def red(fnm):
if os.path.isfile(fnm):a=rhicdata(fnm)
else: print fnm, "doesn't exists"; sys.exit()
print "Selected file:", opt.FILE
tx=npy.array([j.data[int(opt.NT)-1:] for j in a.H])
ty=npy.array([j.data[int(opt.NT)-1:] for j in a.V])
return a, npy.transpose(tx),npy.transpose(ty)
return c11, c12, c21, c22
if __name__ == "__main__":
#-- Input options
opt, args = parsse()
if opt.FILE == "None": file, NTURNS = rinput()
else: file = opt.PATH + opt.FILE
print "Input File:", file
BLABEL = 0
SLABEL = 0
AMP01 = 0
PHASE01 = 0
#--- read tbt input
aD = rhicdata(file)
bx, by = bMat(aD)
sx = array([j.location for j in aD.H]) / 1.0e3
sy = array([j.location for j in aD.V]) / 1.0e3
#---- write USV modes only
wUSV(file, bx, sx)
if opt.CALC == "1":
print "Writing SVD modes only"
sys.exit()
#-- Tunes, CO, PTOP & Noise
TUNEX, TUNEY = fTune(bx, by)
Q1 = average(TUNEX)
Q2 = average(TUNEY)
print "Average {Qx, Qy}:", round(Q1, 4), round(Q2, 4)
else:
print "WARNING: # of mode input should be 4!"
print "will use default modes 0,1,2,3 instead"
m1i=0;m2i=1;m3i=0;m4i=1
return m1i,m2i,m3i,m4i
if __name__ == "__main__":
#-- Input options
opt,args=parsse()
file, NTURNS=rinput(opt.PATH)
print "Input File:", file
BLABEL=0;SLABEL=0;AMP01=0;PHASE01=0
#--- read tbt input
aD=rhicdata(file);bx,by=bMat(aD)
sx=array([j.location for j in aD.H])/1.0e3
sy=array([j.location for j in aD.V])/1.0e3
#--- define tune windows for x & y
qsx=int((qx0-win)*len(bx));qex=int((qx0+win)*len(bx))
qsy=int((qy0-win)*len(by));qey=int((qy0+win)*len(by))
#---- write USV modes only
pl='x'; Ux,Sx,Vx,Fx=wrtUSV(file,bx,sx);
pl='y'; Uy,Sy,Vy,Fy=wrtUSV(file,by,sy);
#--- find x & y modes in each plane
m1,m2=findModes(Fx,qsx,qex,nm=20);
m3,m4=findModes(Fy,qsy,qey,nm=20)
phm=array(phm)
pylab.subplot(2,1,1);
pylab.scatter(sx,phx);pylab.plot(a.S,phm[:,0]);
pylab.subplot(2,1,2);
pylab.scatter(sy,phy);pylab.plot(a.S,phm[:,1]);
pylab.show()
if __name__ == "__main__":
t0=time.time()
#-- Input options & read data
opt,args=parsse()
file, NTURNS=rinput(opt.PATH)
print "Input File:", file
BLABEL=0;SLABEL=0;AMP01=0;PHASE01=0
aD=rhicdata(file);bx,by,sx,sy=bMat(aD)
#-- Tunes, CO, PTOP & Noise & write modes
TUNEX=findTunes(bx,qx0,tol=0.1);
TUNEY=findTunes(by,qy0,tol=0.1);
Q1=average(TUNEX);Q2=average(TUNEY)
print "Av. Measured {Qx, Qy}:", round(Q1,4), round(Q2,4)
Q1RMS=sqrt(average(TUNEX)**2); Q2RMS=sqrt(average(TUNEY)**2)
COX, PK2PKX=ptp(bx); COY, PK2PKY=ptp(by)
#Ux,Sx,Vx,NOISEX=computeSVD(bx);Uy,Sy,Vy,NOISEY=computeSVD(by);
[Ux,Sx,Vx,NOISEX],[Uy,Sy,Vy,NOISEY]=foreach(computeSVD,[bx,by],threads=2,return_=True)
Fx=wrtUSV(file,Ux,Sx,Vx,sx,pl='x');
