def self_output(self, x, y):
if (self.skill_type == 1):
pygame.draw.rect(op.screen, [150, 0, 0], [x + 20, y, 40, 20], 0)
op.write("摸鱼", x + 60, y + 1, 18, [255, 255, 255])
if (self.skill_type == 2):
pygame.draw.rect(op.screen, [0, 0, 150], [x + 20, y, 40, 20], 0)
op.write("肝题", x + 60, y + 1, 18, [255, 255, 255])
def ReadOTP(self, log, plantype):
'''Opens and parses a file in OTP DICOM format'''
global DCMplan, Technique
Technique = plantype
beam_count = 0
# define options for opening or saving DICOM file
self.file_opt = options = {}
options['defaultextension'] = '.DCM'
options['filetypes'] = [('OTP DICOM', 'RP*.dcm'), ('all files', '.*')]
options[
'title'] = 'Select DICOM file from OTP' # File types to select in file open dialog
#options['initialdir'] = '..\plans'
options['initialdir'] = 'C:\\OTP_DATA\DICOM\ExportTemp'
#options['initialfile'] = 'myfile.txt'
#options['parent'] = root
OTPfile = self.askopenfilename()
try:
# use read_file method from dicom module to import plan into DCMplan object
DCMplan = dicom.read_file(OTPfile)
except:
tkMessageBox.showwarning("Open file",
"Cannot open this file\n(%s)" % filename)
# extract patient/plan identifiers
self.PatientsName = DCMplan.PatientsName
self.PatientID = DCMplan.PatientID
self.Approval = DCMplan.ApprovalStatus
self.PlanID = DCMplan.RTPlanName
self.NumBeams = DCMplan.FractionGroups[0].NumberofBeams
self.NumFractions = DCMplan.FractionGroups[0].NumberofFractionsPlanned
# Clear previous plan info from log window
log.config(state=NORMAL)
log.delete(1.0, END)
log.config(state=DISABLED)
#message = "Patient: %s\nID: %s" % (self.PatientsName,self.PatientID)
#output.write(message,"Heading",log)
#message = "Plan: %s\nBeams: %i" % (self.PlanID,self.NumBeams)
#output.write(message,"Heading",log)
# Load Beams from DICOM file
for beam in DCMplan.Beams:
new_beam = DCMBeam(beam, beam_count)
beam_count += 1
self.Beams.append(new_beam)
output.write(beam.BeamName, "PASS", log)
return (self.PatientsName, self.PatientID, self.PlanID)
def login():
output.write(request)
resp = make_response(
render_template("login.jinja2",
hostname=conf.get("bighp", "hostname", fallback=""),
ip_address=conf.get("bighp", "ip_address",
fallback="")))
resp = utils.set_login_headers(resp)
jsession_id = "".join('%02x' % random.randint(0, 255)
for _ in range(16)).upper()
resp.headers.set(
"Set-Cookie",
"JSESSIONID=" + jsession_id + "; Path=/tmui; Secure; HttpOnly")
return resp
def self_output(self, x, y):
tot = len(pl.player_in_game)
for i in range(1, tot + 1):
tx = (i - (i > pl.gamer_pos and pl.gamer_pos != -1)) * 1000 / (
tot + (pl.gamer_pos == -1))
ty = max(130, 0.001 * tx * tx - 1 * tx + 350)
tx -= 60
ty -= 80
for item in pl.player_in_game:
if (item.seat == i - 1 and item.pos != self.pos):
op.write("飞雷神×" + str(0 + self.mark_pos[item.pos]),
tx + 95, ty + 170, 20, [200, 200, 0])
op.write("距离-" + str(0 + max(self.mark_pos)), x + 100, y - 60, 25,
[200, 150, 50])
def send_frame(self):
serial_array = []
serial_array.append(self.START_CHAR)
frame = self.limit_brightness()
for x, colors in enumerate(frame):
serial_array.append("{0:0>3}{1:0>3}{2:0>3}{3:0>3}".format(x, colors[0], colors[1], colors[2]))
serial_array.append(self.END_CHAR)
output.write("".join(serial_array))
self.frame_delay()
def send_frame(self):
serial_array = []
serial_array.append(self.START_CHAR)
frame = self.limit_brightness()
for x, colors in enumerate(frame):
serial_array.append("{0:0>3}{1:0>3}{2:0>3}{3:0>3}".format(x, colors[0], colors[1], colors[2]))
serial_array.append(self.END_CHAR)
output.write("".join(serial_array))
self.frame_delay()
def OnLloadBtnClick(self,plantype):
global Technique
Technique = plantype
# Clear previous info from result log window
self.passLog.config(state=NORMAL)
self.passLog.delete(1.0, END)
self.passLog.config(state=DISABLED)
self.failLog.config(state=NORMAL)
self.failLog.delete(1.0, END)
self.failLog.config(state=DISABLED)
# Reset info label
self.label.config(bg='light cyan',fg='black')
self.labelVariable.set("Loading LANTIS Plan")
output.write("Loading Lantis plan","INFO",self.passLog)
self.LPlan = data.Plan()
LResult = self.LPlan.ReadLantis(self.RTPlog,Technique)
self.lpatname.set(LResult[0])
self.lpatid.set(LResult[1])
self.lplanid.set(LResult[2])
self.labelVariable.set("Lantis Plan Loaded")
output.write("Lantis plan loaded","INFO",self.passLog)
def OnLloadBtnClick(self, plantype):
global Technique
Technique = plantype
# Clear previous info from result log window
self.passLog.config(state=NORMAL)
self.passLog.delete(1.0, END)
self.passLog.config(state=DISABLED)
self.failLog.config(state=NORMAL)
self.failLog.delete(1.0, END)
self.failLog.config(state=DISABLED)
# Reset info label
self.label.config(bg='light cyan', fg='black')
self.labelVariable.set("Loading LANTIS Plan")
output.write("Loading Lantis plan", "INFO", self.passLog)
self.LPlan = data.Plan()
LResult = self.LPlan.ReadLantis(self.RTPlog, Technique)
self.lpatname.set(LResult[0])
self.lpatid.set(LResult[1])
self.lplanid.set(LResult[2])
self.labelVariable.set("Lantis Plan Loaded")
output.write("Lantis plan loaded", "INFO", self.passLog)
def writeIntro(self, output):
'''Write game intro.
