def acUpdate(deltaT):
global appWindow
global current_gear, current_rpm, max_rpm, shift_light, alpha, images_light, images_digits, gear_display, current_speed, max_fuel, current_fuel
global rpm_display, boost_display, percentage_boost, current_boost, max_boost, percentage_rpm, truncated_rpm, fuel_display, percentage_fuel
global min_rpm_spinner_Label, max_rpm_spinner_Label, units_spinner_Label
#Keep app window transparent
ac.setBackgroundOpacity(appWindow, 0)
ac.drawBorder(appWindow, 0)
max_rpm = sim_info.static.maxRpm if max_rpm == 0 else max_rpm #This is pulled from shared memory, read only once
max_fuel = sim_info.static.maxFuel if max_fuel == 0 else max_fuel #This is read from shared memory, read only once
current_fuel = sim_info.physics.fuel #This is read from shared memory, read every deltaT
percentage_fuel = current_fuel/max_fuel*100
current_gear = ac.getCarState(0, acsys.CS.Gear) #This is read from the API every update
current_gear = current_gear - 1
current_rpm = ac.getCarState(0, acsys.CS.RPM) #This is read from the API every update
truncated_rpm = 100*round(current_rpm/100)
current_boost = ac.getCarState(0,acsys.CS.TurboBoost) #This is read from the API every update
if units == 1:
current_speed = ac.getCarState(0,acsys.CS.SpeedMPH)
if units == 2:
current_speed = ac.getCarState(0,acsys.CS.SpeedKMH)
if (current_boost > max_boost): #Calcualate maximum turbo boost pressure - Due to limitations in the api/shared memory currently the only way
max_boost = current_boost
percentage_boost = current_boost/max_boost*100 #Calculate the percent of turbo boost being generated
percentage_rpm = current_rpm/max_rpm*100
speed_display.setText("%d" % current_speed)
if (current_gear >0):
if (percentage_rpm < max_user_rpm):
gear_display.setText("%d" % current_gear).setFontColor(1,1,1,1)
else:
gear_display.setText("%d" % current_gear).setFontColor(1,0,0,1)
if (current_gear == 0):
if (percentage_rpm < max_user_rpm):
gear_display.setText("N").setFontColor(1,1,1,1)
else:
gear_display.setText("N").setFontColor(1,0,0,1)
if (current_gear < 0):
if (percentage_rpm < max_user_rpm):
gear_display.setText("R").setFontColor(1,1,1,1)
else:
gear_display.setText("R").setFontColor(1,0,0,1)
rpm_display.setText("%d" % abs(truncated_rpm))
#fuel_display.setText("%0.1f" % percentage_fuel).setFontColor(1,0,1,1)
if (percentage_fuel > 10):
fuel_display.setText("%0.1f" % percentage_fuel).setFontColor(1,1,1,1)
if (percentage_fuel < 10):
fuel_display.setText("%0.1f" % percentage_fuel).setFontColor(1,1,0,1)
if (percentage_fuel < 5):
fuel_display.setText("%0.1f" % percentage_fuel).setFontColor(1,0,0,1)
def onRender(*args):
global prev_p, k, f_loc, started, passed_half, finished, n
track_name = ac.getTrackName(0)
basename = "%s_%i.csv"%(track_name, n)
f_loc = os.path.join(os.path.dirname(os.path.realpath(__file__)), basename)
if (k == 20):
x,y,z = ac.getCarState(ac.getCarsCount() - 1,acsys.CS.WorldPosition)
p = ac.getCarState(ac.getCarsCount() - 1,acsys.CS.NormalizedSplinePosition)
if not started:
if prev_p > 0.5 and p < 0.5:
started = True
prev_p = p
else:
if prev_p > 0.5 and p < 0.5:
n += 1
prev_p = p
return
prev_p = p
uiElements.update(x,y,z)
f = open(f_loc, "a")
f.write("{0:.5f}, {1:.5f}, {2:.5f}, {3: .5f}\n".format(x,y,z,p))
f.close()
k=0
k +=1
def onFormRender(deltaT):
global TYREINFO, optimal_spinner_id, optimal_spinner_shown
tFL, tFR, tRL, tRR = ac.getCarState(0, acsys.CS.CurrentTyresCoreTemp)
pFL, pFR, pRL, pRR = ac.getCarState(0, acsys.CS.DynamicPressure)
dFL, dFR, dRL, dRR = ac.getCarState(0, acsys.CS.TyreDirtyLevel)
wFL, wFR, wRL, wRR = readTyreWear()
drawTyresAll(w_tyre, h_tyre, round(tFL, 4), round(tFR, 4), round(tRL, 4), round(tRR, 4), dFL, dFR, dRL, dFR)
if inFahrenheit:
tFL = CelsiusToFahrenheit(tFL)
tFR = CelsiusToFahrenheit(tFR)
tRL = CelsiusToFahrenheit(tRL)
tRR = CelsiusToFahrenheit(tRR)
TYREINFO.setTemp(tFL, tFR, tRL, tRR)
TYREINFO.setPressure(pFL, pFR, pRL, pRR)
#TYREINFO.setDirt(dFL, dFR, dRL, dRR)
TYREINFO.setWear(wFL, wFR, wRL, wRR)
TYREINFO.setMaxT(tFL, tFR, tRL, tRR)
TYREINFO.setMaxP(pFL, pFR, pRL, pRR)
isInPit = readIsInPit()
if isInPit == 1 and optimal_spinner_shown == 0:
ac.setVisible(optimal_spinner_id, 1)
optimal_spinner_shown = 1
elif isInPit == 0 and optimal_spinner_shown == 1:
ac.setVisible(optimal_spinner_id, 0)
optimal_spinner_shown = 0
def acUpdate(deltaT):
global l_velocity, last_rec, f, first
curr_milliseconds = time.time() * 1000
if curr_milliseconds - last_rec >= 250:
if first:
first = False
else:
f.write(',')
last_rec = curr_milliseconds
timestamp = datetime.utcnow()
acceleration_g = ac.getCarState(0, acsys.CS.AccG)
local_angular_velocity = ac.getCarState(0, acsys.CS.LocalAngularVelocity)
ac.setText(l_velocity, "Velocity: {}".format(acceleration_g))
f.write('\n\t("0x610-0", "' + str(clamp(acceleration_g[0], -16, 16)) + '", "' + str(timestamp) + '"),')
f.write('\n\t("0x610-1", "' + str(clamp(acceleration_g[1], -16, 16)) + '", "' + str(timestamp) + '"),')
f.write('\n\t("0x610-2", "' + str(clamp(acceleration_g[2], -16, 16)) + '", "' + str(timestamp) + '"),')
f.write('\n\t("0x611-0", "' + str(local_angular_velocity[0]) + '", "' + str(timestamp) + '"),')
f.write('\n\t("0x611-1", "' + str(local_angular_velocity[1]) + '", "' + str(timestamp) + '"),')
f.write('\n\t("0x611-2", "' + str(local_angular_velocity[2]) + '", "' + str(timestamp) + '")')
def update_custom_car_info(self, interpolation, dt, car_id):
try:
self.car_id = car_id
if len(self.pit_spline["the_x"]) > 0 and len(self.track_spline["the_x"]) > 0:
self.car_pos = ac.getCarState(self.car_id, acsys.CS.WorldPosition)
self.car_pos = vec(self.car_pos[0], self.car_pos[2])
self.nsp = ac.getCarState(self.car_id, acsys.CS.NormalizedSplinePosition)
self.track_spline_pos = vec3()
self.track_spline_pos.x = interpolation.interpolate_spline(self.nsp, self.track_spline["the_x"], self.track_spline["loc_x"], True)
self.track_spline_pos.y = interpolation.interpolate_spline(self.nsp, self.track_spline["the_x"], self.track_spline["loc_y"], True)
self.track_spline_pos.z = interpolation.interpolate_spline(self.nsp, self.track_spline["the_x"], self.track_spline["loc_z"], True)
if self.nsp < 0.5:
self.nsp += 1
self.pit_spline_pos = vec()
self.pit_spline_pos.x = interpolation.interpolate_spline(self.nsp, self.pit_spline["the_x"], self.pit_spline["loc_x"])
self.pit_spline_pos.y = interpolation.interpolate_spline(self.nsp, self.pit_spline["the_x"], self.pit_spline["loc_y"])
self.distance_2_track_spline_pow = math.pow(self.car_pos.x - self.track_spline_pos.x, 2) + math.pow(self.car_pos.y - self.track_spline_pos.y, 2)
self.distance_2_pit_spline_pow = math.pow(self.car_pos.x - self.pit_spline_pos.x, 2) + math.pow(self.car_pos.y - self.pit_spline_pos.y, 2)
#-------------------------------------------------------------------
#car in pitline
if self.distance_2_pit_spline_pow < self.distance_2_track_spline_pow:
self.car_is_in_pitline[self.i] = True
else:
self.car_is_in_pitline[self.i] = False
#-------------------------------------------------------------------
#car out
self.car_out_threshold = 80
if self.distance_2_pit_spline_pow > self.distance_2_track_spline_pow:
if self.distance_2_track_spline_pow > self.car_out_threshold:
self.car_is_out["status"][self.car_id] = True
self.car_is_out["duration"][self.car_id] += dt
self.car_is_out["pos_expected"][self.car_id] = self.track_spline_pos
else:
self.car_is_out["status"][self.car_id] = False
self.car_is_out["duration"][self.car_id] = 0
