, 202.522, 49)

te.pencolor("black")

Horizontal(195)

te.pencolor("#D3DFF0")

te.end_fill()

Moveto(327.997, 49)

te.begin_fill()

te.pencolor("#D3DFF0")

curveto_r(0, 0, 11.503, 121.087, 13.503, 128.087)

curveto_r(11, 2, 54, 37, 54, 37)

lineto(-40, -165.087)

te.pencolor("black")

Horizontal(327.997)

te.pencolor("#D3DFF0")

te.end_fill()

te.pencolor("black")

line(94.5, 397.5, 107.5, 373.5) # Wrinkles

line(122.5, 317.5, 95.875, 274.699)

line(122.5, 341.5, 141.5, 402.5)

line(141.5, 409.5, 153.5, 431.5)

# line(328,47.712,344,175.977)

line(340.023, 49, 360.5, 144)

# line(353.5,47.5,395.5,208.5)

line(478.5, 95.5, 518.5, 161.5)

line(518.5, 332.5, 460.5, 359.5)

polyline(506.5, 369.5, 493.5, 402.5, 502.5, 443.5)

Moveto(530, 429)

curveto_r(4, 16, -5, 33, -5, 33)

# Layer_3

te.color("black", "#2b1d2a") # Inside the jacket

Moveto(225, 462)

te.begin_fill()

Horizontal(165)

smooth_r(9, -15, 8, -25)

curveto_r(-47, -126, 6, -212, 12, -225)

Curveto(185, 305, 202, 428, 225, 462)

Lineto(225, 462)

te.end_fill()

Moveto(390, 462)

te.begin_fill()

curveto_r(10, -23, 34, -180, 35, -222) # !!!227

curveto_r(7, 4, 54, 45, 61, 61) # 61

smooth_r(-73, 101, -72, 118)

curveto_r(5, 15, 31, 46, 31, 45)

Lineto(390, 462)

te.end_fill()

# Layer_4

te.color("black", "#2b1d29") # Inside the jacket

Moveto(225, 462)

te.begin_fill()

curveto_r(-28, -50, -40, -166, -40, -250)

curveto_r(6, 51, -6, 87, 45, 106)

smooth_r(64, 27, 89, 24)

smooth_r(49, -18, 56, -20)

smooth_r(50, -10, 51, -85)

curveto_r(0, 29, -25, 201, -36, 225)

Lineto(225, 462)

te.end_fill()

# Layer_5

te.color("black", "#3D3D3D") # Clothes

Moveto(225, 462)

te.begin_fill()

curveto_r(-5, -5, -22, -53, -23, -70)

lineto(32, -13)

curveto_r(3, -25, 6, -28, 12, -36)

smooth_r(13, -12, 16, -12)

vertical(-2)

curveto_r(45, 20, 64, 14, 94, 1)

vertical(2)

curveto_r(8, -2, 15, 2, 17, 4)

smooth_r(0, 6, -2, 9)

curveto_r(10, 10, 10, 29, 11, 33)

smooth_r(23, 4, 25, 6)

smooth_r(-17, 83, -17, 78)

Lineto(225, 462)

te.end_fill()

# Layer_6

te.color("black", "#968281") # Neck

Moveto(262, 329)

te.begin_fill()

vertical(17)

curveto_r(1, 2, 44, 14, 45, 15)

smooth_r(3, 12, 3, 12)

horizontal(3)

vertical(-5)

curveto_r(1, -3, 4, -6, 5, -7)

lineto(36, -14)

curveto_r(1, -1, 3, -16, 2, -17)

Curveto(318, 348, 296, 344, 262, 329)

te.end_fill()

