Multi Lasers planetarium improvements

This commit is contained in:
nrhck 2019-01-30 03:39:56 +01:00
parent 4131126734
commit 29e50ea285
3 changed files with 772920 additions and 69 deletions

File diff suppressed because it is too large Load Diff

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@ -5,6 +5,16 @@ Multi Laser planetarium in python3
Remember : LJ will automatically warp geometry according to alignement data. See webUI.
Todo:
- Validate aa2radec() with online calculator. Rewrite it to remove need for Astropy.
- Findout how to use OSC in python 3.
- Code WebUI page.
- UpdateStars() in each laser sky. Get magnitude. See UpdateSolar for example.
- Draw operations should also check visibility in the given laser altitude range.
- Rewrite CityPosition() with proper search in a python dictionnary.
- Better python code. Better varuable to understand easily Update() methods.
LICENCE : CC
'''
@ -20,6 +30,7 @@ from astropy.time import Time
from skyfield.api import Star, load, Topos,Angle
from skyfield.data import hipparcos
import json
'''
is_py2 = sys.version[0] == '2'
@ -41,6 +52,8 @@ argsparser = argparse.ArgumentParser(description="Planetarium for LJ")
argsparser.add_argument("-r","--redisIP",help="IP of the Redis server used by LJ (127.0.0.1 by default) ",type=str)
argsparser.add_argument("-c","--client",help="LJ client number (0 by default)",type=int)
argsparser.add_argument("-l","--laser",help="Laser number to be displayed (0 by default)",type=int)
#argsparser.add_argument("-n","--name",help="City Name of the observer",type=str)
#argsparser.add_argument("-r","--redisIP",help="Country code of the observer ",type=str)
args = argsparser.parse_args()
@ -51,9 +64,9 @@ else:
ljclient = 0
if args.laser:
plnumber = args.laser
lasernumber = args.laser
else:
plnumber = 0
lasernumber = 0
# Redis Computer IP
if args.redisIP != None:
@ -79,6 +92,8 @@ samparray = [0] * 100
# Green rectangular shape :
pl0 = [(100,300,65280),(200,300,65280),(200,200,65280),(100,200,65280),(100,300,65280)]
# If you want to use rgb for color :
def rgb2int(r,g,b):
return int('0x%02x%02x%02x' % (r,g,b),0)
@ -89,6 +104,7 @@ blue = rgb2int(0,0,255)
green = rgb2int(0,255,0)
def Proj(x,y,z,angleX,angleY,angleZ):
rad = angleX * math.pi / 180
@ -120,106 +136,323 @@ def Proj(x,y,z,angleX,angleY,angleZ):
return (x,y)
#
# Objects in Planetarium Field of View
# All the coordinates base functions
#
# Compute Equatorial Right Ascension and Declinaison from given observator Altitude and Azimuth
'''
To minize number of sky objects coordinates conversion : Change planetarium FOV in Ra Dec to select objects
(planets, hipparcos,..). Then get those objects in AltAz coordinates.
aa2radec compute Equatorial Right Ascension and Declinaison coordinates from given observator Altitude and Azimuth.
Example ra,dec = aa2radec( azimuth = 0, altitude = 90, lati = 48.85341, longi = 2.3488, elevation = 100, t =AstroPyNow )
with AstroPyNow = Time.now()
'''
def aa2radec(azimuth,altitude,lati,longi,elevation,t):
#print ("az",azimuth,"alt",altitude,"lati",lati,"long",longi,"elev",elevation,"time",t)
Observer = EarthLocation(lat=lati * u.deg, lon=longi *u.deg, height= elevation*u.m,)
ObjectCoord = SkyCoord(alt = altitude * u.deg, az = azimuth *u.deg, obstime = t, frame = 'altaz', location = Observer)
print("icrs",ObjectCoord.icrs)
print("ICRS Right Ascension", ObjectCoord.icrs.ra)
print("ICRS Declination", ObjectCoord.icrs.dec)
#print("icrs",ObjectCoord.icrs)
#print("ICRS Right Ascension", ObjectCoord.icrs.ra)
#print("ICRS Declination", ObjectCoord.icrs.dec)
return ObjectCoord.icrs.ra.degree, ObjectCoord.icrs.dec.degree
