def circle(x: int,
y: int,
radius: int,
color: Color = Color(1, 1, 1, 1),
filled: bool = True):
ac.glColor4f(color.r, color.g, color.b, color.a)
if filled:
ac.glBegin(2)
else:
ac.glBegin(1)
start = 0
stop = 360
sample = 36 * radius
while start <= stop:
rad1 = start
rad2 = min(start + 1, stop)
ac.glVertex2f(x + cos(rad1) * radius, y - sin(rad1) * radius)
ac.glVertex2f(x + cos(rad2) * radius, y - sin(rad2) * radius)
if filled:
ac.glVertex2f(x, y)
start += sample
ac.glEnd()
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 drawLinePlot(self, colourFades, dataPoints):
ac.glBegin(1)
for dataPoint, colour in zip(dataPoints, colourFades):
ac.glColor4f(*colour)
x, y = self.gPlotter.plotG(dataPoint['x'], dataPoint['z'])
ac.glVertex2f(x,y)
ac.glEnd()
def quad(x: int, y: int, w: int, h: int, colors=None, r=None):
if type(colors) == list:
ac.glBegin(3)
if len(colors) >= 1:
c = colors[0]
ac.glColor4f(c.r, c.g, c.b, c.a)
if r is not None:
ac.glVertex2f(r.x, r.y)
else:
ac.glVertex2f(x, y)
if len(colors) >= 2:
c = colors[1]
ac.glColor4f(c.r, c.g, c.b, c.a)
if r is not None:
ac.glVertex2f(r.x, r.y + r.h)
else:
ac.glVertex2f(x, y + h)
if len(colors) >= 3:
c = colors[2]
ac.glColor4f(c.r, c.g, c.b, c.a)
if r is not None:
ac.glVertex2f(r.x + r.w, r.y + r.h)
else:
ac.glVertex2f(x + w, y + h)
if len(colors) >= 4:
c = colors[3]
ac.glColor4f(c.r, c.g, c.b, c.a)
if r is not None:
ac.glVertex2f(r.x + r.w, r.y)
else:
ac.glVertex2f(x + w, y)
ac.glEnd()
def drawCircumference(self, radius, center):
ac.glBegin(1)
nlines = max(4, int(100.*radius))
for i in range(nlines+1):
x, y = self.gPlotter.plotG(center['x'] + (sin(2*pi*i/nlines)*radius), center['z'] + (cos(2*pi*i/nlines)*radius))
ac.glVertex2f(x, y)
ac.glEnd()
def donut(x: int,
y: int,
r: int,
w: int,
start: int = 0,
stop: int = 360,
color: Color = Color(1, 1, 1, 1),
filled: bool = True):
ac.glColor4f(color.r, color.g, color.b, color.a)
if filled:
ac.glBegin(2)
else:
ac.glBegin(1)
sample = (stop - start) / (36 * r)
while start <= stop:
rad1 = start
rad2 = min(start + 1, stop)
ac.glVertex2f(x + cos(rad1) * r, y - sin(rad1) * r)
ac.glVertex2f(x + cos(rad2) * r, y - sin(rad2) * r)
ac.glVertex2f(x + cos(rad1) * (r - w), y - sin(rad1) * (r - w))
ac.glVertex2f(x + cos(rad2) * (r - w), y - sin(rad2) * (r - w))
if filled:
ac.glVertex2f(x + cos(rad2) * r, y - sin(rad2) * r)
ac.glVertex2f(x + cos(rad1) * (r - w), y - sin(rad1) * (r - w))
start += sample
ac.glEnd()
def donut(x,
y,
radius,
width,
start=0,
stop=360,
color=Color(1, 1, 1, 1),
filled=True):
ac.glColor4f(color.r, color.g, color.b, color.a)
if filled:
ac.glBegin(2)
else:
ac.glBegin(1)
sample = (stop - start) / (36 * radius)
while start <= stop:
rad1 = start
rad2 = min(start + 1, stop)
ac.glVertex2f(x + cos(rad1) * radius, y - sin(rad1) * radius)
ac.glVertex2f(x + cos(rad2) * radius, y - sin(rad2) * radius)
ac.glVertex2f(x + cos(rad1) * (radius - width),
y - sin(rad1) * (radius - width))
ac.glVertex2f(x + cos(rad2) * (radius - width),
y - sin(rad2) * (radius - width))
if filled:
ac.glVertex2f(x + cos(rad2) * radius, y - sin(rad2) * radius)
ac.glVertex2f(x + cos(rad1) * (radius - width),
y - sin(rad1) * (radius - width))
start += sample
ac.glEnd()
def appGL(deltaT):
global gX, gY, gZ, gXleft, gZback
# drawing the gauge's background primitive aka a square
# initial values
x0 = 20.0 # point 1
y0 = 20.0
x1 = 20.0 # point 2
y1 = 500.0 #500
x2 = 500.0 # point 3
y2 = 500.0
x3 = 500.0 #500 point 4
y3 = 20.0 # so I'm gonna have to find a way to make these variables be affected by gforces
# calucated values with gforces into account
x00 = x0 + (abs(gZ)*100) # forward
y00 = y0 + (abs(gXleft)*100) #right
x11 = x1 + (abs(gZback)*100) #reverse
y11 = y1 - (abs(gXleft)*100) #right
x22 = x2 - (abs(gZback)*100) #reverse
y22 = y2 - (abs(gX)*100) #left
x33 = x3 - (abs(gZ)*100) #forward
y33 = y3 + (abs(gX)*100) #left
ac.glBegin(acsys.GL.Quads)
ac.glColor4f(50,0,0,0.5)
ac.glVertex2f(x00, y00) # top left in brainlet terms aka for dummies like me
ac.glVertex2f(x11, y11) # bottom left
ac.glVertex2f(x22, y22) # bottom right
ac.glVertex2f(x33, y33) #top right
ac.glEnd()
def drawYourself(self):
global colorRecipeList
# 配色
recipe = colorRecipeList[self.colorRecipe]
ac.glColor4f(1, 1, 1, self.maxOpacity * maxiumAlpha)
ac.glBegin(3) # 3 : Draw quads.