# Layer_8

te.color("black", "#E7F1FF") # White folds

Moveto(225, 462)

te.begin_fill()

lineto(-3, -5) # -3,-3,-3,-5

curveto_r(0, -2, 4, -4, 5, -6)

smooth_r(16, 3, 19, -8)

smooth_r(0, -7, 0, -11)

smooth_r(5, -8, 9, -5)

smooth_r(19, -8, 19, -11)

smooth_r(6, -7, 6, -7)

smooth_r(7, -2, 9, -4)

lineto(41, -2)

lineto(12, 9)

smooth_r(3, 15, 7, 18)

smooth_r(15, 4, 17, 4)

smooth_r(4, -4, 6, -4)

smooth_r(6, 4, 5, 9)

smooth_r(0, 9, 0, 9)

smooth_r(1, 7, 7, 6)

smooth_r(8, 0, 8, 0)

lineto(-2, 8)

Lineto(225, 462)

te.end_fill()

te.pensize(2)

Moveto(240, 450)

smooth_r(0, 9, 3, 12)

Moveto(372, 462)

curveto_r(-2, -4, -5, -29, -7, -28)

te.pensize(1)

# Layer_7

te.color("black", "#A2B8D6") # Collar

Moveto(262, 331)

te.begin_fill()

curveto_r(0, 8, -1, 13, 0, 15)

smooth_r(43, 14, 45, 15)

lineto(3, 12)

horizontal(3)

smooth_r(-1, -3, 0, -5)

lineto(5, -7)

lineto(36, -14)

curveto_r(1, -1, 2, -12, 2, -15)

smooth_r(25, -2, 15, 13)

curveto_r(-2, 4, -7, 29, -7, 32)

smooth_r(-35, 19, -41, 22)

smooth_r(-9, 14, -12, 14)

smooth_r(-7, -12, -14, -15)

curveto_r(-19, -2, -41, -25, -41, -25)

smooth_r(-10, -26, -10, -30)

Smooth(255, 332, 262, 331)

te.end_fill()

Moveto(262, 346)

lineto(-12, -6)

Moveto(369, 333)

curveto_r(2, 4, -6, 10, -15, 14)

# Layer_9

te.color("black", "#151515") # Tie

Moveto(247, 358)

te.begin_fill()

curveto_r(-5, 3, -8, 20, -6, 23)

curveto_r(25, 21, 50, 17, 50, 17)

lineto(-23, 64)

horizontal(22)

smooth_r(1, -13, 2, -16)

lineto(13, -50)

curveto_r(2, 2, 7, 3, 10, 1)

smooth_r(18, 65, 18, 65)

horizontal(19)

lineto(-24, -65)

curveto_r(21, 5, 39, -10, 44, -13)

curveto_r(5, -20, 1, -21, 0, -24)

curveto_r(-18, -2, -49, 15, -52, 17)

smooth_r(-11, -3, -15, -1)

Smooth(252, 356, 247, 358)

te.end_fill()

# Layer_10

te.color("black", "#A2B8D6") # Collar (through bow tie)

Moveto(297, 387)

te.begin_fill()

lineto(-11, 6)

curveto_r(-1, 0, -20, -7, -30, -19)

Curveto(259, 373, 297, 385, 297, 387)

te.end_fill()

Moveto(323, 384)

te.begin_fill()

lineto(8, 7)

lineto(30, -14)

curveto_r(1, -1, 5, -6, 4, -7)

Smooth(329, 379, 323, 384)

te.end_fill()

# Layer_11

te.color("black", "#F3EEEB") # Face

Moveto(185, 212)

te.begin_fill()

curveto_r(4, -9, 46, -77, 52, -75)

curveto_r(-2, -17, 19, -68, 27, -73)

curveto_r(16, 15, 71, 108, 76, 112)

smooth_r(76, 53, 86, 60)

curveto_r(0, 65, -27, 75, -31, 76)

curveto_r(-50, 28, -70, 30, -85, 30)

smooth_r(-77, -22, -86, -26)

Curveto(180, 302, 186, 228, 185, 212)

te.end_fill()

# Layer_12

te.color("black", "#2B1D29") # Hair

Moveto(189, 202)

te.begin_fill()

curveto_r(-1, 22, 19, 51, 19, 51)

smooth_r(-10, -42, 7, -92)

Curveto(212, 168, 196, 189, 189, 202)

te.end_fill()