self.car_is_out["pos_expected"][self.car_id] = vec3()
else:
self.car_is_out["status"][self.car_id] = False
self.car_is_out["duration"][self.car_id] = 0
self.car_is_out["pos_expected"][self.car_id] = vec3()
else:
if ac.isCarInPitline(self.car_id) == 1:
self.car_is_in_pitline[self.i] = True
else:
self.car_is_in_pitline[self.i] = False
except Exception as e:
debug(e)
def acUpdate(ms):
global BEST_LOGGED_LAP, LAP_HISTORY, UPDATE_DELTA, CURRENT_LAP_VALID, LAP_VALID_INDICATOR
if ACTIVE:
if CURRENT_LAP_VALID and info.physics.numberOfTyresOut > TIRES_THRESHOLD:
ac.setText(LAP_VALID_INDICATOR, 'Dirty')
CURRENT_LAP_VALID = False
#UPDATE_DELTA += ms
#if UPDATE_DELTA < UPDATE_THRESHOLD:
# return
#UPDATE_DELTA = 0
last_lap = ac.getCarState(DRIVER_ID_SELF, acsys.CS.LastLap)
valid = CURRENT_LAP_VALID and not ac.getCarState(
DRIVER_ID_SELF, acsys.CS.LapInvalidated)
if last_lap and (not LAP_HISTORY or not last_lap == LAP_HISTORY[-1]):
ac.console('Last lap: %s%s' %
(last_lap, '' if valid else ' (invalid)'))
reportLap({
'driver': DRIVER,
'track': TRACK,
'car': CAR,
'lap': last_lap
})
refreshLapDisplay()
# reset lap tracking
ac.setText(LAP_VALID_INDICATOR, 'Clean')
CURRENT_LAP_VALID = True
LAP_HISTORY.append(last_lap)
def getSpeed(car=0, unit="kmh"):
if unit == "kmh":
return ac.getCarState(car, acsys.CS.SpeedKMH)
elif unit == "mph":
return ac.getCarState(car, acsys.CS.SpeedMPH)
elif unit == "ms":
return ac.getCarState(car, acsys.CS.SpeedMS)
def acUpdate(deltaT):
global l_lapcount, lapcount, l_laptime, laptime
# Don't write anything to the console from here unless it's in an if statement - it causes a crash, deltaT must
# be approx every ms
# Update current lap time in app window
laptime = (ac.getCarState(0, acsys.CS.LapTime)) / 1000
ac.setText(l_laptime, "Current lap (s): {}".format(laptime))
# if statement using difference between lapcount and the laps output from AC to record data
laps = ac.getCarState(0, acsys.CS.LapCount)
if laps > lapcount:
# Uses the difference between laps and lap count to limit recording to once per lap
lapcount = laps
ac.setText(l_lapcount, "Laps Completed: {}".format(lapcount))
# Write last lap data to csv
last_lap_raw = ((ac.getCarState(0, acsys.CS.LastLap))) / 1000
ac.console("**Last_lap recorded")
last_lap_m = last_lap_raw // 60
last_lap_s = last_lap_raw % 60
ac.console("**Last_lap split into minutes and seconds")
with open('stintoutputfile.csv', 'a') as f:
f.write("{},{:.0f}:{:.3f}\n".format(lapcount, last_lap_m,
last_lap_s))
ac.console("** stint tracker: lap written to file")
ac.console("{},{:.0f}:{:.3f}\n".format(lapcount, last_lap_m,
last_lap_s))
def updateToMemory(self, stop=True):
car_positions = []
car_velocities = []
car_npos = []
for i in range(ac.getCarsCount()):
x, y, z = ac.getCarState(i, acsys.CS.WorldPosition)
pos = {"X": x, "Y": y, "Z": z}
car_positions.append(pos)
x, y, z = ac.getCarState(i, acsys.CS.Velocity)
vel = {"X": x, "Y": y, "Z": z}
car_velocities.append(vel)
pos = ac.getCarState(i, acsys.CS.NormalizedSplinePosition)
car_npos.append(pos)
#heading = info.physics.heading
#pitch = info.physics.pitch
#roll = info.physics.roll
dict = {
"car_positions": car_positions,
"car_velocities": car_velocities,
"normalized_car_positions": car_npos,
"stop": stop
#"heading" : heading,
#"pitch" : pitch,
#"roll" : roll
}
memoryMap = self._getMemoryMap()
memoryMap.seek(0)
memoryMap.write(1024 * b"\0")
memoryMap.seek(0)
memoryMap.write(json.dumps(dict).encode())
memoryMap.close()
def onFormRender(deltaT):
global TYREINFO, optimal_spinner_id, optimal_spinner_shown
tFL, tFR, tRL, tRR = ac.getCarState(0, acsys.CS.CurrentTyresCoreTemp)
pFL, pFR, pRL, pRR = ac.getCarState(0, acsys.CS.DynamicPressure)
dFL, dFR, dRL, dRR = ac.getCarState(0, acsys.CS.TyreDirtyLevel)
wFL, wFR, wRL, wRR = readTyreWear()
drawTyresAll(w_tyre, h_tyre, round(tFL, 4), round(tFR, 4), round(tRL, 4),
round(tRR, 4), dFL, dFR, dRL, dFR)
if inFahrenheit:
tFL = CelsiusToFahrenheit(tFL)
tFR = CelsiusToFahrenheit(tFR)
tRL = CelsiusToFahrenheit(tRL)
tRR = CelsiusToFahrenheit(tRR)
TYREINFO.setTemp(tFL, tFR, tRL, tRR)
TYREINFO.setPressure(pFL, pFR, pRL, pRR)
#TYREINFO.setDirt(dFL, dFR, dRL, dRR)
TYREINFO.setWear(wFL, wFR, wRL, wRR)
TYREINFO.setMaxT(tFL, tFR, tRL, tRR)
TYREINFO.setMaxP(pFL, pFR, pRL, pRR)
isInPit = readIsInPit()
if isInPit == 1 and optimal_spinner_shown == 0:
ac.setVisible(optimal_spinner_id, 1)
optimal_spinner_shown = 1
elif isInPit == 0 and optimal_spinner_shown == 1:
ac.setVisible(optimal_spinner_id, 0)
optimal_spinner_shown = 0
def calcBrakeVibe(self):
speed = ac.getCarState(0, acsys.CS.SpeedMS)
rpm = ac.getCarState(0, acsys.CS.RPM)
brake = ac.getCarState(0, acsys.CS.Brake)
#Calculates the ratio between the RPM and car speed
#If RPM is minimum and the car is still moving -> we probably have locked tires
if speed > 1:
self.old_ratio = self.ratio
self.ratio = rpm / speed
else:
self.old_ratio = 0
self.ratio = 0
return 0
#Check if we are pressing the brakes and the ratio is increasing (same RPM and less speed = higher ratio)
send = 0
thresh = Config.instance.cfgBrakeTol / 100
sens = 0.010 - (Config.instance.cfgBrakeSens / 1000)
if (brake > thresh) and (self.ratio > 0):
if (self.ratio > self.old_ratio) or (abs((self.ratio - self.old_ratio) / self.ratio) > sens):
send = 1
return send
def __get_next_car(self, data, car_id, pitline_validation=False):
try:
self.nsp = ac.getCarState(car_id, acsys.CS.NormalizedSplinePosition)
self.next_car = [car_id, 1]
for self.iteration in range(32): #max cars
if ac.isConnected(self.iteration) == 1 and self.iteration != car_id:
self.pitline_condition = True
if pitline_validation:
if data.is_car_in_pitline(self.iteration) == data.is_car_in_pitline(car_id):
self.pitline_condition = True
else:
self.pitline_condition = False
if self.pitline_condition:
if self.nsp < ac.getCarState(self.iteration, acsys.CS.NormalizedSplinePosition):
self.distance = abs(self.nsp - ac.getCarState(self.iteration, acsys.CS.NormalizedSplinePosition))
else:
self.distance = 1 - abs(self.nsp - ac.getCarState(self.iteration, acsys.CS.NormalizedSplinePosition))
if self.distance < self.next_car[1]:
self.next_car = [self.iteration, self.distance]
return self.next_car[0]
except Exception as e:
debug(e)
def get_performance_gap(self, sector, time):
if self.currentVehicle.value > 0:
if len(self.reference_lap_time_others[
self.currentVehicle.value]) < 10:
return round(
ac.getCarState(self.currentVehicle.value,
acsys.CS.PerformanceMeter) * 1000)
if sector > 0.5:
reference_lap = reversed(
self.reference_lap_time_others[self.currentVehicle.value])
else:
reference_lap = self.reference_lap_time_others[
self.currentVehicle.value]
for l in reference_lap:
if l.sector == sector:
return time - l.time
return False # do not update
# Car user
if len(self.referenceLap) < 10:
return round(ac.getCarState(0, acsys.CS.PerformanceMeter) * 1000)
if sector > 0.5:
reference_lap = reversed(self.referenceLap)
else:
reference_lap = self.referenceLap
for l in reference_lap:
if l.sector == sector:
return time - l.time
return False # do not update
def get_progresses():
progs = []
for i in range(NCARS):
if ac.isConnected(i):
lap = ac.getCarState(i, acsys.CS.LapCount)
spline = ac.getCarState(i, acsys.CS.NormalizedSplinePosition)
prg = lap + spline
progs.append(prg)
return progs
def acUpdate(deltaT):
global s, addr, client_stat, ai_lane, fileDest
global sct, monitor, seq
global csvfile, writer, starttime
try:
recv = s.recvfrom(1024)