# 先画底框（被车框覆盖后就会留下边线）
ac.glColor4f(recipe[2][0], recipe[2][1], recipe[2][2],
self.maxOpacity * maxiumAlpha)
for i, pt in enumerate(self.guiBorderPtList):
ac.glVertex2f(pt.x, pt.y)
ac.glEnd()
# 再画车框
ac.glBegin(3) # 3 : Draw quads.
#ac.log('helipicapew::drawYourself car paint pt list:-----------')
for i, pt in enumerate(self.guiPtList):
#ac.log('helipicapew::drawYourself tyre index: {}, pt: {} {}'.format(pt.partIndex, pt.x, pt.y))
# 根据点代表的轮胎位置更新颜色设置
if pt.partIndex == 0 or pt.partIndex == 1:
ac.glColor4f(recipe[0][0], recipe[0][1], recipe[0][2],
self.maxOpacity * maxiumAlpha)
else:
ac.glColor4f(recipe[1][0], recipe[1][1], recipe[1][2],
self.maxOpacity * maxiumAlpha)
ac.glVertex2f(pt.x, pt.y)
ac.glEnd()
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 drawLinePlot(self, colourFades, dataPoints):
ac.glBegin(1)
for dataPoint, colour in zip(dataPoints, colourFades):
ac.glColor4f(*colour)
x, y = self.gPlotter.plotG(dataPoint['x'], dataPoint['z'])
ac.glVertex2f(x, y)
ac.glEnd()
def draw_triangle(points, color=[1, 1, 1]):
r, g, b = color
ac.glColor4f(r, g, b, 1)
ac.glBegin(acsys.GL.Triangles)
for x_y_tuple in points:
x, y = x_y_tuple
ac.glVertex2f(x, y)
ac.glEnd()
def drawCross(self, radius):
ac.glBegin(1)
ac.glVertex2f(*self.gPlotter.plotG(-radius, 0))
ac.glVertex2f(*self.gPlotter.plotG(+radius, 0))
ac.glEnd()
ac.glBegin(1)
ac.glVertex2f(*self.gPlotter.plotG(0, -radius))
ac.glVertex2f(*self.gPlotter.plotG(0, +radius))
ac.glEnd()
def draw_bar(points, color=[1, 1, 1]):
global rectangle_corners
r, g, b = color
ac.glColor4f(r, g, b, 1)
ac.glBegin(acsys.GL.Quads)
for corner in rectangle_corners:
x, y = points[corner]
ac.glVertex2f(x, y)
ac.glEnd()
def draw_colored_bars_with_points(slip, tyre):
global max_slip, rectangle_corners
r, g, b = get_color(slip)
ac.glColor4f(r, g, b, 1)
ac.glBegin(acsys.GL.Quads)
for corner in rectangle_corners:
x, y = tyre[corner]
ac.glVertex2f(x, y)
ac.glEnd()
def drawCross(self, radius):
ac.glBegin(1)
ac.glVertex2f(*self.gPlotter.plotG(-radius, 0))
ac.glVertex2f(*self.gPlotter.plotG(+radius, 0))
ac.glEnd()
ac.glBegin(1)
ac.glVertex2f(*self.gPlotter.plotG(0, -radius))
ac.glVertex2f(*self.gPlotter.plotG(0, +radius))
ac.glEnd()
def drawCircumference(self, radius, center):
ac.glBegin(1)
nlines = max(4, int(100. * radius))
for i in range(nlines + 1):
x, y = self.gPlotter.plotG(
center['x'] + (sin(2 * pi * i / nlines) * radius),
center['z'] + (cos(2 * pi * i / nlines) * radius))
ac.glVertex2f(x, y)
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 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 drawCircle(self, radius, center):
ac.glBegin(acsys.GL.Triangles)
prevx, prevy = self.gPlotter.plotG(center['x'], center['z'])
ntriangles = max(4, int(100.*radius))
for i in range(ntriangles+1):
ac.glVertex2f(*self.gPlotter.plotG(center['x'], center['z']))
ac.glVertex2f(prevx, prevy)
x, y = self.gPlotter.plotG(center['x'] + (sin(2*pi*i/ntriangles)*radius), center['z'] + (cos(2*pi*i/ntriangles)*radius))
ac.glVertex2f(x, y)
prevx, prevy = x, y
ac.glEnd()
def polygon(points, color=Color(1, 1, 1, 1), filled=True):
ac.glColor4f(color.r, color.g, color.b, color.a)
if filled:
ac.glBegin(2)
else:
ac.glBegin(1)
for i in points:
if isinstance(i, Point):
ac.glVertex2f(i.x, i.y)
ac.glEnd()
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 _draw_polygon(p1, p2, p3, p4, reversed_normal):
ac.glBegin(3)
if not reversed_normal:
ac.glVertex2f(*p1)
ac.glVertex2f(*p2)
ac.glVertex2f(*p3)
ac.glVertex2f(*p4)
else:
ac.glVertex2f(*p1)
ac.glVertex2f(*p4)
ac.glVertex2f(*p3)
ac.glVertex2f(*p2)
ac.glEnd()
def drawCircle(self, radius, center):
ac.glBegin(acsys.GL.Triangles)
prevx, prevy = self.gPlotter.plotG(center['x'], center['z'])
ntriangles = max(4, int(100. * radius))
for i in range(ntriangles + 1):
ac.glVertex2f(*self.gPlotter.plotG(center['x'], center['z']))
ac.glVertex2f(prevx, prevy)
x, y = self.gPlotter.plotG(
center['x'] + (sin(2 * pi * i / ntriangles) * radius),
center['z'] + (cos(2 * pi * i / ntriangles) * radius))
ac.glVertex2f(x, y)
prevx, prevy = x, y
ac.glEnd()
def _draw_polygon(p1, p2, p3, p4, reversed_normal):
ac.glBegin(3)
if not reversed_normal:
ac.glVertex2f(*p1)
ac.glVertex2f(*p2)
ac.glVertex2f(*p3)
ac.glVertex2f(*p4)
else:
ac.glVertex2f(*p1)
ac.glVertex2f(*p4)
ac.glVertex2f(*p3)
