############################## ### DM2_w24 ue4 ### ### 25.10.2024 ### ############################## import rhinoscriptsyntax as rs import random, time, sys ### sys.path.append("P:/") ### add path where "DM_lib.py" can be found !!! sys.path.append("P:/DM2/") ### add path where "DM_lib.py" can be found !!! sys.path.append("P:/WWW/limafi/dm2") ### add path where "DM_lib.py" can be found !!! import DM_lib as dm ### reload(dm) ############################## ###rueckmeldung #hausi nicht nur punkte, sondern auch linien #volume fuellen #mehr input, mehr kreativitaet #gute bilder - aussagekraeftig - weisser hintergrund - keine screenshots #setup nicht bei der hu #geometrisch soll es interessant sein #command liste nachschauen was wir bereits erlernt haben, selber auch eine liste schreiben ################################### ###02_uebung ### Langmann_Sven /// _diag ### 20241011 ################################### #allRhinos = rs.AllObjects () #rs.DeleteObjects( allRhinos) dm.PointRadius(displayModeX=0, rad=6, styl=3, verbose=0) #style eckig un drund einstellbar #markieren der punkte - setobjectdisplaymode und die darstellung aendern #printdisplay on - strichstaerke variieren rs.EnableRedraw (0) dm.eA() def DrawPointSphere(rad, anz): vecS= [] #rad = 5.0 vec = [rad, 0, 0] vecX = rs.VectorRotate (vec, 90, [0,0,1] ) #### center = [0, 0, 0] #anz = 500 deltaAngle = 360/anz #### for i in range(anz): vecX = rs.VectorRotate( vec, deltaAngle*i, dm.pntRandCoords(-1, 1)[0] ) #vecX = rs.VectorScale( vecX, random.uniform(0.7, 1) ) vecX = rs.VectorAdd( vecX, center ) #rs.AddPoint( vecX ) vecS.append(vecX) #rs.ObjectName( rs.AddPoints( vecS ), "sphPoints") return vecS #rueckgabewert von der definition - def soll nicht gleich zeichnen, sondern sammelt zuerst vektoren #liste wird dann zurueckgegeben def DrawCube(rad, rotate=0): ###rad= rad-2 vecC = [] #cords.append( [0,0,0] ) center= [0,0,0] #vec= [] vecC.append( rs.VectorAdd( center, rs.VectorScale( [rad,rad,-rad], 1))) #=Vector A =0 vecC.append( rs.VectorAdd( center, rs.VectorScale( [-rad,rad,-rad], 1))) #=Vector B =1 vecC.append( rs.VectorAdd( center, rs.VectorScale( [rad,-rad,-rad], 1))) #=Vector C =2 vecC.append( rs.VectorAdd( center, rs.VectorScale( [-rad,-rad,-rad], 1)))#=Vector D =3 ### vecC.append( rs.VectorAdd( center, rs.VectorScale( [rad,rad,rad], 1))) #=Vector E =4 vecC.append( rs.VectorAdd( center, rs.VectorScale( [-rad,rad,rad], 1))) #=Vector F =5 vecC.append( rs.VectorAdd( center, rs.VectorScale( [rad,-rad,rad], 1))) #=Vector G =6 vecC.append( rs.VectorAdd( center, rs.VectorScale( [-rad,-rad,rad], 1))) #=Vector H =7 ### if rotate: randvec = dm.pntRandCoords(-1, 1)[0] for i,vec in enumerate(vecC): vecC[i] = rs.VectorRotate( vec, 30.0, randvec ) baseCrv = rs.AddCurve( [vecC[0], vecC[1], vecC[3], vecC[2], vecC[0]], 1 ) topCrv = rs.AddCurve( [vecC[4], vecC[5], vecC[7], vecC[6], vecC[4]], 1 ) rightCrv = rs.AddCurve( [vecC[0], vecC[4], vecC[6], vecC[2], vecC[0]], 1 ) leftpCrv = rs.AddCurve( [vecC[1], vecC[5], vecC[7], vecC[3], vecC[1]], 1 ) ### for i,car in enumerate(["A","B","C","D","E","F","G","H"]): pass #rs.AddTextDot( car, [vecC[0], vecC[1], vecC[2], vecC[3],vecC[4], vecC[5], vecC[6], vecC[7]][i] ) #rs.ObjectColor(rs.AllObjects()[5], [200,20,20] ) #dm.textDots( vecC ) return vecC def DrawDiff(baseCrv, topCrv, anz): coords = rs.DivideCurve(baseCrv, anz, 0) for y,corC in enumerate(coords): rs.ObjectColor( rs.AddPoint( corC ), [10,10,120] ) #coords += rs.DivideCurve(topCrv, anz, 0) ran = random.uniform(4,16) ### #cen = dm.pntInbetween(vecC[0], vecC[6]) for i,corS in enumerate(vecS): rs.ObjectColor( rs.AddPoint( corS ), [200,20,200] ) #for y,corC in enumerate(coords): #vec1 = rs.VectorSubtract( corS, corC ) #unitVec = rs.VectorUnitize( vec1 ) #rs.ObjectColor( rs.AddPoint( corS ), [200,20,200] ) #if( __name__ == "__main__" ): ### no good 4 nothing & DM2 ! if 1: rs.DeleteObjects( rs.ObjectsByType( 1 )) #objekte filtern nach typen anz = 3001 rad = 10 edgeLen = 7 sphVecS = DrawPointSphere(rad, anz) pnts = rs.AddPoints( sphVecS ) vecC = DrawCube(edgeLen, rotate=0) if 1: ### rookie ### #punkte ausserhalb berechnen for i,cor in enumerate(sphVecS): #pnt = rs.AddPoint( cor ) if abs(cor[2]) > edgeLen or abs(cor[0]) > edgeLen: pass rs.ObjectColor( pnts[i], [200,0,0]) else: rs.DeleteObject( pnts[i] ) if 0: ### desparate ### sphVecS = DrawPointSphere(rad, anz) pnts = rs.AddPoints( sphVecS ) vecC = DrawCube(edgeLen, rotate=1) for i,cor in enumerate(sphVecS): #zaehler mitlaufen #pnt = rs.AddPoint( cor ) if abs(cor[2]) > edgeLen or abs(cor[0]) > edgeLen: #abs bei neg und pos alle werte beruecksichtigt , 2 heisst zkoordinate pass rs.ObjectColor( pnts[i], [20,220,0]) else: rs.DeleteObject( pnts[i] ) if 1: ### advanced ### sphVecS = DrawPointSphere(rad, anz) pnts = rs.AddPoints( sphVecS ) vecC = DrawCube(edgeLen, rotate=1) dm.textDots(vecC) centerCub = dm.pntInbetween( vecC[0], vecC[7] ) rs.AddPoint( centerCub ) planeA = rs.PlaneFromPoints( centerCub, dm.pntInbetween( vecC[0], vecC[4]), dm.pntInbetween( vecC[1], vecC[5] ) ) #plane definiert ebene mit 3 punkten #loop ueber koordinaten laufen lassen #enumerate nummern fuer die koordinaten nr = 0 for i,cor in enumerate(sphVecS[0:10]): print i print cor print rs.PointCoordinates(pnts[i]) if abs(rs.DistanceToPlane(planeA, cor)) > edgeLen: pass rs.ObjectColor( pnts[i], [20,0,220]) else: pass rs.DeleteObject( pnts[i] ) print nr nr +=1 dm.zA()