#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
def deg(d):
return (2 * maths.pi) * d / 360
p = pic(scale=2)
tau = 2 * maths.pi
bit = 0.1
tick = 0.05
### label
p.op().text((tau / 2, 1), "sine")
### axes
p.op().line((-bit, 0), (tau + bit, 0))
p.op().line((0, -(1 + bit)), (0, 1 + bit))
### axis ticks and labels
p.op().to_left().below().text((-tick, -tick), r"$0$")
p.op().line((tau / 4, -tick), (tau / 4, 0))
p.op().below().text((tau / 4, -tick), r"$\tau/4$")
#!/usr/bin/env python # -*- coding: UTF-8 -*- from __future__ import division import math as maths import os from pypyx.pypyx import pic, pypyx_maths p = pic (scale = 0.25) o_x = 10 o_y = 10 o = (o_x, o_y) n = 20 for i in xrange (0, n+1): a = pypyx_maths.tau * i / n; a2 = a/2 #print i, a2, a sx = o_x + (i + 2) * maths.cos(a2) sy = o_y + (i + 2) * maths.sin(a2) p.op().arc (o, (sx,sy), a) p.output_pdf (os.path.splitext(__file__)[0])
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
def deg(d):
return (2 * maths.pi) * d / 360
p = pic(scale=2)
tau = 2 * maths.pi
p.op().dashed().smooth_poly_curve([
(0, 0),
(tau / 4, 1),
(tau / 2, 0),
(3 * tau / 4, -1),
(tau, 0),
])
p.op().closed().smooth_poly_curve([
(0, 0),
(tau / 4, 1),
(tau / 2, 0),
(3 * tau / 4, -1),
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
p = pic(scale=.15)
x = 0
def pos():
global x
x += 1
return (0, x)
p.op().stroked(colour.red()).text(pos(), 'red')
p.op().stroked(colour.orange()).text(pos(), 'orange')
p.op().stroked(colour.yellow()).text(pos(), 'yellow')
p.op().stroked(colour.lime()).text(pos(), 'lime')
p.op().stroked(colour.green()).text(pos(), 'green')
p.op().stroked(colour.cyan()).text(pos(), 'cyan')
p.op().stroked(colour.blue()).text(pos(), 'blue')
p.op().stroked(colour.magenta()).text(pos(), 'magenta')
p.op().stroked(colour.white()).text(pos(), 'white')
p.op().stroked(colour.black()).text(pos(), 'black')
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
p = pic (scale = 4.0)
r2 = maths.sqrt(2)
o = (0, 0)
x = (r2, 0)
y = (0, 1)
xy = (r2, 1)
p.op().stroked(colour.light_grey()).circle ((r2/2, 1/2), maths.sqrt(3) / 2)
p.op().dotted().line (o, x)
p.op().stroked('blue').line (o, y)
p.op().styled('dashed red').line (y, xy)
p.op().line (x, xy)
p.op().text ((r2/2, 1/2), 'A4')
p.output_pdf (os.path.splitext(__file__)[0])
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import pic, pypyx_maths
p = pic(scale=0.25)
o_x = 10
o_y = 10
o = (o_x, o_y)
n = 20
for i in xrange(0, n + 1):
a = pypyx_maths.tau * i / n
a2 = a / 2
#print i, a2, a
sx = o_x + (i + 2) * maths.cos(a2)
sy = o_y + (i + 2) * maths.sin(a2)
p.op().arc(o, (sx, sy), a)
p.output_pdf(os.path.splitext(__file__)[0])
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
p = pic(scale=4.0)
r2 = maths.sqrt(2)
o = (0, 0)
x = (r2, 0)
y = (0, 1)
xy = (r2, 1)
p.op().stroked(colour.light_grey()).circle((r2 / 2, 1 / 2), maths.sqrt(3) / 2)
p.op().dotted().line(o, x)
p.op().stroked('blue').line(o, y)
p.op().styled('dashed red').line(y, xy)
p.op().line(x, xy)
p.op().text((r2 / 2, 1 / 2), 'A4')
p.output_pdf(os.path.splitext(__file__)[0])
#!/usr/bin/env python # -*- coding: UTF-8 -*- from __future__ import division import math as maths import os from pypyx.pypyx import colour, pic p = pic (scale = .15) x = 0 def pos (): global x x += 1 return (0, x) p.op().stroked(colour.red()).text (pos(), 'red') p.op().stroked(colour.orange()).text (pos(), 'orange') p.op().stroked(colour.yellow()).text (pos(), 'yellow') p.op().stroked(colour.lime()).text (pos(),'lime') p.op().stroked(colour.green()).text (pos(), 'green') p.op().stroked(colour.cyan()).text (pos(), 'cyan') p.op().stroked(colour.blue()).text (pos(), 'blue') p.op().stroked(colour.magenta()).text (pos(), 'magenta') p.op().stroked(colour.white()).text (pos(), 'white') p.op().stroked(colour.black()).text (pos(), 'black') p.op().stroked(colour.purple()).text (pos(), 'purple') p.op().stroked(colour.brown()).text (pos(), 'brown')
#!/usr/bin/env python # -*- coding: UTF-8 -*- from __future__ import division import math as maths import os from pypyx.pypyx import colour, pic p = pic (scale = 1) num_pts = 5 step = 2 r = 0.5 tau = 2 * maths.pi pts = [] for idx in xrange(0, num_pts): a = tau * idx * step / num_pts x = r * maths.sin(a) y = r * maths.cos(a) pts.append ((x, y)) p.op().parity_winding().filled(colour.grey(0.5)).closed().poly_line ( pts ) p.output_pdf (os.path.splitext(__file__)[0])
#!/usr/bin/env python
# -*- coding: UTF-8 -*-
from __future__ import division
import math as maths
import os
from pypyx.pypyx import colour, pic
p = pic(scale=1)
num_pts = 5
step = 2
r = 0.5
tau = 2 * maths.pi
pts = []
for idx in xrange(0, num_pts):
a = tau * idx * step / num_pts
x = r * maths.sin(a)
y = r * maths.cos(a)
pts.append((x, y))
p.op().parity_winding().filled(colour.grey(0.5)).closed().poly_line(pts)
p.output_pdf(os.path.splitext(__file__)[0])