ac.glVertex2f(*p2)
ac.glEnd()
def draw(self, data, delta_t: float) -> None:
rect = self._box.rect
camber = data.camber
tan = math.tan(camber) * rect[2]
tan_left = -(tan if camber < 0.0 else 0.0)
tan_right = tan if camber > 0.0 else 0.0
ac.glBegin(acsys.GL.Quads)
ac.glColor4f(*Colors.white)
ac.glVertex2f(rect[0], rect[1] + tan_left)
ac.glVertex2f(rect[0], rect[1] + rect[3])
ac.glVertex2f(rect[0] + rect[2], rect[1] + rect[3])
ac.glVertex2f(rect[0] + rect[2], rect[1] + tan_right)
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 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 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 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 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 drawTire(self, suspX, suspY, suspH, flip=False):
global Options
try:
x = self.xPosition + 25
y = self.yPosition
#~ rad = self.value * Options["radScale"]
#~ rad = self.value * Options["radScale"] / (2 * -Options["targetCamber"])
rad = self.value
if flip:
#~ x = self.xPosition + 50
rad = math.pi - rad
ac.glColor4f(self.color['r'], self.color['g'], self.color['b'],
self.color['a'])
h = Options["tireHeight"]
w = h / 2
cosrad = math.cos(rad)
sinrad = math.sin(rad)
halfpi = math.pi / 2
if flip:
cosradnorm = math.cos(rad + halfpi)
sinradnorm = math.sin(rad + halfpi)
# Have to draw counterclockwise
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(x, y)
ac.glVertex2f(x + h * cosradnorm, y + h * sinradnorm)
ac.glVertex2f(x + w * cosrad + h * cosradnorm,
y + w * sinrad + h * sinradnorm)
ac.glVertex2f(x + w * cosrad, y + w * sinrad)
ac.glEnd()
else:
cosradnorm = math.cos(rad - halfpi)
sinradnorm = math.sin(rad - halfpi)
# Have to draw counterclockwise
ac.glBegin(acsys.GL.Quads)
ac.glVertex2f(x, y)
ac.glVertex2f(x + w * cosrad, y + w * sinrad)
ac.glVertex2f(x + w * cosrad + h * cosradnorm,
y + w * sinrad + h * sinradnorm)
ac.glVertex2f(x + h * cosradnorm, y + h * sinradnorm)
ac.glEnd()
# Suspension bits
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
ac.glBegin(acsys.GL.Lines)
ac.glVertex2f(x + (h / 2 - suspH) * cosradnorm,
y + (h / 2 - suspH) * sinradnorm)
ac.glVertex2f(suspX, suspY + suspH)
ac.glVertex2f(x + (h / 2 + suspH) * cosradnorm,
y + (h / 2 + suspH) * sinradnorm)
ac.glVertex2f(suspX, suspY - suspH)
ac.glEnd()
except Exception:
ac.log("CamberExtravaganza ERROR: drawTire(): %s" %
traceback.format_exc())
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 onFormRender(deltaT):
global doRender, CamberIndicators, Options, Labels, redrawText
if not doRender:
return
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
#~ ac.setText(Labels["targetCamber"], "{0:.1f}°".format(Options["targetCamber"]))
# Suspension travel to find body position relative to tires
radius = Options["tireRadius"]
pixelsPerMeter = Options["tireHeight"] / radius
w,x,y,z = ac.getCarState(0, acsys.CS.SuspensionTravel)
dyFL = w * pixelsPerMeter
dyFR = x * pixelsPerMeter
dyRL = y * pixelsPerMeter
dyRR = z * pixelsPerMeter
# Draw front "car body"
xFR = CamberIndicators["FR"].xPosition
xFL = CamberIndicators["FL"].xPosition + Options["tireHeight"]
y = CamberIndicators["FR"].yPosition - Options["tireHeight"] / 2
yFL = y + dyFL
yFR = y + dyFR
h = Options["tireHeight"] / 4
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
ac.glBegin(acsys.GL.Lines)
ac.glVertex2f(xFL, yFL + h)
ac.glVertex2f(xFR, yFR + h)
ac.glVertex2f(xFR, yFR + h)
ac.glVertex2f(xFR, yFR - h)
ac.glVertex2f(xFR, yFR - h)
ac.glVertex2f(xFL, yFL - h)
ac.glVertex2f(xFL, yFL - h)
ac.glVertex2f(xFL, yFL + h)
ac.glEnd()
# Draw rear "car body"
xRR = CamberIndicators["RR"].xPosition
xRL = CamberIndicators["RL"].xPosition + Options["tireHeight"]
y = CamberIndicators["RR"].yPosition - Options["tireHeight"] / 2
yRL = y + dyRL
yRR = y + dyRR
h = Options["tireHeight"] / 4
ac.glColor4f(0.9, 0.9, 0.9, 0.9)
ac.glBegin(acsys.GL.Lines)
ac.glVertex2f(xRL, yRL + h)
ac.glVertex2f(xRR, yRR + h)
ac.glVertex2f(xRR, yRR + h)
ac.glVertex2f(xRR, yRR - h)
ac.glVertex2f(xRR, yRR - h)
ac.glVertex2f(xRL, yRL - h)
ac.glVertex2f(xRL, yRL - h)
ac.glVertex2f(xRL, yRL + h)
ac.glEnd()
# Draw flappy gauges
h *= 0.75
CamberIndicators["FL"].drawTire(xFL, yFL, h, flip=True)
CamberIndicators["FR"].drawTire(xFR, yFR, h)
