def draw(self): emission=False lines=[] for i in range(0,epitaxy_get_layers()): if epitaxy_get_pl_file(i)!="none": if inp_load_file(lines,epitaxy_get_pl_file(i)+".inp")==True: if str2bool(lines[1])==True: emission=True tot=0 for i in range(0,epitaxy_get_layers()): tot=tot+epitaxy_get_width(i) pos=0.0 l=epitaxy_get_layers()-1 lines=[] for i in range(0,epitaxy_get_layers()): thick=200.0*epitaxy_get_width(l-i)/tot pos=pos+thick path=os.path.join(get_materials_path(),epitaxy_get_mat_file(l-i),"mat.inp") if inp_load_file(lines,path)==True: red=float(inp_search_token_value(lines, "#Red")) green=float(inp_search_token_value(lines, "#Green")) blue=float(inp_search_token_value(lines, "#Blue")) else: print "Could not load",path red=0.0 green=0.0 blue=0.0 self.draw_box(200,450.0-pos,thick*0.9,red,green,blue,l-i) step=50.0 lines=[] if inp_load_file(lines,os.path.join(os.getcwd(),"light.inp"))==True: self.sun=float(inp_search_token_value(lines, "#Psun")) if self.sun<=0.01: step=200 elif self.sun<=0.1: step=100 elif self.sun<=1.0: step=50 elif self.sun<=10.0: step=10 else: step=5.0 if self.sun!=0: for x in range(0,200,step): self.draw_photon(270+x,50) if emission==True: for x in range(0,200,50): self.draw_photon_up(240+x,180) self.draw_mode(200,250,200)
def create_model(self):
self.tab.clear()
self.tab.setColumnCount(6)
if enable_betafeatures() == False:
self.tab.setColumnHidden(5, True)
self.tab.setColumnHidden(4, True)
self.tab.setSelectionBehavior(QAbstractItemView.SelectRows)
self.tab.setHorizontalHeaderLabels([
_("Layer name"),
_("Thicknes"),
_("Optical material"),
_("Layer type"),
_("DoS Layer"),
_("PL Layer")
])
self.tab.setColumnWidth(2, 250)
self.tab.setRowCount(epitaxy_get_layers())
for i in range(0, epitaxy_get_layers()):
thick = epitaxy_get_width(i)
material = epitaxy_get_mat_file(i)
dos_layer = epitaxy_get_electrical_layer(i)
pl_file = epitaxy_get_pl_file(i)
name = epitaxy_get_name(i)
self.add_row(i, thick, material, dos_layer, pl_file, name)
return
def epitaxy_mesh_update():
if mesh_get_ylayers()==1:
tot=0.0
for i in range(0,epitaxy_get_layers()):
width=float(epitaxy_get_width(i))
dos_layer=epitaxy_get_electrical_layer(i)
print(dos_layer,width)
if dos_layer.startswith("dos")==True:
tot=tot+width
mesh_get_ymesh().layers[0].thick=tot
mesh_save_y()
def update(self):
self.tab.clear()
self.tab.setColumnCount(5)
self.tab.setRowCount(0)
self.tab.setSelectionBehavior(QAbstractItemView.SelectRows)
self.tab.setHorizontalHeaderLabels([_("material"), _("Volume (m^-3)"), _("Mass (kg)"), _("Cost ($)"), _("Energy (J)")])
self.tab.setColumnWidth(1, 200)
self.tab.setColumnWidth(2, 200)
self.tab.setColumnWidth(3, 200)
self.tab.setColumnWidth(4, 200)
energy_tot=0.0
cost_tot=0.0
for i in range(0,epitaxy_get_layers()):
volume=epitaxy_get_width(i)*1.0*1.0
name=epitaxy_get_mat_file(i)
xls_file_name=os.path.join(get_materials_path(),epitaxy_get_mat_file(i),"cost.xlsx")
wb = load_workbook(xls_file_name)
ws= wb.get_sheet_by_name("results")
density = float(ws['B2'].value)
mass=density*volume
cost_per_kg = float(ws['B3'].value)
cost=mass*cost_per_kg
energy_per_kg = float(ws['B4'].value)
energy=energy_per_kg*mass
tab_add(self.tab,[name,str(volume),str(mass),str(cost),str(energy)])