@type output: Output'''
output.write(self.description, False)
output.write('<h1>' + self.name + '</h1>', False)
#output.write('by <b>' + self.author + '</b>', False)
#output.write('Version ' + self.version, False)
output.write(self.intro, False)
self.actor.newLocation(output)
output.close()
def writeIntro(self, output):
'''Write game intro.
@type output: Output'''
output.write(self.description, False)
output.write('<h1>' + self.name + '</h1>', False)
#output.write('by <b>' + self.author + '</b>', False)
#output.write('Version ' + self.version, False)
output.write(self.intro, False)
self.actor.newLocation(output)
output.close()
# Everything sent. Now do the calculations
# ==================================
pvals, qscores, pqvals, gene_indices = cpvalcomp(slave_geno,
expr,
qcal,
shuffle=False)
pvals = comm.gather(pvals, root=0)
qscores = comm.gather(qscores, root=0)
pqvals = comm.gather(pqvals, root=0)
gene_indices = comm.gather(gene_indices, root=0)
if rank == 0:
pvals = np.vstack(pvals)
#np.save(out_fileprefix, pvals)
qscores = np.concatenate(qscores)
pqvals = np.concatenate(pqvals)
gene_indices_list = list()
for x in gene_indices:
gene_indices_list += x
output.write(out_fileprefix, snpinfo, gene_names, pvals, qscores, pqvals,
gene_indices_list)
print("Job completed in {:g} seconds".format(time.time() - start_time))
else:
assert gene_indices is None
assert qscores is None
assert pvals is None
assert pqvals is None
#print ("Done")
def solve_problem(filename):
dataset = parse(filename)
solution = solve(dataset)
solution_file = write(solution, SUBMISSION_FILENAME)
# Compiler for C--
# Victor Manuel Fernandez Castro
# May 22, 2014
import cparser
import cfg
import sys
import regalloc
import output
from time import time
if __name__ == '__main__':
cparser.init(open('examples/example.cmm', 'r').read())
tStart = time()
try:
program = cparser.program()
graphs = [cfg.gFunction(f) for f in program]
output.write(graphs, 'examples/output.s')
tEnd = time()
print('Time:', tEnd - tStart, 'sec.')
except SyntaxError as e:
print('Syntax error at line', cparser.token0.line, 'near <', \
cparser.token0.string, '>', e, file = sys.stderr)
def self_output(self, x, y):
if (self.limit == 1):
pygame.draw.rect(op.screen, [150, 0, 0], [x + 20, y, 20, 20], 0)
op.write(" 限", x + 40, y + 1, 18, [255, 255, 255])
alphas = np.array([30], dtype="float64")
#alphas = np.array([0.005,0.1,0.5,1.5,1.0])
snp_index, best_betas, best_alpha = mlpack_lasso_cv(geno, expr, alphas)
#print(snp_index)
#snp_index = list()
with open("pp.txt", "w") as output:
for i, j in enumerate(snp_index):
if j.shape[0] == 0:
outputline = gene_names[i] + "\t" + "NA"
else:
outputline = gene_names[i] + "\t" + ",".join(
[snpinfo[x].rsid for x in j])
output.write(outputline + "\n")
with open("beta.txt", "w") as output1:
for i in range(best_betas.shape[0]):
writeline = " ".join([str(x) for x in best_betas[i, :]])
output1.write(writeline + "\n")
print("time taken was :", time.time() - start_time)
"""
print("best lambdas were:",best_alpha)
import matplotlib.pyplot as plt
plt.figure()
m_log_alphas = -np.log10(alphas)
#ymin, ymax = 2300, 3800
plt.plot(m_log_alphas, mse_values, 'k', linewidth=2)
def check_beams(Plan1,Plan2,passLog,failLog):
plan_mismatch = False
output.write('\n\nBEAM CHECK','CheckHeading',passLog)
for x in range(Plan1.NumBeams):
#output.write('\n********************','INFO',passLog)
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,'BeamHeading',passLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',passLog)
#output.write('********************\n','Heading',passLog)
