def draw_delta_bar(self, time_delta, speed_delta, bar_moves):
# Color
if config.BAR_COLORS_OLD:
bar_color = self._delta_stripe_color_old(speed_delta)
else:
bar_color = self._delta_stripe_color(speed_delta)
ac.glColor4f(*bar_color)
# Calculations
clamped_time_delta = self._clamp_time_delta(time_delta)
delta_stripe_width = int((abs(clamped_time_delta) * config.BAR_SCALE))
delta_stripe_rect_width = delta_stripe_width
should_draw_cap = delta_stripe_width > config.BAR_INNER_RECT_MAX_WIDTH
if time_delta < 0:
delta_rect_origin_x = config.BAR_WIDTH_HALF
delta_label_position = delta_rect_origin_x + delta_stripe_width
else:
delta_rect_origin_x = config.BAR_WIDTH_HALF - delta_stripe_width
delta_label_position = delta_rect_origin_x
# Draw rounded cap and modify width and origin
if should_draw_cap:
delta_stripe_rect_width = config.BAR_INNER_RECT_MAX_WIDTH
if time_delta > 0:
delta_rect_origin_x = config.BAR_WIDTH_HALF - delta_stripe_rect_width
self._draw_delta_stripe_cap(time_delta, delta_rect_origin_x, delta_stripe_width)
# Draw stripe rect
if delta_stripe_width > 0:
ac.glQuad(delta_rect_origin_x, config.BAR_INNER_Y, delta_stripe_rect_width, config.BAR_INNER_HEIGHT)
# Delta label
self._update_delta_label(time_delta, delta_label_position, bar_moves)
def draw_delta_bar(self, time_delta, speed_delta, bar_moves):
# Color
bar_color = self._delta_stripe_color(speed_delta)
ac.glColor4f(*bar_color)
# Calculations
clamped_time_delta = self._clamp_time_delta(time_delta)
delta_stripe_width = int((abs(clamped_time_delta) * config.BAR_SCALE))
delta_stripe_rect_width = delta_stripe_width
should_draw_cap = delta_stripe_width > config.BAR_INNER_RECT_MAX_WIDTH
if time_delta < 0:
delta_rect_origin_x = config.BAR_WIDTH_HALF
delta_label_position = delta_rect_origin_x + delta_stripe_width
else:
delta_rect_origin_x = config.BAR_WIDTH_HALF - delta_stripe_width
delta_label_position = delta_rect_origin_x
# Draw rounded cap and modify width and origin
if should_draw_cap:
delta_stripe_rect_width = config.BAR_INNER_RECT_MAX_WIDTH
if time_delta > 0:
delta_rect_origin_x = config.BAR_WIDTH_HALF - delta_stripe_rect_width
self._draw_delta_stripe_cap(time_delta, delta_rect_origin_x, delta_stripe_width)
# Draw stripe rect
if delta_stripe_width > 0:
ac.glQuad(delta_rect_origin_x, config.BAR_INNER_Y, delta_stripe_rect_width, config.BAR_INNER_HEIGHT)
# Delta label
self._update_delta_label(time_delta, delta_label_position, bar_moves)
def draw(self, data, delta_t: float) -> None:
# Calculates the current suspension travel in percentage.
travel = (data.susp_t / data.susp_m_t) if data.susp_m_t > 0.0 else 0.5
# Checks the correct color.
if travel > 0.95 or travel < 0.05:
self._back.color = Colors.red
elif travel > 0.90 or travel < 0.1:
self._back.color = Colors.yellow
else:
self._back.color = Colors.blue if data.susp_v else Colors.white
self._draw(Suspension.texture_id)
# Initial padding is 10x44
rect = copy.copy(self._box.rect)