energy_tot=energy_tot+energy
cost_tot=cost_tot+cost
pce=inp_get_token_value("sim_info.dat", "#pce")
payback_time=-1.0
if pce!=None:
pce=float(pce)
gen_energy=1366.0*pce/100.0
payback_time=energy_tot/gen_energy/60.0/60.0/24/365
tab_add(self.tab,["sum","","",str(cost_tot),str(energy_tot)])
tab_add(self.tab,["","","pay back time=",str(payback_time),"years"])
def load(self):
self.tab.blockSignals(True)
self.tab.clear()
self.tab.setHorizontalHeaderLabels(
[_("File Name"), _("Width"),
_("Start"), _("Stop")])
layers = epitaxy_get_layers()
for i in range(0, layers):
dos_file = epitaxy_get_dos_file(i)
width = epitaxy_get_width(i)
if dos_file != "none":
lines = []
print("loading", dos_file)
file_name = os.path.join(get_sim_path(), dos_file + ".inp")
lines = inp_load_file(file_name)
if lines != False:
doping_start = float(
inp_search_token_value(lines, "#doping_start"))
doping_stop = float(
inp_search_token_value(lines, "#doping_stop"))
print("add", dos_file)
count = self.tab.rowCount()
self.tab.insertRow(count)
item1 = QTableWidgetItem(str(dos_file))
self.tab.setItem(count, 0, item1)
item2 = QTableWidgetItem(str(width))
self.tab.setItem(count, 1, item2)
item3 = QTableWidgetItem(str(doping_start))
self.tab.setItem(count, 2, item3)
item3 = QTableWidgetItem(str(doping_stop))
self.tab.setItem(count, 3, item3)
self.tab.blockSignals(False)
return
def create_model(self):
self.tab.clear()
self.tab.setColumnCount(6)
if enable_betafeatures()==False:
self.tab.setColumnHidden(5, True)
self.tab.setColumnHidden(4, True)
self.tab.setSelectionBehavior(QAbstractItemView.SelectRows)
self.tab.setHorizontalHeaderLabels([_("Layer name"), _("Thicknes"), _("Optical material"), _("Layer type"), _("DoS Layer"),_("PL Layer")])
self.tab.setRowCount(epitaxy_get_layers())
for i in range(0,epitaxy_get_layers()):
thick=epitaxy_get_width(i)
material=epitaxy_get_mat_file(i)
dos_layer=epitaxy_get_electrical_layer(i)
pl_file=epitaxy_get_pl_file(i)
name=epitaxy_get_name(i)
self.add_row(i,thick,material,dos_layer,pl_file,name)
return
def __create_model(self):
# create list store
model = gtk.ListStore(str,str,str,str,str,str,str)
# add items
self.rebuild_mat_list()
for i in range(0,epitaxy_get_layers()):
thick=epitaxy_get_width(i)
material=epitaxy_get_mat_file(i)
dos_layer=epitaxy_get_electrical_layer(i)
pl_file=epitaxy_get_pl_file(i)
name=epitaxy_get_name(i)
dos_file=""
if dos_layer=="none":
dos_file=_("no")
else:
dos_file=_("yes")
scan_item_add("epitaxy.inp","#layer"+str(i),_("Material for ")+str(material),2)
scan_item_add("epitaxy.inp","#layer"+str(i),_("Layer width ")+str(material),1)
iter = model.append()
model.set (iter,
COLUMN_NAME, str(name),
COLUMN_THICKNES, str(thick),
COLUMN_MATERIAL, str(material),
COLUMN_DEVICE, str(dos_file),
COLUMN_DOS_LAYER, str(dos_layer),
COLUMN_PL_FILE, str(pl_file)
)
return model
def load(self):
self.tab.blockSignals(True)
self.tab.clear()
self.tab.setHorizontalHeaderLabels([_("File Name"), _("Width"), _("Start"), _("Stop")])
layers=epitaxy_get_layers()
for i in range(0,layers):
dos_file=epitaxy_get_dos_file(i)
width=epitaxy_get_width(i)
if dos_file!="none":
lines=[]
print("loading",dos_file)