Fy=wrtUSV(file,Uy,Sy,Vy,sy,pl='y');
#--- find modes & compute phadv(x,y)
if opt.MODE=="0": #--- ph/amp from uncoupled case
return PH
if __name__ == "__main__":
# -- Input options
opt, args = parsse()
file, NTURNS = rinput(opt.PATH)
print "Input File:", file
BLABEL = 0
SLABEL = 0
AMP01 = 0
PHASE01 = 0
# --- read tbt input
aD = rhicdata(file)
bx, by = bMat(aD)
sx = array([j.location for j in aD.H]) / 1.0e3
sy = array([j.location for j in aD.V]) / 1.0e3
# --- define tune windows for x & y
qsx = int((qx0 - win) * len(bx))
qex = int((qx0 + win) * len(bx))
qsy = int((qy0 - win) * len(by))
qey = int((qy0 + win) * len(by))
# ---- write USV modes only
pl = "x"
Ux, Sx, Vx, Fx = wrtUSV(file, bx, sx)
pl = "y"
Uy, Sy, Vy, Fy = wrtUSV(file, by, sy)
c12=sqrt((At*Bt)*sCa*sCb/(A*B))*sign(sCa)
c11=c12*cCa/sCa; c22 = -c12*cCb/sCb
c21=calC21(c11,c12,c22,PHX,PHY)
return c11,c12,c21,c22
if __name__ == "__main__":
#-- Input options
opt,args=parsse()
if opt.FILE=="None": file, NTURNS=rinput()
else:file=opt.PATH+opt.FILE
print "Input File:", file
BLABEL=0;SLABEL=0;AMP01=0;PHASE01=0
#--- read tbt input
aD=rhicdata(file);bx,by=bMat(aD)
sx=array([j.location for j in aD.H])/1.0e3
sy=array([j.location for j in aD.V])/1.0e3
#-- Tunes, CO, PTOP & Noise
TUNEX, TUNEY=fTune(bx,by)
Q1=average(TUNEX); Q2=average(TUNEY)
print "Average {Qx, Qy}:", round(Q1,4), round(Q2,4)
Q1RMS=std(TUNEX); Q2RMS=std(TUNEY)
COX, PK2PKX=ptp(bx); COY, PK2PKY=ptp(by)
NOISEX=noise(bx); NOISEY=noise(by)
#--- find modes & compute phadv(x,y)
if opt.MODE=="0": #--- ph/amp from uncoupled case
Ux,Sx,Vx=fmod(bx,m1=0,m2=1,m3=2,m4=3)
print "Sing vals, X:", round(Sx[0],3),round(Sx[1],3)
phm=array(phm)
pylab.subplot(2,1,1);
pylab.scatter(sx,phx);pylab.plot(a.S,phm[:,0]);
pylab.subplot(2,1,2);
pylab.scatter(sy,phy);pylab.plot(a.S,phm[:,1]);
pylab.show()
if __name__ == "__main__":
t0=time.time()
#-- Input options & read data
opt,args=parsse()
file, NTURNS,kick=rinput(opt.PATH)
print "Input File:", file
BLABEL=0;SLABEL=0;AMP01=0;PHASE01=0
aD=rhicdata(file);bx,by,sx,sy=bMat(aD,NTURNS,kick)
#-- Tunes, CO, PTOP & Noise & write modes
#TUNEX=findTunes(bx,qx0,tol=0.1);
#TUNEY=findTunes(by,qy0,tol=0.1);
TUNEX,txclean=fTune(bx);
TUNEY,tyclean=fTune(by);
Q1=average(TUNEX);Q2=average(TUNEY)
print "Av. Measured {Qx, Qy}:", round(Q1,4), round(Q2,4)
Q1RMS=sqrt(average(TUNEX)**2); Q2RMS=sqrt(average(TUNEY)**2)
COX, PK2PKX=ptp(bx); COY, PK2PKY=ptp(by)
#Ux,Sx,Vx,NOISEX=computeSVD(bx);Uy,Sy,Vy,NOISEY=computeSVD(by);
[Ux,Sx,Vx,NOISEX],[Uy,Sy,Vy,NOISEY]=foreach(computeSVD,[bx,by],threads=2,return_=True)
Fx=wrtUSV(file,Ux,Sx,Vx,sx,pl='x');
Fy=wrtUSV(file,Uy,Sy,Vy,sy,pl='y');