rect[0] += 10 * self.__mult
rect[1] += 44 * self.__mult
rect[2] -= 20 * self.__mult
rect[3] -= 88 * self.__mult # 100%
# Why there is negative and above maximum numbers, KUNOS???
rect[3] = min(rect[3], max(0.0, rect[3] * (1.0 - travel)))
ac.glColor4f(*self._back.color)
ac.glQuad(*rect)
def draw(self, data):
# Calculates the current suspension travel in percentage.
travel = (data.susp_t / data.susp_m_t) if data.susp_m_t > 0.0 else 0.5
# Keeps only the last 60 values.
self.__last_values.append(travel)
self.__last_values = self.__last_values[-60:]
# Use the last 60 values to check if the suspension was maxed/'mined' out.
maxed = max(self.__last_values)
mined = min(self.__last_values)
if maxed > 0.95 or mined < 0.05:
self._back.color = Colors.red
elif maxed > 0.90 or mined < 0.1:
self._back.color = Colors.yellow
else:
self._back.color = Colors.blue if data.susp_v else Colors.white
self._draw(Suspension.texture_id)
# Initial padding is 10x44
rect = copy.copy(self._box.rect)
rect[0] += 10 * self.__mult
rect[1] += 44 * self.__mult
rect[2] -= 20 * self.__mult
rect[3] -= 88 * self.__mult # 100%
# Why there is negative and above maximum numbers, KUNOS???
rect[3] = min(rect[3], max(0.0, rect[3] * (1.0 - travel)))
ac.glColor4f(*self._back.color)
ac.glQuad(*rect)
def draw(self, data, delta_t: float) -> None:
dirt = data.tire_d * self.__mult
rect = copy.copy(self._box.rect)
rect[1] += (rect[3] - dirt)
rect[3] = dirt
ac.glColor4f(*Colors.brown)
ac.glQuad(*rect)
def drawboostBars(x, y):
ac.glColor4f(1, 0.31, 0, 1)
ac.glQuad(0, 42, percentage_boost * 4.35, 8)
#ac.glQuad(960,42,-percentage_boost*4.35,8)
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(960, 42)
ac.glVertex2f(960 - percentage_boost * 4.35, 42)
ac.glVertex2f(960 - percentage_boost * 4.35, 50)
ac.glVertex2f(960, 50)
ac.glEnd()
def drawboostBars(x,y):
ac.glColor4f(1,0.31,0,1)
ac.glQuad(0,42,percentage_boost*4.35,8)
#ac.glQuad(960,42,-percentage_boost*4.35,8)
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(960,42)
ac.glVertex2f(960-percentage_boost*4.35,42)
ac.glVertex2f(960-percentage_boost*4.35,50)
ac.glVertex2f(960,50)
ac.glEnd()
def draw(self, rect, texture_id=None) -> None:
""" Draws the box background. """
if self.size > 0.0 and self.border[3] > 0.0:
twice = self.size * 2.0
ac.glColor4f(*self.border)
ac.glQuad(rect[0] - self.size, rect[1] - self.size,
rect[2] + twice, rect[3] + twice)
ac.glColor4f(*self.color)
if texture_id is None:
ac.glQuad(*rect)
else:
ac.glQuadTextured(rect[0], rect[1], rect[2], rect[3], texture_id)
def rect(x, y, w, h, color=Color(1, 1, 1, 1), filled=True):
ac.glColor4f(color.r, color.g, color.b, color.a)
if filled:
ac.glQuad(x, y, w, h)
else:
ac.glBegin(1)
ac.glVertex2f(x, y)
ac.glVertex2f(x + w, y)
ac.glVertex2f(x + w, y)
ac.glVertex2f(x + w, y + h)
ac.glVertex2f(x + w, y + h)