Moveto(221, 155)

te.begin_fill()

curveto_r(-2, 6, 5, 48, 5, 48)

smooth_r(18, -28, 20, -48)

curveto_r(-5, 24, 4, 43, 7, 50)

curveto_r(-10, -49, 3, -72, 13, -106)

curveto_r(-2, -7, -3, -32, -3, -35)

curveto_r(-17, 18, -27, 71, -27, 71)

Lineto(221, 155)

te.end_fill()

Moveto(264, 64)

te.begin_fill()

curveto_r(-4, 5, 14, 100, 14, 100)

smooth_r(-6, -79, -5, -85)

curveto_r(0, 98, 49, 139, 49, 139)

smooth_r(8, -50, 3, -65)

Smooth(272, 64, 264, 64)

te.end_fill()

Moveto(342, 176)

te.begin_fill()

curveto_r(-1, 27, -10, 57, -10, 57)

smooth_r(20, -33, 17, -54)

Lineto(342, 176)

te.end_fill()

te.penup()

te.begin_fill()

polyline(349, 180, 353, 203, 361, 203)

polyline(361, 203, 362, 188, 349, 180)

te.end_fill()

# Layer_13

te.pensize(2)

Moveto(210, 180) # Eyebrows

curveto_r(5, -4, 63, 9, 63, 14)

Moveto(338, 193)

curveto_r(0, -3, 18, -6, 18, -6)

te.pensize(1)

# Layer_14

te.color("black", "#D1D1D1") # Eye 1

te.pensize(2)

Moveto(206, 212)

te.begin_fill()

lineto(15, -7)

curveto_r(4, -1, 26, -2, 30, 0)

smooth_r(10, 3, 12, 7)

te.pencolor("#D1D1D1")

te.pensize(1)

smooth_r(2, 27, -1, 30)

smooth_r(-39, 5, -44, 1)

Smooth(206, 212, 206, 212)

te.end_fill()

Moveto(384, 204)

te.begin_fill()

te.pencolor("black")

te.pensize(2)

curveto_r(-3, -1, -18, -1, -28, 1)

smooth_r(-9, 6, -10, 9)

te.pencolor("#D1D1D1")

te.pensize(1)

smooth_r(3, 18, 6, 23)

smooth_r(38, 6, 40, 4)

smooth_r(10, -9, 13, -22)

te.pencolor("black")

te.pensize(2)

Lineto(384, 204)

te.end_fill()

# Layer_15

te.color("#0C1631", "#0C1631") # Eye 2

te.pensize(1)

Moveto(216, 206)

te.begin_fill()

curveto_r(-1, 5, 0, 26, 7, 35)

smooth_r(30, 2, 33, 0)

smooth_r(5, -31, 2, -34)

Smooth(219, 203, 216, 206)

te.end_fill()

Moveto(354, 207)

te.begin_fill()

curveto_r(-2, 1, 2, 29, 4, 31)

smooth_r(30, 3, 33, 1)

smooth_r(6, -24, 4, -27)

lineto(-11, -8)

Curveto(382, 204, 357, 206, 354, 207)

te.end_fill()

# Layer_17

te.color("#F5F5F5", "#F5F5F5") # Eye 3

Moveto(253, 211)

te.begin_fill()

curveto_r(-3, 0, -8, 8, 1, 10)

Smooth(258, 210, 253, 211)

te.end_fill()

Moveto(392, 209)

te.begin_fill()

lineto(4, 3)

vertical(4)

lineto(-4, 2)

Curveto(386, 214, 392, 209, 392, 209)

te.end_fill()

# Layer_18

te.color("#352F53", "#352F53") # Eye 4

Moveto(219, 229)

te.begin_fill()

smooth_r(2, -5, 6, -4)

smooth_r(18, 13, 27, 1)

curveto_r(3, 0, 5, 3, 5, 3)

vertical(13)

Horizontal(224)

Lineto(219, 229)

te.end_fill()

Moveto(357, 227)

te.begin_fill()

smooth_r(4, -6, 10, -2)

smooth_r(10, 13, 19, 1)

curveto_r(6, 0, 8, 6, 8, 6)

lineto(-2, 9)

curveto_r(-12, 3, -29, 0, -32, -2)