# Check for mismatch in Beam dictionaries.
for key in Plan1.Beams[x].__dict__:
# Initialise beam mismatch flag
beam_mismatch = False
# Compare parameter values
if Plan1.Beams[x].__dict__[key] != Plan2.Beams[x].__dict__[key]:
# Segment checking
if key == "Segments":
for k in range(Plan1.Beams[x].NumSegments):
output.write('\nSegment: %i' % (k+1),'SegHeading',passLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',passLog)
for segkey in Plan1.Beams[x].Segments[k].__dict__:
segment_mismatch = False
if Plan1.Beams[x].Segments[k].__dict__[segkey] != Plan2.Beams[x].Segments[k].__dict__[segkey]:
if segkey == "MLC":
#for i in range(81):
for i in range(41):
logstring = ("MLC Pair %i\t\t[%0.2f %0.2f]\t\t[%0.2f %0.2f]" % (i+1,Plan1.Beams[x].Segments[k].MLC[i],Plan1.Beams[x].Segments[k].MLC[i+41], Plan2.Beams[x].Segments[k].MLC[i],Plan2.Beams[x].Segments[k].MLC[i+41]))
if (fabs(Plan1.Beams[x].Segments[k].MLC[i] - round(Plan2.Beams[x].Segments[k].MLC[i],2)) > 0.011) or (fabs(Plan1.Beams[x].Segments[k].MLC[i+41] - round(Plan2.Beams[x].Segments[k].MLC[i+41],2)) > 0.011) :
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,'BeamHeading',failLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',failLog)
output.write(logstring,'MLCFAIL',failLog)
segment_mismatch = True
else:
output.write(logstring,'MLCPASS',passLog)
else:
segment_mismatch = True
if (segkey != "MLC"):
logstring = ("%s\t\t%s\t\t%s") %(segkey, Plan1.Beams[x].Segments[k].__dict__[segkey], Plan2.Beams[x].Segments[k].__dict__[segkey])
if not(segment_mismatch):
output.write(logstring,'PASS',passLog)
else:
plan_mismatch = True
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,'BeamHeading',failLog)
output.write('Segment: %i' % (k+1),'SegHeading',failLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',failLog)
output.write(logstring,'FAIL',failLog)
# If beam names don't fully match, but do partially match, then do nothing
elif(key == 'BeamName' and Plan1.Beams[x].BeamName in Plan2.Beams[x].BeamName):
pass
elif(key == 'MLC'):
for i in range(41):
logstring = ("MLC Pair %i\t\t[%0.2f %0.2f]\t\t[%0.2f %0.2f]" % (i+1,Plan1.Beams[x].MLC[i],Plan1.Beams[x].MLC[i+41], Plan2.Beams[x].MLC[i],Plan2.Beams[x].MLC[i+41]))
if (fabs(Plan1.Beams[x].MLC[i] - round(Plan2.Beams[x].MLC[i],2)) > 0.011) or (fabs(Plan1.Beams[x].MLC[i+41] - round(Plan2.Beams[x].MLC[i+41],2)) > 0.011) :
#logstring = ("MLC Leaf Number %i\t\t%f\t\t%f\t\t%f" % (i,Plan1.Beams[x].Segments[k].MLC[i], Plan2.Beams[x].Segments[k].MLC[i],(fabs(Plan1.Beams[x].Segments[k].MLC[i] - round(Plan2.Beams[x].Segments[k].MLC[i],2)))))
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,'BeamHeading',failLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',failLog)
output.write(logstring,'MLCFAIL',failLog)
else:
output.write(logstring,'MLCPASS',passLog)
# for i in range(0,81):
# # Run through MLC positions, check for differences exceeding rounding errors
# if (fabs(Plan1.Beams[x].MLC[i] - round(Plan2.Beams[x].MLC[i],2)) > 0.011):
# logstring = ("MLC Leaf Number %i: %f %f %f " % (i,Plan1.Beams[x].MLC[i], Plan2.Beams[x].MLC[i],(fabs(Plan1.Beams[x].MLC[i] - round(Plan2.Beams[x].MLC[i],2)))))
# output.write(logstring,'FAIL',passLog)
else:
# Flag a mismatch and record which parameter failed in which beam
beam_mismatch = True
plan_mismatch = True
if not(beam_mismatch) and not(key == "MLC"):
logstring = ("%s\t\t%s\t\t%s") %(key, Plan1.Beams[x].__dict__[key], Plan2.Beams[x].__dict__[key])
output.write(logstring,'PASS',passLog)
elif not(key =="MLC"):
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,'BeamHeading',failLog)
output.write('Parameter\t\tLANTIS\t\tOTP','TabHeading',failLog)
logstring = ("%s\t\t%s\t\t%s") %(key, Plan1.Beams[x].__dict__[key], Plan2.Beams[x].__dict__[key])
output.write(logstring,'FAIL',failLog)
if(plan_mismatch):
return False
else:
return True
def not_found(e):
output.write(request)
path = request.path
resp = make_response(render_template("404.jinja2", path=path), 404)
resp = utils.set_root_headers(resp)
return resp
def check_Px(LPlan, OTPPlan, passLog, failLog):
Px_mismatch = False
output.write('\nPRESCRIPTION CHECK\n', 'CheckHeading', passLog)