if inp_load_file(lines,dos_file+".inp")==True:
doping_start=float(inp_search_token_value(lines, "#doping_start"))
doping_stop=float(inp_search_token_value(lines, "#doping_stop"))
print("add",dos_file)
count=self.tab.rowCount()
self.tab.insertRow(count)
item1 = QTableWidgetItem(str(dos_file))
self.tab.setItem(count,0,item1)
item2 = QTableWidgetItem(str(width))
self.tab.setItem(count,1,item2)
item3 = QTableWidgetItem(str(doping_start))
self.tab.setItem(count,2,item3)
item3 = QTableWidgetItem(str(doping_stop))
self.tab.setItem(count,3,item3)
self.tab.blockSignals(False)
return
def draw_graph(self):
self.layer_end=[]
self.layer_name=[]
n=0
self.my_figure.clf()
ax1 = self.my_figure.add_subplot(111)
ax2 = ax1.twinx()
x_pos=0.0
layer=0
color =['r','g','b','y','o','r','g','b','y','o']
start=0.0
for i in range(0,epitaxy_get_layers()):
if epitaxy_get_electrical_layer(i)=="none":
start=start-epitaxy_get_width(i)
else:
break
print "START=",start
start=start*1e9
x_pos=start
for i in range(0,epitaxy_get_layers()):
label=epitaxy_get_mat_file(i)
layer_ticknes=epitaxy_get_width(i)
layer_material=epitaxy_get_mat_file(i)
delta=float(layer_ticknes)*1e9
if epitaxy_get_electrical_layer(i)=="none":
mat_file=os.path.join(os.getcwd(),'materials',layer_material,'mat.inp')
myfile = open(mat_file)
self.mat_file_lines = myfile.readlines()
myfile.close()
for ii in range(0, len(self.mat_file_lines)):
self.mat_file_lines[ii]=self.mat_file_lines[ii].rstrip()
lumo=-float(self.mat_file_lines[1])
Eg=float(self.mat_file_lines[3])
else:
lines=[]
if inp_load_file(lines,epitaxy_get_electrical_layer(i)+".inp")==True:
lumo=-float(inp_search_token_value(lines, "#Xi"))
Eg=float(inp_search_token_value(lines, "#Eg"))
x = [x_pos,x_pos+delta,x_pos+delta,x_pos]
lumo_delta=lumo-0.1
h**o=lumo-Eg
homo_delta=h**o-0.1
if Eg==0.0:
lumo_delta=-7.0
h**o=0.0
lumo_shape = [lumo,lumo,lumo_delta,lumo_delta]
x_pos=x_pos+delta
self.layer_end.append(x_pos)
self.layer_name.append(layer_material)
ax2.fill(x,lumo_shape, color[layer],alpha=0.4)
ax2.text(x_pos-delta/1.5, lumo-0.4, epitaxy_get_name(i))
if h**o!=0.0:
homo_shape = [h**o,h**o,homo_delta,homo_delta]
ax2.fill(x,homo_shape, color[layer],alpha=0.4)
layer=layer+1
n=n+1
state=plot_state()
get_plot_file_info(state,self.optical_mode_file)
#summary="<big><b>"+self.store[path[0]][0]+"</b></big>\n"+"\ntitle: "+state.title+"\nx axis: "+state.x_label+" ("+latex_to_pygtk_subscript(state.x_units)+")\ny axis: "++" ("+latex_to_pygtk_subscript(state.y_units)+")\n\n<big><b>Double click to open</b></big>"
print "ROD!!!!",state.y_label,self.optical_mode_file
ax1.set_ylabel(state.y_label)
ax1.set_xlabel('Position (nm)')
ax2.set_ylabel('Energy (eV)')
ax2.set_xlim([start, x_pos])
#ax2.axis(max=)#autoscale(enable=True, axis='x', tight=None)
loaded=False
if os.path.isfile("light_dump.zip"):
zf = zipfile.ZipFile("light_dump.zip", 'r')
lines = zf.read(self.optical_mode_file).split("\n")
zf.close()
loaded=True
elif os.path.isfile(self.optical_mode_file):
print "I want to load",self.optical_mode_file
f = open(self.optical_mode_file)
lines = f.readlines()
f.close()
loaded=True
if loaded==True:
xx=[]
yy=[]
zz=[]
lines_to_xyz(xx,yy,zz,lines)
t = asarray(xx)