client_stat = recv[0].decode().split('\n')[0]
addr = recv[1]
if client_stat == 'init':
s.sendto((fileDest + '\n').encode(), addr)
elif client_stat == 'query':
ego_stat['time'] = time.time() - starttime
s.sendto((json.dumps(ego_stat) + '\n').encode(), addr)
elif client_stat == 'imquery':
im = sct.grab(monitor)
fname = "{:02d}.png".format(seq)
mss.tools.to_png(im.rgb,
im.size,
level=1,
output=("apps/python/aclab_py/captures/" + fname))
s.sendto((os.path.join(os.getcwd(), 'apps', 'python', 'aclab_py',
'captures', fname) + '\n').encode(), addr)
seq = (seq + 1) % 10
except:
# ac.console(client_stat)
ego_stat['gas'] = info.physics.gas
ego_stat['brake'] = info.physics.brake
ego_stat['steerAngle'] = info.physics.steerAngle
ego_stat['velocity'] = info.physics.velocity[:]
ego_stat['accG'] = info.physics.accG[:]
ego_stat['wheelSlip'] = info.physics.wheelSlip[:]
ego_stat['wheelLoad'] = info.physics.wheelLoad[:]
ego_stat['heading'] = info.physics.heading
ego_stat['pitch'] = info.physics.pitch
ego_stat['roll'] = info.physics.roll
ego_stat['localAngularVel'] = info.physics.localAngularVel[:]
ego_stat['localVelocity'] = info.physics.localVelocity[:]
ego_stat['normalizedCarPosition'] = info.graphics.normalizedCarPosition
ego_stat['carCoordinates'] = info.graphics.carCoordinates[:]
ego_stat['surfaceGrip'] = info.graphics.surfaceGrip
ego_stat['numCars'] = info.static.numCars
for car in range(info.static.numCars):
if car is 0:
continue
env_stat['velocity'] = ac.getCarState(car, acsys.CS.Velocity)
env_stat['normalizedCarPosition'] = ac.getCarState(
car, acsys.CS.NormalizedSplinePosition)
env_stat['carCoordinates'] = ac.getCarState(
car, acsys.CS.WorldPosition)
ego_stat['env_stat'][car] = copy.deepcopy(env_stat)
# ac.console(json.dumps(ego_stat)+'\n')
ac.console(str(time.time() - starttime - ego_stat['time']))
if time.time() - starttime - ego_stat['time'] > 0.99:
writer.writerow(ego_stat)
ego_stat['time'] = time.time() - starttime
def onFormRender(deltaT): global TYREINFO tFL, tFR, tRL, tRR = ac.getCarState(0, acsys.CS.CurrentTyresCoreTemp) pFL, pFR, pRL, pRR = ac.getCarState(0, acsys.CS.DynamicPressure) dFL, dFR, dRL, dRR = ac.getCarState(0, acsys.CS.TyreDirtyLevel) TYREINFO.setTemp(tFL, tFR, tRL, tRR) TYREINFO.setPressure(pFL, pFR, pRL, pRR) TYREINFO.setDirt(dFL, dFR, dRL, dRR) TYREINFO.setMaxT(tFL, tFR, tRL, tRR) TYREINFO.setMaxP(pFL, pFR, pRL, pRR) drawTyresAll(w_tyre, h_tyre, round(tFL, 4), round(tFR, 4), round(tRL, 4), round(tRR, 4), dFL, dFR, dRL, dFR)
def acUpdate(deltaT):
global appName, appWindow, info, imagePath
global output_speed, speed, gear, output_gear, max_rpm, rpm
global output_Fuel_R
global absVal, text_abs, tcsVal, text_tcs
#Speed
speed = ac.getCarState(0, acsys.CS.SpeedKMH)
ac.setText(output_speed, "%01d" % (speed))
#Gear
gear = ac.getCarState(0, acsys.CS.Gear) - 1
if gear == -1:
ac.setText(output_gear, "R")
elif gear == 0:
ac.setText(output_gear, "N")
else:
ac.setText(output_gear, "%01d" % (gear))
#ABS
absVal = info.physics.abs
if absVal == 0:
ac.setFontColor(text_abs, 1, 1, 1, 0.4)
else:
ac.setFontColor(text_abs, 1, 1, 1, 0.83)
#TCS
tcsVal = info.physics.tc
if tcsVal == 0:
ac.setFontColor(text_tcs, 1, 1, 1, 0.4)
else:
ac.setFontColor(text_tcs, 1, 1, 1, 0.83)
# RPM Actions
rpm = info.physics.rpms
max_rpm = info.static.maxRpm
max_rpm_remap = round(((rpm) * (20) / (max_rpm)))
# Assign image per Rounded RPM
for i in hud20:
ac.setBackgroundTexture(
appWindow, imagePath + "hud/h" + str(max_rpm_remap) + ".png")
# max_rpm_remap gets rounded to a solid number (based on the amount of images)
# That number gets used as the image number
# Fuel_Remaining
fuel_R = info.physics.fuel
ac.setText(output_Fuel_R, "{:.2f} l".format(fuel_R))
ac.setBackgroundOpacity(appWindow, 0)
def acUpdate(deltaT):
global current_lap_time, is_lap_started
# logic to detect starting of new lap
current_lap_time = ac.getCarState(0, acsys.CS.LapTime)
if (current_lap_time < 300) and (is_lap_started == False):
is_lap_started = True
newLap()
if current_lap_time > 2000:
is_lap_started = False
onUpdate(ac.getCarState(0, acsys.CS.Gear))
updateGearsInfo(False)
def acUpdate(delta_t):
"""Update continuously with the data from the game."""
global TOTAL_LAPS_COUNTER
if not MESSAGES.empty():
ac.setText(NOTIFICATION, MESSAGES.get())
update_laptimes()
total_laps = ac.getCarState(0, acsys.CS.LapCount)
# delay a bit(100 milliseconds) cause just after start/finish line data is
# not yet correct by the game
if total_laps != TOTAL_LAPS_COUNTER and \
ac.getCarState(0, acsys.CS.LapTime) > 100:
TOTAL_LAPS_COUNTER = total_laps
if TOTAL_LAPS_COUNTER > 0: # laps might got reset
add_laptime(ac.getLastSplits(0), CAR, TRACK, LAYOUT)
def handleDrifting():
global currentscorelabel, lastDrift, highscore, waitForInvalid, waitTime, storeDriftScore
cs = round(ac.getCarState(0, acsys.CS.InstantDrift))
if cs > 0:
if ac.getCarState(0, acsys.CS.IsDriftInvalid):
resetDriftScoring()
ac.setText(currentscorelabel, "Drift invalid")
else:
ac.setText(currentscorelabel, "Drift Score: " + str(cs))
if lastDrift > cs: # drift done
#if lastDrift > highscore: # do not send if not highscore drift
waitForInvalid = waitTime
storeDriftScore = lastDrift
lastDrift = cs
def updateSharedMemory():
global sharedMem
sharedmem = sharedMem.getsharedmem()
sharedmem.numVehicles = ac.getCarsCount()
sharedmem.focusVehicle = ac.getFocusedCar()
#now we'll build the slots, so we later know every single (possible) car
carIds = range(0, ac.getCarsCount(), 1)
for carId in carIds:
#first we'll check wether there is a car for this id; as soon it returns -1
#it's over
if str(ac.getCarName(carId)) == '-1':
break
else:
sharedmem.vehicleInfo[carId].carId = carId
sharedmem.vehicleInfo[carId].driverName = ac.getDriverName(carId).encode('utf-8')
sharedmem.vehicleInfo[carId].carModel = ac.getCarName(carId).encode('utf-8')
sharedmem.vehicleInfo[carId].speedMS = ac.getCarState(carId, acsys.CS.SpeedMS)
sharedmem.vehicleInfo[carId].bestLapMS = ac.getCarState(carId, acsys.CS.BestLap)
sharedmem.vehicleInfo[carId].lapCount = ac.getCarState(carId, acsys.CS.LapCount)
sharedmem.vehicleInfo[carId].currentLapInvalid = ac.getCarState(carId, acsys.CS.LapInvalidated)
sharedmem.vehicleInfo[carId].currentLapTimeMS = ac.getCarState(carId, acsys.CS.LapTime)
sharedmem.vehicleInfo[carId].lastLapTimeMS = ac.getCarState(carId, acsys.CS.LastLap)
sharedmem.vehicleInfo[carId].worldPosition = ac.getCarState(carId, acsys.CS.WorldPosition)
sharedmem.vehicleInfo[carId].isCarInPitline = ac.isCarInPitline(carId)
sharedmem.vehicleInfo[carId].isCarInPit = ac.isCarInPit(carId)
sharedmem.vehicleInfo[carId].carLeaderboardPosition = ac.getCarLeaderboardPosition(carId)
sharedmem.vehicleInfo[carId].carRealTimeLeaderboardPosition = ac.getCarRealTimeLeaderboardPosition(carId)
sharedmem.vehicleInfo[carId].spLineLength= ac.getCarState(carId, acsys.CS.NormalizedSplinePosition)
sharedmem.vehicleInfo[carId].isConnected = ac.isConnected(carId)
def acUpdate(deltaT):
global l_lapcount, l_speed, lapcount, topspeed, l_fuel, fuel, LTR_TO_GAL_CONVERSION
laps = ac.getCarState(0, acsys.CS.LapCount)
speed = ac.getCarState(0, acsys.CS.SpeedMPH)
fuel = info.physics.fuel * LTR_TO_GAL_CONVERSION
ac.setText(l_fuel, "Current Fuel Level: {} gal".format(round(fuel, 2)))
if speed > topspeed:
topspeed = round(speed, 2)
ac.setText(l_speed, "Highest Top Speed: {} MPH".format(topspeed))
if laps > lapcount:
lapcount = laps
ac.setText(l_lapcount, "Laps: {}".format(lapcount))
def update(self, delta: float):