LDoseFr = 0 # Lantis total dose per fraction
OTPDoseFr = 0 # OTP total dose per fraction
for i in range(0, LPlan.NumBeams):
#print "Beam Number %i" %i
LDoseFr += LPlan.Beams[i].Dose
OTPDoseFr += OTPPlan.Beams[i].Dose
OTPDoseTotal = OTPDoseFr * OTPPlan.NumFractions
#print "Lantis dose/fr = %i" %LDoseFr
#print "OTP Total dose = %i" %OTPDoseTotal
# for prescription in LPlan.Prescriptions:
#if (prescription.Site == LPlan.Site):
# Check Lantis beam dose/fraction = Lantis Prescription dose/fraction
if LDoseFr == LPlan.Prescription.DoseFraction:
output.write(
"Lantis dose/beam matches Prescription: %i %i" %
(LDoseFr, LPlan.Prescription.DoseFraction), 'PASS', passLog)
#print "Lantis Px dose matches %i %i" %(LDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write(
"Lantis dose/beam and Prescription mismatch: %i %i" %
(LDoseFr, LPlan.Prescription.DoseFraction), 'FAIL', failLog)
Px_mismatch = True
# Check OTP beam dose/fraction = Lantis Prescription dose/fraction
if OTPDoseFr == LPlan.Prescription.DoseFraction:
output.write(
"OTP dose/beam matches Prescription: %i %i" %
(OTPDoseFr, LPlan.Prescription.DoseFraction), 'PASS', passLog)
#print "OTP Px dose matches %i %i" %(OTPDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write(
"OTP dose/beam and Prescription mismatch: %i %i" %
(OTPDoseFr, LPlan.Prescription.DoseFraction), 'FAIL', failLog)
#print "OTP Px dose doesn't match %i %i" %(OTPDoseFr,LPlan.Prescriptions[0].DoseFraction)
Px_mismatch = True
if OTPDoseTotal == LPlan.Prescription.DoseTotal:
output.write(
"OTP total dose matches prescription: %i %i" %
(OTPDoseTotal, LPlan.Prescription.DoseTotal), 'PASS', passLog)
#print "Lantis Px dose matches %i %i" %(LDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write(
"OTP total dose and prescription mismatch: %i %i" %
(OTPDoseTotal, LPlan.Prescription.DoseTotal), 'FAIL', failLog)
Px_mismatch = True
if (Px_mismatch):
return False
else:
return True
def check_Ports(LPlan, passLog, failLog):
output.write('\nPORTAL BEAM CHECK\n', 'CheckHeading', passLog)
for field in LPlan.PortFields:
output.write('\nBEAM \t %s' % field.BeamName, 'BeamHeading', passLog)
if (field.MU == 1):
output.write('MU: %i' % field.MU, 'PASS', passLog)
else:
output.write('MU: %i' % field.MU, 'FAIL', failLog)
if (field.Energy == 6):
output.write('Energy: %i' % field.Energy, 'PASS', passLog)
else:
output.write('Energy: %i' % field.Energy, 'FAIL', failLog)
if (field.Dose == 0):
output.write('Dose: %i' % field.Dose, 'PASS', passLog)
else:
output.write('Dose: %i' % field.Dose, 'FAIL', failLog)
def std_output(self,x,y):
if (self.pos >= len(op.player_img)):
return
op.write("score:"+str(pl.score[self.pos]) + "[" + str(pl.cd_score[self.pos])+"]",950,410,20)
pygame.draw.rect(op.screen,pl.country_color.setdefault(self.country,(0,0,0)),[850,438,150,162],0)
pygame.draw.rect(op.screen, [30, 20, 0], [874, 440, 100, 160], 0)
if (self.dead == 0):
op.screen.blit(op.player_img[self.pos], [874, 440])
else:
tmp = op.player_img[self.pos]
tmp.set_alpha(100)
op.screen.blit(tmp, [874, 440])
pygame.draw.rect(op.screen, [30, 20, 0], [849, 438, 150, 162], 2)
op.Stwrite(self.name, 872, 472, 20, [255, 255, 255])
if (self.max_hp > 7):
op.write(str(self.max_hp), 999, 571, 25, [90, 170, 85])
op.write(" / ", 999, 551, 22, [90, 170, 85])
op.write(str(self.hp), 999, 527, 25, [90, 170, 85])
else:
for i in range(self.max_hp):
if (i < self.hp):
op.screen.blit(op.hp1_g, [977, 574 - 22*i])
else:
op.screen.blit(op.hp0_g, [977, 574 - 22*i])
pygame.draw.rect(op.screen,(255, 250, 200), [852,578,20,20],0)
op.write(str(len(self.has_card)), 871, 578, 18)
x,y = 854,440
op.write(" " + self.country, x + 18, y + 2, 16, [255, 255, 255])
if (self.equip[0].id != 0):
tmp = self.equip[0]
pygame.draw.rect(op.screen, (250, 250, 250), [x + 20, y + 95, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 95, 100, 15], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 96])
op.write(cd.card_point[tmp.num], x + 45, y + 95, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 95, 13)
if (self.equip[1].id != 0):
tmp = self.equip[1]