s = asarray(yy)
t=t*1e9
ax1.plot(t,s, 'black', linewidth=3 ,alpha=0.5)
self.my_figure.tight_layout()
def render(self):
#print("do draw")
clear_color()
glClearColor(self.view.bg_color[0], self.view.bg_color[1], self.view.bg_color[2], 0.5)
gl_save_clear()
dos_start=-1
dos_stop=-1
epi_y_len=epitaxy_get_y_len()
if epi_y_len<=0:
return
self.x_mul=1e3
self.y_mul=self.gl_device_height/epi_y_len
self.z_mul=1e3
x_len=mesh_get_xlen()
max_gui_device_x=x_len*self.x_mul
max_gui_device_y=1.0
max_gui_device_z=mesh_get_zlen()*self.z_mul
l=epitaxy_get_layers()-1
xpoints=int(mesh_get_xpoints())
ypoints=int(mesh_get_ypoints())
zpoints=int(mesh_get_zpoints())
if ypoints>10:
ypoints=10
if xpoints>10:
xpoints=10
if ypoints>10:
ypoints=10
self.emission=False
self.ray_model=False
lines=inp_load_file(os.path.join(get_sim_path(),"led.inp"))
if lines!=False:
self.ray_model=val=str2bool(inp_search_token_value(lines, "#led_on"))
lines=[]
for i in range(0,epitaxy_get_layers()):
if epitaxy_get_pl_file(i)!="none":
lines=inp_load_file(os.path.join(get_sim_path(),epitaxy_get_pl_file(i)+".inp"))
if lines!=False:
if str2bool(lines[1])==True:
self.emission=True
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT)
glLoadIdentity()
glTranslatef(self.view.x_pos, self.view.y_pos, self.view.zoom) # Move Into The Screen
glRotatef(self.view.xRot, 1.0, 0.0, 0.0)
glRotatef(self.view.yRot, 0.0, 1.0, 0.0)
glRotatef(self.view.zRot, 0.0, 0.0, 1.0)
glColor3f( 1.0, 1.5, 0.0 )
glPolygonMode(GL_FRONT, GL_FILL);
threed_files=glob.glob("*.3d")
if len(threed_files)>0:
gl_save_load()
gl_save_draw()
draw_grid()
return
#glClearColor(0.92, 0.92, 0.92, 0.5) # Clear to black.
lines=[]
pos=0.0
for i in range(0,epitaxy_get_layers()):
thick=epitaxy_get_width(l-i)*self.y_mul
obj=epitaxy_get_layer(l-i)
red=obj.r
green=obj.g
blue=obj.b
alpha=obj.alpha
if i==l-self.selected_layer:
box_lines(0.0,pos,0,max_gui_device_x,thick,max_gui_device_z)
if epitaxy_get_electrical_layer(l-i).startswith("dos")==True and ypoints!=0 and xpoints!=0 and zpoints!=0:
dy=thick/float(ypoints)
dx=max_gui_device_x/float(xpoints)
dz=max_gui_device_z/float(zpoints)
xshrink=0.8
zshrink=0.8
if dos_start==-1:
dos_start=pos
dos_stop=pos+thick
if xpoints==1:
xshrink=1.0
if zpoints==1:
zshrink=1.0
if xpoints==1 and zpoints==1:
box(0.0,pos,0,max_gui_device_x,thick,max_gui_device_z,red,green,blue,alpha)
else:
for y in range(0,ypoints):
for x in range(0,xpoints):
for z in range(0,zpoints):
box(dx*x,pos+y*(dy),z*dz,dx*xshrink,dy*0.8,dz*zshrink,red,green,blue,alpha)
if self.tab_active_layers==True:
tab(0.0,pos,max_gui_device_z,max_gui_device_x,thick,max_gui_device_z)
elif epitaxy_get_electrical_layer(l-i).lower()=="contact" and (i==l or i==0):
for c in contacts_get_array():
if (c.position=="top" and i==l) or (c.position=="bottom" and i==0):
if xpoints==1 and zpoints==1:
xstart=0.0
xwidth=max_gui_device_x
else:
xstart=max_gui_device_x*(c.start/x_len)
xwidth=max_gui_device_x*(c.width/x_len)
#print("contacts",xstart,xwidth,c.width,x_len)
if (c.start+c.width)>x_len:
xwidth=max_gui_device_x-xstart
if c.depth>0.0:
etch_depth=c.depth*self.y_mul
if c.position=="top":
box(xstart,pos-etch_depth-self.dy_layer_offset,0,xwidth,etch_depth,max_gui_device_z,0.0,0.0,1.0,1.0)
