Module monk.gluon.transforms.transforms
Expand source code
from gluon.transforms.imports import *
from system.imports import *
def transform_random_resized_crop(system_dict, input_size, scale, ratio, train, val, test, retrieve=False):
'''
Apply Random Resized Cropping transformation
Args:
system_dict (dict): System dictionary storing experiment state and set variables
input_size (int, list): Crop size
scale (float, tuple): scaling ratio limits; for maximum and minimum random scaling
ratio (float, tuple): aspect ratio limits; for maximum and minmum changes to aspect ratios
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["RandomResizedCrop"] = {};
tmp["RandomResizedCrop"]["input_size"] = input_size;
tmp["RandomResizedCrop"]["scale"] = scale;
tmp["RandomResizedCrop"]["ratio"] = ratio;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio));
return system_dict;
def transform_center_crop(system_dict, input_size, train, val, test, retrieve=False):
'''
Apply Center Cropping transformation
Args:
system_dict (dict): System dictionary storing experiment state and set variables
input_size (int, list): Crop size
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["CenterCrop"] = {};
tmp["CenterCrop"]["input_size"] = input_size;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.CenterCrop(input_size));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.CenterCrop(input_size));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.CenterCrop(input_size));
return system_dict;
def transform_color_jitter(system_dict, brightness, contrast, saturation, hue, train, val, test, retrieve=False):
'''
Apply Color jittering transformations
Args:
system_dict (dict): System dictionary storing experiment state and set variables
brightness (float): Levels to jitter brightness.
0 - min
1 - max
contrast (float): Levels to jitter contrast.
0 - min
1 - max
saturation (float): Levels to jitter saturation.
0 - min
1 - max
hue (float): Levels to jitter hue.
0 - min
1 - max
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["ColorJitter"] = {};
tmp["ColorJitter"]["brightness"] = brightness;
tmp["ColorJitter"]["contrast"] = contrast;
tmp["ColorJitter"]["saturation"] = saturation;
tmp["ColorJitter"]["hue"] = hue;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue));
return system_dict;
def transform_random_horizontal_flip(system_dict, probability, train, val, test, retrieve=False):
'''
Apply random horizontal flip transformations
Args:
system_dict (dict): System dictionary storing experiment state and set variables
probability (float): Probability of flipping the input image
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["RandomHorizontalFlip"] = {};
tmp["RandomHorizontalFlip"]["p"] = probability;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.RandomFlipLeftRight());
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.RandomFlipLeftRight());
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.RandomFlipLeftRight());
return system_dict;
def transform_random_vertical_flip(system_dict, probability, train, val, test, retrieve=False):
'''
Apply random vertical flip transformations
Args:
system_dict (dict): System dictionary storing experiment state and set variables
probability (float): Probability of flipping the input image
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["RandomVerticalFlip"] = {};
tmp["RandomVerticalFlip"]["p"] = probability;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.RandomFlipTopBottom());
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.RandomFlipTopBottom());
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.RandomFlipTopBottom());
return system_dict;
def transform_random_lighting(system_dict, alpha, train, val, test, retrieve=False):
'''
Apply random lighting transformations
Args:
system_dict (dict): System dictionary storing experiment state and set variables
alpha (float): > 1.0 - Randomly increase overall lighting intensity
<1.0 - Randomly decrease overall lighting intensity
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["RandomLighting"] = {};
tmp["RandomLighting"]["alpha"] = alpha;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.RandomLighting(alpha));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.RandomLighting(alpha));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.RandomLighting(alpha));
return system_dict;
def transform_resize(system_dict, input_size, train, val, test, retrieve=False):
'''
Apply standard resizing
Args:
system_dict (dict): System dictionary storing experiment state and set variables
input_size (int, list): expected final size
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["Resize"] = {};
tmp["Resize"]["input_size"] = input_size;
if(type(input_size) == tuple or type(input_size) == list):
h = input_size[0];
w = input_size[1];
else:
h = input_size;
w = input_size;
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.Resize(size=(w, h)));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.Resize(size=(w, h)));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.Resize(size=(w, h)));
return system_dict;
def transform_normalize(system_dict, mean, std, train, val, test, retrieve=False):
'''
Apply mean subtraction and standard normalization
Args:
system_dict (dict): System dictionary storing experiment state and set variables
mean (float, list): Mean value for subtraction
std (float, list): Normalization factor
train (bool): If True, transform applied to training data
val (bool): If True, transform applied to validation data
test (bool): If True, transform applied to testing/inferencing data
Returns:
dict: updated system dict
'''
tmp = {};
tmp["Normalize"] = {};
tmp["Normalize"]["mean"] = mean;
tmp["Normalize"]["std"] = std;
system_dict["local"]["normalize"] = True;
input_size = system_dict["dataset"]["params"]["input_size"];