pygame.draw.rect(op.screen, (250, 250, 250), [x + 20, y + 110, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 110, 100, 15], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 111])
op.write(cd.card_point[tmp.num], x + 45, y + 110, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 110, 13)
if (self.equip[4].id != 0):
tmp = self.equip[4]
pygame.draw.rect(op.screen, (250, 250, 250), [x + 20, y + 125, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 125, 100, 15], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 126])
op.write(cd.card_point[tmp.num], x + 45, y + 125, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 125, 13)
if (self.equip[2].id != 0):
tmp = self.equip[2]
pygame.draw.rect(op.screen, (250, 250, 250), [x + 20, y + 140, 40, 20], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 140, 40, 20], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 143])
op.write(cd.card_point[tmp.num], x + 42, y + 142, 13)
op.write("+1", x + 55, y + 140, 17)
if (self.equip[3].id != 0):
tmp = self.equip[3]
pygame.draw.rect(op.screen, (250, 250, 250), [x + 60, y + 140, 40, 20], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 60, y + 140, 40, 20], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 61, y + 143])
op.write(cd.card_point[tmp.num], x + 82, y + 142, 13)
op.write("-1", x + 95, y + 140, 17)
for item in self.judge:
if (item.id == 19):
pygame.draw.rect(op.screen, [100, 0, 100], [x + 80, y + 5, 15, 15], 0)
op.write(" 乐", x + 95, y + 5, 15, [255, 255, 255])
if (item.id == 20):
pygame.draw.rect(op.screen, [100, 100, 0], [x + 100, y + 5, 15, 15], 0)
op.write(" 兵", x + 115, y + 5, 15, [255, 255, 255])
if (item.id == 21):
pygame.draw.rect(op.screen, [0, 0, 100], [x + 100, y + 25, 15, 15], 0)
op.write(" 闪", x + 114, y + 26, 15, [255, 255, 255])
if (self.drink == 1):
pygame.draw.rect(op.screen, [150, 50, 50], [x + 80, y + 25, 15, 15], 0)
op.write(" 酒", x + 95, y + 26, 15, [255, 255, 255])
if (self.connect == 1):
pygame.draw.rect(op.screen, [100, 100, 100], [x + 20, y + 135, 25, 25], 0)
op.write(" 连", x + 45, y + 135, 20, [255, 255, 255])
self.self_output(x, y)
dx = min(95, 550/(len(self.has_card)+1))
mpos = pygame.mouse.get_pos()
for i in range(len(self.has_card)):
if(i >= len(self.has_card)):
continue
item = self.has_card[i]
self.has_card[i].alpha = 255
ny = 467 - self.chosen[i] * 30
item.std_output(100+i*dx,ny,91,130)
if(self.chosen[i] == 1):
pygame.draw.rect(op.screen, [255, 255, 0], [100 + i * dx, ny, 91, 130], 1)
res = self.using(item)
if (res[0] == 0):
pygame.draw.line(op.screen, [255, 0, 0], [100 + i * dx, ny], [191 + i * dx, ny + 130], 2)
for i in range(len(self.has_card)):
if(i >= len(self.has_card)):
continue
item = self.has_card[i]
self.has_card[i].alpha = 255
ny = 467 - self.chosen[i] * 30
if (mpos[0] > 100 + i * dx and mpos[0] < 100 + (i + 1) * dx and mpos[1] > 467 and mpos[1] < 597):
item.std_output(100 + i * dx, ny, 91, 130)
pygame.draw.rect(op.screen,[255,255,0],[100+i*dx,ny,91,130],1)
def ending(self, output):
'''Write final output before the end of the game.'''
output.write("You have won.")
def std_output(self, x, y, show_score=1):
if (self.pos >= len(op.player_img)):
return
if (show_score == 1):
op.write(
"score:" + str(self.fire_col) + "[" + str(score[self.pos]) +
"]", x + 100, y - 25, 20)
pygame.draw.rect(op.screen,
country_color.setdefault(self.country, (0, 0, 0)),
[x - 2, y - 2, 124, 164], 0)
pygame.draw.rect(op.screen, (30, 20, 0), [x + 20, y, 101, 160], 0)
op.Stwrite(self.name, x + 18, y + 20, 16, [255, 255, 255])
tmp = op.player_img[self.pos]
if (self.dead == 0):
if (self.flip == 1):
tmp = op.fliped
tmp.set_alpha(255)
else:
tmp.set_alpha(100)
op.screen.blit(tmp, [x + 21, y])
pygame.draw.rect(op.screen, (30, 20, 0), [x - 2, y - 2, 124, 163], 2)
if (show_score == 1):
self.self_output(x, y)
pygame.draw.rect(op.screen, (255, 250, 200),
[x + 100, y + 140, 20, 20], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 100, y + 140, 21, 21], 1)
op.write(str(len(self.has_card)), x + 120, y + 140, 18)
if (self.max_hp > 5):
op.write(str(self.max_hp), x + 18, y + 142, 18, [90, 170, 85])
op.write(" / ", x + 18, y + 126, 16, [90, 170, 85])