else:
box(xstart,pos+self.dy_layer_offset+thick,0,xwidth,etch_depth,max_gui_device_z,0.0,0.0,1.0,1.0)
if c.active==True:
box(xstart,pos,0,xwidth,thick,max_gui_device_z,0.0,1.0,0.0,alpha)
else:
box(xstart,pos,0,xwidth,thick,max_gui_device_z,red,green,blue,alpha)
else:
box(0.0,pos,0,max_gui_device_x,thick,max_gui_device_z,red,green,blue,alpha)
if self.view.render_text==True:
if epitaxy_get_electrical_layer(l-i).startswith("dos")==True:
text=epitaxy_get_name(l-i)+" ("+_("active")+")"
else:
text=epitaxy_get_name(l-i)
set_color(1.0,1.0,1.0,"text")
font = QFont("Arial")
font.setPointSize(18)
if self.view.zoom>-20:
self.renderText (max_gui_device_x+0.1,pos+thick/2,max_gui_device_z, text,font)
pos=pos+thick+self.dy_layer_offset
draw_mode(pos-self.dy_layer_offset,max_gui_device_z)
draw_rays(self.ray_file,pos-self.dy_layer_offset,max_gui_device_x,self.y_mul,max_gui_device_z*1.05)
#print(self.graph_path)
if self.view.render_photons==True:
#print(pos)
self.draw_photons(max_gui_device_x,pos,max_gui_device_z)
full_data_range=self.graph_z_max-self.graph_z_min
graph(0.0,dos_start,max_gui_device_z+0.5,max_gui_device_x,dos_stop-dos_start,full_data_range,self.graph_data)
if self.view.render_grid==True:
draw_grid()
if self.view.zoom<-60:
draw_stars()
def drawWidget(self, qp):
font = QFont('Sans', 11, QFont.Normal)
qp.setFont(font)
emission = False
lines = []
for i in range(0, epitaxy_get_layers()):
if epitaxy_get_pl_file(i) != "none":
lines = inp_load_file(epitaxy_get_pl_file(i) + ".inp")
if lines != False:
if str2bool(lines[1]) == True:
emission = True
tot = 0
for i in range(0, epitaxy_get_layers()):
tot = tot + epitaxy_get_width(i)
pos = 0.0
l = epitaxy_get_layers() - 1
lines = []
for i in range(0, epitaxy_get_layers()):
red = 0.0
green = 0.0
blue = 0.0
thick = 200.0 * epitaxy_get_width(l - i) / tot
pos = pos + thick
path = os.path.join(get_materials_path(),
epitaxy_get_mat_file(l - i), "mat.inp")
lines = inp_load_file(path)
if lines != False:
ret = inp_search_token_array(lines, "#red_green_blue")
if ret != False:
red = float(ret[0])
green = float(ret[1])
blue = float(ret[2])
self.draw_box(qp, 200, 450.0 - pos, thick * 0.9, red, green, blue,
l - i)
step = 50.0
lines = inp_load_file(os.path.join(get_sim_path(), "light.inp"))
if lines != False:
self.sun = float(inp_search_token_value(lines, "#Psun"))
if self.sun <= 0.01:
step = 200
elif self.sun <= 0.1:
step = 100
elif self.sun <= 1.0:
step = 50
elif self.sun <= 10.0:
step = 10
else:
step = 5.0
if self.sun != 0:
for x in range(0, 200, step):
self.draw_photon(qp, 210 + x, 100, False)
if emission == True:
for x in range(0, 200, 50):
self.draw_photon(qp, 240 + x, 140, True)
self.draw_mode(qp, 200, 250)
qp.drawText(40, 540 + 40, "No OpenGL support, using 2D fallback mode")
def update(self):
self.tab.clear()
self.tab.setColumnCount(5)
self.tab.setRowCount(0)
self.tab.setSelectionBehavior(QAbstractItemView.SelectRows)
self.tab.setHorizontalHeaderLabels([
_("material"),
_("Volume") + " (m^-3)",
_("Mass") + " (kg)",
_("Cost") + " ($)",
_("Energy") + " (J)"
])
self.tab.setColumnWidth(1, 200)
self.tab.setColumnWidth(2, 200)
self.tab.setColumnWidth(3, 200)