for c in range(0, self._server.cars):
if ac.isCarInPit(c) or not ac.isConnected(c):
continue
lap = ac.getCarState(c, acsys.CS.LapCount)
pos = ac.getCarState(c, acsys.CS.NormalizedSplinePosition)
invalid = ac.getCarState(
c, acsys.CS.LapInvalidated) and self._valid[c]
sec = int(pos * 3)
#msec = int(pos * 12)
if lap != self._lap_index[c]:
self._valid[c] = True
self._start_lap_time[c] = time() * 1000
best_lap = ac.getCarState(c, acsys.CS.BestLap)
if not invalid and best_lap > 0:
if best_lap < self._gb_lap_time:
self._gb_lap_time = best_lap
self._pb_lap_time[c] = best_lap
elif best_lap < self._pb_lap_time[c]:
self._pb_lap_time[c] = best_lap
self._lap_index[c] = lap
self._current_lap_time[c] = time() * 1000 - self._start_lap_time[c]
if sec > 0:
self._current_sector_time[c][sec] = self._current_lap_time[
c] - sum(self._current_sector_time[c][:sec])
else:
self._current_sector_time[c][sec] = self._current_lap_time[c]
if sec != self._sector_index[c]:
last_sec = self._sector_index[c]
if not invalid and self._current_sector_time[c][last_sec] > 0:
if self._current_sector_time[c][
last_sec] < self._gb_sector_time[last_sec]:
self._gb_sector_time[
last_sec] = self._current_sector_time[c][last_sec]
self._pb_sector_time[c][
last_sec] = self._current_sector_time[c][last_sec]
elif self._current_sector_time[c][
last_sec] < self._pb_sector_time[c][last_sec]:
self._pb_sector_time[c][
last_sec] = self._current_sector_time[c][last_sec]
self._sector_index[c] = sec
def acUpdate(deltaT):
global AngleLabel, Angle, PeakAngleLabel, PeakAngle, Timer, MinKMH, PeakKMHLabel
ac.setFontAlignment(AngleLabel, "center")
ac.setPosition(AngleLabel, 100, 20)
# raw data
carKMH = ac.getCarState(0, acsys.CS.SpeedKMH)
fl, fr, rl, rr = ac.getCarState(0, acsys.CS.SlipAngle)
vx, vy, vz = ac.getCarState(0, acsys.CS.LocalVelocity)
# model data
Angle = getDriftAngle(rl, rr, vz)
# spin : over angle
if Angle > MaxAngle and carKMH > MinKMH:
ac.setText(AngleLabel, "Spin")
ac.setText(peakKMHLabel, "0")
PeakAngle = 0
return
# spin : lower speed
if Angle > 60 and carKMH < MinKMH and vz > 0:
ac.setText(AngleLabel, "Spin")
ac.setText(peakKMHLabel, "0")
PeakAngle = 0
return
# drifting
if carKMH > MinKMH:
ac.setText(AngleLabel, "{:.0f}°".format(Angle))
if Angle > PeakAngle:
PeakAngle = Angle
ac.setText(PeakAngleLabel, "{:.0f}°".format(PeakAngle))
ac.setText(PeakKMHLabel, "{:.0f}".format(carKMH))
# Wait anim
else:
ac.setPosition(AngleLabel, 37, 20)
Timer += deltaT
ac.setFontAlignment(AngleLabel, "left")
if int(Timer) % 3 == 0:
ac.setText(AngleLabel, "ready")
if int(Timer) % 3 == 1:
ac.setText(AngleLabel, "ready.")
if int(Timer) % 3 == 2:
ac.setText(AngleLabel, "ready..")
PeakAngle = 0
ac.setText(PeakAngleLabel, "{:.0f}°".format(PeakAngle))
ac.setText(PeakKMHLabel, "0")
def acUpdate(deltaT):
global current_inpit, lapnumber, current_lap_inpit, compound, lap_valid, time_list, lap_list, pit_list, laptime_list, compound_list, valid_list, last_lap, get_laptime
# invalidate lap when more than 2 tyres off the track
if dmrp.info.physics.numberOfTyresOut > 2:
lap_valid_tmp = 0
if lap_valid_tmp != lap_valid:
lap_valid = lap_valid_tmp
pit = ac.isCarInPitline(0)
if pit != current_inpit:
# get compound after car left the pitlane
if pit == 0:
compound = dmrp.info.graphics.tyreCompound
current_inpit = pit
if current_inpit == 1:
current_lap_inpit = current_inpit
lap = ac.getCarState(0, acsys.CS.LapCount)
# new lap
if lap != lapnumber:
dt = time.strftime('%Y%m%d%H%M%S', time.localtime())
lapnumber = lap
get_laptime = 1
# update lists
time_list.append(dt)
lap_list.append(lapnumber)
pit_list.append(current_lap_inpit)
compound_list.append(compound)
valid_list.append(lap_valid)
current_lap_inpit = 0
current_inpit = 0
lap_valid = 1
# get last lap time after 1 second
curent_laptime = ac.getCarState(0, acsys.CS.LapTime)
if curent_laptime > 1000 and get_laptime == 1:
last_lap = ac.getCarState(0, acsys.CS.LastLap)
# update laptime list
laptime_list.append(last_lap)
get_laptime = 0
def get_closest_opponent(self, car_id, interpolation, x, data):
self.max_cars = 32
self.nsp = ac.getCarState(car_id, acsys.CS.NormalizedSplinePosition)
self.next_car = vec(car_id, 1)
for self.i in range(32): #max cars
if ac.isConnected(self.i) == 1 and self.i != car_id:
if data.is_car_in_pitline(car_id) == data.is_car_in_pitline(self.i):
self.distance_a = abs(self.nsp - ac.getCarState(self.i, acsys.CS.NormalizedSplinePosition))
self.distance_b = 1 - abs(self.nsp - ac.getCarState(self.i, acsys.CS.NormalizedSplinePosition))
self.distance = min(self.distance_a, self.distance_b)
if self.distance < self.next_car.y:
self.next_car = vec(self.i, self.distance)
return self.next_car.x
def update(self):
self.gas = ac.getCarState(0, acsys.CS.Gas)
self.brake = ac.getCarState(0, acsys.CS.Brake)
self.clutch = ac.getCarState(0, acsys.CS.Clutch)
self.gear = ac.getCarState(0, acsys.CS.Gear) - 1
self.steer = ac.getCarState(0, acsys.CS.Steer)
# # Update labels
# ac.setText(self.l_gas, "Gas: {:04.2f}".format(self.gas))
# ac.setText(self.l_brake, "Brake: {:04.2f}".format(self.brake))
# ac.setText(self.l_clutch, "Clutch: {:04.2f}".format(self.clutch))
# ac.setText(self.l_gear, "Gear: {:01d}".format(self.gear))
# ac.setText(self.l_steer, "Steer: {:04.2f}".format(self.steer))
return self.gas, self.brake, self.clutch, self.gear, self.steer
def acUpdate(deltaT):
try:
global Speed, DoPit, FuelMax, InPit, FuelIn, session, delta # Position,InitialPosition vars can be removed from the code
global PitX, PitY, PitZ # added global variables initiliased as 0,0,0. X,Y,Z co-ords of pit box
global AppInitialised # added global variable initiliased as False
global Notify
if not AppInitialised: # First call to app, set variables
getNotification()
if AutoUpdate:
CheckNewUpdate()
InPit = info.graphics.isInPit
FuelMax = int(info.static.maxFuel)
ac.setRange(FuelSelection, 0, FuelMax)
ReadPreset()
ac.setValue(Preset1, 1)
AppInitialised = True
if abs(PitX) < 1e-5: # set pit position
InPit = info.graphics.isInPit
if InPit:
PitX, PitY, PitZ = ac.getCarState(0, acsys.CS.WorldPosition)
ac.log("BoxRadio: Pit position initialized at X:" + str(PitX) +
" Y:" + str(PitY) + " Z:" + str(PitZ))
Speed = ac.getCarState(0, acsys.CS.SpeedKMH)
if Speed < 0.1 and DoPit == 0:
session = info.graphics.session # session number, 2 is race
InPit = info.graphics.isInPit
if session == 2:
PosX, PosY, PosZ = ac.getCarState(
0, acsys.CS.WorldPosition) # current co-ord position
delta = ((PosX - PitX)**2 + (PosY - PitY)**2 + (PosZ - PitZ)**
2)**0.5 # straight line dist between pitbox and car
FuelIn = int(info.physics.fuel)
if delta < 8.0 or InPit == 1: # if InPit or within 8m of pitbox, quite relaxed limit guarantees app trigger on menu appear
PitStop()
ac.log("BoxRadio: Pit performed at X:" + str(PosX) +
" Y:" + str(PosY) + " Z:" + str(PosZ))
ac.log("BoxRadio: Delta:" + str(delta))
DoPit = 1
if Speed >= 0.1:
DoPit = 0
except Exception as e:
ac.log("BoxRadio: Error in acUpdate: %s" % e)
def acUpdate(deltaT):
ac.setBackgroundOpacity(appWindow, 0)
ac.drawBorder(appWindow, 0)
global l_kmph, l_rpm, l_gear, speed, RPM, gear, acceleration
speed = str(ac.getCarState(0, acsys.CS.SpeedKMH))
RPM = str(ac.getCarState(0, acsys.CS.RPM))
gear = str(ac.getCarState(0, acsys.CS.Gear))
ac.setText(l_kmph, speed)
ac.setText(l_rpm, RPM)
ac.setText(l_gear, gear)
global ascii_RPM, ARPM
iRPM = float(RPM)
maxRPM = float(info.static.maxRpm)
ARPM = tacho(iRPM)
if iRPM >= (maxRPM - 200):
ARPM = ARPM + "[!]"