ac.glVertex2f(x, y + h)
ac.glVertex2f(x, y + h)
ac.glVertex2f(x, y)
ac.glEnd()
def draw(self, data, delta_t: float) -> None:
self._draw()
rpm = data.rpm
ratio = min(rpm / data.max_rpm, 1.0)
bar = copy.copy(self._box.rect)
bar[2] *= ratio
color = self.__calc.interpolate_color(rpm)
ac.glColor4f(*color)
ac.glQuad(*bar)
ac.setFontColor(self.__lb, color[0], color[1], color[2], color[3])
ac.setText(self.__lb, "{} RPM".format(rpm))
def draw(self, data, delta_t: float) -> None:
""" Draws the wear. """
self._draw()
wear = data.tire_w
if wear > 0.98:
ac.glColor4f(*Colors.green)
elif wear > 0.96:
ac.glColor4f(*Colors.yellow)
else:
ac.glColor4f(*Colors.red)
# Initial padding is 10x44
wear = (wear - 0.94) / 0.06
rect = copy.copy(self._box.rect)
rect[1] += (1.0 - wear) * rect[3]
rect[3] *= wear
ac.glQuad(*rect)
def drawOdometer(): global posting root_x = speed_pivot_x - 48 root_y = speed_pivot_y - 50 fg = odometer_fg bg = odometer_bg distance = sim_info.graphics.distanceTraveled/1000 if imperial: distance = distance / 1.632 s = "%3.1f" % (sim_info.graphics.distanceTraveled/1000) # zero-padding while len(s) < 5: s = "0" + s i = 0 for c in s: if c != '.': drawNineSegment(root_x+96-24*(4-i),root_y,24,36,c,fg,bg) i = i + 1 # Decimal point ac.glColor4f(0.0,0.0,0.0,1.0) ac.glQuad(root_x+48+22,root_y+30,4,4)
def onFormRender(deltaT):
kersValue = ac.getCarState(0, acsys.CS.KersCharge)
usage = getErsCurrent() / getERSMax()
ac.glColor4f(255, 255, 255, 0.4)
ac.glQuad(300, 90, 40, 100)
ac.glColor4f(0, 255, 0, 0.5)
ac.glQuad(300, 90 - ((100 * kersValue) - 100), 40, (100 * kersValue))
ac.glColor4f(255, 255, 255, 0.4)
ac.glQuad(400, 90, 40, 100)
ac.glColor4f(0, 0, 255, 0.5)
ac.glQuad(400, 90 - ((100 * usage) - 100), 40, (100 * usage))
def drawrpmBars(x,y):
if(abs(percentage_rpm)<max_user_rpm):ac.glColor4f(1,1,1,1)
if(abs(percentage_rpm)>max_user_rpm):ac.glColor4f(1,0,0,1)
if(percentage_rpm <min_user_rpm):
ac.glQuad(0,20,0,20)
ac.glQuad(960,20,0,20)
if(percentage_rpm >min_user_rpm):
ac.glQuad(0,20,abs(percentage_rpm-min_user_rpm)*435/(100-min_user_rpm),20)
#ac.glQuad(960,20,-(abs(percentage_rpm-min_user_rpm)*435/(100-min_user_rpm)),20)
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(960,20)
ac.glVertex2f(960-abs(percentage_rpm-min_user_rpm)*435/(100-min_user_rpm),20)
ac.glVertex2f(960-abs(percentage_rpm-min_user_rpm)*435/(100-min_user_rpm),40)
ac.glVertex2f(960, 40)
ac.glEnd()
def drawrpmBars(x, y):
if (abs(percentage_rpm) < max_user_rpm): ac.glColor4f(1, 1, 1, 1)
if (abs(percentage_rpm) > max_user_rpm): ac.glColor4f(1, 0, 0, 1)
if (percentage_rpm < min_user_rpm):
ac.glQuad(0, 20, 0, 20)
ac.glQuad(960, 20, 0, 20)
if (percentage_rpm > min_user_rpm):
ac.glQuad(
0, 20,
abs(percentage_rpm - min_user_rpm) * 435 / (100 - min_user_rpm),
20)
#ac.glQuad(960,20,-(abs(percentage_rpm-min_user_rpm)*435/(100-min_user_rpm)),20)
