Best Python code snippet using molotov_python
test_TextureAtlas.py
Source:test_TextureAtlas.py
1# author: Zach Crabtree zacharyc@alleninstitute.org2import unittest3from aicsimageio import AICSImage4from aicsimageprocessing.textureAtlas import generate_texture_atlas5class TestTextureAtlas(unittest.TestCase):6 def test_Save(self):7 image = AICSImage("aicsimageprocessing/tests/img/img40_1.ome.tif")8 atlas = generate_texture_atlas(9 im=image,10 pack_order=[[0, 1, 2], [3], [4]],11 name="test_Sizing",12 max_edge=1024,13 )14 atlas.save("img/atlas_max")15 def test_Sizing(self):16 # arrange17 image = AICSImage("aicsimageprocessing/tests/img/img40_1.ome.tif")18 max_edge = 204819 # act20 atlas = generate_texture_atlas(21 im=image,22 name="test_Sizing",23 max_edge=max_edge,24 pack_order=[[3, 2, 1, 0], [4]],25 )26 atlas_maxedge = max(atlas.dims.atlas_width, atlas.dims.atlas_height)27 # assert28 self.assertTrue(atlas_maxedge <= max_edge)29 def test_pickChannels(self):30 packing_list = [[0], [1, 2], [3, 4]]31 # arrange32 image = AICSImage("aicsimageprocessing/tests/img/img40_1.ome.tif")33 # act34 atlas = generate_texture_atlas(35 image, name="test_pickChannels", pack_order=packing_list36 )37 # returns as dict38 # metadata = atlas.get_metadata()39 # returns list of dicts40 image_dicts = atlas.atlas_list41 output_packed = [img.metadata["channels"] for img in image_dicts]42 # assert43 self.assertEqual(packing_list, output_packed)44 def test_metadata(self):45 packing_list = [[0], [1, 2], [3, 4]]46 prefix = "atlas"47 # arrange48 image = AICSImage("aicsimageprocessing/tests/img/img40_1.ome.tif")49 # act50 atlas = generate_texture_atlas(51 image, name=prefix, pack_order=packing_list52 )53 # assert54 metadata = atlas.get_metadata()55 self.assertTrue(56 all(57 key in metadata58 for key in (59 "tile_width",60 "tile_height",61 "width",62 "height",63 "channels",64 "channel_names",65 "tiles",66 "rows",67 "cols",68 "atlas_width",69 "atlas_height",70 "images",71 )72 )73 )...
supervisedpolynomial.py
Source:supervisedpolynomial.py
1import pandas as pd 2import numpy as np3import matplotlib.pyplot as plt4from sklearn.model_selection import train_test_split5from sklearn.preprocessing import PolynomialFeatures6from sklearn.linear_model import LinearRegression7from sklearn.pipeline import Pipeline8from sklearn.model_selection import GridSearchCV910class Polynomialfit():11 12 def __init__(self, data_frame, low_degree, high_degree, x_curve_start, x_curve_stop, linspace_num=50, test_size = 0.2, random_state = None):13 self.data_frame = data_frame14 self.low_degree = low_degree15 self.high_degree = high_degree16 self.dataFrameHandler(self.data_frame)17 self.stratifiedHandler(test_size, random_state)18 self.polynomialEstimatorHandler()19 self.X_curve = self.getXCurve(x_curve_start, x_curve_stop, linspace_num)20 self.y_curve = self.getYCurve()21 22 def dataFrameHandler(self, data_frame):23 self.X = data_frame.values[:,0].reshape(-1,1)24 self.y = data_frame.values[:,1]25 26 def stratifiedHandler(self, test_sizing, rdm_state):27 bins = np.round(self.X)28 self.X_train, self.X_test, self.y_train, self.y_test = train_test_split(self.X,self.y,test_size = test_sizing, stratify = bins, random_state=rdm_state)29 30 def polynomialEstimatorHandler(self):31 pipeline = Pipeline((32 ("poly_features", PolynomialFeatures(degree=2)),33 ("lin_reg", LinearRegression(fit_intercept=False)),))3435 degrees = range(1,20)36 parameters = {"poly_features__degree": degrees}3738 grid_search = GridSearchCV(pipeline, parameters, cv=5)3940 # Fit GridSearchCV object41 grid_search.fit(self.X_train, self.y_train)42 43 # extract the selected model44 self.best_model = grid_search.best_estimator_45 46 def getXCurve(self, x_curve_start, x_curve_stop, linspace_num):47 return np.linspace(x_curve_start, x_curve_stop, linspace_num).reshape(-1, 1)48 49 def getYCurve(self):50 return self.best_model.predict(self.X_curve)51 52 def plot(self):53 plt.title('Polynomial fit')54 plt.xlabel('Feature')55 plt.ylabel('Target value') 56 plt.plot(self.X_train, self.y_train, 'o', label='Training Data')57 plt.plot(self.X_test, self.y_test, 'o', label='Test Data')58 plt.plot(self.X_curve, self.y_curve, 'r')59 plt.legend()
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test_pairs.py
Source:test_pairs.py
1from math import floor2from twcli.pairs import sizing3def test_sizing():4 """Apply test cases for pairs sizing"""5 args = dict(price_left=100, price_right=25, vol_left=2, vol_right=7,6 unit_size_left=100, multiplier_left=1, multiplier_right=1)7 def msg():8 return f"Expected {exp:.2f} units, but calculated {act:.2f}."9 pair_specs = sizing.size(**args)10 exp = 11411 act = floor(pair_specs['unit_size_right'])12 assert act == exp, msg()13 args['multiplier_left'] = 10014 args['multiplier_right'] = 1015 pair_specs = sizing.size(**args)16 exp = 114217 act = floor(pair_specs['unit_size_right'])...
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