def cnnModel4(trainSize, input_placeholder, activation, init, keep_prob1,
keep_prob2):
### To make it work for different trainSize the input will be of different dimension
## therefore the input to FC layer after reshape will be of different length
## Need to generalize it
## for now just make it work for 3 seconds.. TODO for tomorrow !!
network_weights = list()
network_weights = list()
activationList = list()
biasList = list()
time_dim = 300 # default
fc_input = 2720 # default input if time_dim=300 for this architecture
if trainSize == '4sec':
time_dim = 400
fc_input = 3808 #7*17*32=3808
elif trainSize == '5sec':
time_dim = 400
fc_input = 4352 #8*17*32=4352
print('------------ Using cnnModel4 architecture ...')
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1],
'conv1',
act=activation,
init_type=init)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv1 layer after pooling: shape = ', pool1)
# Russians do NIN after this. We put one conv layer. Convolution layer2 without Max pooling
#Convolution layer2
conv2, w2, b2 = conv_layer(pool1, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv2',
act=activation,
init_type=init)
print('Conv2 layer shape = ', conv2)
#Convolution layer3
conv3, w3, b3 = conv_layer(conv2, [3, 3, 32, 48], [48], [1, 1, 1, 1],
'conv3',
act=activation,
init_type=init)
pool2 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv3 layer, shape = ', pool2)
#Convolution layer4
conv4, w4, b4 = conv_layer(pool2, [3, 3, 48, 48], [48], [1, 1, 1, 1],
'conv4',
act=activation,
init_type=init)
print('Conv4 layer shape = ', conv4)
#Convolution layer5
conv5, w5, b5 = conv_layer(conv4, [3, 3, 48, 64], [64], [1, 1, 1, 1],
'conv5',
act=activation,
init_type=init)
pool3 = maxPool2x2(conv5, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv5 layer, shape = ', pool3)
#Convolution layer6
conv6, w6, b6 = conv_layer(pool3, [3, 3, 64, 64], [64], [1, 1, 1, 1],
'conv6',
act=activation,
init_type=init)
print('Conv6 layer shape = ', conv6)
#Convolution layer7
conv7, w7, b7 = conv_layer(conv6, [3, 3, 64, 32], [32], [1, 1, 1, 1],
'conv7',
act=activation,
init_type=init)
pool4 = maxPool2x2(conv7, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv7 layer, shape = ', pool4)
#Convolution layer8
conv8, w8, b8 = conv_layer(pool4, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv8',
act=activation,
init_type=init)
print('Conv8 layer shape = ', conv8)
#Convolution layer9
conv9, w9, b9 = conv_layer(conv8, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv9',
act=activation,
init_type=init)
pool5 = maxPool2x2(conv9, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv9 layer, shape = ', pool5)
#Convolution layer10
conv10, w10, b10 = conv_layer(pool5, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv10',
act=activation,
init_type=init)
print('Conv10 layer shape = ', conv10)
#Convolution layer11
conv11, w11, b11 = conv_layer(conv10, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv11',
act=activation,
init_type=init)
pool6 = maxPool2x2(conv11, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv11 layer, shape = ', pool6)
#Fully connected layer1 with dropout
flattened = tf.reshape(
pool6,
shape=[-1, fc_input]) #fc_input = 5*17*32=2720 if 3seconds spectrogram
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
print('Dropped1 shape = ', dropped_1)
fc1, w7, b7, = fc_layer(dropped_1, fc_input, 64, 'FC_Layer1', activation)
# Output layer with dropout
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
output, w8, b8 = fc_layer(dropped_2, 64, 2, 'Output_Layer',
'no-activation') #get raw logits
print('Output layer shape = ', output.shape)
return fc1, output, network_weights, activationList, biasList
def cnnModel5(trainSize, input_placeholder, activation, init, targets, fftSize,
padding, keep_prob1, keep_prob2, keep_prob3):
# This is the Exact replication of Russians Paper using Max-Feature-Map activation
#(trainSize,input_data, act,init_type,num_classes,fftSize,padding,keep_prob1,keep_prob2,keep_prob3)
print('TrainSize input to architecture is: ', trainSize)
trainSize = str(trainSize) + 'sec'
network_weights = list()
network_weights = list()
activationList = list()
biasList = list()
if trainSize == '1sec':
time_dim = 100
if activation == 'mfm':
if fftSize == 512:
fc_input = 576 #4*9*16
elif fftSize == 256:
fc_input = 320 #4*5*16
else:
if fftSize == 512:
fc_input = 1152 #4*9*32
elif fftSize == 256:
fc_input = 640 #4*5*32
elif trainSize == '3sec':
time_dim = 300
if activation == 'mfm':
fc_input = 5280 #10*33*16
else:
fc_input = 10560 #10*33*32
elif trainSize == '4sec':
time_dim = 400
if activation == 'mfm':
if fftSize == 2048:
fc_input = 6864 #13*33*16
elif fftSize == 512:
fc_input = 0
elif fftSize == 256:
fc_input = 0
else:
if fftSize == 2048:
fc_input = 13728 # 13*33*32
elif fftSize == 512:
fc_input = 0
elif fftSize == 256:
fc_input = 0
if activation == 'mfm':
in_conv2 = 16
in_conv3 = 16
in_conv4 = 24
in_conv5 = 24
in_conv6 = 32
in_conv7 = 32
in_conv8 = 16
in_conv9 = 16
in_outputLayer = 32
else:
in_conv2 = 32
in_conv3 = 32
in_conv4 = 48
in_conv5 = 48
in_conv6 = 64
in_conv7 = 64
in_conv8 = 32
in_conv9 = 32
in_outputLayer = 64
print(
'------------ Using cnnModel5, Replicating Russian architecture with MFM Activation !!'