Smooth(357, 227, 357, 227)

te.end_fill()

# Layer_19

te.color("#9A90CB", "#9A90CB") # Eye 5

Moveto(227, 231)

te.begin_fill()

curveto_r(-6, 0, -5, 5, -3, 8)

smooth_r(24, 2, 27, 0)

smooth_r(0, -8, -1, -8)

Smooth(234, 231, 227, 231)

te.end_fill()

Moveto(361, 227)

te.begin_fill()

curveto_r(2, 18, 26, 14, 30, 6)

smooth_r(-1, -3, -2, -4)

smooth_r(-15, 9, -24, -4)

Curveto(363, 224, 361, 225, 361, 227)

te.end_fill()

# Layer_16

te.pencolor("black") # Eyes (lines)

te.pensize(3)

# Moveto(206,213)

# lineto(14,-8)

# curveto_r(3,-1,30,0,33,1)

# lineto(10,6)

Moveto(225, 215)

curveto_r(10, 28, 22, 16, 24, 6)

Moveto(365, 219)

curveto_r(4, 14, 18, 24, 22, -3)

te.pensize(2)

line(240.5, 207.5, 227.5, 211.5)

line(245.5, 209.5, 227.5, 214.5)

line(247.5, 211.5, 227.5, 217.5)

line(247.5, 214.5, 229.5, 220.5)

line(247.5, 218.5, 230.5, 223.5)

line(246.5, 222.5, 232.5, 226.5)

line(244.5, 225.5, 234.5, 228.5)

line(377.5, 207.5, 367.5, 210.5)

line(384.5, 207.5, 366.5, 212.5)

line(385.5, 210.5, 366.5, 215.5)

line(384.5, 213.5, 366.5, 218.5)

line(384.5, 215.5, 367.5, 220.5)

line(384.5, 218.5, 368.5, 223.5)

# line(383.5,220.5,368.5,225.5)

line(382.5, 223.5, 370.5, 227.5)

# line(381.5,226.5,373.5,229.5)

# Layer_20

te.pencolor("black")

Moveto(309, 270) # Nose, mouth

curveto_r(0, 0, 4, 7, 1, 9)

line(296.5, 307.5, 303.5, 307.5)

Moveto(315, 307)

smooth_r(10, -1, 10, 2)

te.penup()

te.hideturtle()

te.update()

te.done()

Output:-

Output

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

Make a Robot using Python | Simple Python Turtle Graphics | Vast Coding

2021-09-24T07:29:00.001-07:00

Make a Robot using Python | Simple Python Turtle Graphics | Vast Coding

Here is the Source Code:-

import turtle as t

def rectangle(horizontal, vertical, color):

t.pendown()

t.pensize(1)

t.color(color)

t.begin_fill()

for counter in range(1, 3):

t.forward(horizontal)

t.right(90)

t.forward(vertical)

t.right(90)

t.end_fill()

t.penup()

t.speed('slow')

t.bgcolor('black')

# feet

t.goto(-100, -150)

rectangle(50, 20, 'blue')

t.goto(-30, -150)

rectangle(50, 20, 'blue')

# legs

t.goto(-25, -50)

rectangle(15, 100, 'yellow')

t.goto(-55, -50)

rectangle(-15, 100, 'yellow')

# body

t.goto(-90, 100)

rectangle(100, 150, 'red')

# arms

t.goto(-150, 70)

rectangle(60, 15, 'yellow')

t.goto(-150, 110)

rectangle(15, 40, 'yellow')

t.goto(10, 70)

rectangle(60, 15, 'yellow')

t.goto(55, 110)

rectangle(15, 40, 'yellow')

# neck

t.goto(-50, 120)

rectangle(15, 20, 'yellow')

# head

t.goto(-85, 170)

rectangle(80, 50, 'red')

# eyes

t.goto(-60, 160)

rectangle(30, 10, 'white')

t.goto(-55, 155)

rectangle(5, 5, 'black')

t.goto(-40, 155)

rectangle(5, 5, 'black')

t.done()

Output:-

Output

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

Snake Game | Simple Snake Game written in Python using the PyGame Library.