op.write(str(self.hp), x + 18, y + 110, 18, [90, 170, 85])
else:
for i in range(self.max_hp):
if (i < self.hp):
op.screen.blit(op.hp1_t, [x + 3, y + 143 - i * 17])
else:
op.screen.blit(op.hp0_t, [x + 3, y + 143 - i * 17])
op.write(" " + self.country, x + 18, y + 2, 16, [255, 255, 255])
if (self.equip[0].id != 0):
tmp = self.equip[0]
pygame.draw.rect(op.screen, (250, 250, 250),
[x + 20, y + 95, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 95, 100, 15],
1)
op.type_img[tmp.type] = pygame.transform.smoothscale(
op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 96])
op.write(cd.card_point[tmp.num], x + 45, y + 95, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 95, 13)
if (self.equip[1].id != 0):
tmp = self.equip[1]
pygame.draw.rect(op.screen, (250, 250, 250),
[x + 20, y + 110, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20),
[x + 20, y + 110, 100, 15], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(
op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 111])
op.write(cd.card_point[tmp.num], x + 45, y + 110, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 110, 13)
if (self.equip[4].id != 0):
tmp = self.equip[4]
pygame.draw.rect(op.screen, (250, 250, 250),
[x + 20, y + 125, 100, 15], 0)
pygame.draw.rect(op.screen, (30, 0, 20),
[x + 20, y + 125, 100, 15], 1)
op.type_img[tmp.type] = pygame.transform.smoothscale(
op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 126])
op.write(cd.card_point[tmp.num], x + 45, y + 125, 13)
op.write(" " + cd.card_nm[tmp.id], x + 120, y + 125, 13)
if (self.equip[2].id != 0):
tmp = self.equip[2]
pygame.draw.rect(op.screen, (250, 250, 250),
[x + 20, y + 140, 40, 20], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 20, y + 140, 40, 20],
1)
op.type_img[tmp.type] = pygame.transform.smoothscale(
op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 21, y + 143])
op.write(cd.card_point[tmp.num], x + 42, y + 142, 13)
op.write("+1", x + 55, y + 140, 17)
if (self.equip[3].id != 0):
tmp = self.equip[3]
pygame.draw.rect(op.screen, (250, 250, 250),
[x + 60, y + 140, 40, 20], 0)
pygame.draw.rect(op.screen, (30, 0, 20), [x + 60, y + 140, 40, 20],
1)
op.type_img[tmp.type] = pygame.transform.smoothscale(
op.type_img[tmp.type], (13, 13))
op.screen.blit(op.type_img[tmp.type], [x + 61, y + 143])
op.write(cd.card_point[tmp.num], x + 82, y + 142, 13)
op.write("-1", x + 95, y + 140, 17)
for item in self.judge:
if (item.id == 19):
pygame.draw.rect(op.screen, [100, 0, 100],
[x + 80, y + 5, 15, 15], 0)
op.write(" 乐", x + 95, y + 5, 15, [255, 255, 255])
if (item.id == 20):
pygame.draw.rect(op.screen, [100, 100, 0],
[x + 100, y + 5, 15, 15], 0)
op.write(" 兵", x + 115, y + 5, 15, [255, 255, 255])
if (item.id == 21):
pygame.draw.rect(op.screen, [0, 0, 100],
[x + 100, y + 25, 15, 15], 0)
op.write(" 闪", x + 114, y + 26, 15, [255, 255, 255])
if (self.drink == 1):
pygame.draw.rect(op.screen, [150, 50, 50],
[x + 80, y + 25, 15, 15], 0)
op.write(" 酒", x + 95, y + 26, 15, [255, 255, 255])
if (self.connect == 1):
pygame.draw.rect(op.screen, [100, 100, 100],
[x + 20, y + 135, 25, 25], 0)
op.write(" 连", x + 45, y + 135, 20, [255, 255, 255])
def LoadBeams():
Pxselect.destroy()
#pdb.set_trace()
self.Site = selected.get()
beam_index = -1
beam_load = False
''' Second pass through file.
Load Beam, Control Point and Prescription data for selected prescription.'''
with open(RTPfile, 'rb') as f:
reader = csv.reader(f) # use csv module to parse file
for row in reader:
if ((row[0] == "FIELD_DEF")
and (prescriptions.__contains__(row[1]))):
# Check if beam number field is a number or string (ISO check)
try:
beam_num = int(row[3])
# Flag used to load next CONTROL_PT_DEF data
beam_load = True
beam_index += 1
beam = RTPBeam(row) # create new beam object
self.Beams.append(
beam) # append beam to list of beam objects
output.write(str(row[2]), "PASS", log)
except ValueError:
if (tkMessageBox.askyesno(
"ISO Check field?",
"Is %s an ISO check field?" %
str(row[2]))):
beam = RTPPortField(row)
self.PortFields.append(beam)
beam_load = False
else:
tkMessageBox.showwarning(
"Error",
"Can't proces beam %s\nCheck that beam ID is a number."