)
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv1 layer after pooling: shape = ', pool1)
#NIN Layer
conv2, w2, b2 = conv_layer(pool1, [1, 1, in_conv2, 32], [32], [1, 1, 1, 1],
'conv2', padding, activation, init)
print('Conv2 (NIN) layer shape = ', conv2)
#Convolution layer3
conv3, w3, b3 = conv_layer(conv2, [3, 3, in_conv3, 48], [48], [1, 1, 1, 1],
'conv3', padding, activation, init)
pool2 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv3 after pooling, shape = ', pool2)
#NIN Layer
conv4, w4, b4 = conv_layer(pool2, [1, 1, in_conv4, 48], [48], [1, 1, 1, 1],
'conv4', padding, activation, init)
print('Conv4 layer shape = ', conv4)
#Convolution layer5
conv5, w5, b5 = conv_layer(conv4, [3, 3, in_conv5, 64], [64], [1, 1, 1, 1],
'conv5', padding, activation, init)
pool3 = maxPool2x2(conv5, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv5 layer after pooling, shape = ', pool3)
# NIN layer
conv6, w6, b6 = conv_layer(pool3, [1, 1, in_conv6, 64], [64], [1, 1, 1, 1],
'conv6', padding, activation, init)
print('Conv6 layer shape = ', conv6)
#Convolution layer7
conv7, w7, b7 = conv_layer(conv6, [3, 3, in_conv7, 32], [32], [1, 1, 1, 1],
'conv7', padding, activation, init)
pool4 = maxPool2x2(conv7, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv7 after pooling , shape = ', pool4)
# NIN Layer
conv8, w8, b8 = conv_layer(pool4, [1, 1, in_conv8, 32], [32], [1, 1, 1, 1],
'conv8', padding, activation, init)
print('Conv8 layer shape = ', conv8)
conv9, w9, b9 = conv_layer(conv8, [3, 3, in_conv9, 32], [32], [1, 1, 1, 1],
'conv9', padding, activation, init)
pool5 = maxPool2x2(conv9, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv9 after pooling, shape = ', pool5)
# Dropout on the huge input from Conv layer
flattened = tf.reshape(pool5, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
# Fully connected layer 1 with 64 neurons but gets splitted into 32 due to MFM
fc1, w7, b7, = fc_layer(dropped_1, fc_input, 64, 'FC_Layer1', activation)
print('Shape of FC1 = ', fc1.shape)
#Output layer: 2 neurons. One for genuine and one for spoof. Dropout applied first
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
output, w8, b8 = fc_layer(dropped_2, in_outputLayer, targets,
'Output_Layer', 'no-activation') #get raw logits
print('Output layer shape = ', output.shape)
print('Targets in arch is : ', targets)
return fc1, output, network_weights, activationList, biasList
def cnnModel0(trainSize, input_placeholder, activation, init, keep_prob1,
keep_prob2):
## We have added one FClayer of 256neurons
network_weights = list()
activationList = list()
biasList = list()
print('------------ Using cnnModel0 New Architecture -----------')
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1],
'conv1',
act=activation,
init_type=init)
#print(conv1.shape)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool1.shape = ', pool1)
network_weights.append(w1)
activationList.append(pool1)
biasList.append(b1)
#Convolution layer2
conv2, w2, b2 = conv_layer(pool1, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv2',
act=activation,
init_type=init)
network_weights.append(w2)
#print(conv2.shape)
pool2 = maxPool2x2(conv2, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool2.shape = ', pool2)
network_weights.append(w2)
activationList.append(pool2)
biasList.append(b2)
#Convolution layer3
conv3, w3, b3 = conv_layer(pool2, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv3',
act=activation,
init_type=init)
network_weights.append(w3)
#print(conv3.shape)
pool3 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool3.shape = ', pool3)
network_weights.append(w3)
activationList.append(pool3)
biasList.append(b3)
#Convolution layer4
conv4, w4, b4 = conv_layer(pool3, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv4',
act=activation,
init_type=init)
network_weights.append(w4)
#print(conv4.shape)
pool4 = maxPool2x2(conv4, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool4.shape = ', pool4)
network_weights.append(w4)
activationList.append(pool4)
biasList.append(b4)
#Fully connected layer1 with dropout