self.tab.setColumnWidth(4, 200)
if work_book_enabled == False:
print(_("python3-openpyxl not found"))
return
energy_tot = 0.0
cost_tot = 0.0
for i in range(0, epitaxy_get_layers()):
volume = epitaxy_get_width(i) * 1.0 * 1.0
name = epitaxy_get_mat_file(i)
xls_file_name = os.path.join(get_materials_path(),
epitaxy_get_mat_file(i), "cost.xlsx")
if os.path.isfile(xls_file_name):
wb = load_workbook(xls_file_name)
ws = wb.get_sheet_by_name("results")
density = float(ws['B2'].value)
mass = density * volume
cost_per_kg = float(ws['B3'].value)
cost = mass * cost_per_kg
energy_per_kg = float(ws['B4'].value)
energy = energy_per_kg * mass
tab_add(self.tab,
[name,
str(volume),
str(mass),
str(cost),
str(energy)])
energy_tot = energy_tot + energy
cost_tot = cost_tot + cost
pce = inp_get_token_value("sim_info.dat", "#pce")
payback_time = -1.0
if pce != None:
pce = float(pce)
gen_energy = 1366.0 * pce / 100.0
payback_time = energy_tot / gen_energy / 60.0 / 60.0 / 24 / 365
tab_add(self.tab, ["sum", "", "", str(cost_tot), str(energy_tot)])
tab_add(self.tab,
["", "", "pay back time=",
str(payback_time), "years"])
def draw_graph(self):
self.layer_end=[]
self.layer_name=[]
self.optical_mode_file=os.path.join(get_sim_path(),"light_dump",self.data_file)
self.my_figure.clf()
ax1 = self.my_figure.add_subplot(111)
ax2 = ax1.twinx()
x_pos=0.0
layer=0
color =['r','g','b','y','o','r','g','b','y','o']
start=0.0
for i in range(0,epitaxy_get_layers()):
if epitaxy_get_electrical_layer(i).startswith("dos")==False:
start=start-epitaxy_get_width(i)
else:
break
start=start*1e9
x_pos=start
for i in range(0,epitaxy_get_layers()):
# label=epitaxy_get_mat_file(i)
layer_ticknes=epitaxy_get_width(i)
layer_material=epitaxy_get_mat_file(i)
lumo=0.0
h**o=0.0
delta=float(layer_ticknes)*1e9
#print(epitaxy_get_electrical_layer(i))
lines=[]
material_type=inp_get_token_value(os.path.join(get_materials_path(),layer_material,'mat.inp'), "#material_type")
if epitaxy_get_electrical_layer(i).startswith("dos")==False:
dos_file=os.path.join(get_materials_path(),layer_material,'dos.inp')
if os.path.isfile(dos_file)==False:
dos_file=os.path.join(get_default_material_path(),"dos.inp")
lines=inp_load_file(dos_file)
if lines!=False:
lumo=-float(inp_search_token_value(lines, "#Xi"))
Eg=float(inp_search_token_value(lines, "#Eg"))
else:
lines=inp_load_file(os.path.join(get_sim_path(),epitaxy_get_electrical_layer(i)+".inp"))
if lines!=False:
lumo=-float(inp_search_token_value(lines, "#Xi"))
Eg=float(inp_search_token_value(lines, "#Eg"))
#print("b")
x = [x_pos,x_pos+delta,x_pos+delta,x_pos]
#print("lumo=",lumo)
lumo_delta=lumo-0.1
h**o=lumo-Eg
homo_delta=h**o-0.1
draw_homo=True
y_name_pos=lumo-Eg/2
if Eg==0.0 or material_type=="metal":
lumo_delta=-7.0
draw_homo=False
y_name_pos=lumo-1.0
x_pos=x_pos+delta
self.layer_end.append(x_pos)
self.layer_name.append(layer_material)
item=ax2.text(x_pos-delta/1.5, y_name_pos, epitaxy_get_name(i))
item.set_fontsize(15)
lumo_shape = [lumo,lumo,lumo_delta,lumo_delta]
ax2.fill(x,lumo_shape, color[layer],alpha=0.4)
item=ax2.text(x_pos-delta/1.5, lumo+0.1, "%.2f eV" % lumo)
item.set_fontsize(15)
if draw_homo==True:
homo_shape = [h**o,h**o,homo_delta,homo_delta]