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(960, 20)
ac.glVertex2f(
960 - abs(percentage_rpm - min_user_rpm) * 435 /
(100 - min_user_rpm), 20)
ac.glVertex2f(
960 - abs(percentage_rpm - min_user_rpm) * 435 /
(100 - min_user_rpm), 40)
ac.glVertex2f(960, 40)
ac.glEnd()
def draw(self, data, delta_t: float) -> None:
# Initial padding is 12x12
pad = 12 * self.__mult
pad2 = 2.0 * pad
quarter = (self._box.rect[3] - pad2) * 0.125
part = (self._box.rect[2] - pad2) / 3.0
inner = self._box.rect[0] + pad
outer = self._box.rect[0] + pad + 2.0 * part
height = self._box.rect[1] + pad
temp = data.tire_t_c
interpolated = self.__calc.interpolate(temp)
color = self.__calc.interpolate_color(temp, interpolated)
ac.glColor4f(*color)
ac.glQuad(inner, height + quarter, part * 3.0, quarter * 6.0)
temp = data.tire_t_i
interpolated = self.__calc.interpolate(temp)
color = self.__calc.interpolate_color(temp, interpolated)
ac.glColor4f(*color)
ac.glQuad(inner, height, part, quarter)
ac.glQuad(inner, height + quarter * 7, part, quarter)
temp = data.tire_t_m
interpolated = self.__calc.interpolate(temp)
color = self.__calc.interpolate_color(temp, interpolated)
ac.glColor4f(*color)
ac.glQuad(self._box.rect[0] + pad + part, height, part, quarter)
ac.glQuad(self._box.rect[0] + pad + part, height + quarter * 7, part,
quarter)
temp = data.tire_t_o
interpolated = self.__calc.interpolate(temp)
color = self.__calc.interpolate_color(temp, interpolated)
ac.glColor4f(*color)
ac.glQuad(outer, height, part, quarter)
ac.glQuad(outer, height + quarter * 7, part, quarter)
def onFormRender(deltaT):
global doRender, maxRPM, maxGear
if not doRender:
return
gear = ac.getCarState(0, acsys.CS.Gear)
rpm = ac.getCarState(0, acsys.CS.RPM)
hBarWidth = appWidth * 0.04
lineWidth = appWidth * 0.01
doubleWidth = lineWidth * 2
halfWidth = lineWidth / 2
gearY = appHeight - (gear * gearSpacing)
rpmY = appHeight * (rpm / CarData["maxRPM"])
rpmX = rpmY / lineSlope
rpmXL = doubleWidth + rpmX
rpmXR = (appWidth - doubleWidth) - rpmX
rpmY = appHeight - rpmY
centerX = appWidth / 2
centerY = gearY - fontSize / 2
l = centerX - fontSize / 2
r = centerX + fontSize / 2
t = gearY - fontSize
ac.glColor4f(0.7, 0.0, 0.0, 0.9)
ac.glBegin(acsys.GL.Quads)
# red diagonals
ac.glVertex2f(0, appHeight)
ac.glVertex2f(lineWidth, appHeight)
ac.glVertex2f(appHeight / lineSlope + lineWidth, 0)
ac.glVertex2f(appHeight / lineSlope, 0)
ac.glVertex2f(appWidth - lineWidth, appHeight)
ac.glVertex2f(appWidth, appHeight)
ac.glVertex2f(appWidth - (appHeight / lineSlope), 0)
ac.glVertex2f(appWidth - lineWidth - (appHeight / lineSlope), 0)
ac.glEnd()
# red RPM x1000 ticks
y = appHeight
while y > -1:
dx = (appHeight - y) / lineSlope
ac.glQuad(dx, y, hBarWidth, lineWidth)
ac.glQuad(appWidth - dx - hBarWidth, y, hBarWidth, lineWidth)