CamberIndicators["RL"].drawTire(xRL, yRL, h, flip=True)
CamberIndicators["RR"].drawTire(xRR, yRR, h)
# Draw history graphs
if Options["drawGraphs"]:
CamberIndicators["FL"].drawGraph(flip=True)
CamberIndicators["FR"].drawGraph()
CamberIndicators["RL"].drawGraph(flip=True)
CamberIndicators["RR"].drawGraph()
flC, frC, rlC, rrC = ac.getCarState(0, acsys.CS.CamberRad)
CamberIndicators["FL"].setValue(flC, deltaT, Options["optimalCamberF"])
CamberIndicators["FR"].setValue(frC, deltaT, Options["optimalCamberF"])
CamberIndicators["RL"].setValue(rlC, deltaT, Options["optimalCamberR"])
CamberIndicators["RR"].setValue(rrC, deltaT, Options["optimalCamberR"])
# Check if tyre compound changed
tyreCompound = ac.getCarTyreCompound(0)
if tyreCompound != Options["tyreCompound"]:
loadTireData()
Options["tyreCompound"] = tyreCompound
# Weight Front and Rear by lateral weight transfer
filter = 0.97
flL, frL, rlL, rrL = ac.getCarState(0, acsys.CS.Load)
outer = max(0.001, flL, frL)
inner = min(flL, frL)
camberSplit = abs(flC - frC)
# DY_LS_FL = DY_REF * pow(TIRE_LOAD_FL / FZ0, LS_EXPY)
ls_outer = pow(outer, Options["LS_EXPY"])
ls_inner = pow(inner, Options["LS_EXPY"])
weightXfer = ls_outer / (ls_inner + ls_outer)
# (2*(1-w)*D1*rad(c)-(1-2*w)*D0)/(2*D1)
oldTargetCamber = Options["optimalCamberF"]
Options["optimalCamberF"] = math.degrees((2 * (1 - weightXfer) * Options["dcamber1"] * math.radians(camberSplit) - (1 - 2 * weightXfer) * Options["dcamber0"]) / (2 * Options["dcamber1"]))
Options["optimalCamberF"] = filter * oldTargetCamber + (1 - filter) * Options["optimalCamberF"]
outer = max(0.001, rlL, rrL)
inner = min(rlL, rrL)
camberSplit = abs(rlC - rrC)
# DY_LS_FL = DY_REF * pow(TIRE_LOAD_FL / FZ0, LS_EXPY)
ls_outer = pow(outer, Options["LS_EXPY"])
ls_inner = pow(inner, Options["LS_EXPY"])
weightXfer = ls_outer / (ls_inner + ls_outer)
# (2*(1-w)*D1*rad(c)-(1-2*w)*D0)/(2*D1)
oldTargetCamber = Options["optimalCamberR"]
Options["optimalCamberR"] = math.degrees((2 * (1 - weightXfer) * Options["dcamber1"] * math.radians(camberSplit) - (1 - 2 * weightXfer) * Options["dcamber0"]) / (2 * Options["dcamber1"]))
Options["optimalCamberR"] = filter * oldTargetCamber + (1 - filter) * Options["optimalCamberR"]
ac.setText(Labels["targetCamberF"], "{0:.1f}°".format(Options["optimalCamberF"]))
ac.setText(Labels["targetCamberR"], "{0:.1f}°".format(Options["optimalCamberR"]))
if redrawText:
updateTextInputs()
redrawText = False
def drawGraph(self, flip=False): global Options x = self.xPosition y = self.yPosition - 10 dx1 = 55 dx2 = dx1 + Options["graphWidth"] f = 1 # flip mult thisisreallydumbbutineedit if flip: dx1 = -5 dx2 = dx1 - Options["graphWidth"] f = -1 halfHeight = Options["graphHeight"] / 2 middleHeight = Options["graphHeight"] / 4 ac.glBegin(acsys.GL.Lines) # bottom - red ac.glColor4f(1, 0, 0, 1) ac.glVertex2f(x + dx1, y + halfHeight) ac.glVertex2f(x + dx2, y + halfHeight) # right bottom - red ac.glVertex2f(x + dx2, y + halfHeight) ac.glVertex2f(x + dx2, y + middleHeight) # right top - green to yellow ac.glColor4f(0, 1, 0, 1) ac.glVertex2f(x + dx2, y + middleHeight) ac.glColor4f(1, 1, 0, 1) ac.glVertex2f(x + dx2, y - halfHeight) # top - yellow ac.glVertex2f(x + dx2, y - halfHeight) ac.glVertex2f(x + dx1, y - halfHeight) # left top - yellow to green ac.glVertex2f(x + dx1, y - halfHeight) ac.glColor4f(0, 1, 0, 1) ac.glVertex2f(x + dx1, y + middleHeight) # left bottom - red ac.glColor4f(1, 0, 0, 1) ac.glVertex2f(x + dx1, y + middleHeight) ac.glVertex2f(x + dx1, y + halfHeight) # middle - red ac.glVertex2f(x + dx1, y + middleHeight) ac.glVertex2f(x + dx2, y + middleHeight) ac.glEnd() sumPos = 1 sumNeg = -1 countPos = 1 countNeg = 1 scaleNeg = -(halfHeight + middleHeight) / self.minVal scalePos = (halfHeight - middleHeight) / self.maxVal for i in range(len(self.serie)): #~ color = getColor(self.serie[i]) color = self.serie[i]["color"] h = max(min(self.maxVal,self.serie[i]["value"]),self.minVal) if self.serie[i]["value"] > 0: sumPos += self.serie[i]["value"] countPos += 1 h *= scalePos ac.glColor4f(1, 0, 0, 1) else: sumNeg += self.serie[i]["value"] countNeg += 1 h *= scaleNeg ac.glColor4f(1, 1, 1, 1) ac.glBegin(acsys.GL.Lines) ac.glVertex2f(x + dx2 - i * f, y + middleHeight - 1) ac.glColor4f(color['r'], color['g'], color['b'], color['a']) ac.glVertex2f(x + dx2 - i * f, y + middleHeight - 1 + h) ac.glEnd() if Options["normalize"] and len(self.serie) == Options["graphWidth"]: avgPos = sumPos / countPos avgNeg = sumNeg / countNeg self.maxVal = avgPos * 1.5 self.minVal = avgNeg * 1.5 else: if 0 != Options["targetCamber"]: self.minVal = Options["targetCamber"] * 1.5 else: self.minVal = 6 self.maxVal = 1.5