# Compute given object apparent positions (ra,dec,alt,az) and distance from given gps earth position (in decimal degrees) at UTC time (in skyfield format)
# Compute given object apparent positions (ra,dec,alt,az) and distance from given gps earth position (in decimal degrees) at UTC time (in skyfield format)
def EarthObjPosition(gpslat,gpslong,object,t):
Observer = earth + Topos(gpslat, gpslong)
astrometric = earth.at(t).observe(object)
ra, dec, distance = astrometric.radec()
print("Right ascencion",ra)
print("RA in degree",ra._degrees)
print("RA in radians",ra.radians)
print("declinaison",dec)
print (distance)
ApparentPosition = Observer.at(t).observe(object).apparent()
alt, az, distance = ApparentPosition.altaz('standard')
print("UTC",t.utc_iso())
print ("Altitude",alt)
print("Altitude in radians",alt.radians)
print("Altitude in degrees",alt.degrees)
print("Altitude in dms",alt.dms(0))
print("Altitude in signed_dms",alt.signed_dms(0))
print("Azimuth", az.dstr())
print ("Distance from position", distance)
return ra._degrees, dec, alt.degrees, az, distance
#print (object, 'at', t.utc_iso())
Observer = earth + Topos(gpslat, gpslong)
astrometric = earth.at(t).observe(object)
ra, dec, distance = astrometric.radec()
'''
print("Right ascencion",ra)
print("RA in degree",ra._degrees)
print("RA in radians",ra.radians)
print("declinaison",dec)
print (distance)
'''
ApparentPosition = Observer.at(t).observe(object).apparent()
alt, az, distance = ApparentPosition.altaz('standard')
'''
print("UTC",t.utc_iso())
print ("Altitude",alt)
print("Altitude in radians",alt.radians)
print("Altitude in degrees",alt.degrees)
print("Altitude in dms",alt.dms(0))
print("Altitude in signed_dms",alt.signed_dms(0))
print("Azimuth", az.dstr())
print ("Distance from position", distance)
'''
#return ra._degrees, dec, alt.degrees, az, distance
return alt.degrees, az.degrees
# Add Radec coordinates for all lasers from user defined Altaz coordinates in LaserSkies variable at given earth position and time.
# LaserSkies : [LeftAzi, RightAzi, TopAlt, BotAlt, LeftRa, RightRa, TopDec, BottomDec]
# 0 1 2 3 4 5 6 7
def RadecSkies(LaserSkies,Skylat,Skylong,Skyelevation,AstroSkyTime):
print()
print("Converting", lasernumber, "LaserSkies limits in Right Ascension & Declination (radec) coordinates ")
for laser in range(lasernumber):
# Left top point
LaserSkies[laser][4],LaserSkies[laser][6] = aa2radec(azimuth = LaserSkies[laser][0], altitude =LaserSkies[laser][2], lati = Skylat, longi = Skylong, elevation = Skyelevation, t =AstroSkyTime)
# Right Bottom point
LaserSkies[laser][5],LaserSkies[laser][7] = aa2radec(azimuth = LaserSkies[laser][1], altitude =LaserSkies[laser][3], lati = Skylat, longi = Skylong, elevation = Skyelevation, t =AstroSkyTime)
print(LaserSkies)
print ("Done.")
def azimuth2scrX(leftAzi,rightAzi,s):
a1, a2 = leftAzi,rightAzi
b1, b2 = -width/2, width/2
return b1 + ((s - a1) * (b2 - b1) / (a2 - a1))
def altitude2scrY(topAlti,botAlti,s):
a1, a2 = botAlti, topAlti
b1, b2 = -heigth/2, heigth/2
return b1 + ((s - a1) * (b2 - b1) / (a2 - a1))
print("Loading hipparcos catalog...")
#hipparcosURL = 'ftp://cdsarc.u-strasbg.fr/cats/I/239/hip_main.dat.gz'
hipparcosURL = 'data/hip_main.dat.gz'
with load.open(hipparcosURL) as f:
hipdata = hipparcos.load_dataframe(f)
print("Loaded")
# Sky objects
ts = load.timescale()
hipparcos_epoch = ts.tt(1991.25)
barnards_star = Star.from_dataframe(hipdata.loc[87937])
polaris = Star.from_dataframe(hipdata.loc[11767])
# de421.bps https://naif.jpl.nasa.gov/pub/naif/generic_kernels/spk/planets/a_old_versions/de421.bsp
planets = load('data/de421.bsp')
print('de421 loaded.')
earth = planets['earth']
mars = planets['mars']
#
# Solar System
#
def LoadSolar():
global planets, SolarObjects, earth
print("Loading Solar System (de421)...")
# de421.bps https://naif.jpl.nasa.gov/pub/naif/generic_kernels/spk/planets/a_old_versions/de421.bsp
planets = load('data/de421.bsp')
earth = planets['earth']
print('Loaded.')