2021-09-19T10:34:00.001-07:00

Snake Game | Simple Snake Game written in Python using the PyGame Library. Vast Coding

Here is the Source Code:-

"""

Snake Eater

Made with PyGame

"""

import pygame, sys, time, random

# Difficulty settings

# Easy -> 10

# Medium -> 25

# Hard -> 40

# Harder -> 60

# Impossible-> 120

difficulty = 25

# Window size

frame_size_x = 720

frame_size_y = 480

# Checks for errors encountered

check_errors = pygame.init()

# pygame.init() example output -> (6, 0)

# second number in tuple gives number of errors

if check_errors[1] > 0:

print(f'[!] Had {check_errors[1]} errors when initialising game, exiting...')

sys.exit(-1)

else:

print('[+] Game successfully initialised')

# Initialise game window

pygame.display.set_caption('Snake Eater')

game_window = pygame.display.set_mode((frame_size_x, frame_size_y))

# Colors (R, G, B)

black = pygame.Color(0, 0, 0)

white = pygame.Color(255, 255, 255)

red = pygame.Color(255, 0, 0)

green = pygame.Color(0, 255, 0)

blue = pygame.Color(0, 0, 255)

# FPS (frames per second) controller

fps_controller = pygame.time.Clock()

# Game variables

snake_pos = [100, 50]

snake_body = [[100, 50], [100-10, 50], [100-(2*10), 50]]

food_pos = [random.randrange(1, (frame_size_x//10)) * 10, random.randrange(1, (frame_size_y//10)) * 10]

food_spawn = True

direction = 'RIGHT'

change_to = direction

score = 0

# Game Over

def game_over():

my_font = pygame.font.SysFont('times new roman', 90)

game_over_surface = my_font.render('YOU DIED', True, red)

game_over_rect = game_over_surface.get_rect()

game_over_rect.midtop = (frame_size_x/2, frame_size_y/4)

game_window.fill(black)

game_window.blit(game_over_surface, game_over_rect)

show_score(0, red, 'times', 20)

pygame.display.flip()

time.sleep(3)

pygame.quit()

sys.exit()

# Score

def show_score(choice, color, font, size):

score_font = pygame.font.SysFont(font, size)

score_surface = score_font.render('Score : ' + str(score), True, color)

score_rect = score_surface.get_rect()

if choice == 1:

score_rect.midtop = (frame_size_x/10, 15)

else:

score_rect.midtop = (frame_size_x/2, frame_size_y/1.25)

game_window.blit(score_surface, score_rect)

# pygame.display.flip()

# Main logic

while True:

for event in pygame.event.get():

if event.type == pygame.QUIT:

pygame.quit()

sys.exit()

# Whenever a key is pressed down

elif event.type == pygame.KEYDOWN:

# W -> Up; S -> Down; A -> Left; D -> Right

if event.key == pygame.K_UP or event.key == ord('w'):

change_to = 'UP'

if event.key == pygame.K_DOWN or event.key == ord('s'):

change_to = 'DOWN'

if event.key == pygame.K_LEFT or event.key == ord('a'):

change_to = 'LEFT'

if event.key == pygame.K_RIGHT or event.key == ord('d'):

change_to = 'RIGHT'

# Esc -> Create event to quit the game

if event.key == pygame.K_ESCAPE:

pygame.event.post(pygame.event.Event(pygame.QUIT))

# Making sure the snake cannot move in the opposite direction instantaneously

if change_to == 'UP' and direction != 'DOWN':

direction = 'UP'

if change_to == 'DOWN' and direction != 'UP':

direction = 'DOWN'

if change_to == 'LEFT' and direction != 'RIGHT':

direction = 'LEFT'

if change_to == 'RIGHT' and direction != 'LEFT':

direction = 'RIGHT'