flattened = tf.reshape(pool4, shape=[-1, 65 * 19 * 32])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
fc1, fcw1, b5 = fc_layer(dropped_1,
65 * 19 * 32,
256,
'FC_Layer1',
act=activation,
init_type=init)
network_weights.append(fcw1)
#Fully connected layer2 with dropout
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
fc2, fcw2, b6 = fc_layer(dropped_2,
256,
64,
'FC_Layer2',
act=activation,
init_type=init)
network_weights.append(fcw2)
activationList.append(dropped_2)
biasList.append(b6)
#Output layer: 2 neurons. One for genuine and one for spoof
dropped_3 = drop_layer(fc2, keep_prob2, 'dropout3')
output, fcw3, b7 = fc_layer(dropped_3,
64,
2,
'Output_Layer',
'no-activation',
init_type=init) #get raw logits
print('Final output layer shape= ', output.shape)
network_weights.append(fcw3)
activationList.append(output)
biasList.append(b7)
return dropped_2, output, network_weights, activationList, biasList
def cnnModel3(trainSize, input_placeholder, activation, init, keep_prob1,
keep_prob2):
network_weights = list()
network_weights = list()
activationList = list()
biasList = list()
time_dim = 300 # default
fc_input = 10560 # default input if time_dim=300 for this architecture: #10*33*32=10560
if trainSize == '4sec':
time_dim = 400
fc_input = 13728 #13*33*32
elif trainSize == '5sec':
time_dim = 400
fc_input = 16896
print('------------ Using cnnModel3 architecture ...')
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1],
'conv1',
act=activation,
init_type=init)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('Conv1 layer after pooling: shape = ', pool1)
# Russians do NIN after this. We put one conv layer. Convolution layer2 without Max pooling
conv2, w2, b2 = conv_layer(pool1, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv2',
act=activation,
init_type=init)
print('Conv2 layer shape = ', conv2)
#Convolution layer3
conv3, w3, b3 = conv_layer(conv2, [3, 3, 32, 48], [48], [1, 1, 1, 1],
'conv3',
act=activation,
init_type=init)
pool2 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv3 layer, shape = ', pool2)
#Convolution layer4
conv4, w4, b4 = conv_layer(pool2, [3, 3, 48, 48], [48], [1, 1, 1, 1],
'conv4',
act=activation,
init_type=init)
print('Conv4 layer shape = ', conv4)
#Convolution layer5
conv5, w5, b5 = conv_layer(conv4, [3, 3, 48, 64], [64], [1, 1, 1, 1],
'conv5',
act=activation,
init_type=init)
pool3 = maxPool2x2(conv5, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv5 layer, shape = ', pool3)
#Convolution layer6
conv6, w6, b6 = conv_layer(pool3, [3, 3, 64, 64], [64], [1, 1, 1, 1],
'conv6',
act=activation,
init_type=init)
print('Conv6 layer shape = ', conv6)
#Convolution layer7
conv7, w7, b7 = conv_layer(conv6, [3, 3, 64, 32], [32], [1, 1, 1, 1],
'conv7',
act=activation,
init_type=init)
pool4 = maxPool2x2(conv7, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv7 layer, shape = ', pool4)
#Convolution layer8
conv8, w8, b8 = conv_layer(pool4, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv8',
act=activation,
init_type=init)
print('Conv8 layer shape = ', conv8)
#Convolution layer9
conv9, w9, b9 = conv_layer(conv8, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv9',
act=activation,
init_type=init)
pool5 = maxPool2x2(conv9, [1, 2, 2, 1], [1, 2, 2, 1])
print('After pooling in Conv9 layer, shape = ', pool5)
#Fully connected layer1 with dropout
flattened = tf.reshape(pool5, shape=[
-1, fc_input
]) #10*33*32=10560 if 3 seconds spectrogram as input
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
fc1, w7, b7, = fc_layer(dropped_1, fc_input, 64, 'FC_Layer1', activation)
#Output layer: 2 neurons. One for genuine and one for spoof
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
output, w8, b8 = fc_layer(dropped_2, 64, 2, 'Output_Layer',
'no-activation') #get raw logits
print(output.shape)
return fc1, output, network_weights, activationList, biasList
def cnnModel1(trainSize, input_placeholder, activation, init, keep_prob1,
keep_prob2):
network_weights = list()
network_weights = list()
activationList = list()
biasList = list()
print('------------ Using cnnModel1 architecture ...')