ax2.fill(x,homo_shape, color[layer],alpha=0.4)
item=ax2.text(x_pos-delta/1.5, lumo-Eg-0.4, "%.2f eV" % h**o)
item.set_fontsize(15)
layer=layer+1
state=dat_file()
if dat_file_read(state,self.optical_mode_file)==True:
ax1.set_ylabel(state.data_label+" ("+state.data_units+")")
ax1.set_xlabel(_("Position")+" (nm)")
ax2.set_ylabel(_("Energy")+" (eV)")
ax2.set_xlim([start, x_pos])
#ax2.axis(max=)#autoscale(enable=True, axis='x', tight=None)
for i in range(0,len(state.y_scale)):
state.y_scale[i]=state.y_scale[i]*1e9
ax1.plot(state.y_scale,state.data[0][0], 'black', linewidth=3 ,alpha=0.5)
self.my_figure.tight_layout()
def drawWidget(self, qp):
font = QFont("Sans", 11, QFont.Normal)
qp.setFont(font)
emission = False
lines = []
for i in range(0, epitaxy_get_layers()):
if epitaxy_get_pl_file(i) != "none":
if inp_load_file(lines, epitaxy_get_pl_file(i) + ".inp") == True:
if str2bool(lines[1]) == True:
emission = True
tot = 0
for i in range(0, epitaxy_get_layers()):
tot = tot + epitaxy_get_width(i)
pos = 0.0
l = epitaxy_get_layers() - 1
lines = []
for i in range(0, epitaxy_get_layers()):
thick = 200.0 * epitaxy_get_width(l - i) / tot
pos = pos + thick
path = os.path.join(get_materials_path(), epitaxy_get_mat_file(l - i), "mat.inp")
if inp_load_file(lines, path) == True:
red = float(inp_search_token_value(lines, "#Red"))
green = float(inp_search_token_value(lines, "#Green"))
blue = float(inp_search_token_value(lines, "#Blue"))
else:
print("Could not load", path)
red = 0.0
green = 0.0
blue = 0.0
self.draw_box(qp, 200, 450.0 - pos, thick * 0.9, red, green, blue, l - i)
step = 50.0
lines = []
if inp_load_file(lines, os.path.join(os.getcwd(), "light.inp")) == True:
self.sun = float(inp_search_token_value(lines, "#Psun"))
if self.sun <= 0.01:
step = 200
elif self.sun <= 0.1:
step = 100
elif self.sun <= 1.0:
step = 50
elif self.sun <= 10.0:
step = 10
else:
step = 5.0
if self.sun != 0:
for x in range(0, 200, step):
self.draw_photon(qp, 210 + x, 100, False)
if emission == True:
for x in range(0, 200, 50):
self.draw_photon(qp, 240 + x, 140, True)
self.draw_mode(qp, 200, 250)
qp.drawText(40, 540 + 40, "No OpenGL support, using 2D fallback mode")
def paintGL(self):
if self.failed==False:
dos_start=-1
dos_stop=-1
self.x_mul=1e3
self.z_mul=1e3
width=mesh_get_xlen()*self.x_mul
depth=mesh_get_zlen()*self.z_mul
l=epitaxy_get_layers()-1
xpoints=int(mesh_get_xpoints())
ypoints=int(mesh_get_ypoints())
zpoints=int(mesh_get_zpoints())
x_len=mesh_get_xlen()
self.emission=False
self.ray_model=False
lines=[]
if inp_load_file(lines,"led.inp")==True:
self.ray_model=val=str2bool(inp_search_token_value(lines, "#led_on"))
lines=[]
for i in range(0,epitaxy_get_layers()):
if epitaxy_get_pl_file(i)!="none":
if inp_load_file(lines,epitaxy_get_pl_file(i)+".inp")==True:
if str2bool(lines[1])==True:
self.emission=True
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT)
glLoadIdentity()
glTranslatef(self.x_pos, self.y_pos, self.zoom) # Move Into The Screen
glRotatef(self.xRot, 1.0, 0.0, 0.0)
glRotatef(self.yRot, 0.0, 1.0, 0.0)
glRotatef(self.zRot, 0.0, 0.0, 1.0)
glColor3f( 1.0, 1.5, 0.0 )
glPolygonMode(GL_FRONT, GL_FILL);
#glClearColor(0.92, 0.92, 0.92, 0.5) # Clear to black.