def drawNineSegment(x,y,x_size,y_size,digit,colors,background):
# Background
ac.glBegin(2)
ac.glColor4f(background[0],background[1],background[2],background[3])
ac.glVertex2f(x,y)
ac.glVertex2f(x+x_size,y+y_size)
ac.glVertex2f(x+x_size,y)
ac.glEnd()
ac.glBegin(2)
ac.glColor4f(background[0],background[1],background[2],background[3])
#ac.glColor4f(1,1,1,1)
ac.glVertex2f(x,y+y_size)
ac.glVertex2f(x+x_size,y+y_size)
ac.glVertex2f(x,y)
ac.glEnd()
# 2px padding
root_x = x + 2
root_y = y + 2
max_x = x + x_size - 2
max_y = y + y_size - 2
# Definitions (DIFFERENT FOR SEGMENTS 8 AND 9)
segment_width = (max_y - root_y)/9
segment_height = (max_x - root_x)/6
i = 1
segment_dict = {
'1' : [ False, True, True, False, False, False, False, False, False],
'2' : [ True, True, False, True, True, False, True, False, False],
'3' : [ True, True, True, True, False, False, True, False, False],
'4' : [ False, True, True, False, False, True, True, False, False],
'5' : [ True, False, True, True, False, True, True, False, False],
'6' : [ True, False, True, True, True, True, True, False, False],
'7' : [ True, True, True, False, False, True, False, False, False],
'8' : [ True, True, True, True, True, True, True, False, False],
'9' : [ True, True, True, True, False, True, True, False, False],
'0' : [ True, True, True, True, True, True, False, False, False],
'N' : [ False, True, True, False, True, True, False, True, True],
'R' : [ True, True, False, False, True, True, True, False, True],
'' : [ False, False, False, False, False, False, False, False, False]}
segments = segment_dict.get(digit,[True, True, True, True, True, True, True, True, True])
for segment in segments:
if segment:
if i == 1 or i == 4 or i == 7: # horizontal segments
l_x = segment_height + 1
t_y = 0
if i == 1:
t_y = 1
elif i == 7:
t_y = segment_width*4 + 1
elif i == 4:
t_y = segment_width*8 + 1
r_x = l_x + segment_height*4 - 2
b_y = t_y + segment_width - 2
# left/right triangle vertexes
lt_x = l_x - segment_height/2 + 1
tr_y = t_y + segment_width/2 - 1
rt_x = r_x + segment_height/2 - 1
# Adding the base coords
l_x = l_x + root_x
r_x = r_x + root_x
t_y = t_y + root_y
b_y = b_y + root_y
lt_x = lt_x + root_x
rt_x = rt_x + root_x
tr_y = tr_y + root_y
# Drawing the triangles
# Left
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(lt_x,tr_y)
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(l_x,t_y)
ac.glEnd()
# Right
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(rt_x,tr_y)
ac.glVertex2f(r_x,t_y)
ac.glVertex2f(r_x,b_y)
ac.glEnd()
# Middle top lt lb rt
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(l_x,t_y)
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(r_x,t_y)
ac.glEnd()
# Middle bottom lb rt rb
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(r_x,b_y)
ac.glVertex2f(r_x,t_y)
ac.glEnd()
elif i == 2 or i == 3 or i == 5 or i == 6:
# (2 and 3) and (5 and 6) have same X coords
# (2 and 6) and (3 and 5) have same Y coords
l_x = r_x = t_y = b_y = tr_x = tt_y = bt_y = 0
# X coords
if i == 2 or i == 3:
l_x = segment_height*5 + 1
r_x = l_x + segment_height - 2
tr_x = segment_height*5 + (segment_height - 2)/2 + 1
elif i == 5 or i == 6:
l_x = 1
r_x = l_x + segment_height - 2
tr_x = (segment_height - 2)/2 + 1
# Y coords
if i == 2 or i == 6:
t_y = segment_width + 1
b_y = segment_width*4 - 1
tt_y = t_y - (segment_width - 2)/2 + 1
bt_y = b_y + (segment_width - 2)/2 - 1
elif i == 3 or i == 5:
t_y = segment_width*5 + 1
b_y = segment_width*8 - 1
tt_y = t_y - (segment_width - 2)/2 + 1
bt_y = b_y + (segment_width - 2)/2 - 1
# Adding the base coords
l_x = l_x + root_x
r_x = r_x + root_x
t_y = t_y + root_y
b_y = b_y + root_y
tr_x = tr_x + root_x
tt_y = tt_y + root_y
bt_y = bt_y + root_y
# Drawing the triangles
# Top
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(tr_x,tt_y)
ac.glVertex2f(l_x,t_y)
ac.glVertex2f(r_x,t_y)
ac.glEnd()
# Bottom
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(tr_x,bt_y)
