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test.py
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155 lines (107 loc) · 3.82 KB
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import os
import numpy as np
from MetaArray import axis, MetaArray
def test_metaarray():
# Create an array with every option possible
arr = np.zeros((2, 5, 3, 5), dtype=int)
for i in range(arr.shape[0]):
for j in range(arr.shape[1]):
for k in range(arr.shape[2]):
for w in range(arr.shape[3]):
arr[i, j, k, w] = (i + 1) * 1000 + (j + 1) * 100 + (k + 1) * 10 + (w + 1)
info = [
axis("Axis1"),
axis("Axis2", values=[1, 2, 3, 4, 5]),
axis("Axis3", cols=["Ax3Col1", ("Ax3Col2", "mV", "Axis3 Column2"), (("Ax3", "Col3"), "A", "Axis3 Column3")]),
{"name": "Axis4", "values": np.array([1.1, 1.2, 1.3, 1.4, 1.5]), "units": "s"},
{"extra": "info"},
]
ma = MetaArray(arr, info=info)
print("==== Original Array =======")
print(ma)
print("\n\n")
# Index/slice tests: check that all values and meta info are correct after slice
print("\n -- normal integer indexing\n")
print("\n ma[1]")
print(ma[1])
print("\n ma[1, 2:4]")
print(ma[1, 2:4])
print("\n ma[1, 1:5:2]")
print(ma[1, 1:5:2])
print("\n -- named axis indexing\n")
print("\n ma['Axis2':3]")
print(ma["Axis2":3])
print("\n ma['Axis2':3:5]")
print(ma["Axis2":3:5])
print("\n ma[1, 'Axis2':3]")
print(ma[1, "Axis2":3])
print("\n ma[:, 'Axis2':3]")
print(ma[:, "Axis2":3])
print("\n ma['Axis2':3, 'Axis4':0:2]")
print(ma["Axis2":3, "Axis4":0:2])
print("\n -- column name indexing\n")
print("\n ma['Axis3':'Ax3Col1']")
print(ma["Axis3":"Ax3Col1"])
print("\n ma['Axis3':('Ax3','Col3')]")
print(ma["Axis3":("Ax3", "Col3")])
print("\n ma[:, :, 'Ax3Col2']")
print(ma[:, :, "Ax3Col2"])
print("\n ma[:, :, ('Ax3','Col3')]")
print(ma[:, :, ("Ax3", "Col3")])
print("\n -- axis value range indexing\n")
print("\n ma['Axis2':1.5:4.5]")
print(ma["Axis2":1.5:4.5])
print("\n ma['Axis4':1.15:1.45]")
print(ma["Axis4":1.15:1.45])
print("\n ma['Axis4':1.15:1.25]")
print(ma["Axis4":1.15:1.25])
print("\n -- list indexing\n")
print("\n ma[:, [0,2,4]]")
print(ma[:, [0, 2, 4]])
print("\n ma['Axis4':[0,2,4]]")
print(ma["Axis4":[0, 2, 4]])
print("\n ma['Axis3':[0, ('Ax3','Col3')]]")
print(ma["Axis3":[0, ("Ax3", "Col3")]])
print("\n -- boolean indexing\n")
print("\n ma[:, array([True, True, False, True, False])]")
print(ma[:, np.array([True, True, False, True, False])])
print("\n ma['Axis4':array([True, False, False, False])]")
print(ma["Axis4": np.array([True, False, False, False, False])])
# Array operations:
# - Concatenate
# - Append
# - Extend
# - Rowsort
# File I/O tests
print("\n================ File I/O Tests ===================\n")
tf = "test.ma"
# write whole array
print("\n -- write/read test")
ma.write(tf)
ma2 = MetaArray(file=tf)
print("\nArrays are equivalent:", np.all(ma == ma2))
del ma
del ma2
ma = MetaArray(file=tf, writable=True)
before = ma[0][0][0].mean()
ma[0][0] += 1
after = ma[0][0][0].mean()
assert before + 1 == after, (before, after)
# CSV write
# append mode
print("\n================append test (%s)===============" % tf)
ma = MetaArray(file=tf)
ma["Axis2":0:2].write(tf, appendAxis="Axis2")
for i in range(2, ma.shape[1]):
ma["Axis2":[i]].write(tf, appendAxis="Axis2")
ma2 = MetaArray(file=tf)
print("\nArrays are equivalent:", (ma == ma2).all())
os.remove(tf)
# memmap test
print("\n==========Memmap test============")
ma.write(tf, mappable=True)
ma2 = MetaArray(file=tf, mmap=True)
print("\nArrays are equivalent:", (ma == ma2).all())
os.remove(tf)
if __name__ == "__main__":
test_metaarray()