prepareImages.py 1.5 KB

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  1. import pydicom
  2. import numpy as np
  3. import matplotlib.pyplot as plt
  4. import os
  5. import csv
  6. import math
  7. import wavelet
  8. import network
  9. import keras
  10. import tensorflow as tf
  11. import random
  12. actions = [ lambda img: wavelet.rotate(img, 1)
  13. , lambda img: wavelet.rotate(img, 2)
  14. , lambda img: wavelet.rotate(img, 3)
  15. , lambda img: wavelet.rotate(img, 4)
  16. , lambda img: wavelet.rotate(img, 5)
  17. , lambda img: wavelet.rotate(img, 6)
  18. , lambda img: wavelet.rotate(img, 7)
  19. ]
  20. genData = []
  21. model = network.createModel()
  22. pos = 0
  23. first = True
  24. with open("mimx.csv") as f:
  25. for row in csv.reader(f, delimiter=","):
  26. if first or len(row) < 9:
  27. first = False
  28. continue
  29. n = f"{row[2]}"
  30. while len(n) < 4:
  31. n = f"0{n}"
  32. fileName = f"Proband {row[0]}/SE00000{row[1]}/{row[0]}_{n}.dcm"
  33. print(f"{fileName}", end="\r")
  34. y = np.array([float(row[7]), float(row[8]), float(row[9]), float(row[10])])
  35. #np.save(f"{fileName}_labels.npy", y, allow_pickle=False)
  36. img = pydicom.dcmread(fileName).pixel_array
  37. #images = []
  38. #for action in actions:
  39. # w = wavelet.refine(action(img))
  40. # images.append(1.0 * w.reshape((512 * 512,)))
  41. #
  42. #images = np.array(images)
  43. #np.save(f"{fileName}_images.npy", images, allow_pickle=False)
  44. np.save(f"{fileName}_plainImage.npy", img, allow_pickle=False)
  45. w = wavelet.refine(img)
  46. np.save(f"{fileName}_wavelet.npy", img, allow_pickle=False)
  47. print()
  48. print("done")