ac.glVertex2f(r_x,b_y)
ac.glEnd()
# Middle top lt lb rt
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(l_x,t_y)
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(r_x,t_y)
ac.glEnd()
# Middle bottom lb rt rb
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(l_x,b_y)
ac.glVertex2f(r_x,b_y)
ac.glVertex2f(r_x,t_y)
ac.glEnd()
elif i == 8: # Top diagonal
t1_x = segment_height + segment_width/4
t2_x = segment_height
t1_y = segment_width
t2_y = t1_y + segment_width/4
b1_x = segment_height*3
b2_x = b1_x - segment_width/2
b_y = segment_width*4
# Adding the base
t1_x = t1_x + root_x
t2_x = t2_x + root_x
t1_y = t1_y + root_y
t2_y = t2_y + root_y
b1_x = b1_x + root_x
b2_x = b2_x + root_x
b_y = b_y + root_y
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(t1_x,t1_y)
ac.glVertex2f(t2_x,t2_y)
ac.glVertex2f(b1_x,b_y)
ac.glEnd()
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(b2_x,b_y)
ac.glVertex2f(b1_x,b_y)
ac.glVertex2f(t2_x,t2_y)
ac.glEnd()
elif i == 9: # Bottom diagonal
t_x = segment_height*5
t1_y = segment_width*8 - segment_width/2
t2_y = t1_y + segment_width/2
b1_x = segment_height*3 + segment_width/2
b2_x = b1_x - segment_width/2
b_y = segment_width*5
# Adding the base
t_x = t_x + root_x
t1_y = t1_y + root_y
t2_y = t2_y + root_y
b1_x = b1_x + root_x
b2_x = b2_x + root_x
b_y = b_y + root_y
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
ac.glVertex2f(t_x,t2_y)
ac.glVertex2f(t_x,t1_y)
ac.glVertex2f(b1_x,b_y)
ac.glEnd()
ac.glBegin(2)
ac.glColor4f(colors[0],colors[1],colors[2],colors[3])
#ac.glColor4f(1,1,1,1)
ac.glVertex2f(b1_x,b_y)
ac.glVertex2f(b2_x,b_y)
ac.glVertex2f(t_x,t2_y)
ac.glEnd()
i = i + 1
def drawFuelGauge(): global max_fuel, fuel_warning_label fuel = sim_info.physics.fuel rad = (fuel/max_fuel)*math.pi # 180 deg range so it's easy outer_radius = fuel_radius inner_radius = outer_radius - 4 if fuel/max_fuel > 0.125: ac.setPosition(fuel_warning_label,-10000,0) else: ac.setPosition(fuel_warning_label,fuel_pivot_x - 6,fuel_pivot_y - 30) for i in range(0,int((fuel/max_fuel)*100),1): # p3 p4 - rad2 # p1 p2 - rad1 rad1 = math.pi - math.pi*(i/100) rad2 = math.pi - math.pi*((i+1)/100) p1_x = math.cos(rad1)*outer_radius + fuel_pivot_x p1_y = fuel_pivot_y - math.sin(rad1)*outer_radius p2_x = math.cos(rad1)*inner_radius + fuel_pivot_x p2_y = fuel_pivot_y - math.sin(rad1)*inner_radius p3_x = math.cos(rad2)*outer_radius + fuel_pivot_x p3_y = fuel_pivot_y - math.sin(rad2)*outer_radius p4_x = math.cos(rad2)*inner_radius + fuel_pivot_x p4_y = fuel_pivot_y - math.sin(rad2)*inner_radius ac.glBegin(2) ac.glColor4f(fuel_bar_color[0],fuel_bar_color[1],fuel_bar_color[2],fuel_bar_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(fuel_bar_color[0],fuel_bar_color[1],fuel_bar_color[2],fuel_bar_color[3]) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd() # Needle rad = math.pi - rad bigend_x = math.cos(rad)*fuel_radius + fuel_pivot_x bigend_y = fuel_pivot_y - math.sin(rad)*fuel_radius littleend_x = math.cos(rad+math.pi)*fuel_needle_end + fuel_pivot_x littleend_y = fuel_pivot_y - math.sin(rad+math.pi)*fuel_needle_end # p1 p2 = big end # p3 p4 = little end p1_x = math.cos(rad+math.pi/2) + bigend_x p1_y = bigend_y - math.sin(rad+math.pi/2) p2_x = math.cos(rad-math.pi/2) + bigend_x p2_y = bigend_y - math.sin(rad-math.pi/2) p3_x = math.cos(rad+math.pi/2) + littleend_x p3_y = littleend_y - math.sin(rad+math.pi/2) p4_x = math.cos(rad-math.pi/2) + littleend_x p4_y = littleend_y - math.sin(rad-math.pi/2) ac.glBegin(2) ac.glColor4f(fuel_needle_color[0],fuel_needle_color[1],fuel_needle_color[2],fuel_needle_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(fuel_needle_color[0],fuel_needle_color[1],fuel_needle_color[2],fuel_needle_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p4_x,p4_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd()
