N = 64 # Number of Elements
dx = 1. # Spacing of Capture Points in mm
Lx = 255. # Length of Scan in mm
X0 = 25. # Initial Position of Centre of Aperture (mm)
X = np.linspace(X0, X0+Lx, int(np.round(Lx/dx))) # Vector of capture positions (mm)
T = 2*1.25*np.sqrt(( X[-1] + (N-1)*p/2 - h[-1][0])**2 + h[-1][1]**2)/5.92 # Time gate (mircoseconds)
F = mp.PhasedArray(N, fsamp=25., pwidth=1/20.) # MicroPulse object for FMC acquisition
G = mc.Controller() # MotionController object for Galil axis control
xy = [] # List to store position of hole to be imaged w.r.t. to first element
for XX in X:
th = np.array([np.arctan2(np.abs(XX - hh[0]), hh[1]) for hh in h])
indh = np.argmin(th)
if th < thmax:
F.GetFMCData((0., T), 80., 200., 16)
xy.append((h[indh][0] - (XX - (N-1)*p/2.),h[indh][1]))
import MotionController as mc
import MicroPulse as mp
import numpy as np
pth = 'E:/MicroPulseFBHBacksideScans/'
SampleName = 'D01-03-Backside'
m = mp.PhasedArray(32, pwidth=1 / 10.)
c = mc.Controller()
Npos = 80
speed = 3.
p = np.linspace(0, Npos - 1, Npos)
for pp in p:
c.MoveAbsolute('Y', pp, speed)
m.GetFMCData((0., 85.), dB=50., Voltage=200., Averages=8)
m.SaveScan(pth + SampleName + '1.p')
m.ClearAScans()
for pp in p[::-1]:
c.MoveAbsolute('Y', pp, speed)