ac.setText(ascii_RPM, ARPM)
accelerationS = str(ac.getCarState(0, acsys.CS.AccG)) # returns a tuple with x y z; so X is sideways, Y is up and down and Z forward reverse
accelerationTest = ac.getCarState(0, acsys.CS.AccG) # this is the non-printing one I'm gonna work with
global gX, gY, gZ, gZback, gXleft
gX = round(accelerationTest[0], 3) # then the car's turning left basically, gforces pulling the car to the right
if gX > 0:
gXleft = 0
else:
gXleft = gX
gX = 0.0
gY = round(accelerationTest[1], 3)
gZ = round(accelerationTest[2], 3)
gZback = gZ # forking gZ into two, this one will be used for reverse gforces
if gZ < 0:
gZback = gZ
gZ = 0.0
else:
gZback = 0.0
ac.setText(acceleration, accelerationS)
print(acceleration)
def drawBrakeGauge(): global posting, post_time_elapsed, post_total_time inner_min_rad = math.asin((brake_gauge_root_y-brake_gauge_min_y)/brake_gauge_inner_radius) inner_max_rad = math.asin((brake_gauge_root_y-brake_gauge_max_y)/brake_gauge_inner_radius) outer_min_rad = math.asin((brake_gauge_root_y-brake_gauge_min_y)/brake_gauge_outer_radius) outer_max_rad = math.asin((brake_gauge_root_y-brake_gauge_max_y)/brake_gauge_outer_radius) for i in range(0,int((ac.getCarState(0,acsys.CS.Brake))*100),1): # p1 = inner, p2 = outer # p3 = inner, p4 = outer rad1 = (inner_max_rad-inner_min_rad)/100*i + inner_min_rad + (math.pi if brake_gauge_right else 0) rad2 = (outer_max_rad-outer_min_rad)/100*i + outer_min_rad + (math.pi if brake_gauge_right else 0) rad3 = (inner_max_rad-inner_min_rad)/100*(i+1) + inner_min_rad + (math.pi if brake_gauge_right else 0) rad4 = (outer_max_rad-outer_min_rad)/100*(i+1) + outer_min_rad + (math.pi if brake_gauge_right else 0) p1_x = math.cos(rad1)*brake_gauge_inner_radius + brake_gauge_root_x p1_y = brake_gauge_root_y - math.sin(rad1)*brake_gauge_inner_radius p2_x = math.cos(rad2)*brake_gauge_outer_radius + brake_gauge_root_x p2_y = brake_gauge_root_y - math.sin(rad2)*brake_gauge_outer_radius p3_x = math.cos(rad3)*brake_gauge_inner_radius + brake_gauge_root_x p3_y = brake_gauge_root_y - math.sin(rad3)*brake_gauge_inner_radius p4_x = math.cos(rad4)*brake_gauge_outer_radius + brake_gauge_root_x p4_y = brake_gauge_root_y - math.sin(rad4)*brake_gauge_outer_radius ac.glBegin(2) ac.glColor4f(brake_gauge_color[0],brake_gauge_color[1],brake_gauge_color[2],brake_gauge_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p3_x,p3_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(brake_gauge_color[0],brake_gauge_color[1],brake_gauge_color[2],brake_gauge_color[3]) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd()
def update(self):
"""Update data."""
self.gear = ac.getCarState(self.id, acsys.CS.Gear)
if self.cfg.use_kmh:
self.speed = ac.getCarState(self.id, acsys.CS.SpeedKMH)
else:
self.speed = ac.getCarState(self.id, acsys.CS.SpeedMPH)
# Gear label
if self.gear == 0:
self.gear_text = "R"
elif self.gear == 1:
self.gear_text = "N"
else:
self.gear_text = str(self.gear - 1)
def drawClutchGauge(): global posting, post_time_elapsed, post_total_time inner_min_rad = math.asin((clutch_gauge_root_y-clutch_gauge_min_y)/clutch_gauge_inner_radius) inner_max_rad = math.asin((clutch_gauge_root_y-clutch_gauge_max_y+1)/clutch_gauge_inner_radius) outer_min_rad = math.asin((clutch_gauge_root_y-clutch_gauge_min_y)/clutch_gauge_outer_radius) outer_max_rad = math.asin((clutch_gauge_root_y-clutch_gauge_max_y+1)/clutch_gauge_outer_radius) for i in range(0,int((1-ac.getCarState(0,acsys.CS.Clutch))*100),1): # p1 = inner, p2 = outer # p3 = inner, p4 = outer rad1 = (inner_max_rad-inner_min_rad)/100*(100-i) - inner_max_rad + (math.pi if clutch_gauge_right else 0) rad2 = (outer_max_rad-outer_min_rad)/100*(100-i) - outer_max_rad + (math.pi if clutch_gauge_right else 0) rad3 = (inner_max_rad-inner_min_rad)/100*(100 - i+1) - inner_max_rad + (math.pi if clutch_gauge_right else 0) rad4 = (outer_max_rad-outer_min_rad)/100*(100 - i+1) - outer_max_rad + (math.pi if clutch_gauge_right else 0) p1_x = math.cos(rad1)*clutch_gauge_inner_radius + clutch_gauge_root_x p1_y = clutch_gauge_root_y - math.sin(rad1)*clutch_gauge_inner_radius p2_x = math.cos(rad2)*clutch_gauge_outer_radius + clutch_gauge_root_x p2_y = clutch_gauge_root_y - math.sin(rad2)*clutch_gauge_outer_radius p3_x = math.cos(rad3)*clutch_gauge_inner_radius + clutch_gauge_root_x p3_y = clutch_gauge_root_y - math.sin(rad3)*clutch_gauge_inner_radius p4_x = math.cos(rad4)*clutch_gauge_outer_radius + clutch_gauge_root_x p4_y = clutch_gauge_root_y - math.sin(rad4)*clutch_gauge_outer_radius ac.glBegin(2) ac.glColor4f(clutch_gauge_color[0],clutch_gauge_color[1],clutch_gauge_color[2],clutch_gauge_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p3_x,p3_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(clutch_gauge_color[0],clutch_gauge_color[1],clutch_gauge_color[2],clutch_gauge_color[3]) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd()
def getDriverInformation(detectionArea):
global labelStorage, appPosX, appPosY, spinner_y_offset, fov_setting
triangle = Triangle(detectionArea[0], detectionArea[1], detectionArea[2])
setLabel = 0
for x in range(ac.getCarsCount()):
posX, posZ, posY = ac.getCarState(x, acsys.CS.WorldPosition)
if triangle.isInside((posX, posY)) and x != 0:
vect_x = posX - detectionArea[0][0]
vect_y = posY - detectionArea[0][1]
distance = math.sqrt(math.pow(vect_x, 2) + math.pow(vect_y, 2))
newPosition = getRenderPosition(x, detectionArea, (posX, posY))
ac.setText(labelStorage[setLabel], ac.getDriverName(x))
fov_angle = ac.getValue(fov_setting)
xPos = (((newPosition * windowSizeX) / fov_angle) - appPosX)
yOffset = ac.getValue(spinner_y_offset)
yPos = (((windowSizeY / 2) - 20) - appPosY) + int(yOffset)
fontSize = (10 *
(1 /
(distance / 100))) * (ac.getValue(scale_factor) / 10)
ac.setPosition(labelStorage[setLabel], xPos, yPos)
ac.setFontSize(labelStorage[setLabel], fontSize)
setLabel += 1
for z in range(ac.getCarsCount() - setLabel):
ac.setText(labelStorage[setLabel + z], "")
def acUpdate(deltaT): global brake_display global gas_display steps = 20 ac_brake = round(ac.getCarState(0, acsys.CS.Brake) * 100) current_brake_step = str(round(steps * ac_brake / 100)).zfill(2) # ac.console(current_brake_step) ac.setBackgroundTexture(brake_display, "apps/python/pedalCircles/textures/brake_steps/brake_" + current_brake_step + ".png") ac_gas = round(ac.getCarState(0, acsys.CS.Gas) * 100) current_gas_step = str(round(steps * ac_gas / 100)).zfill(2) # ac.console(current_gas_step) ac.setBackgroundTexture(gas_display, "apps/python/pedalCircles/textures/gas_steps/gas_" + current_gas_step + ".png")
def update_data(self, deltaT):
'''
Called by acUpdate, updates internal data
'''
self.best_lap = ac.getCarState(0, acsys.CS.BestLap)
# Update cars
for i in range(30):
try:
car = self.cars[i]
except IndexError:
name = ac.getDriverName(i)
if name == -1:
# No such car
break
car = Car(name)
self.cars.append(car)
# The name can change if in no-booking mode
car.name = ac.getDriverName(i)
car.spline_pos = ac.getCarState(i,
acsys.CS.NormalizedSplinePosition)
car.lap = ac.getCarState(i, acsys.CS.LapCount)
# There is currently no way to know if another car is in the pit using the API
# so we consider cars going slower than 20kph and close to start/finish line to
# be in the pits
car.in_pits = ac.getCarState(i, acsys.CS.SpeedKMH) < 20 and \
(car.spline_pos < 0.1 or car.spline_pos > 0.9)