def drawBoostGauge(): global max_boost boost = ac.getCarState(0,acsys.CS.TurboBoost) if boost > max_boost: max_boost = boost rad = (boost/max_boost)*math.pi # 180 deg range so it's easy outer_radius = boost_radius inner_radius = outer_radius - 4 for i in range(0,int((boost/max_boost)*100),1): # p3 p4 - rad2 # p1 p2 - rad1 rad1 = math.pi - math.pi*(i/100) rad2 = math.pi - math.pi*((i+1)/100) p1_x = math.cos(rad1)*outer_radius + boost_pivot_x p1_y = boost_pivot_y - math.sin(rad1)*outer_radius p2_x = math.cos(rad1)*inner_radius + boost_pivot_x p2_y = boost_pivot_y - math.sin(rad1)*inner_radius p3_x = math.cos(rad2)*outer_radius + boost_pivot_x p3_y = boost_pivot_y - math.sin(rad2)*outer_radius p4_x = math.cos(rad2)*inner_radius + boost_pivot_x p4_y = boost_pivot_y - math.sin(rad2)*inner_radius ac.glBegin(2) ac.glColor4f(boost_bar_color[0],boost_bar_color[1],boost_bar_color[2],boost_bar_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(boost_bar_color[0],boost_bar_color[1],boost_bar_color[2],boost_bar_color[3]) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd() # Needle rad = math.pi - rad bigend_x = math.cos(rad)*boost_radius + boost_pivot_x bigend_y = boost_pivot_y - math.sin(rad)*boost_radius littleend_x = math.cos(rad+math.pi)*boost_needle_end + boost_pivot_x littleend_y = boost_pivot_y - math.sin(rad+math.pi)*boost_needle_end # p1 p2 = big end # p3 p4 = little end p1_x = math.cos(rad+math.pi/2) + bigend_x p1_y = bigend_y - math.sin(rad+math.pi/2) p2_x = math.cos(rad-math.pi/2) + bigend_x p2_y = bigend_y - math.sin(rad-math.pi/2) p3_x = math.cos(rad+math.pi/2) + littleend_x p3_y = littleend_y - math.sin(rad+math.pi/2) p4_x = math.cos(rad-math.pi/2) + littleend_x p4_y = littleend_y - math.sin(rad-math.pi/2) ac.glBegin(2) ac.glColor4f(boost_needle_color[0],boost_needle_color[1],boost_needle_color[2],boost_needle_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(boost_needle_color[0],boost_needle_color[1],boost_needle_color[2],boost_needle_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p4_x,p4_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd()
def onWindowRender(deltaT):
ac.log("Rendering window")
global debug_label, indicated_max_rpm, max_rpm, indicated_max_speed, shift_light_drawn, sl_timer
global tach_radius, rpm_pivot_x, rpm_pivot_y, speedo_radius, speed_pivot_x, speed_pivot_y
global speedo_tl_x, speedo_tl_y, speedo_total_width, speedo_total_height, gear_color, gear_background, speedo_color, speedo_background
global abs_label, abs_off_label, tcs_label, tcs_off_label
global draw_abs_status, draw_tcs_status
global telemetry_client
if draw_abs_status:
if telemetry_client.abs_enabled:
ac.setPosition(abs_off_label,-10000,-10000)
else:
ac.setPosition(abs_off_label,0,0)
if telemetry_client.abs_in_action:
ac.setPosition(abs_label,0,0)
else:
ac.setPosition(abs_label,-10000,-10000)
if draw_tcs_status:
if telemetry_client.tc_enabled:
ac.setPosition(tcs_off_label,-10000,-10000)
else:
ac.setPosition(tcs_off_label,0,0)
if telemetry_client.tc_in_action:
ac.setPosition(tcs_label,0,0)
else:
ac.setPosition(tcs_label,-10000,-10000)
rpm = ac.getCarState(0,acsys.CS.RPM)
# Distance covered
if draw_odometer:
drawOdometer()
# Tach
if draw_tachometer:
drawTachometer(deltaT)
# Speedo
if draw_speedometer:
drawSpeedometer()
# Shift light
if draw_shift_light:
sl_center_x = shift_light_x
sl_center_y = shift_light_y
sl_radius = shift_light_radius
if sl_timer > 0.1:
shift_light_drawn = not shift_light_drawn
sl_timer = 0
else:
sl_timer = sl_timer + deltaT
if max_rpm - rpm <= 500 and shift_light_drawn:
color = shift_light_on_color
else:
color = shift_light_off_color
for i in range(0,360,15):
ac.glBegin(2)
ac.glColor4f(color[0],color[1],color[2],color[3])
ac.glVertex2f(sl_center_x + math.cos(math.radians(i+15))*sl_radius,sl_center_y + math.sin(math.radians(i+15))*sl_radius)
ac.glVertex2f(sl_center_x + math.cos(math.radians(i))*sl_radius,sl_center_y + math.sin(math.radians(i))*sl_radius)
ac.glVertex2f(sl_center_x,sl_center_y)
ac.glEnd()
# Gear
if draw_gear_indicator:
gear = ac.getCarState(0,acsys.CS.Gear)
digit = ''
if gear > 1:
digit = "%d" % (gear - 1)
elif gear == 1:
digit = "N"
elif gear == 0:
digit = "R"
drawNineSegment(gear_x,gear_y,gear_width,gear_height,digit,gear_color,gear_background)
# Digital speedo
if draw_digital_speedo:
# First Digit
hundred = ''
speed = ac.getCarState(0,acsys.CS.SpeedKMH) # Actual speed instead of drivetrain speed
if imperial:
speed = ac.getCarState(0,acsys.CS.SpeedMPH)
if speed >= 100:
hundred = "%d" % ((speed - (speed % 100))/100)
drawNineSegment(speedo_tl_x,speedo_tl_y,speedo_total_width/3,speedo_total_height,hundred,speed_color,speed_background)
# Second Digit
ten = ''