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1],
'conv1',
act=activation,
init_type=init)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool1.shape = ', pool1)
network_weights.append(w1)
activationList.append(pool1)
biasList.append(b1)
#Convolution layer2
conv2, w2, b2 = conv_layer(pool1, [3, 3, 32, 48], [48], [1, 1, 1, 1],
'conv2',
act=activation,
init_type=init)
pool2 = maxPool2x2(conv2, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool2.shape = ', pool2)
network_weights.append(w2)
activationList.append(pool2)
biasList.append(b2)
#Convolution layer3
conv3, w3, b3 = conv_layer(pool2, [3, 3, 48, 64], [64], [1, 1, 1, 1],
'conv3',
act=activation,
init_type=init)
pool3 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool3.shape = ', pool3)
network_weights.append(w3)
activationList.append(pool3)
biasList.append(b3)
#Convolution layer4
conv4, w4, b4 = conv_layer(pool3, [3, 3, 64, 32], [32], [1, 1, 1, 1],
'conv4',
act=activation,
init_type=init)
network_weights.append(w4)
pool4 = maxPool2x2(conv4, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool4.shape = ', pool4)
network_weights.append(w4)
activationList.append(pool4)
biasList.append(b4)
#Convolution layer5
conv5, w5, b5 = conv_layer(pool4, [3, 3, 32, 32], [32], [1, 1, 1, 1],
'conv5',
act=activation,
init_type=init)
pool5 = maxPool2x2(conv5, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool5.shape = ', pool5.shape)
network_weights.append(w5)
activationList.append(pool5)
biasList.append(b5)
#Fully connected layer1 with dropout
flattened = tf.reshape(pool5, shape=[-1, 33 * 10 * 32]) #33*10*32=10560
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
fc1, w6, b6, = fc_layer(dropped_1, 33 * 10 * 32, 256, 'FC_Layer1',
activation)
network_weights.append(w6)
activationList.append(fc1)
biasList.append(b6)
## NOTE: 33*10*32=10560 which is huge.And we are using only 256 neurons in FC1 layer
## I think this will loose lot of information. May be we try 1024 0r more neurons to
## capture more information ???? Think on this architecture !
#Fully connected layer2 with dropout
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
fc2, w7, b7 = fc_layer(dropped_2, 256, 64, 'FC_Layer2', activation)
network_weights.append(w7)
activationList.append(fc2)
biasList.append(b7)
#Output layer: 2 neurons. One for genuine and one for spoof
dropped_3 = drop_layer(fc2, keep_prob2, 'dropout3')
output, w8, b8 = fc_layer(dropped_3, 64, 2, 'Output_Layer',
'no-activation') #get raw logits
print(output.shape)
network_weights.append(w8)
activationList.append(output)
biasList.append(b8)
return fc2, output, network_weights, activationList, biasList
def cnnModel2(trainSize, input_placeholder, activation, init, keep_prob1,
keep_prob2):
network_weights = list()
network_weights = list()
activationList = list()
biasList = list()
time_dim = 300 # default
fc_input = 5 * 17 * 32 # default input if time_dim=300 for this architecture: #10*33*32=10560
if trainSize == '4sec':
time_dim = 400
fc_input = 0 ## Check this before using this architecture if 4seconds input
elif trainSize == '5sec':
time_dim = 400
fc_input = 0 ## Check this
print(' Using cnnModel2 architecture ...')