if i == 0:
self.player = car
else:
car.relative_position = car.spline_pos - self.player.spline_pos
if car.relative_position > 0.5:
car.relative_position -= 1
if car.relative_position < -0.5:
car.relative_position += 1
car.delta = car.relative_position * self.best_lap
# Update the cars' race position:
for i, car in enumerate(
sorted(self.cars, key=lambda car:
(-car.lap, -car.spline_pos))):
car.position = i + 1
def drawSpeedometer(): speed = ac.getCarState(0,acsys.CS.DriveTrainSpeed)/dt_ratio #Drivetrain speed seems to be about 75-90% of the real speed wtf if imperial: speed = speed / 1.632 # degree range: 190..-10 r = abs(speedo_min_angle - speedo_max_angle) speed_deg = speedo_max_angle - (speed/indicated_max_speed)*r speed_rad = math.radians(speed_deg) for i in range(0,indicated_max_speed+1,5): if i % 20 == 0: rad = math.radians(speedo_max_angle - (i/indicated_max_speed)*r) p1_x = math.cos(rad)*speedo_radius+speed_pivot_x p1_y = -math.sin(rad)*speedo_radius+speed_pivot_y p2_x = math.cos(rad)*(speedo_radius*4/5)+speed_pivot_x p2_y = -math.sin(rad)*(speedo_radius*4/5)+speed_pivot_y ac.glBegin(0) ac.glColor4f(speedo_bigline_color[0],speedo_bigline_color[1],speedo_bigline_color[2],speedo_bigline_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd() elif i % 5 == 0 and i != 0: rad = math.radians(speedo_max_angle - (i/indicated_max_speed)*r) p1_x = math.cos(rad)*speedo_radius+speed_pivot_x p1_y = -math.sin(rad)*speedo_radius+speed_pivot_y p2_x = math.cos(rad)*(speedo_radius*9.25/10)+speed_pivot_x p2_y = -math.sin(rad)*(speedo_radius*9.25/10)+speed_pivot_y ac.glBegin(0) ac.glColor4f(speedo_smallline_color[0],speedo_smallline_color[1],speedo_smallline_color[2],speedo_smallline_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd() # Needle speed_x = math.cos(speed_rad)*(speedo_radius-3)+speed_pivot_x speed_y = -math.sin(speed_rad)*(speedo_radius-3)+speed_pivot_y speed_end_x = math.cos(speed_rad+math.pi)*speedo_needle_end+speed_pivot_x speed_end_y = -math.sin(speed_rad+math.pi)*speedo_needle_end+speed_pivot_y speed_p1_x = speed_x + math.cos(speed_rad-math.pi/2)*1.5 speed_p1_y = speed_y - math.sin(speed_rad-math.pi/2)*1.5 speed_p2_x = speed_x + math.cos(speed_rad+math.pi/2)*1.5 speed_p2_y = speed_y - math.sin(speed_rad+math.pi/2)*1.5 speed_end_p1_x = speed_end_x + math.cos(speed_rad+math.pi/2)*3 speed_end_p1_y = speed_end_y - math.sin(speed_rad+math.pi/2)*3 speed_end_p2_x = speed_end_x + math.cos(speed_rad-math.pi/2)*3 speed_end_p2_y = speed_end_y - math.sin(speed_rad-math.pi/2)*3 ac.glBegin(2) ac.glColor4f(speedo_needle_color1[0],speedo_needle_color1[1],speedo_needle_color1[2],speedo_needle_color1[3]) ac.glVertex2f(speed_p1_x,speed_p1_y) ac.glVertex2f(speed_end_p1_x,speed_end_p1_y) ac.glVertex2f(speed_end_p2_x,speed_end_p2_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(speedo_needle_color1[0],speedo_needle_color1[1],speedo_needle_color1[2],speedo_needle_color1[3]) ac.glVertex2f(speed_p1_x,speed_p1_y) ac.glVertex2f(speed_end_p2_x,speed_end_p2_y) ac.glVertex2f(speed_p2_x,speed_p2_y) ac.glEnd()
def get_prev_car(self, car_id):
try:
self.max_cars = 32
self.nsp = ac.getCarState(car_id, acsys.CS.NormalizedSplinePosition)
self.prev_car = vec(car_id, 1)
for self.i in range(32): #max cars
if ac.isConnected(self.i) == 1 and self.i != car_id:
if self.nsp > ac.getCarState(self.i, acsys.CS.NormalizedSplinePosition):
self.distance = abs(self.nsp - ac.getCarState(self.i, acsys.CS.NormalizedSplinePosition))
else:
self.distance = 1 - abs(self.nsp - ac.getCarState(self.i, acsys.CS.NormalizedSplinePosition))
if self.distance < self.prev_car.y:
self.prev_car = vec(self.i, self.distance)
return self.prev_car.x
except Exception as e:
debug(e)
def logging(self):
if self.outputFile == None:
return
lapCount = ac.getCarState(self.carId, acsys.CS.LapCount) + 1
lapTime = ac.getCarState( self.carId, acsys.CS.LapTime)
speed = ac.getCarState(self.carId, acsys.CS.SpeedKMH)
throttle = ac.getCarState(self.carId, acsys.CS.Gas)
brake = ac.getCarState(self.carId, acsys.CS.Brake)
gear = ac.getCarState(self.carId, acsys.CS.Gear)
rpm = ac.getCarState(self.carId, acsys.CS.RPM)
distance = ac.getCarState(self.carId, acsys.CS.NormalizedSplinePosition)
steer = ac.getCarState(self.carId, acsys.CS.Steer)
(x, y, z) = ac.getCarState(self.carId, acsys.CS.WorldPosition)
self.outputFile.write('{}\t{:.3f}\t{:.4f}\t{:.2f}\t{:.3f}\t{:.3f}\t{}\t{:.0f}\t{:.1f}\t{:.2f}\t{:.2f}\t{:.2f}\n'.format(\
lapCount, lapTime/1000, distance, speed, throttle, brake,
gear, rpm, steer, x, y, z))
def acUpdate(deltaT):
try:
global Speed, DoPit, FuelMax, InPit, FuelIn, session, delta # Position,InitialPosition vars can be removed from the code
global PitX, PitY, PitZ # added global variables initiliased as 0,0,0. X,Y,Z co-ords of pit box
global AppInitialised # added global variable initiliased as False
global Notify
if not AppInitialised: # First call to app, set variables
getNotification()
if AutoUpdate:
CheckNewUpdate()
InPit = info.graphics.isInPit
FuelMax = int(info.static.maxFuel)
ac.setRange(FuelSelection, 0, FuelMax)
ReadPreset()
ac.setValue(Preset1, 1)
AppInitialised = True
if abs(PitX) < 1e-5: # set pit position
InPit = info.graphics.isInPit
if InPit:
PitX, PitY, PitZ = ac.getCarState(0, acsys.CS.WorldPosition)
ac.log("BoxRadio: Pit position initialized at X:" + str(PitX) + " Y:" + str(PitY) + " Z:" + str(PitZ))
Speed = ac.getCarState(0, acsys.CS.SpeedKMH)
if Speed < 0.1 and DoPit == 0:
session = info.graphics.session # session number, 2 is race
InPit = info.graphics.isInPit
if session == 2:
PosX, PosY, PosZ = ac.getCarState(0, acsys.CS.WorldPosition) # current co-ord position
delta = ((PosX - PitX) ** 2 + (PosY - PitY) ** 2 + (PosZ - PitZ) ** 2) ** 0.5 # straight line dist between pitbox and car
FuelIn = int(info.physics.fuel)
if delta < 8.0 or InPit == 1: # if InPit or within 8m of pitbox, quite relaxed limit guarantees app trigger on menu appear
PitStop()
ac.log("BoxRadio: Pit performed at X:" + str(PosX) + " Y:" + str(PosY) + " Z:" + str(PosZ))
ac.log("BoxRadio: Delta:" + str(delta))
DoPit = 1
if Speed >= 0.1:
DoPit = 0
except Exception as e:
ac.log("BoxRadio: Error in acUpdate: %s" % e)
def acUpdate(deltaT): # use global tyre objects global FL, FR, RL, RR # get the tyre temps from ac FLTyreTemp, FRTyreTemp, RLTyreTemp, RRTyreTemp = ac.getCarState(0, acsys.CS.CurrentTyresCoreTemp) # update temperatures for each of the tyres FL.updateTemperature(FLTyreTemp) FR.updateTemperature(FRTyreTemp) RL.updateTemperature(RLTyreTemp) RR.updateTemperature(RRTyreTemp)
def acUpdate(deltaT):
global tick
global memFile
tick = tick + 1
forceValue=ac.getCarState(0,acsys.CS.LastFF)
#steeringValue=ac.getCarState(0,acsys.CS.Steer)
#buf = ctypes.create_string_buffer(10)
buf = struct.pack("?if", True, tick,forceValue)
memFile.seek(0)
memFile.write(buf)
def update_data(self, deltaT):
'''
Called by acUpdate, updates internal data
'''
self.best_lap = ac.getCarState(0, acsys.CS.BestLap)
# Update cars
for i in range(30):
try:
car = self.cars[i]
except IndexError:
name = ac.getDriverName(i)
if name == -1:
# No such car
break
car = Car(name)
self.cars.append(car)
# The name can change if in no-booking mode
car.name = ac.getDriverName(i)
car.spline_pos = ac.getCarState(i, acsys.CS.NormalizedSplinePosition)
car.lap = ac.getCarState(i, acsys.CS.LapCount)