glClearColor(0.0, 0.0, 0.0, 0.5)
lines=[]
if self.suns!=0:
if self.suns<=0.01:
den=1.4
elif self.suns<=0.1:
den=0.8
elif self.suns<=1.0:
den=0.6
elif self.suns<=10.0:
den=0.3
else:
den=0.2
x=np.arange(0, width , den)
z=np.arange(0, depth , den)
for i in range(0,len(x)):
for ii in range(0,len(z)):
draw_photon(x[i],z[ii],False)
if self.emission==True and self.ray_model==False:
den=0.6
x=np.arange(0, width , den)
y=np.arange(0, depth , den)
for i in range(0,len(x)):
for ii in range(0,len(y)):
draw_photon(x[i]+0.1,y[ii]+0.1,True)
tot=0
for i in range(0,epitaxy_get_layers()):
tot=tot+epitaxy_get_width(i)
pos=0.0
self.y_mul=0
if tot>0:
self.y_mul=1.5/tot
for i in range(0,epitaxy_get_layers()):
thick=epitaxy_get_width(l-i)*self.y_mul
red=self.colors[l-i].r
green=self.colors[l-i].g
blue=self.colors[l-i].b
if i==l-self.selected_layer:
box_lines(0.0,pos,0,width,thick,depth)
if epitaxy_get_electrical_layer(l-i).startswith("dos")==True:
dy=thick/float(ypoints)
dx=width/float(xpoints)
dz=depth/float(zpoints)
xshrink=0.8
zshrink=0.8
if dos_start==-1:
dos_start=pos
dos_stop=pos+thick
if xpoints==1:
xshrink=1.0
if zpoints==1:
zshrink=1.0
if xpoints==1 and zpoints==1:
box(0.0,pos,0,width,thick,depth,red,green,blue)
else:
for y in range(0,ypoints):
for x in range(0,xpoints):
for z in range(0,zpoints):
box(dx*x,pos+y*(dy),z*dz,dx*xshrink,dy*0.8,dz*zshrink,red,green,blue)
tab(0.0,pos,depth,width,thick,depth)
elif epitaxy_get_electrical_layer(l-i).lower()=="contact" and i==l:
if xpoints==1 and zpoints==1:
box(0.0,pos,0,width,thick,depth,red,green,blue)
else:
for c in contacts_get_array():
xstart=width*(c.start/x_len)
xwidth=width*(c.width/x_len)
#print("contacts",xstart,xwidth,c.width,x_len)
if (c.start+c.width)>x_len:
xwidth=width-xstart
if c.active==True:
box(xstart,pos,0,xwidth,thick,depth,0.0,1.0,0.0)
else:
box(xstart,pos,0,xwidth,thick,depth,red,green,blue)
else:
box(0.0,pos,0,width,thick,depth,red,green,blue)
if epitaxy_get_electrical_layer(l-i).startswith("dos")==True:
text=epitaxy_get_name(l-i)+" (active)"
else:
text=epitaxy_get_name(l-i)
glColor3f(1.0,1.0,1.0)
font = QFont("Arial")
font.setPointSize(18)
if self.zoom>-20:
self.renderText (width+0.1,pos+thick/2,depth, text,font)
pos=pos+thick+0.05
glRotatef(self.tet_rotate, tet_x_rate, tet_y_rate, tet_z_rate)
draw_mode(pos-0.05,depth)
draw_rays(self.ray_fast,pos-0.05,width,self.y_mul,depth*1.05)
#print(self.graph_path)
full_data_range=self.graph_z_max-self.graph_z_min
graph(0.0,dos_start,depth+0.5,width,dos_stop-dos_start,full_data_range,self.graph_data)
draw_grid()
if self.zoom<-60:
draw_stars()