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [5, 5, 1, 32], [32],
[1, 1, 1, 1],
'conv1',
act=activation,
init_type=init)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool1.shape = ', pool1)
network_weights.append(w1)
activationList.append(pool1)
biasList.append(b1)
#Convolution layer2
conv2, w2, b2 = conv_layer(pool1, [3, 3, 32, 48], [48], [1, 1, 1, 1],
'conv2',
act=activation,
init_type=init)
pool2 = maxPool2x2(conv2, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool2.shape = ', pool2)
network_weights.append(w2)
activationList.append(pool2)
biasList.append(b2)
#Convolution layer3
conv3, w3, b3 = conv_layer(pool2, [3, 3, 48, 64], [64], [1, 1, 1, 1],
'conv3',
act=activation,
init_type=init)
pool3 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool3.shape = ', pool3)
network_weights.append(w3)
activationList.append(pool3)
biasList.append(b3)
#Convolution layer4
conv4, w4, b4 = conv_layer(pool3, [3, 3, 64, 64], [64], [1, 1, 1, 1],
'conv4',
act=activation,
init_type=init)
network_weights.append(w4)
pool4 = maxPool2x2(conv4, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool4.shape = ', pool4)
network_weights.append(w4)
activationList.append(pool4)
biasList.append(b4)
#Convolution layer5
conv5, w5, b5 = conv_layer(pool4, [3, 3, 64, 48], [48], [1, 1, 1, 1],
'conv5',
act=activation,
init_type=init)
pool5 = maxPool2x2(conv5, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool5.shape = ', pool5.shape)
network_weights.append(w5)
activationList.append(pool5)
biasList.append(b5)
#Convolution layer6
conv6, w6, b6 = conv_layer(pool5, [3, 3, 48, 32], [32], [1, 1, 1, 1],
'conv6',
act=activation,
init_type=init)
pool6 = maxPool2x2(conv6, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool6.shape = ', pool6.shape)
network_weights.append(w6)
activationList.append(pool6)
biasList.append(b6)
#Fully connected layer1 with dropout
flattened = tf.reshape(pool6, shape=[-1, fc_input
]) #5*17*32=2720 for 300seconds input
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
fc1, w7, b7, = fc_layer(dropped_1, fc_input, 64, 'FC_Layer1', activation)
network_weights.append(w7)
activationList.append(dropped_1)
biasList.append(b7)
#Output layer: 2 neurons. One for genuine and one for spoof
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
output, w8, b8 = fc_layer(dropped_2, 64, 2, 'Output_Layer',
'no-activation') #get raw logits
print('Output layer = ', output.shape)
network_weights.append(w8)
activationList.append(output)
biasList.append(b8)
return fc1, output, network_weights, activationList, biasList
def cnnModel1(input_type, trainSize, input_placeholder, activation, init,
targets, fftSize, padding, keep_prob1, keep_prob2, keep_prob3):
# So I will have to come back to this again for code cleaning.
# Code affected would be: feature_extraction.py, extract_cnn_scores.py, nn_architecture.py, extract_cnn_features.py
t = trainSize
trainSize = str(trainSize) + 'sec'
if input_type == 'mel_spec':
f = 80
elif input_type == 'cqt_spec':
f = 84
elif input_type == 'mag_spec':
if fftSize == 512:
f = 257
elif fftSize == 256:
f = 129
elif fftSize == 1024:
f = 513
elif fftSize == 2048:
f = 1025
else:
concatenate = False
if concatenate:
f = 80 # when two types of features are concatenated (eg CQCC+SCMC)
else:
f = 40 # just the delta+acceleration (40 dimensional)
weight_list = list()
activation_list = list()
bias_list = list()
if activation == 'mfm':
fc_input = f * 64 #6448 #1*257*64 = 16448
in_conv2 = 64
in_conv3 = 64
in_conv4 = 64
in_fc2 = 128
in_fc3 = 128
in_outputLayer = 128
else:
fc_input = f * 128 #32896 # 1*257*128
in_conv2 = 128
in_conv3 = 128
in_conv4 = 128
in_fc2 = 256
in_fc3 = 256
in_outputLayer = 256
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
#Convolution layer1,2,3
conv1, w1, b1 = conv_layer(input_placeholder, [3, f, 1, 128], [128],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
weight_list.append(w1)
bias_list.append(b1)
print('Conv1 ', conv1)
conv2, w2, b2 = conv_layer(conv1, [3, 1, in_conv2, 128], [128],
[1, 1, 1, 1], 'conv2', padding, activation,
init)
weight_list.append(w2)
bias_list.append(b2)
print('Conv2 ', conv2)
conv3, w3, b3 = conv_layer(conv2, [3, 1, in_conv3, 128], [128],
[1, 1, 1, 1], 'conv3', padding, activation,
init)