if(type(system_dict["dataset"]["params"]["input_size"]) == tuple or type(system_dict["dataset"]["params"]["input_size"]) == list):
h = system_dict["dataset"]["params"]["input_size"][0];
w = system_dict["dataset"]["params"]["input_size"][1];
else:
h = system_dict["dataset"]["params"]["input_size"];
w = system_dict["dataset"]["params"]["input_size"];
if(train):
if(not retrieve):
system_dict["dataset"]["transforms"]["train"].append(tmp);
system_dict["local"]["transforms_train"].append(transforms.Resize(size=(w, h)));
system_dict["local"]["transforms_train"].append(transforms.ToTensor())
system_dict["local"]["transforms_train"].append(transforms.Normalize(mean=mean, std=std));
if(val):
if(not retrieve):
system_dict["dataset"]["transforms"]["val"].append(tmp);
system_dict["local"]["transforms_val"].append(transforms.Resize(size=(w, h)));
system_dict["local"]["transforms_val"].append(transforms.ToTensor())
system_dict["local"]["transforms_val"].append(transforms.Normalize(mean=mean, std=std));
if(test):
if(not retrieve):
system_dict["dataset"]["transforms"]["test"].append(tmp);
system_dict["local"]["transforms_test"].append(transforms.Resize(size=(w, h)));
system_dict["local"]["transforms_test"].append(transforms.ToTensor())
system_dict["local"]["transforms_test"].append(transforms.Normalize(mean=mean, std=std));
return system_dict;
Functions
def transform_center_crop(system_dict, input_size, train, val, test, retrieve=False)
-
Apply Center Cropping transformation
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
input_size
:int
,list
- Crop size
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_center_crop(system_dict, input_size, train, val, test, retrieve=False): ''' Apply Center Cropping transformation Args: system_dict (dict): System dictionary storing experiment state and set variables input_size (int, list): Crop size train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["CenterCrop"] = {}; tmp["CenterCrop"]["input_size"] = input_size; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.CenterCrop(input_size)); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.CenterCrop(input_size)); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.CenterCrop(input_size)); return system_dict;
def transform_color_jitter(system_dict, brightness, contrast, saturation, hue, train, val, test, retrieve=False)
-
Apply Color jittering transformations
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
brightness
:float
- Levels to jitter brightness. 0 - min 1 - max
contrast
:float
- Levels to jitter contrast. 0 - min 1 - max
saturation
:float
- Levels to jitter saturation. 0 - min 1 - max
hue
:float
- Levels to jitter hue. 0 - min 1 - max
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_color_jitter(system_dict, brightness, contrast, saturation, hue, train, val, test, retrieve=False): ''' Apply Color jittering transformations Args: system_dict (dict): System dictionary storing experiment state and set variables brightness (float): Levels to jitter brightness. 0 - min 1 - max contrast (float): Levels to jitter contrast. 0 - min 1 - max saturation (float): Levels to jitter saturation. 0 - min 1 - max hue (float): Levels to jitter hue. 0 - min 1 - max train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["ColorJitter"] = {}; tmp["ColorJitter"]["brightness"] = brightness; tmp["ColorJitter"]["contrast"] = contrast; tmp["ColorJitter"]["saturation"] = saturation; tmp["ColorJitter"]["hue"] = hue; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue)); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue)); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.ColorJitter(brightness=brightness, contrast=contrast, saturation=saturation, hue=hue)); return system_dict;
def transform_normalize(system_dict, mean, std, train, val, test, retrieve=False)
-
Apply mean subtraction and standard normalization
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
mean
:float
,list
- Mean value for subtraction
std
:float
,list
- Normalization factor
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_normalize(system_dict, mean, std, train, val, test, retrieve=False): ''' Apply mean subtraction and standard normalization Args: system_dict (dict): System dictionary storing experiment state and set variables mean (float, list): Mean value for subtraction std (float, list): Normalization factor train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["Normalize"] = {}; tmp["Normalize"]["mean"] = mean; tmp["Normalize"]["std"] = std; system_dict["local"]["normalize"] = True; input_size = system_dict["dataset"]["params"]["input_size"]; if(type(system_dict["dataset"]["params"]["input_size"]) == tuple or type(system_dict["dataset"]["params"]["input_size"]) == list): h = system_dict["dataset"]["params"]["input_size"][0]; w = system_dict["dataset"]["params"]["input_size"][1]; else: h = system_dict["dataset"]["params"]["input_size"]; w = system_dict["dataset"]["params"]["input_size"]; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.Resize(size=(w, h))); system_dict["local"]["transforms_train"].append(transforms.ToTensor()) system_dict["local"]["transforms_train"].append(transforms.Normalize(mean=mean, std=std)); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.Resize(size=(w, h))); system_dict["local"]["transforms_val"].append(transforms.ToTensor()) system_dict["local"]["transforms_val"].append(transforms.Normalize(mean=mean, std=std)); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.Resize(size=(w, h))); system_dict["local"]["transforms_test"].append(transforms.ToTensor()) system_dict["local"]["transforms_test"].append(transforms.Normalize(mean=mean, std=std)); return system_dict;
def transform_random_horizontal_flip(system_dict, probability, train, val, test, retrieve=False)
-
Apply random horizontal flip transformations
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