if speed >= 10:
ten = "%d" % (((speed % 100) - (speed % 10))/10)
drawNineSegment(speedo_tl_x+speedo_total_width/3,speedo_tl_y,speedo_total_width/3,speedo_total_height,ten,speed_color,speed_background)
# Third Digit
dec = "%d" % (speed % 10)
drawNineSegment(speedo_tl_x+2*(speedo_total_width/3),speedo_tl_y,speedo_total_width/3,speedo_total_height,dec,speed_color,speed_background)
# Brake Gauge
if draw_brake_gauge:
drawBrakeGauge()
# Throttle Gauge
if draw_throttle_gauge:
drawThrottleGauge()
# Clutch Gauge
if draw_clutch_gauge:
drawClutchGauge()
# G Meter
if draw_g_meter:
drawGMeter()
# Tyre Monitor
if draw_tyre_monitor:
drawTyreMonitor()
# BOOOOOST
if draw_boost_gauge:
drawBoostGauge()
# Fuel
if draw_fuel_gauge:
drawFuelGauge()
def line(x1, y1, x2, y2, color=Color(1, 1, 1, 1)):
ac.glColor4f(color.r, color.g, color.b, color.a)
ac.glBegin(1)
ac.glVertex2f(x1, y1)
ac.glVertex2f(x2, y2)
ac.glEnd()
def drawTachometer(deltaT): rpm = ac.getCarState(0,acsys.CS.RPM) # degree range: 190..-10 r = abs(tach_min_angle - tach_max_angle) rpm_deg = tach_max_angle - (rpm/indicated_max_rpm)*r rpm_rad = math.radians(rpm_deg) # Redline redline_start = (max_rpm - 500) - (max_rpm % 250) for i in range(0,indicated_max_rpm+1,250): if i >= redline_start and i+250 <= indicated_max_rpm: rad1 = math.radians(tach_max_angle - (i/indicated_max_rpm)*r) rad2 = math.radians(tach_max_angle - ((i+250)/indicated_max_rpm)*r) p1_x = math.cos(rad1)*tach_radius+rpm_pivot_x p1_y = -math.sin(rad1)*tach_radius+rpm_pivot_y p2_x = math.cos(rad1)*(tach_radius*9/10)+rpm_pivot_x p2_y = -math.sin(rad1)*(tach_radius*9/10)+rpm_pivot_y p3_x = math.cos(rad2)*tach_radius+rpm_pivot_x p3_y = -math.sin(rad2)*tach_radius+rpm_pivot_y p4_x = math.cos(rad2)*(tach_radius*9/10)+rpm_pivot_x p4_y = -math.sin(rad2)*(tach_radius*9/10)+rpm_pivot_y ac.glBegin(2) ac.glColor4f(tach_redline_color[0],tach_redline_color[1],tach_redline_color[2],tach_redline_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(tach_redline_color[0],tach_redline_color[1],tach_redline_color[2],tach_redline_color[3]) #ac.glColor4f(1,1,1,1) ac.glVertex2f(p3_x,p3_y) ac.glVertex2f(p2_x,p2_y) ac.glVertex2f(p4_x,p4_y) ac.glEnd() if i % 1000 == 0: rad = math.radians(tach_max_angle - (i/indicated_max_rpm)*r) p1_x = math.cos(rad)*tach_radius+rpm_pivot_x p1_y = -math.sin(rad)*tach_radius+rpm_pivot_y p2_x = math.cos(rad)*(tach_radius*4/5)+rpm_pivot_x p2_y = -math.sin(rad)*(tach_radius*4/5)+rpm_pivot_y ac.glBegin(0) ac.glColor4f(tach_bigline_color[0],tach_bigline_color[1],tach_bigline_color[2],tach_bigline_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd() elif i % 250 == 0 and i != 0: rad = math.radians(tach_max_angle - (i/indicated_max_rpm)*r) p1_x = math.cos(rad)*tach_radius+rpm_pivot_x p1_y = -math.sin(rad)*tach_radius+rpm_pivot_y p2_x = math.cos(rad)*(tach_radius*9.25/10)+rpm_pivot_x p2_y = -math.sin(rad)*(tach_radius*9.25/10)+rpm_pivot_y ac.glBegin(0) ac.glColor4f(tach_smallline_color[0],tach_smallline_color[1],tach_smallline_color[2],tach_smallline_color[3]) ac.glVertex2f(p1_x,p1_y) ac.glVertex2f(p2_x,p2_y) ac.glEnd() # Needle rpm_x = math.cos(rpm_rad)*(tach_radius-3)+rpm_pivot_x rpm_y = -math.sin(rpm_rad)*(tach_radius-3)+rpm_pivot_y rpm_end_x = math.cos(rpm_rad+math.pi)*tach_needle_end+rpm_pivot_x rpm_end_y = -math.sin(rpm_rad+math.pi)*tach_needle_end+rpm_pivot_y rpm_p1_x = rpm_x + math.cos(rpm_rad-math.pi/2)*1.5 rpm_p1_y = rpm_y - math.sin(rpm_rad-math.pi/2)*1.5 rpm_p2_x = rpm_x + math.cos(rpm_rad+math.pi/2)*1.5 rpm_p2_y = rpm_y - math.sin(rpm_rad+math.pi/2)*1.5 rpm_end_p1_x = rpm_end_x + math.cos(rpm_rad-math.pi/2)*3 rpm_end_p1_y = rpm_end_y - math.sin(rpm_rad-math.pi/2)*3 rpm_end_p2_x = rpm_end_x + math.cos(rpm_rad+math.pi/2)*3 rpm_end_p2_y = rpm_end_y - math.sin(rpm_rad+math.pi/2)*3 ac.glBegin(2) ac.glColor4f(tach_needle_color1[0],tach_needle_color1[1],tach_needle_color1[2],tach_needle_color1[3]) ac.glVertex2f(rpm_p1_x,rpm_p1_y) ac.glVertex2f(rpm_p2_x,rpm_p2_y) ac.glVertex2f(rpm_end_p1_x,rpm_end_p1_y) ac.glEnd() ac.glBegin(2) ac.glColor4f(tach_needle_color1[0],tach_needle_color1[1],tach_needle_color1[2],tach_needle_color1[3]) #ac.glColor4f(1,1,1,1) ac.glVertex2f(rpm_p2_x,rpm_p2_y) ac.glVertex2f(rpm_end_p2_x,rpm_end_p2_y) ac.glVertex2f(rpm_end_p1_x,rpm_end_p1_y) ac.glEnd()