weight_list.append(w3)
bias_list.append(b3)
print('Conv2 ', conv3)
if input_type == 'cqt_spec':
time_dim = 32
else:
time_dim = t * 100
#Max-pooling layer over time
pool1 = maxPool2x2(conv3, [1, time_dim, 1, 1], [1, time_dim, 1, 1])
print('Pool1 layer shape = ', pool1)
#100x257x64 is input to maxpool
#output = 1X257x64
# 1*257*64 = 16448
# Dropout on the huge input from Conv layer
flattened = tf.reshape(pool1, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
# Fully connected layer 1 with 256 neurons but gets splitted into 128 due to MFM
fc1, w4, b4, = fc_layer(dropped_1, fc_input, 256, 'FC_Layer1', activation)
weight_list.append(w4)
bias_list.append(b4)
print('Shape of FC1 = ', fc1.shape)
# Dropout followed by FC layer with 256 neurons but gets splitted into 128 due to MFM
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
fc2, w5, b5, = fc_layer(dropped_2, in_fc2, 256, 'FC_Layer2', activation)
weight_list.append(w5)
bias_list.append(b5)
print('Shape of FC2 = ', fc2.shape)
# Dropout followed by FC layer with 256 neurons but gets splitted into 128 due to MFM
dropped_3 = drop_layer(fc2, keep_prob2, 'dropout3')
fc3, w6, b6, = fc_layer(dropped_3, in_fc3, 256, 'FC_Layer3', activation)
weight_list.append(w6)
bias_list.append(b6)
print('Shape of FC3 = ', fc3.shape)
#Output layer: 2 neurons. One for genuine and one for spoof. Dropout applied first
dropped_4 = drop_layer(fc3, keep_prob3, 'dropout4')
output, w7, b7 = fc_layer(dropped_4, in_outputLayer, targets,
'Output_Layer', 'no-activation') #get raw logits
weight_list.append(w7)
bias_list.append(b7)
print('Output layer shape = ', output.shape)
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
return fc3, output, weight_list, activation_list, bias_list
def cnnModel2(input_type, trainSize, input_placeholder, activation, init,
targets, fftSize, padding, keep_prob1, keep_prob2, keep_prob3):
t = trainSize
trainSize = str(trainSize) + 'sec'
if input_type == 'mel_spec':
f = 80
elif input_type == 'cqt_spec':
f = 84
elif input_type == 'mag_spec':
if fftSize == 512:
f = 257
elif fftSize == 256:
f = 129
elif fftSize == 1024:
f = 513
elif fftSize == 2048:
f = 1025
else:
concatenate = False
if concatenate:
f = 80 # when two types of features are concatenated (eg CQCC+SCMC)
else:
f = 40 # just the delta+acceleration (40 dimensional)
weight_list = list()
activation_list = list()
bias_list = list()
if activation == 'mfm':
fc_input = 13 * 17 * 8 #f*8 #6448 #1*257*64 = 16448
in_conv2 = 8
in_conv3 = 8
in_conv4 = 8
in_fc2 = 128
in_fc3 = 128
in_outputLayer = 128
else:
fc_input = 13 * 17 * 16 #f*16 #32896 # 1*257*128
in_conv2 = 16
in_conv3 = 16
in_conv4 = 16
in_fc2 = 256
in_fc3 = 256
in_outputLayer = 256
#flattened = tf.reshape(pool4, shape=[-1, 65*19*32])
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
#Convolution layer1,2,3
conv1, w1, b1 = conv_layer(input_placeholder, [3, 10, 1, 16], [16],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
weight_list.append(w1)
bias_list.append(b1)
print('Conv1 ', conv1)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
conv2, w2, b2 = conv_layer(pool1, [3, 10, in_conv2, 16], [16],
[1, 1, 1, 1], 'conv2', padding, activation,
init)
weight_list.append(w2)
bias_list.append(b2)
print('Conv2 ', conv2)
pool2 = maxPool2x2(conv2, [1, 2, 2, 1], [1, 2, 2, 1])
conv3, w3, b3 = conv_layer(pool2, [3, 10, in_conv3, 16], [16],
[1, 1, 1, 1], 'conv3', padding, activation,
init)
weight_list.append(w3)
bias_list.append(b3)
#print('Conv3 ', conv3)
pool3 = maxPool2x2(conv3, [1, 2, 2, 1], [1, 2, 2, 1])
print('pool3 shape: ', pool3)
if input_type == 'cqt_spec':
time_dim = 32
else:
time_dim = t * 100
# Dropout on the huge input from Conv layer
flattened = tf.reshape(pool3, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
# Fully connected layer 1 with 256 neurons but gets splitted into 128 due to MFM
fc1, w4, b4, = fc_layer(dropped_1, fc_input, 256, 'FC_Layer1', activation)
weight_list.append(w4)
bias_list.append(b4)
print('Shape of FC1 = ', fc1.shape)
'''
# Dropout followed by FC layer with 256 neurons but gets splitted into 128 due to MFM
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
fc2,w5,b5, = fc_layer(dropped_2, in_fc2, 256, 'FC_Layer2', activation)
weight_list.append(w5)
bias_list.append(b5)