y -= (PxPer1000RPM * RPMdivs)
# red/green diagonal quads
ac.glColor4f(0.0, 0.9, 0.0, 0.9)
topY = appHeight - (PxPer1000RPM * RPMdivs) + doubleWidth
botY = appHeight - lineWidth
while botY > 0:
if topY < (PxPer1000RPM * RPMdivs):
ac.glColor4f(0.7, 0.0, 0.0, 0.9)
y = max(0, topY) # redline bars
elif topY < rpmY:
y = rpmY # current rpm bar
else:
y = topY # rest of the lower rpm bars
dxt = (appHeight - y + doubleWidth) / lineSlope + doubleWidth
dxb = (appHeight - botY + doubleWidth) / lineSlope + doubleWidth
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(dxb, botY)
ac.glVertex2f(dxb + lineWidth * 3, botY)
ac.glVertex2f(dxt + lineWidth * 3, y)
ac.glVertex2f(dxt, y)
ac.glVertex2f(appWidth - dxb - lineWidth * 3, botY)
ac.glVertex2f(appWidth - dxb, botY)
ac.glVertex2f(appWidth - dxt, y)
ac.glVertex2f(appWidth - dxt - lineWidth * 3, y)
ac.glEnd()
botY = topY - lineWidth * 3
topY -= (PxPer1000RPM * RPMdivs)
# white boxes around gears
for g in range(CarData["totalGears"] + 2):
if g == gear:
ac.glColor4f(0.0, 0.9, 0.0, 0.9)
lw = lineWidth
else:
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
lw = halfWidth
gy = appHeight - (g * gearSpacing)
gt = gy - fontSize
ac.glQuad(l - lw, gy, fontSize + (lw * 2), lw) # bot
ac.glQuad(r, gt, lw, fontSize) # right
ac.glQuad(l - lw, gt - lw, fontSize + (lw * 2), lw) # top
ac.glQuad(l - lw, gt, lw, fontSize) # left
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
ac.glBegin(acsys.GL.Lines)
# white diagonal back to selected gear
ac.glVertex2f(rpmXL + hBarWidth + lineWidth, rpmY)
ac.glVertex2f(l - hBarWidth - lineWidth, centerY)
ac.glVertex2f(rpmXR - hBarWidth - lineWidth, rpmY)
ac.glVertex2f(r + hBarWidth + lineWidth, centerY)
ac.glEnd()
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
# white horizontal rpms
ac.glQuad(rpmXL + lineWidth, rpmY - halfWidth, hBarWidth, lineWidth)
ac.glQuad(rpmXR - hBarWidth - lineWidth, rpmY - halfWidth, hBarWidth,
lineWidth)
# white horizontal selected gear
ac.glQuad(l - hBarWidth - lineWidth, centerY - halfWidth, hBarWidth,
lineWidth)
ac.glQuad(r + lineWidth, centerY - halfWidth, hBarWidth, lineWidth)
def drawTyreMonitor(): global flt_label1, frt_label1, rlt_label1, rrt_label1 # Temp global flt_label2, frt_label2, rlt_label2, rrt_label2 # Pressure fl_t, fr_t, rl_t, rr_t = ac.getCarState(0,acsys.CS.CurrentTyresCoreTemp) temps = [fl_t, fr_t, rl_t, rr_t] fl_p, fr_p, rl_p, rr_p = ac.getCarState(0,acsys.CS.DynamicPressure) wheelslip = ac.getCarState(0,acsys.CS.TyreSlip) wear = sim_info.physics.tyreWear dirt = sim_info.physics.tyreDirtyLevel ac.setText(flt_label1,"%dC"%fl_t) ac.setText(frt_label1,"%dC"%fr_t) ac.setText(rlt_label1,"%dC"%rl_t) ac.setText(rrt_label1,"%dC"%rr_t) # Outside of tyre = white if normal, yellow if losing grip, red if lost grip for i in