% str(row[2]),
)
self.NumBeams = beam_index + 1
return
if (beam_load and Technique == "CRT"):
if ((row[0] == "CONTROL_PT_DEF") and (int(
row[1]) == self.Beams[beam_index].BeamNumber)):
for i in range(32, 73):
self.Beams[beam_index].MLC.append(
round(float(row[i]), 3))
for i in range(132, 173):
self.Beams[beam_index].MLC.append(
round(float(row[i]), 3))
else:
pass
elif (beam_load and (Technique == "IMRT")):
if ((row[0] == "CONTROL_PT_DEF") and (int(
row[1]) == self.Beams[beam_index].BeamNumber)):
self.Beams[beam_index].NumSegments = int(
row[4]) / 2
if (int(row[5]) % 2 == 0):
segMLC = []
for i in range(32, 73):
segMLC.append(round(float(row[i]), 3))
for i in range(132, 173):
segMLC.append(round(float(row[i]), 3))
segYjaws = [float(row[23]), float(row[24])]
else:
# Get actual segment cumulative MUs by multiplying fractional
# cumulative MU from Lantis control point data by total beam MU
CumulativeMU = float(
row[7]) * self.Beams[beam_index].MU
NewSegment = Segment(segMLC, segYjaws,
CumulativeMU)
self.Beams[beam_index].Segments.append(
NewSegment)
NumCtrlPnts = row[4]
if ((row[0] == "RX_DEF")
and (prescriptions.__contains__(row[2]))):
self.Prescription = RTPPrescription(row)
self.NumBeams = beam_index + 1
def logmein():
output.write(request)
return flask.redirect("/tmui/login.jsp?msgcode=1&")
def check_Pt(LPlan, OTPPlan, passLog):
output.write('\nPATIENT DATA CHECK\n', 'CheckHeading', passLog)
def check_Pt(LPlan,OTPPlan,passLog):
output.write('\nPATIENT DATA CHECK\n','CheckHeading',passLog)
def check_beams(Plan1, Plan2, passLog, failLog):
plan_mismatch = False
output.write('\n\nBEAM CHECK', 'CheckHeading', passLog)
for x in range(Plan1.NumBeams):
#output.write('\n********************','INFO',passLog)
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName, 'BeamHeading',
passLog)
output.write('Parameter\t\tLANTIS\t\tOTP', 'TabHeading', passLog)
#output.write('********************\n','Heading',passLog)
# Check for mismatch in Beam dictionaries.
for key in Plan1.Beams[x].__dict__:
# Initialise beam mismatch flag
beam_mismatch = False
# Compare parameter values
if Plan1.Beams[x].__dict__[key] != Plan2.Beams[x].__dict__[key]:
# Segment checking
if key == "Segments":
for k in range(Plan1.Beams[x].NumSegments):
output.write('\nSegment: %i' % (k + 1), 'SegHeading',
passLog)
output.write('Parameter\t\tLANTIS\t\tOTP',
'TabHeading', passLog)
for segkey in Plan1.Beams[x].Segments[k].__dict__:
segment_mismatch = False
if Plan1.Beams[x].Segments[k].__dict__[
segkey] != Plan2.Beams[x].Segments[
k].__dict__[segkey]:
if segkey == "MLC":
#for i in range(81):
for i in range(41):
logstring = (
"MLC Pair %i\t\t[%0.2f %0.2f]\t\t[%0.2f %0.2f]"
%
(i + 1,
Plan1.Beams[x].Segments[k].MLC[i],
Plan1.Beams[x].Segments[k].MLC[
i + 41],
Plan2.Beams[x].Segments[k].MLC[i],
Plan2.Beams[x].Segments[k].MLC[
i + 41]))
if (fabs(Plan1.Beams[x].Segments[k].
MLC[i] - round(
Plan2.Beams[x].Segments[k]
.MLC[i], 2)) > 0.011
) or (fabs(
Plan1.Beams[x].Segments[k].
MLC[i + 41] - round(
Plan2.Beams[x].Segments[k].
MLC[i + 41], 2)) > 0.011):
output.write(
'\nBEAM \t %s' %
Plan1.Beams[x].BeamName,
'BeamHeading', failLog)
output.write(
'Parameter\t\tLANTIS\t\tOTP',
'TabHeading', failLog)
output.write(
logstring, 'MLCFAIL', failLog)
segment_mismatch = True
else:
output.write(
logstring, 'MLCPASS', passLog)
else:
segment_mismatch = True
if (segkey != "MLC"):
logstring = ("%s\t\t%s\t\t%s") % (
segkey, Plan1.Beams[x].Segments[k].
__dict__[segkey], Plan2.Beams[x].
Segments[k].__dict__[segkey])
if not (segment_mismatch):
output.write(logstring, 'PASS', passLog)
else:
plan_mismatch = True
output.write(
'\nBEAM \t %s' %
Plan1.Beams[x].BeamName, 'BeamHeading',
failLog)
output.write('Segment: %i' % (k + 1),
'SegHeading', failLog)
output.write('Parameter\t\tLANTIS\t\tOTP',
'TabHeading', failLog)
output.write(logstring, 'FAIL', failLog)
# If beam names don't fully match, but do partially match, then do nothing
elif (key == 'BeamName'
and Plan1.Beams[x].BeamName in Plan2.Beams[x].BeamName):
pass
elif (key == 'MLC'):
for i in range(41):
logstring = (
"MLC Pair %i\t\t[%0.2f %0.2f]\t\t[%0.2f %0.2f]" %
(i + 1, Plan1.Beams[x].MLC[i],
Plan1.Beams[x].MLC[i + 41], Plan2.Beams[x].MLC[i],
Plan2.Beams[x].MLC[i + 41]))
if (fabs(Plan1.Beams[x].MLC[i] -
round(Plan2.Beams[x].MLC[i], 2)) > 0.011) or (