print('Shape of FC2 = ', fc2.shape)
# Dropout followed by FC layer with 256 neurons but gets splitted into 128 due to MFM
dropped_3 = drop_layer(fc2, keep_prob2, 'dropout3')
fc3,w6,b6, = fc_layer(dropped_3, in_fc3, 256, 'FC_Layer3', activation)
weight_list.append(w6)
bias_list.append(b6)
print('Shape of FC3 = ', fc3.shape)
'''
#Output layer: 2 neurons. One for genuine and one for spoof. Dropout applied first
dropped_4 = drop_layer(fc1, keep_prob3, 'dropout4')
output, w7, b7 = fc_layer(dropped_4, in_outputLayer, targets,
'Output_Layer', 'no-activation') #get raw logits
weight_list.append(w7)
bias_list.append(b7)
print('Output layer shape = ', output.shape)
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
return fc1, output, weight_list, activation_list, bias_list
def cnnModel1(trainSize, input_placeholder, activation, init, targets, fftSize,
padding, keep_prob1, keep_prob2, keep_prob3):
# Replicating the Bulbul architecture of Thomas grill. Note that they use mel-spectrogram
# We are using power spectrogram at the moment
print('FFT size used in this run is: ', fftSize)
print('TrainSize input to architecture is: ', trainSize)
trainSize = str(trainSize) + 'sec'
f = 512 # lets take 512 as default
time_dim = trainSize * 100
if fftSize == 512:
f = 257
elif fftSize == 256:
f = 129
elif fftSize == 1024:
f = 513
elif fftSize == 2048:
f = 1025
weight_list = list()
activation_list = list()
bias_list = list()
#if trainSize == '1sec':
# time_dim=100
if activation == 'mfm':
if fftSize == 512:
fc_input = 464 #2*29*8
elif fftSize == 256:
fc_input = 240
else:
if fftSize == 512:
fc_input = 928 # 2*29*16
elif fftSize == 256:
fc_input = 480
if activation == 'mfm':
in_conv2 = 8
in_conv3 = 8
in_conv4 = 8
in_fc2 = 128
in_outputLayer = 16
else:
in_conv2 = 16
in_conv3 = 16
in_conv4 = 16
in_fc2 = 256
in_outputLayer = 32
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [3, 3, 1, 16], [16],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
weight_list.append(w1)
bias_list.append(b1)
print('Conv1 ', conv1)
pool1 = maxPool2x2(conv1, [1, 3, 3, 1], [1, 3, 3, 1])
print('Pool1 layer shape = ', pool1)
#in_conv2=
conv2, w2, b2 = conv_layer(pool1, [3, 3, in_conv2, 16], [16], [1, 1, 1, 1],
'conv2', padding, activation, init)
weight_list.append(w2)
bias_list.append(b2)
print('Conv2 ', conv2)
pool2 = maxPool2x2(conv2, [1, 3, 3, 1], [1, 3, 3, 1])
print('Pool2 layer shape = ', pool2)
#in_conv3=
conv3, w3, b3 = conv_layer(pool2, [3, 1, in_conv3, 16], [16], [1, 1, 1, 1],
'conv3', padding, activation, init)
weight_list.append(w3)
bias_list.append(b3)
print('Conv3 ', conv3)
pool3 = maxPool2x2(conv3, [1, 3, 1, 1], [1, 3, 1, 1])
print('Pool3 layer shape = ', pool3)
#in_conv4=
conv4, w4, b4 = conv_layer(pool3, [3, 1, in_conv4, 16], [16], [1, 1, 1, 1],
'conv4', padding, activation, init)
weight_list.append(w4)
bias_list.append(b4)
print('Conv4 ', conv4)
pool4 = maxPool2x2(conv4, [1, 3, 1, 1], [1, 3, 1, 1])
print('Pool4 layer shape = ', pool4)
# Dropout on the huge input from Conv layer
flattened = tf.reshape(pool4, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
# Fully connected layer 1 with 256 neurons but gets splitted into 128 due to MFM
fc1, w4, b4, = fc_layer(dropped_1, fc_input, 256, 'FC_Layer1', activation)
weight_list.append(w4)
bias_list.append(b4)
print('Shape of FC1 = ', fc1.shape)
# Dropout followed by FC layer with 32 neurons but gets splitted into 128 due to MFM
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
fc2, w5, b5, = fc_layer(dropped_2, in_fc2, 32, 'FC_Layer2', activation)
print('Shape of FC1 = ', fc2.shape)
weight_list.append(w5)
bias_list.append(b5)
#Output layer: 2 neurons. One for genuine and one for spoof. Dropout applied first
dropped_3 = drop_layer(fc2, keep_prob3, 'dropout3')
output, w6, b6 = fc_layer(dropped_3, in_outputLayer, targets,
'Output_Layer', 'no-activation') #get raw logits
weight_list.append(w6)
bias_list.append(b6)
print('Output layer shape = ', output.shape)
## I want to train SVM classifier on 256 dim FC1 output and GMM on FC2 output
#fc=list()
#fc.append(fc1)
#fc.append(fc2)
return fc2, output, weight_list, activation_list, bias_list
def cnnModel2(trainSize, input_placeholder, activation, init, targets, fftSize,
padding, keep_prob1, keep_prob2, keep_prob3):