# There is currently no way to know if another car is in the pit using the API
# so we consider cars going slower than 20kph and close to start/finish line to
# be in the pits
car.in_pits = ac.getCarState(i, acsys.CS.SpeedKMH) < 20 and \
(car.spline_pos < 0.1 or car.spline_pos > 0.9)
if i == 0:
self.player = car
else:
car.relative_position = car.spline_pos - self.player.spline_pos
if car.relative_position > 0.5:
car.relative_position -= 1
if car.relative_position < -0.5:
car.relative_position += 1
car.delta = car.relative_position * self.best_lap
# Update the cars' race position:
for i, car in enumerate(sorted(self.cars, key=lambda car: (-car.lap, -car.spline_pos))):
car.position = i + 1
def acUpdate(deltaT):
global ser, ac, acsys, count
if count == 15:
value = ac.getCarState(0, acsys.CS.SpeedMPH)
value = str(round(value))
toSend = "1:" + value + ";"
ser.write(toSend.encode())
count = 0
else:
count = count + 1
def getStandingsPosition(self,vehicule):
#mainly for replay
standings = []
for i in range(self.carsCount):
bl=ac.getCarState(i,acsys.CS.BestLap)
if bl > 0 and bool(ac.isConnected(vehicule)):
standings.append((i,bl))
standings = sorted(standings, key=lambda student: student[1])
p=[i for i, v in enumerate(standings) if v[0] == vehicule]
if len(p) > 0:
return p[0]+1
return 0
def acUpdate(delta_t):
ac.setBackgroundOpacity(toe_app, 0)
ac.setBackgroundOpacity(rpm_app, 0)
rpm = ac.getCarState(0, acsys.CS.RPM)
boost = ac.getCarState(0, acsys.CS.TurboBoost)
fuel = simInfo.physics.fuel
ac.setText(rpm_label, str(round(rpm)) + "\n" + str(round(boost, 3)) + "\n" + str(round(fuel, 1)))
value_fl = ac.getCarState(0, acsys.CS.ToeInDeg, acsys.WHEELS.FL)
value_fr = ac.getCarState(0, acsys.CS.ToeInDeg, acsys.WHEELS.FR)
value_rl = ac.getCarState(0, acsys.CS.ToeInDeg, acsys.WHEELS.RL)
value_rr = ac.getCarState(0, acsys.CS.ToeInDeg, acsys.WHEELS.RR)
toeP(prev_fl, value_fl)
toeP(prev_fr, value_fr)
toeP(prev_rl, value_rl)
toeP(prev_rr, value_rr)
ac.setText(
toe_label,
toeSl(prev_fl, value_fl)
+ "\t"
+ toeSr(prev_fr, value_fr)
+ "\n"
+ toeSl(prev_rl, value_rl)
+ "\t"
+ toeSr(prev_rr, value_rr),
)
def drawGMeter(): global posting, post_time_elapsed, post_total_time # Colors c1 = [0.0,200/255,1.0,g_meter_opacity] # Middle one c2 = [0.0,150/255,1.0,g_meter_opacity] # Inner c3 = [0.0,125/255,1.0,g_meter_opacity] # Middle inner c4 = [0.0,100/255,1.0,g_meter_opacity] # Outer g = ac.getCarState(0,acsys.CS.AccG)[0] # Neg range: 660..511 # Pos range: 660..809 l_x = r_x = 0 pixels = int(abs(g)*(g_meter_range/2.52)) if abs(g) >= 2.52: pixels = g_meter_range # ALL OF THEM if g < 0: r_x = g_meter_x_anchor l_x = r_x - pixels else: l_x = g_meter_x_anchor r_x = l_x + pixels t_y = g_meter_y_anchor for i in range(0,11,1): c = [] offset = 0 if i == 0 or i == 1 or i == 9 or i == 10: c = c4 offset = 4 elif i == 2 or i == 8: c = c3 offset = 2 elif i == 3 or i == 7: c = c3 offset = 1 elif i == 4 or i == 6: c = c2 offset = 1 else: c = c1 if g > 0 and r_x - offset <= l_x: continue elif g < 0 and l_x + offset >= r_x: continue l_offset = r_offset = 0 if g > 0: r_offset = - offset if g < 0: l_offset = offset ac.glBegin(0) ac.glColor4f(c[0],c[1],c[2],c[3]) ac.glVertex2f(l_x+l_offset,t_y+i) ac.glVertex2f(r_x+r_offset,t_y+i) ac.glEnd()
def acUpdate(deltaT):
global ser,ac,acsys,count
if count == 15:
value=ac.getCarState(0,acsys.CS.RPM)
value = str(round(value))
toSend="1:" + value + ";"
ser.write(toSend.encode())
gear=ac.getCarState(0,acsys.CS.Gear)
gear = int(gear)
gear = gear - 1
if gear == 0:
gear = "n"
elif gear == -1:
gear = "r"
else:
gear = str(gear)
toSendGear = "2:" + gear + ";"
ser.write(toSendGear.encode())
count = 0
else:
count = count + 1
def getPerformanceGap(self, sector, time):
if len(self.referenceLap) < 10:
return round(ac.getCarState(0, acsys.CS.PerformanceMeter) * 1000)
# if self.referenceLap[sector*100]
if sector > 0.5:
referenceLap = reversed(self.referenceLap)
else:
referenceLap = self.referenceLap
for l in referenceLap:
if l.sector == sector:
return time - l.time
# do not update
return False
def update_sector(self, new_sector):
if new_sector == 0:
if self.data.sectors_available:
# On a new lap, lastSectorTime is not immediately available
sector_time = ac.getLastSplits(0)[-1]
else:
sector_time = sim_info.info.graphics.iLastTime - sum(self.lap.splits)
sector_time = max(0, sector_time)
if self.sector_lookup is None:
self.generate_sector_lookup()
else:
# Normal new sector update
if self.data.sectors_available:
sector_time = sim_info.info.graphics.lastSectorTime
else:
sector_time = ac.getCarState(0, acsys.CS.LapTime) - sum(self.lap.splits)
sector_time = max(0, sector_time)
# ^ TODO? refactor above to "get_sector_time"?
sector_number = new_sector - 1 # 'last'
if sector_number == -1:
sector_number = self.track.sector_count - 1
# Always record the time, even if the lap is invalid.
self.lap.splits[sector_number] = sector_time
# But do not check for fastest when invalid, just bail out.
if self.lap.invalid_sectors[sector_number]:
return
# Should not really happen except maybe on initial sector discovery.
# This also happens when 'reset session' is used.
if sector_time == 0:
return
fastest = self.data.fastest_splits
if (fastest[sector_number] is None or
not fastest[sector_number].splits[sector_number] or
sector_time < fastest[sector_number].splits[sector_number]):
fastest[sector_number] = self.lap
session = self.data.session_splits
if (session[sector_number] is None or
not session[sector_number].splits[sector_number] or
sector_time < session[sector_number].splits[sector_number]):
session[sector_number] = self.lap
# Now show the actual optimal time...
if self.statusbox is not None:
self.statusbox.update_optimal()
def acUpdate(self, delta_t):
if sim_info.info.graphics.status != sim_info.AC_LIVE:
# You probably do not want to do anything until the sim is active.
return
if self.first_update:
# App was just hot reloaded, or is otherwise running for the first time.
self.first_update = False
self.reinitialize_app()
new_text = (
"""
Total Frames: {frame_count}
Since Reload: {local_frame_count}
TRY CHANGING THIS AND RUN 'client_debug.py send'
Current Lap: {current_lap}
Lap Time: {lap_time}
""".format(frame_count = self.data.frame_count,
local_frame_count = self.local_frame_count,
current_lap = ac.getCarState(0, acsys.CS.LapCount),
lap_time = ac.getCarState(0, acsys.CS.LapTime)))
ac.setText(self.data.banner, new_text)
def acUpdate(deltaT):
global l_lapcount, lapcount, b_benzina, benzina
laps = ac.getCarState(0, acsys.CS.LapCount)
info = sim_info.SimInfo()
remaining = info.physics.fuel
if laps > lapcount:
lapcount = laps
ac.setText(l_lapcount, "Laps: {}".format(lapcount))
if remaining < benzina:
benzina = remaining
ac.setText(b_benzina, "Fuel: {}".format(benzina))
def drawNeedle(delta_t):
speed = ac.getCarState(0, acsys.CS.SpeedKMH)
if limited and speed > speedMaximum: speed = speedMaximum
radValue = speed / speedMaximum * radRange + radStartingPoint
dx = math.sin(radValue)
dy = math.cos(radValue)
tx = halfWidth - dx * halfWidth
ty = halfHeight + dy * halfHeight
ax = dx * halfArrowWidth
ay = dy * halfArrowWidth
ac.glColor4f(1.0, 0.2, 0.2, 0.8) # color
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(halfWidth + ay, halfHeight + ax)
ac.glVertex2f(halfWidth - ay, halfHeight - ax)
ac.glVertex2f(tx - ay, ty - ax)
ac.glVertex2f(tx + ay, ty + ax)
ac.glEnd()
def update(self, deltaT):
