本文整理汇总了Python中tracer.tracer_engine.TracerEngine.minener方法的典型用法代码示例。如果您正苦于以下问题：Python TracerEngine.minener方法的具体用法？Python TracerEngine.minener怎么用？Python TracerEngine.minener使用的例子？那么恭喜您, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类tracer.tracer_engine.TracerEngine的用法示例。
在下文中一共展示了TracerEngine.minener方法的4个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的Python代码示例。
示例1: trace
# 需要导入模块: from tracer.tracer_engine import TracerEngine [as 别名]
# 或者: from tracer.tracer_engine.TracerEngine import minener [as 别名]
def trace(self, rph, iters = 10000, minE = 1e-9, render = False):
"""Commences raytracing using (rph) number of rays per heliostat, for a maximum of
(iters) iterations, discarding rays with energy less than (minE). If render is
True, a 3D scene will be displayed which would need to be closed to proceed."""
# Get the solar vector using azimuth and elevation
sun_vec = solar_vector(self.sun_az*degree, self.sun_elev*degree)
# Calculate number of rays used. Rays per heliostat * number of heliostats.
num_rays = rph*len(self.field.get_heliostats())
self.no_of_rays += num_rays
# Generates the ray bundle
rot_sun = rotation_to_z(-sun_vec)
direct = N.dot(rot_sun, pillbox_sunshape_directions(num_rays, 0.00465))
xy = N.random.uniform(low=-0.25, high=0.25, size=(2, num_rays))
base_pos = N.tile(self.pos, (rph, 1)).T #Check if its is rph or num_rays
base_pos += N.dot(rot_sun[:,:2], xy)
base_pos -= direct
rays = RayBundle(base_pos, direct, energy=N.ones(num_rays))
# Perform the raytracing
e = TracerEngine(self.plant)
e.ray_tracer(rays, iters, minE, tree=True)
e.minener = minE
rays_in = sum(e.tree._bunds[0].get_energy())
self.helio_hits = sum(e.tree._bunds[1].get_energy())
# Optional rendering
if render == True:
trace_scene = Renderer(e)
trace_scene.show_rays()示例2: trace
# 需要导入模块: from tracer.tracer_engine import TracerEngine [as 别名]
# 或者: from tracer.tracer_engine.TracerEngine import minener [as 别名]
def trace(self):
"""Generate a flux map using much more rays than drawn"""
# Generate a large ray bundle using a radial stagger much denser
# than the field.
sun_vec = solar_vector(self.sun_az*degree, self.sun_elev*degree)
hstat_rays = 20
num_rays = hstat_rays*len(self.field.get_heliostats())
rot_sun = rotation_to_z(-sun_vec)
direct = N.dot(rot_sun, pillbox_sunshape_directions(num_rays, 0.00465))
xy = N.random.uniform(low=-0.25, high=0.25, size=(2, num_rays))
base_pos = N.tile(self.pos, (hstat_rays, 1)).T
base_pos += N.dot(rot_sun[:,:2], xy)
base_pos -= direct
rays = RayBundle(base_pos, direct, energy=N.ones(num_rays))
# Perform the trace:
e = TracerEngine(self.plant)
e.ray_tracer(rays, 100, 0.05, tree=True)
e.minener = 1e-5
# Render:
trace_scene = Renderer(e)
trace_scene.show_rays()示例3: trace
# 需要导入模块: from tracer.tracer_engine import TracerEngine [as 别名]
# 或者: from tracer.tracer_engine.TracerEngine import minener [as 别名]
def trace(self):
"""Generate a flux map using much more rays than drawn"""
# Generate a large ray bundle using a radial stagger much denser
# than the field.
sun_vec = solar_vector(self.sun_az*degree, self.sun_elev*degree)
#hstat_rays
hstat_rays = 1000
num_rays = hstat_rays*len(self.field.get_heliostats())
rot_sun = rotation_to_z(-sun_vec)
direct = N.dot(rot_sun, pillbox_sunshape_directions(num_rays, 0.00465))
xy = N.random.uniform(low=-0.25, high=0.25, size=(2, num_rays))
base_pos = N.tile(self.pos, (hstat_rays, 1)).T
base_pos += N.dot(rot_sun[:,:2], xy)
base_pos -= direct
rays = RayBundle(base_pos, direct, energy=N.ones(num_rays))
# Perform the trace:
e = TracerEngine(self.plant)
e.ray_tracer(rays, 100, 0.05, tree=True)
e.minener = 1e-6 # default 1e-5
# Render:
#trace_scene = Renderer(e)
#trace_scene.show_rays()
# Initialise a histogram of hits:
energy, pts = self.reclist.get_optics_manager().get_all_hits()
x, y = self.reclist.global_to_local(pts)[:2]
rngx = 0.55 #0.5
rngy = 0.55 #0.5
bins = 100 #50
H, xbins, ybins = N.histogram2d(x, y, bins, \
range=([-rngx,rngx], [-rngy,rngy]), weights=energy)
#print(H, xbins, ybins)
total=N.sum(H)
print(total)
extent = [ybins[0], ybins[-1], xbins[-1], xbins[0]]
plt.imshow(H, extent=extent, interpolation='nearest')
plt.colorbar()
plt.title("front")
plt.show()示例4: print
# 需要导入模块: from tracer.tracer_engine import TracerEngine [as 别名]
# 或者: from tracer.tracer_engine.TracerEngine import minener [as 别名]
engine=TracerEngine(scene._asm)
engine.ray_tracer(scene._source, 10, 1e-9, True )
#engine.ray_tracer(scene._source, 10, 1e-9, True )
print(engine.tree._bunds[0].get_energy(),'tree',len(engine.tree._bunds[0].get_energy()))
print(engine.tree._bunds[1].get_energy(),'tree',len(engine.tree._bunds[1].get_energy()))#print(engine.tree._bunds[2].get_energy(),'tree',len(engine.tree._bunds[2].get_energy()))
print(engine.tree._bunds[3].get_energy(),'tree',len(engine.tree._bunds[3].get_energy()))
print(engine.tree._bunds[4].get_energy(),'tree',len(engine.tree._bunds[4].get_energy()))
print(engine.tree._bunds[5].get_energy(),'tree',len(engine.tree._bunds[5].get_energy()))
print(engine.tree._bunds[6].get_energy(),'tree',len(engine.tree._bunds[6].get_energy()))
eff=(N.sum(engine.tree._bunds[2].get_energy())+N.sum(engine.tree._bunds[4].get_energy()))*9/(len(engine.tree._bunds[1].get_energy())*engine.tree._bunds[1].get_energy()[0])
print(eff,'eff') # the demoninator includes the sum rays on the back. i.e. the blocking is accounted for
engine.minener = 1e-20
recv=scene._asm.get_local_objects()[0] #here the scene._asm is an assembly and _object[1] returns an object Now it's really the receiver
#print(scene._asm.get_local_objects(),'scene_recv')
count = 0
totalenergy = 0
'''
for face in recv.get_surfaces(): # definitely has gone through only one iteration. check .surface for definitioin
#energy, pts = face._optics.get_all_hits()
#that's when everything gets doubled
#print(recv.get_surfaces())
energy, pts =face.get_optics_manager().get_all_hits() # an instance of a reflective receiver
print(energy,len(energy),'energy')
subtotalenergy = energy.sum() # for each surface
#print(subtotalenergy,'subtotalenergy')
totalenergy += subtotalenergy