# Moving the snake

if direction == 'UP':

snake_pos[1] -= 10

if direction == 'DOWN':

snake_pos[1] += 10

if direction == 'LEFT':

snake_pos[0] -= 10

if direction == 'RIGHT':

snake_pos[0] += 10

# Snake body growing mechanism

snake_body.insert(0, list(snake_pos))

if snake_pos[0] == food_pos[0] and snake_pos[1] == food_pos[1]:

score += 1

food_spawn = False

else:

snake_body.pop()

# Spawning food on the screen

if not food_spawn:

food_pos = [random.randrange(1, (frame_size_x//10)) * 10, random.randrange(1, (frame_size_y//10)) * 10]

food_spawn = True

# GFX

game_window.fill(black)

for pos in snake_body:

# Snake body

# .draw.rect(play_surface, color, xy-coordinate)

# xy-coordinate -> .Rect(x, y, size_x, size_y)

pygame.draw.rect(game_window, green, pygame.Rect(pos[0], pos[1], 10, 10))

# Snake food

pygame.draw.rect(game_window, white, pygame.Rect(food_pos[0], food_pos[1], 10, 10))

# Game Over conditions

# Getting out of bounds

if snake_pos[0] < 0 or snake_pos[0] > frame_size_x-10:

game_over()

if snake_pos[1] < 0 or snake_pos[1] > frame_size_y-10:

game_over()

# Touching the snake body

for block in snake_body[1:]:

if snake_pos[0] == block[0] and snake_pos[1] == block[1]:

game_over()

show_score(1, white, 'consolas', 20)

# Refresh game screen

pygame.display.update()

# Refresh rate

fps_controller.tick(difficulty)

Output:-

Output

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

Wish Good Night using Python | Python Turtle | Simple Python Project

2021-09-17T04:05:00.000-07:00

Wish Good Night using Python|Python Turtle|Simple Python Project| Vast Coding

Here is the Source Code:-

import turtle

import random

# window setup

win = turtle.Screen()

win.setup(width=800,height=600)

win.bgcolor('black')

colors = ['red','blue','orange','yellow','magenta','purple','peru','ivory','dark orange']

# Turtle objects

moon = turtle.Turtle()

moon.hideturtle()

star = turtle.Turtle()

star.speed(0)

star.hideturtle()

text = turtle.Turtle()

text.speed(6)

text.hideturtle()

# Functions

def draw_moon(pos,color):

x,y = pos

moon.color(color)

moon.begin_fill()

moon.penup()

moon.goto(x,y)

moon.pendown()

moon.circle(50)

moon.end_fill()

def stars(x,y,color,length):

star.color(color)

star.penup()

star.goto(x,y)

star.pendown()

star.begin_fill()

for i in range(5):

star.forward(length)

star.right(144)

star.forward(length)

star.end_fill()

def random_pos():

return random.randint(-390,390), random.randint(-200,290)

def random_length():

return random.randint(5,25)

def write_text(color):

text.color(color)

text.penup()

text.goto(-180,-270)

text.pendown()

style = ('Stencil Std Bold',20,'normal')

text.write('Good Night',font=style,move=True)

# Main program

draw_moon((-300,170),'white')

draw_moon((-278,183),'black')

while True:

color = random.choice(colors)

x ,y = random_pos()

length = random_length()

stars(x,y,color,length)

write_text(color)

# moon.clear()

turtle.done()

Output:-

Output

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

3D Design using Python Turtle Graphics | Simple Python Project | Python Turtle

2021-09-13T11:27:00.002-07:00

Beautiful design using Python Turtle Graphics | Simple Python Project | Python Turtle | Vast Coding

Here is the Source Code:-

import turtle as t

t.speed(0)

t.bgcolor('black')

t.pencolor('purple')

for i in range(220):

t.rt(i)

t.circle(120,i)

t.fd(i)

t.rt(90)

t.done()

OUTPUT:-

OUTPUT

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

How to Propose Someone using Python | Make Red Rose using Python Turtle Graphics | Vast Coding

2021-09-13T08:19:00.012-07:00

How to Propose Someone using Python 😂 | Make Red Rose using Python Turtle Graphics | Vast Coding

Python Code To Draw Red Rose

SOURCE CODE:-

import turtle

# Set initial position

turtle.penup ()

turtle.left (90)

turtle.fd (200)

turtle.pendown ()

turtle.right (90)