# de421 objects
# [Object name, object altitude, object azimuth]
SolarObjects = [['MERCURY',0.0, 0.0], ['VENUS', 0.0, 0.0], ['JUPITER BARYCENTER', 0.0, 0.0], ['SATURN BARYCENTER', 0.0, 0.0], ['URANUS BARYCENTER', 0.0, 0.0], ['NEPTUNE BARYCENTER', 0.0, 0.0], ['PLUTO BARYCENTER', 0.0, 0.0], ['SUN', 0.0, 0.0], ['MOON', 0.0, 0.0], ['MARS', 0.0, 0.0]]
def UpdateSolar():
global SolarObjects
print()
print("Updating solar system (de421) objects position for observer at", Skylat, Skylong, "time", SkyfieldTime.utc_iso())
# Compute Alt Az coordinates for all solar objects for observer.
for number,object in enumerate(SolarObjects):
#print(object[0],number)
SolarObjects[number][1],SolarObjects[number][2] = EarthObjPosition(Skylat,Skylong,planets[object[0]],SkyfieldTime)
print (SolarObjects)
print ("Done.")
# Draw the SolarShapeObject for any Solar object is in the laser Sky
def DrawSolar(LaserSkies, laser):
for number,object in enumerate(SolarObjects):
# Solar object is in given laser sky aeimuth range ?
# Need to add an altitude check.
if LaserSkies[laser][0] < SolarObjects[number][2] < LaserSkies[laser][1]:
lj3.rPolyLineOneColor(SolarObjectShape, c = white, PL = laser, closed = False, xpos = azimuth2scrX(LaserSkies[laser][0],LaserSkies[laser][1],SolarObjects[number][2]), ypos = azimuth2scrY(LaserSkies[laser][2],LaserSkies[laser][3],SolarObjects[number][0]), resize = 2.5, rotx =0, roty =0 , rotz=0)
#
# Stars Objects
#
def LoadHipparcos(ts):
global hipdata
print("Loading hipparcos catalog...")
#hipparcosURL = 'ftp://cdsarc.u-strasbg.fr/cats/I/239/hip_main.dat.gz'
hipparcosURL = 'data/hip_main.dat.gz'
with load.open(hipparcosURL) as f:
hipdata = hipparcos.load_dataframe(f)
print("Loaded.")
hipparcos_epoch = ts.tt(1991.25)
# CODE IMPORTED HERE FROM TESTS. NEEDS TO ADAPT
# Star selection
def StarSelect():
hipparcos_epoch = ts.tt(1991.25)
barnards_star = Star.from_dataframe(hipdata.loc[87937])
polaris = Star.from_dataframe(hipdata.loc[11767])
print()
print ("Selecting sky portion")
hipdatafilt = hipdata[hipdata['magnitude'] <= 2.5]
print(('After filtering, there are {} stars with magnitude <= 2.5'.format(len(hipdatafilt))))
bright_stars = Star.from_dataframe(hipdatafilt)
print (hipdatafilt)
#print (bright_stars)
t = ts.utc(2018, 9, 3)
'''
Observer = earth + Topos(gpslat, gpslong)
ApparentPosition = Observer.at(t).observe(bright_stars).apparent()
alt, az, distance = ApparentPosition.altaz('standard')
print(('Now there are {} azimuth'.format(len(az))))
print(('and {} altitute'.format(len(alt))))
'''
astrometric = earth.at(t).observe(bright_stars)
ra, dec, distance = astrometric.radec()
print(('Now there are {} right ascensions'.format(len(ra.hours))))
print(('and {} declinations'.format(len(dec.degrees))))
Observer = earth + Topos(gpslat, gpslong)
AP = Observer.at(t).observe(bright_stars)
print ("AP",AP.apparent())
# WORK IN PROGRESS
# On Earth Gps positions
# https://github.com/lutangar/cities.json.git
#
def LoadCities():
global cities
print("Loading World Cities GPS position...")
f=open("data/cities.json","r")
s = f.read()
cities = json.loads(s)
print("Loaded.")
# search a city to get longitude and latitude. Need to understand python dictionnaries.
def CityPositiion(cityname, countrycode):
for city in range(len(cities['cities'])):
if cities['cities'][city]['name']==cityname and cities['cities'][city]['country']==countrycode:
'''
print (cities['cities'][city]['country'])
print (cities['cities'][city]['name'])
print (cities['cities'][city]['lat'])
print (cities['cities'][city]['lng'])
'''
return float(cities['cities'][city]['lat']), float(cities['cities'][city]['lng'])
# Add Kompass letter to given laser point list if it is in laser sky at Y axis 300
def DrawOrientation(LaserSkies, laser):
# North direction is in given laser sky azimuth range?
if LaserSkies[laser][0] < 0 < LaserSkies[laser][1]:
lj3.Text("N",white,laser,azimuth2scrX(LaserSkies[laser][0],LaserSkies[laser][1],0),300)
