import numpy
from pylab import *
from rbf_solver2 import rbf_solver
data = numpy.load('cylinder')
x = data['x']
y = data['y']
c = data['c']
r = data['r']
s = data['s']
rbf_solver(x, y, c, r, 0.007)
fig = plt.figure()
ax1 = fig.add_subplot(121)
ax2 = fig.add_subplot(122)
x1 = arange(len(c))
ax1.scatter(x, y, c = c, marker = 'o', s = 10, edgecolors='none')
ax2.plot(x1,c,'k--')
ax1.set_title('Solution')
ax2.set_title('point values')
plt.show()
-0.2*exp(-(9*particle.xi-4)**2-(9*particle.yi-7)**2)
particle.wi = particle.ei
#particle.gj = exp(-(particle.xj**2+particle.yj**2)/\
# (4*parameter.vis*parameter.t))/(pi*4*parameter.vis*parameter.t)*particle.h**2
particle.gj = (0.75*exp(-((9*particle.xj-2)**2+(9*particle.yj-2)**2)/4)\
+0.75*exp(-((9*particle.xj+1)**2)/49-((9*particle.yj+1)**2)/10)\
+0.5*exp(-((9*particle.xj-7)**2+(9*particle.yj-3)**2)/4)\
-0.2*exp(-(9*particle.xj-4)**2-(9*particle.yj-7)**2))*particle.h**2
toc = tic
tic = cpu_time()
t[0] = tic - toc
# solve rbf using c wrapper
if parameter.wrapper == 1:
rbf_solver(particle.xi, particle.yi, particle.gj, particle.ei,
particle.sigma, parameter.vis)
toc = tic
tic = cpu_time()
# generate clusters
particle, cluster = get_cluster(particle, cluster)
# set up reference data
if parameter.wrapper == 1:
particle, cluster = get_trunc(particle, cluster)
particle, cluster = get_vorticity(particle, cluster)
particle.gj = particle.ei * particle.h**2
particle.ei = particle.wi
particle.wi = particle.gj / particle.h**2
-0.2*exp(-(9*particle.xi-4)**2-(9*particle.yi-7)**2)
particle.wi = particle.ei
#particle.gj = exp(-(particle.xj**2+particle.yj**2)/\
# (4*parameter.vis*parameter.t))/(pi*4*parameter.vis*parameter.t)*particle.h**2
particle.gj = (0.75*exp(-((9*particle.xj-2)**2+(9*particle.yj-2)**2)/4)\
+0.75*exp(-((9*particle.xj+1)**2)/49-((9*particle.yj+1)**2)/10)\
+0.5*exp(-((9*particle.xj-7)**2+(9*particle.yj-3)**2)/4)\
-0.2*exp(-(9*particle.xj-4)**2-(9*particle.yj-7)**2))*particle.h**2
toc = tic
tic = cpu_time()
t[0] = tic-toc
# solve rbf using c wrapper
if parameter.wrapper == 1:
rbf_solver(particle.xi,particle.yi,particle.gj,particle.ei,
particle.sigma,parameter.vis)
toc = tic
tic = cpu_time()
# generate clusters
particle,cluster = get_cluster(particle,cluster)
# set up reference data
if parameter.wrapper == 1:
particle,cluster = get_trunc(particle,cluster)
particle,cluster = get_vorticity(particle,cluster)
particle.gj = particle.ei*particle.h**2
particle.ei = particle.wi
particle.wi = particle.gj/particle.h**2