# flower base

turtle.fillcolor ("red")

turtle.begin_fill ()

turtle.circle (10,180)

turtle.circle (25,110)

turtle.left (50)

turtle.circle (60,45)

turtle.circle (20,170)

turtle.right (24)

turtle.fd (30)

turtle.left (10)

turtle.circle (30,110)

turtle.fd (20)

turtle.left (40)

turtle.circle (90,70)

turtle.circle (30,150)

turtle.right (30)

turtle.fd (15)

turtle.circle (80,90)

turtle.left (15)

turtle.fd (45)

turtle.right (165)

turtle.fd (20)

turtle.left (155)

turtle.circle (150,80)

turtle.left (50)

turtle.circle (150,90)

turtle.end_fill ()

# Petal 1

turtle.left (150)

turtle.circle (-90,70)

turtle.left (20)

turtle.circle (75,105)

turtle.setheading (60)

turtle.circle (80,98)

turtle.circle (-90,40)

# Petal 2

turtle.left (180)

turtle.circle (90,40)

turtle.circle (-80,98)

turtle.setheading (-83)

# Leaves 1

turtle.fd (30)

turtle.left (90)

turtle.fd (25)

turtle.left (45)

turtle.fillcolor ("green")

turtle.begin_fill ()

turtle.circle (-80,90)

turtle.right (90)

turtle.circle (-80,90)

turtle.end_fill ()

turtle.right (135)

turtle.fd (60)

turtle.left (180)

turtle.fd (85)

turtle.left (90)

turtle.fd (80)

# Leaves 2

turtle.right (90)

turtle.right (45)

turtle.fillcolor ("green")

turtle.begin_fill ()

turtle.circle (80,90)

turtle.left (90)

turtle.circle (80,90)

turtle.end_fill ()

turtle.left (135)

turtle.fd (60)

turtle.left (180)

turtle.fd (60)

turtle.right (90)

turtle.circle (200,60)

turtle.color('red')

style = ('Arial', 10, 'bold')

turtle.write('I love you!', font=style, align='left')

turtle.done()

OUTPUT:-

OUTPUT

NOTE:- Please help me to grow my Youtube Channel called "Vast Coding"

Peppa Pig Cartoon Drawing using Turtle Grpahics in Python | Simple Python Project | Vast Coding

2021-09-13T06:46:00.008-07:00

Peppa Pig Cartoon Drawing using Turtle Grpahics in Python | Simple Python Project | Vast Coding

(Also Subscribe My Youtube Channel :- Vast Coding)

SOURCE CODE:-

import turtle as t

t.pensize(4)

t.hideturtle()

t.colormode(255)

t.color((255,155,192),"pink")

t.setup(840,500)

t.speed(10)

t.pu()

t.goto(-100,100)

t.pd()

t.seth(-30)

t.begin_fill()

a=0.4

for i in range(120):

if 0<=i<30 or 60<=i<90:

a=a+0.08

t.lt(3)

t.fd(a)

else:

a=a-0.08

t.lt(3)

t.fd(a)

t.end_fill()

t.pu()

t.seth(90)

t.fd(25)

t.seth(0)

t.fd(10)

t.pd()

t.pencolor(255,155,192)

t.seth(10)

t.begin_fill()

t.circle(5)

t.color(160,82,45)

t.end_fill()

t.pu()

t.seth(0)

t.fd(20)

t.pd()

t.pencolor(255,155,192)

t.seth(10)

t.begin_fill()

t.circle(5)

t.color(160,82,45)

t.end_fill()

t.color((255,155,192),"pink")

t.pu()

t.seth(90)

t.fd(41)

t.seth(0)

t.fd(0)

t.pd()

t.begin_fill()

t.seth(180)

t.circle(300,-30)

t.circle(100,-60)

t.circle(80,-100)

t.circle(150,-20)

t.circle(60,-95)

t.seth(161)

t.circle(-300,15)

t.pu()

t.goto(-100,100)

t.pd()

t.seth(-30)