range(0,4): outside_color = [1.0,1.0,1.0,tyre_monitor_opacity] if wheelslip[i] >= 35000: outside_color = [1.0,0.0,0.0,tyre_monitor_opacity] elif wheelslip[i] >= 25000: percent = (int(wheelslip[i])-25000)/10000 outside_color = [1.0,(165 - 165*percent)/255,0.0,tyre_monitor_opacity] # Orange elif wheelslip[i] >= 10000: percent = (int(wheelslip[i])-10000)/15000 outside_color = [1.0,(255 - 90*percent)/255,0.0,tyre_monitor_opacity] elif wheelslip[i] > 7000: # 100% = [1.0,1.0,0.0,1.0] # 0% = [1.0,1.0,1.0,1.0] percent = (int(wheelslip[i])-7000)/3000 outside_color = [1.0,1.0,1-percent,tyre_monitor_opacity] root_x = tyre_mon_xpos root_y = tyre_mon_ypos if i == 1 or i == 3: root_x = root_x + 80 if i == 2 or i == 3: root_y = root_y + 96 ac.glColor4f(outside_color[0],outside_color[1],outside_color[2],outside_color[3]) ac.glQuad(root_x,root_y,36,4) ac.glQuad(root_x,root_y+4,4,56) ac.glQuad(root_x+32,root_y+4,4,56) ac.glQuad(root_x,root_y+60,36,4) # 28x56 # Dirty level ac.glColor4f(150/255,75/255,0.0,tyre_monitor_opacity) ac.glQuad(root_x+4,root_y+60,28,-(56*dirt[i]/5)) # Inside of tyre = blue if v. cold, light blue if cold, white if normal, yellow if hot, red if v. hot inside_color = [1.0,1.0,1.0,tyre_monitor_opacity] if temps[i] < (tyre_optimal_temp[0]-25): inside_color = [0.0,100.0/255,1.0,tyre_monitor_opacity] elif temps[i] < (tyre_optimal_temp[0]-10): percent = (-int(temps[i])+tyre_optimal_temp[0])/25 inside_color = [0.0,(255 - 155*percent)/255,1.0,tyre_monitor_opacity] elif temps[i] < tyre_optimal_temp[0]: percent = (tyre_optimal_temp[0]-int(temps[i]))/10 inside_color = [1-percent,1.0,1.0,tyre_monitor_opacity] elif int(temps[i]) in tyre_optimal_temp: inside_color = [1.0,1.0,1.0,tyre_monitor_opacity] elif temps[i] < (tyre_optimal_temp[-1]+15): percent = (int(temps[i])-tyre_optimal_temp[-1])/15 inside_color = [1.0,1.0,1-percent,tyre_monitor_opacity] elif temps[i] <= (tyre_optimal_temp[-1]+25): percent = (int(temps[i])-tyre_optimal_temp[-1]-15)/10 inside_color = [1.0,1-percent,0.0,tyre_monitor_opacity] else: # DANGER inside_color = [1.0,0.0,0.0,tyre_monitor_opacity] # no. of bars inside tyre = wear level bars = int(wear[i]/10) if bars > 9: bars = 9 for j in range(0,bars): ac.glColor4f(inside_color[0],inside_color[1],inside_color[2],inside_color[3]) ac.glQuad(root_x + 6,root_y + 54 - 6*j,24,4) ac.setText(flt_label2,"%d psi"%fl_p) ac.setText(frt_label2,"%d psi"%fr_p) ac.setText(rlt_label2,"%d psi"%rl_p) ac.setText(rrt_label2,"%d psi"%rr_p)
def drawTyresDirt(x, y, w, h, dirt):
ac.glColor4f(0.9, 0.6, 0.2, 1)
ac.glQuad(x, y, w, -(10 * dirt))
def drawTyres(x, y, w, h, temp):
colorTyres(temp)
ac.glQuad(x, y, w, h)
def drawTyresDirt(x, y, w, h, dirt): ac.glColor4f(0.9, 0.6, 0.2, 1) ac.glQuad(x, y, w, -(10 * dirt))
def drawTyres(x, y, w, h, temp): colorTyres(temp) ac.glQuad(x, y, w, h)