probability
:float
- Probability of flipping the input image
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_random_horizontal_flip(system_dict, probability, train, val, test, retrieve=False): ''' Apply random horizontal flip transformations Args: system_dict (dict): System dictionary storing experiment state and set variables probability (float): Probability of flipping the input image train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["RandomHorizontalFlip"] = {}; tmp["RandomHorizontalFlip"]["p"] = probability; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.RandomFlipLeftRight()); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.RandomFlipLeftRight()); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.RandomFlipLeftRight()); return system_dict;
def transform_random_lighting(system_dict, alpha, train, val, test, retrieve=False)
-
Apply random lighting transformations
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
alpha
:float
-
1.0 - Randomly increase overall lighting intensity <1.0 - Randomly decrease overall lighting intensity
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_random_lighting(system_dict, alpha, train, val, test, retrieve=False): ''' Apply random lighting transformations Args: system_dict (dict): System dictionary storing experiment state and set variables alpha (float): > 1.0 - Randomly increase overall lighting intensity <1.0 - Randomly decrease overall lighting intensity train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["RandomLighting"] = {}; tmp["RandomLighting"]["alpha"] = alpha; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.RandomLighting(alpha)); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.RandomLighting(alpha)); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.RandomLighting(alpha)); return system_dict;
def transform_random_resized_crop(system_dict, input_size, scale, ratio, train, val, test, retrieve=False)
-
Apply Random Resized Cropping transformation
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
input_size
:int
,list
- Crop size
scale
:float
,tuple
- scaling ratio limits; for maximum and minimum random scaling
ratio
:float
,tuple
- aspect ratio limits; for maximum and minmum changes to aspect ratios
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_random_resized_crop(system_dict, input_size, scale, ratio, train, val, test, retrieve=False): ''' Apply Random Resized Cropping transformation Args: system_dict (dict): System dictionary storing experiment state and set variables input_size (int, list): Crop size scale (float, tuple): scaling ratio limits; for maximum and minimum random scaling ratio (float, tuple): aspect ratio limits; for maximum and minmum changes to aspect ratios train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["RandomResizedCrop"] = {}; tmp["RandomResizedCrop"]["input_size"] = input_size; tmp["RandomResizedCrop"]["scale"] = scale; tmp["RandomResizedCrop"]["ratio"] = ratio; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio)); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio)); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.RandomResizedCrop(size=input_size, scale=scale, ratio=ratio)); return system_dict;
def transform_random_vertical_flip(system_dict, probability, train, val, test, retrieve=False)
-
Apply random vertical flip transformations
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
probability
:float
- Probability of flipping the input image
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_random_vertical_flip(system_dict, probability, train, val, test, retrieve=False): ''' Apply random vertical flip transformations Args: system_dict (dict): System dictionary storing experiment state and set variables probability (float): Probability of flipping the input image train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["RandomVerticalFlip"] = {}; tmp["RandomVerticalFlip"]["p"] = probability; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.RandomFlipTopBottom()); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.RandomFlipTopBottom()); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.RandomFlipTopBottom()); return system_dict;
def transform_resize(system_dict, input_size, train, val, test, retrieve=False)
-
Apply standard resizing
Args
system_dict
:dict
- System dictionary storing experiment state and set variables
input_size
:int
,list
- expected final size
train
:bool
- If True, transform applied to training data
val
:bool
- If True, transform applied to validation data
test
:bool
- If True, transform applied to testing/inferencing data
Returns
dict
- updated system dict
Expand source code
def transform_resize(system_dict, input_size, train, val, test, retrieve=False): ''' Apply standard resizing Args: system_dict (dict): System dictionary storing experiment state and set variables input_size (int, list): expected final size train (bool): If True, transform applied to training data val (bool): If True, transform applied to validation data test (bool): If True, transform applied to testing/inferencing data Returns: dict: updated system dict ''' tmp = {}; tmp["Resize"] = {}; tmp["Resize"]["input_size"] = input_size; if(type(input_size) == tuple or type(input_size) == list): h = input_size[0]; w = input_size[1]; else: h = input_size; w = input_size; if(train): if(not retrieve): system_dict["dataset"]["transforms"]["train"].append(tmp); system_dict["local"]["transforms_train"].append(transforms.Resize(size=(w, h))); if(val): if(not retrieve): system_dict["dataset"]["transforms"]["val"].append(tmp); system_dict["local"]["transforms_val"].append(transforms.Resize(size=(w, h))); if(test): if(not retrieve): system_dict["dataset"]["transforms"]["test"].append(tmp); system_dict["local"]["transforms_test"].append(transforms.Resize(size=(w, h))); return system_dict;