a=0.4

for i in range(60):

if 0<=i<30 or 60<=i<90:

a=a+0.08

t.lt(3)

t.fd(a)

else:

a=a-0.08

t.lt(3)

t.fd(a)

t.end_fill()

t.color((255,155,192),"pink")

t.pu()

t.seth(90)

t.fd(-7)

t.seth(0)

t.fd(70)

t.pd()

t.begin_fill()

t.seth(100)

t.circle(-50,50)

t.circle(-10,120)

t.circle(-50,54)

t.end_fill()

t.pu()

t.seth(90)

t.fd(-12)

t.seth(0)

t.fd(30)

t.pd()

t.begin_fill()

t.seth(100)

t.circle(-50,50)

t.circle(-10,120)

t.circle(-50,56)

t.end_fill()

t.color((255,155,192),"white")

t.pu()

t.seth(90)

t.fd(-20)

t.seth(0)

t.fd(-95)

t.pd()

t.begin_fill()

t.circle(15)

t.end_fill()

t.color("black")

t.pu()

t.seth(90)

t.fd(12)

t.seth(0)

t.fd(-3)

t.pd()

t.begin_fill()

t.circle(3)

t.end_fill()

t.color((255,155,192),"white")

t.pu()

t.seth(90)

t.fd(-25)

t.seth(0)

t.fd(40)

t.pd()

t.begin_fill()

t.circle(15)

t.end_fill()

t.color("black")

t.pu()

t.seth(90)

t.fd(12)

t.seth(0)

t.fd(-3)

t.pd()

t.begin_fill()

t.circle(3)

t.end_fill()

t.color((255,155,192))

t.pu()

t.seth(90)

t.fd(-95)

t.seth(0)

t.fd(65)

t.pd()

t.begin_fill()

t.circle(30)

t.end_fill()

t.color(239,69,19)

t.pu()

t.seth(90)

t.fd(15)

t.seth(0)

t.fd(-100)

t.pd()

t.seth(-80)

t.circle(30,40)

t.circle(40,80)

t.color("red",(255,99,71))

t.pu()

t.seth(90)

t.fd(-20)

t.seth(0)

t.fd(-78)

t.pd()

t.begin_fill()

t.seth(-130)

t.circle(100,10)

t.circle(300,30)

t.seth(0)

t.fd(230)

t.seth(90)

t.circle(300,30)

t.circle(100,3)

t.color((255,155,192),(255,100,100))

t.seth(-135)

t.circle(-80,63)

t.circle(-150,24)

t.end_fill()

t.color((255,155,192))

t.pu()

t.seth(90)

t.fd(-40)

t.seth(0)

t.fd(-27)

t.pd()

t.seth(-160)

t.circle(300,15)

t.pu()

t.seth(90)

t.fd(15)

t.seth(0)

t.fd(0)

t.pd()

t.seth(-10)

t.circle(-20,90)

t.pu()

t.seth(90)

t.fd(30)

t.seth(0)

t.fd(237)

t.pd()

t.seth(-20)

t.circle(-300,15)

t.pu()

t.seth(90)

t.fd(20)

t.seth(0)

t.fd(0)

t.pd()

t.seth(-170)

t.circle(20,90)

t.pensize(10)

t.color((240,128,128))

t.pu()

t.seth(90)

t.fd(-75)

t.seth(0)

t.fd(-180)

t.pd()

t.seth(-90)

t.fd(40)

t.seth(-180)

t.color("black")

t.pensize(15)

t.fd(20)

t.pensize(10)

t.color((240,128,128))

t.pu()

t.seth(90)

t.fd(40)

t.seth(0)

t.fd(90)

t.pd()

t.seth(-90)

t.fd(40)

t.seth(-180)

t.color("black")

t.pensize(15)

t.fd(20)

t.pensize(4)

t.color((255,155,192))

t.pu()

t.seth(90)

t.fd(70)

t.seth(0)

t.fd(95)

t.pd()

t.seth(0)

t.circle(70,20)

t.circle(10,330)

t.circle(70,30)

t.done()

OUTPUT :-

OUTPUT