fabs(Plan1.Beams[x].MLC[i + 41] -
round(Plan2.Beams[x].MLC[i + 41], 2))
> 0.011):
#logstring = ("MLC Leaf Number %i\t\t%f\t\t%f\t\t%f" % (i,Plan1.Beams[x].Segments[k].MLC[i], Plan2.Beams[x].Segments[k].MLC[i],(fabs(Plan1.Beams[x].Segments[k].MLC[i] - round(Plan2.Beams[x].Segments[k].MLC[i],2)))))
output.write(
'\nBEAM \t %s' % Plan1.Beams[x].BeamName,
'BeamHeading', failLog)
output.write('Parameter\t\tLANTIS\t\tOTP',
'TabHeading', failLog)
output.write(logstring, 'MLCFAIL', failLog)
else:
output.write(logstring, 'MLCPASS', passLog)
# for i in range(0,81):
# # Run through MLC positions, check for differences exceeding rounding errors
# if (fabs(Plan1.Beams[x].MLC[i] - round(Plan2.Beams[x].MLC[i],2)) > 0.011):
# logstring = ("MLC Leaf Number %i: %f %f %f " % (i,Plan1.Beams[x].MLC[i], Plan2.Beams[x].MLC[i],(fabs(Plan1.Beams[x].MLC[i] - round(Plan2.Beams[x].MLC[i],2)))))
# output.write(logstring,'FAIL',passLog)
else:
# Flag a mismatch and record which parameter failed in which beam
beam_mismatch = True
plan_mismatch = True
if not (beam_mismatch) and not (key == "MLC"):
logstring = ("%s\t\t%s\t\t%s") % (key,
Plan1.Beams[x].__dict__[key],
Plan2.Beams[x].__dict__[key])
output.write(logstring, 'PASS', passLog)
elif not (key == "MLC"):
output.write('\nBEAM \t %s' % Plan1.Beams[x].BeamName,
'BeamHeading', failLog)
output.write('Parameter\t\tLANTIS\t\tOTP', 'TabHeading',
failLog)
logstring = ("%s\t\t%s\t\t%s") % (key,
Plan1.Beams[x].__dict__[key],
Plan2.Beams[x].__dict__[key])
output.write(logstring, 'FAIL', failLog)
if (plan_mismatch):
return False
else:
return True
def check_Ports(LPlan,passLog,failLog):
output.write('\nPORTAL BEAM CHECK\n','CheckHeading',passLog)
for field in LPlan.PortFields:
output.write('\nBEAM \t %s' % field.BeamName,'BeamHeading',passLog)
if (field.MU == 1):
output.write('MU: %i' %field.MU,'PASS',passLog)
else:
output.write('MU: %i' %field.MU,'FAIL',failLog)
if (field.Energy == 6):
output.write('Energy: %i' %field.Energy,'PASS',passLog)
else:
output.write('Energy: %i' %field.Energy,'FAIL',failLog)
if (field.Dose == 0):
output.write('Dose: %i' %field.Dose,'PASS',passLog)
else:
output.write('Dose: %i' %field.Dose,'FAIL',failLog)
def check_Px(LPlan,OTPPlan,passLog,failLog):
Px_mismatch = False
output.write('\nPRESCRIPTION CHECK\n','CheckHeading',passLog)
LDoseFr = 0 # Lantis total dose per fraction
OTPDoseFr = 0 # OTP total dose per fraction
for i in range(0,LPlan.NumBeams):
#print "Beam Number %i" %i
LDoseFr += LPlan.Beams[i].Dose
OTPDoseFr += OTPPlan.Beams[i].Dose
OTPDoseTotal = OTPDoseFr * OTPPlan.NumFractions
#print "Lantis dose/fr = %i" %LDoseFr
#print "OTP Total dose = %i" %OTPDoseTotal
# for prescription in LPlan.Prescriptions:
#if (prescription.Site == LPlan.Site):
# Check Lantis beam dose/fraction = Lantis Prescription dose/fraction
if LDoseFr == LPlan.Prescription.DoseFraction:
output.write("Lantis dose/beam matches Prescription: %i %i" %(LDoseFr,LPlan.Prescription.DoseFraction),'PASS',passLog)
#print "Lantis Px dose matches %i %i" %(LDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write("Lantis dose/beam and Prescription mismatch: %i %i" %(LDoseFr,LPlan.Prescription.DoseFraction),'FAIL',failLog)
Px_mismatch = True
# Check OTP beam dose/fraction = Lantis Prescription dose/fraction
if OTPDoseFr == LPlan.Prescription.DoseFraction:
output.write("OTP dose/beam matches Prescription: %i %i" %(OTPDoseFr,LPlan.Prescription.DoseFraction),'PASS',passLog)
#print "OTP Px dose matches %i %i" %(OTPDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write("OTP dose/beam and Prescription mismatch: %i %i" %(OTPDoseFr,LPlan.Prescription.DoseFraction),'FAIL',failLog)
#print "OTP Px dose doesn't match %i %i" %(OTPDoseFr,LPlan.Prescriptions[0].DoseFraction)
Px_mismatch = True
if OTPDoseTotal == LPlan.Prescription.DoseTotal:
output.write("OTP total dose matches prescription: %i %i" %(OTPDoseTotal,LPlan.Prescription.DoseTotal),'PASS',passLog)
#print "Lantis Px dose matches %i %i" %(LDoseFr,LPlan.Prescriptions[0].DoseFraction)
else:
output.write("OTP total dose and prescription mismatch: %i %i" %(OTPDoseTotal,LPlan.Prescription.DoseTotal),'FAIL',failLog)
Px_mismatch = True
if(Px_mismatch):
return False
else:
return True
def ending(self, output):
'''Write final output before the end of the game.'''
output.write("You have won.")