#
# Reading the static section within the shared memory needs to be done within the acUpdate(), but the
# first frame is all we need.
#
if not self.static_set:
self.data['static'] = struct_to_hash(self.info.static)
self.static_set = True
#
# Check if we should update
#
current_tick = perf_counter()
if current_tick - self.last_update_tick < self.interval:
self.frames_skipped += 1
return
self.last_update_tick = current_tick
#
# Dynamic updates
#
self.data['delta'] = ac.getCarState(0, acsys.CS.PerformanceMeter) # Delta gibts aus der Python API
self.data['graphics'] = struct_to_hash(self.info.graphics)
self.data['physics'] = struct_to_hash(self.info.physics)
self.data['frames_skipped'] = self.frames_skipped
self.frames_skipped = 0
#
# Handle events
#
for event in pygame.event.get():
if event.type == pygame.JOYBUTTONDOWN:
self.data['button_pressed'] = event.dict['button']
# if self.valid_config and self.i % 10 == 0:
if self.valid_config:
self.emit()
# Only update the debugwindow if we haven't
if self.show_debug_window:
self.update_labels_in_debug_window()
def acUpdate(deltaT):
global PitButton,Speed,DoPitOnce
Speed = ac.getCarState(0,acsys.CS.SpeedMS)
if Speed <= 0.060 and DoPitOnce == 0:
PitButton = "1"
DoPitOnce = 1
PushPitButton()
if DoPitOnce == 1:
PitButton = "0"
PushPitButton()
if Speed > 0.060:
DoPitOnce = 0
PushPitButton()
ResponseWit()
ac.console("[PV]Refresh at " + str(datetime.datetime.now()))
ac.log("[PV]Refresh at " + str(datetime.datetime.now()))
def acMain(ac_version):
global session
# Create session object
session = Session(ac, acsys)
session.app_size_x = app_size_x
session.app_size_y = app_size_y
session.freq = FREQ
session.trackname = ac.getTrackName(0)
session.carname = ac.getCarName(0)
# Initialise UI:
ui = UI(session)
session.ui = ui
# Load best lap time if it exists for current track and car
session.load_best_lap()
# Create first lap
session.new_lap(ac.getCarState(0, acsys.CS.LapCount))
return "Racing Line"
def acUpdate(deltaT):
global tick, trackname, lapcount, l_lapcount, l_distance, l_fuel, distance, in_tank, fuel
tick += 1
# info.physics.fuel is 0 until the outlap begins
if in_tank == 0:
in_tank = info.physics.fuel
current_tank = info.physics.fuel
difference = in_tank - round(current_tank, 2)
if difference > 0.01:
in_tank = current_tank
fuel += difference
ac.setText(l_fuel, "Fuel used: {:.3f}".format(fuel))
laps = ac.getCarState(0, acsys.CS.LapCount)
if laps > lapcount:
lapcount = laps
distance += tracklength[trackname]
ac.log("{} laps of {}. That's {:.3f} kilometers this session".format(lapcount, trackname, distance))
ac.console("{} laps of {}. That's {:.3f} kilometers this session".format(lapcount, trackname, distance))
ac.setText(l_lapcount, "Laps: {}".format(lapcount))
ac.setText(l_distance, "Kilometers: {:.3f}".format(distance))
def compileDataPacket(self):
ac_gear = ac.getCarState(0, acsys.CS.Gear)
ac_speed = int(round(ac.getCarState(0, acsys.CS.SpeedMPH)) if Config.instance.cfgSpeedUnit == "MPH" else
round(ac.getCarState(0, acsys.CS.SpeedKMH)))
rpms = int(ac.getCarState(0, acsys.CS.RPM))
self.maxRPM = self.simInfo.static.maxRpm if self.maxRPM == 0 else self.maxRPM #blank the if statement if sim-info issue where max rpm doesn't change is fixed
shift = 0
if self.maxRPM > 0:
thresh = self.maxRPM*0.65
if rpms >= thresh:
shift = round(((rpms-thresh)/(self.maxRPM-thresh))*16)
if shift > 16:
shift = 16
engine = 0
if self.simInfo.physics.pitLimiterOn and not self.simInfo.graphics.isInPit:
engine = 1
current_fuel = self.simInfo.physics.fuel
fuel = 0
if Config.instance.cfgFuelDisp == "PERCENTAGE":
self.maxFuel = self.simInfo.static.maxFuel if self.maxFuel == 0 else self.maxFuel
fuel = int((current_fuel/self.maxFuel)*100)
engine |= 3 << 1
else:
if self.fuelEst != 0:
fuel = round(current_fuel/self.fuelEst, 2)
if fuel > 99.9:
fuel = round(fuel)
elif fuel > 9.99:
fuel = round(fuel*10)
engine |= 1 << 1
else:
fuel = round(fuel*100)
engine |= 2 << 1
else:
fuel = 0
if fuel > 999:
fuel = 999
lapCount = self.simInfo.graphics.completedLaps + Config.instance.cfgLapOffset
if lapCount > 199:
lapCount = 199
boost = round(ac.getCarState(0, acsys.CS.TurboBoost), 1)
b1 = int(boost*10)
if b1 < 0:
b1 = 0
if Config.instance.cfgBrakeEnable == 1:
engine |= (self.calcBrakeVibe() << 3)
delta = 0
deltaNeg = 0
mins = 0
if self.prevFuel != 0:
engine |= (1 << 4)
if self.sendTimeReset == 1:
self.sendTimeReset = 0
engine |= (1 << 5)
if self.sendTime == 1:
self.sendTime = 0
engine |= (1 << 6)
time = self.simInfo.graphics.lastTime.split(":")
delta = (int(time[1]) << 9) | int(time[2])
mins = int(time[0])
if mins > 99:
mins = 99
else:
delta = ac.getCarState(0, acsys.CS.PerformanceMeter)
deltaNeg = 0
if delta <= 0:
deltaNeg = 1
delta = int(abs(delta) * 1000)
if delta > 9999:
delta = 9999
bSetting = int(deltaNeg << 7) | int(Config.instance.cfgIntensity << 4) | int(Config.instance.cfgStartPage)
key = bytes([255, bSetting, ac_gear, (ac_speed >> 8 & 0x00FF), (ac_speed & 0x00FF), ((rpms >> 8) & 0x00FF),
(rpms & 0x00FF), ((fuel >> 8) & 0x00FF), (fuel & 0x00FF), shift, engine, lapCount, b1,
((delta >> 8) & 0x00FF), (delta & 0x00FF), mins])
return key
def init_lap(self): self.lap.track = self.track.name self.lap.car = ac.getCarName(0) self.lap.lap_number = ac.getCarState(0, acsys.CS.LapCount) self.lap.splits = [0] * self.track.sector_count self.lap.invalid_sectors = [False] * self.track.sector_count
def acUpdate(self, delta_t):
if sim_info.info.graphics.status != sim_info.AC_LIVE:
return
if self.first_update:
self.first_update = False
self.ui.reinitialize()
self.reinitialize_app()
self.reinitialize_statusbox()
pos = ac.getCarState(0, acsys.CS.NormalizedSplinePosition)
if self.lap is None:
if self.lap_wait is not None:
if time.time() < self.lap_wait:
return
else:
self.lap_wait = None
if ac.getCarState(0, acsys.CS.LapTime) == 0:
# Only record once the clock is ticking.
return
elif pos > 0.5:
# It appears we have not reached the start line yet.
# Or at least, not that we know about.
return
else:
self.lap = lap.Lap()
self.init_lap()
current_lap = ac.getCarState(0, acsys.CS.LapCount)
current_sector = sim_info.info.graphics.currentSectorIndex
# NOTE: When acsys.CS.LapInvalidated works, add here or at numberOfTyresOut.
# Exceptional cases that we need to handle first.
if (current_lap < self.lap.lap_number or
sim_info.info.graphics.session != self.last_session):
# Lap number decreased?
# Session was reset or changed between practice/qualifying/race?
self.last_session = sim_info.info.graphics.session
# Abandon the lap and start over.
self.clear_screen_data()
self.lap = None
self.lap_wait = time.time() + 2.0 # Do not begin a new lap for 2 seconds.
return
if not self.data.sectors_available:
# See if they have become available now.
if current_sector > 0:
self.data.sectors_available = True
else:
# Use lookup table.
# However, beware of the car jumping position (vallelunga).
current_sector = self.get_sector(current_lap, pos)
use_sector = self.check_sector(current_lap, current_sector, pos)
if self.lap.lap_number != current_lap:
self.finalize_lap()
self.lap = None
self.clear_screen_data()
return
elapsed_seconds = ac.getCarState(0, acsys.CS.LapTime)
speed_ms = ac.getCarState(0, acsys.CS.SpeedMS)
self.lap.add(pos, elapsed_seconds, speed_ms,
ac.getCarState(0, acsys.CS.Gas),
ac.getCarState(0, acsys.CS.Brake),
sim_info.info.physics.steerAngle,
ac.getCarState(0, acsys.CS.Gear),
sim_info.info.graphics.distanceTraveled)
if sim_info.info.physics.numberOfTyresOut > 2:
self.lap.invalid = True
if use_sector:
self.lap.invalid_sectors[current_sector] = True
if self.statusbox is not None and use_sector and current_sector >= 0:
self.statusbox.update_frame(self.lap, elapsed_seconds, current_sector,
pos, self.lap.invalid_sectors[current_sector])
if self.bar_mode == config.FASTEST_LAP:
if hasattr(self.data, 'fastest_lap'):
self.update_bar_data(self.data.fastest_lap, -1, pos,
elapsed_seconds, speed_ms, 0, 0)
else:
self.clear_screen_data()
elif self.bar_mode == config.SESSION_LAP:
if hasattr(self.data, 'session_lap'):
self.update_bar_data(self.data.session_lap, -1, pos,
elapsed_seconds, speed_ms, 0, 0)
else:
self.clear_screen_data()
elif not use_sector:
self.clear_screen_data()
else:
if self.bar_mode == config.FASTEST_SECTOR:
fastest = self.data.fastest_splits[current_sector]
elif self.bar_mode == config.SESSION_SECTOR:
fastest = self.data.session_splits[current_sector]
elif self.bar_mode == config.FASTEST_OPTIMAL:
# TODO: Clean this up! It is not pretty but it works.
fastest = self.data.fastest_splits[current_sector]
if fastest is None:
self.clear_screen_data()
return
min1 = 0
min2 = sum(fastest.splits[0:current_sector])
for _sector in range(current_sector):
_sector_lap = self.data.fastest_splits[_sector]
if _sector_lap is None:
self.clear_screen_data()
return
min1 += _sector_lap.splits[_sector]
self.update_bar_data(fastest, -1, pos, # -1 means use lap.invalid.
elapsed_seconds, speed_ms, min1, min2)
return
elif self.bar_mode == config.SESSION_OPTIMAL:
fastest = self.data.session_splits[current_sector]
if fastest is None:
self.clear_screen_data()
return
min1 = 0
min2 = sum(fastest.splits[0:current_sector])
for _sector in range(current_sector):
_sector_lap = self.data.session_splits[_sector]
if _sector_lap is None:
self.clear_screen_data()
return
min1 += _sector_lap.splits[_sector]
self.update_bar_data(fastest, -1, pos, # -1 means use lap.invalid.
elapsed_seconds, speed_ms, min1, min2)
return
else:
fastest = None
if fastest is None:
self.clear_screen_data()
else:
# We could cache this and only update it in update_sector.
min1 = sum(self.lap.splits[0:current_sector])
min2 = sum(fastest.splits[0:current_sector])
self.update_bar_data(fastest, current_sector, pos,
elapsed_seconds, speed_ms, min1, min2)