# East direction is in given laser sky azimuth range ?
if LaserSkies[laser][0] < 90 < LaserSkies[laser][1]:
lj3.Text("E",white,laser,azimuth2scrX(LaserSkies[laser][0],LaserSkies[laser][1],90),300)
# South direction is in given laser sky azimuth range ?
if LaserSkies[laser][0] < 180 < LaserSkies[laser][1]:
lj3.Text("S",white,laser,azimuth2scrX(LaserSkies[laser][0],LaserSkies[laser][1],180),300)
# West direction is in given laser sky azimuth range ?
if LaserSkies[laser][0] < 270 < LaserSkies[laser][1]:
lj3.Text("W",white,laser,azimuth2scrX(LaserSkies[laser][0],LaserSkies[laser][1],270),300)
# Compute LaserSkies Coordinates
def UpdateObserver(SkyCity, SkyCountryCode, time,ts):
global LaserSkies, Skylat, Skylong, SkyfieldTime
# Observer position i.e : Paris FR
#Skylat = 48.85341 # decimal degree
#Skylong = 2.3488 # decimal degree
print()
print("Observer GPS position and time...")
Skylat, Skylong = CityPositiion(SkyCity,SkyCountryCode)
print ("GPS Position of",SkyCity, "in", SkyCountryCode, ":",Skylat,Skylong)
# City GPS altitude not in Cities database... Let's say it's :
Skyelevation = 100 # meters
# Observer Time : Now
# Other time in Astropy style
# times = '1999-01-01T00:00:00.123456789'
# t = Time(times, format='isot', scale='utc')
print()
AstroSkyTime = time
print ("AstroPyNow", AstroSkyTime)
SkyfieldTime = ts.from_astropy(AstroSkyTime)
print("Time from AstropyUTC",SkyfieldTime.utc_iso())
print("Skyfield UTC",SkyfieldTime.utc_iso())
# Computer for all Laser "skies" their Right Ascension/Declinaison coordinates from their Altitude/azimuth Coordinates.
# to later select their visible objects in radec catalogs like hipparcos.
# LaserSky definition for one laser (in decimal degrees) : [LeftAzi, RightAzi, TopAlt, BotAlt, LeftRa, RightRa, TopDec, BottomDec]
# With 4 lasers with each one a quarter of the 360 ° real sky, there is 4 LaserSky :
LaserSkies = [[0.0,90.0,90.0,0.0,0.0,0.0,0.0,0.0],[90,180,90,0,0,0,0,0],[180,270,90,0,0,0,0,0],[270,360,90,0,0,0,0,0]]
RadecSkies(LaserSkies, Skylat, Skylong, Skyelevation, AstroSkyTime)
#
# Main functions
#
def DrawPL():
def Planetarium():
ts = load.timescale()
LoadHipparcos(ts)
LoadSolar()
LoadCities()
SkyCity = 'Paris'
SkyCountryCode = 'FR'
UpdateObserver(SkyCity, SkyCountryCode, Time.now(),ts)
print()
print ("Updating Sky Objects for current observer...")
UpdateSolar()
# UpdateStars() Todo
DisplayStars = False
DisplaySolar = True
DisplayOrientation = True
Shape = []
counter =0
while 1:
t = ts.now()
gpslat = '48.866669 N'
gpslong = '2.33333 E'
'''
for curve in np.arange(-1, 1, 0.2):
zsine = ssine(100,5,curve+counter)
for laser in range(lasernumber):
if DisplayOrientation:
DrawOrientation(LaserSkies, laser)
if DisplaySolar:
DrawSolar()
if DisplayStars:
pass
lj3.DrawPL(laser)
time.sleep(0.01)
Planetarium()
zfactor = 7
Shape = []
x = curve
#x = 0
y = -1
for step in zsine:
Shape.append( Proj(x,y,step/zfactor,0,0,0))
y += 0.02
lj3.rPolyLineOneColor(Shape, c = white, PL = 0, closed = False, xpos = -450, ypos = -350, resize = 2.5, rotx =0, roty =0 , rotz=0)
lj3.DrawPL(0)
'''
counter += 0.001
time.sleep(0.01)
print("Running...")
DrawPL()

View File

@ -129,7 +129,7 @@
height: 323px;
width: 124px;
grid-template-columns: 62px 62px;
grid-template-rows: 30px 19px 8px 55px 20px 19px 8px 55px 25px 19px 8px 55px 19px;
grid-template-rows: 30px 19px 8px 55px 19px 20px 8px 55px 19px 25px 8px 55px 19px;
background-color: #111;
line-height: 1;
justify-items: center;