# Replicating the Sparrow architecture of Thomas grill.
# It uses only conv layers, no FC layer is used here.
print('TrainSize input to architecture is: ', trainSize)
trainSize = str(trainSize) + 'sec'
# Note: If this architecture works somehow. Then I will have to explore this deeply
'''
Filter Depth, time, Frequency
Input - 1 x 100 x 127 #Assuming we are using 1sec, 256FFT. No padding.
Conv1 (3x3) 32 x 98 x 127
Conv2 (3x3) 32 x 96 x 125
Pool1 (3x3) 32 x 32 x 42
Conv3 (3x3) 32 x 30 x 40
Conv4 (3x3) 32 x 28 x 38
Conv5 (3x20) 64 x 26 x 19
Pool2 (3x3) 64 x 9 x 7
Conv6 (9x1) 256 x 1 x 7
Conv7 (1x1) 64 x 1 x 7
Conv8 (1x1) 16 x 1 x 7
O/p 2 Neurons
'''
print('FFT size used in this run is: ', fftSize)
f = 512 # lets take 512 as default
# Input = 100x257
if fftSize == 512:
f = 257
elif fftSize == 256:
f = 129
elif fftSize == 1024:
f = 513
elif fftSize == 2048:
f = 1025
weight_list = list()
activation_list = list()
bias_list = list()
if trainSize == '1sec':
time_dim = 100
if activation == 'mfm':
if fftSize == 512:
fc_input = 168 #1*21*8
elif fftSize == 256:
fc_input = 56 #1*7*8
else:
if fftSize == 512:
fc_input = 336 #1*21*16
elif fftSize == 256:
fc_input = 112 #1*7*16
if activation == 'mfm':
in_conv2 = 16
in_conv3 = 16
in_conv4 = 16
in_conv5 = 16
in_conv6 = 32
in_conv7 = 128
in_conv8 = 32
else:
in_conv2 = 32
in_conv3 = 32
in_conv4 = 32
in_conv5 = 32
in_conv6 = 64
in_conv7 = 256
in_conv8 = 64
freq_inConv5 = 20 #chosen from their paper. Lets see the impact
time_inConv6 = 9
#Convolution layer1
conv1, w1, b1 = conv_layer(input_placeholder, [3, 3, 1, 32], [32],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
weight_list.append(w1)
bias_list.append(b1)
print('Conv1 ', conv1)
conv2, w2, b2 = conv_layer(conv1, [3, 3, in_conv2, 32], [32], [1, 1, 1, 1],
'conv2', padding, activation, init)
weight_list.append(w2)
bias_list.append(b2)
print('Conv2 ', conv2)
pool1 = maxPool2x2(conv2, [1, 3, 3, 1], [1, 3, 3, 1])
print('Pool1 layer shape = ', pool1)
conv3, w3, b3 = conv_layer(pool1, [3, 3, in_conv3, 32], [32], [1, 1, 1, 1],
'conv3', padding, activation, init)
weight_list.append(w3)
bias_list.append(b3)
print('Conv3 ', conv3)
conv4, w4, b4 = conv_layer(conv3, [3, 3, in_conv4, 32], [32], [1, 1, 1, 1],
'conv4', padding, activation, init)
weight_list.append(w4)
bias_list.append(b4)
print('Conv4 ', conv4)
conv5, w5, b5 = conv_layer(conv4, [3, freq_inConv5, in_conv5, 64], [64],
[1, 1, 1, 1], 'conv5', padding, activation,
init)
weight_list.append(w5)
bias_list.append(b5)
print('Conv5 ', conv5)
pool2 = maxPool2x2(conv5, [1, 3, 3, 1], [1, 3, 3, 1])
print('Pool2 layer shape = ', pool2)
conv6, w6, b6 = conv_layer(pool2, [time_inConv6, 1, in_conv6, 256], [256],
[1, 1, 1, 1], 'conv6', padding, activation,
init)
weight_list.append(w6)
bias_list.append(b6)
print('Conv6 ', conv6)
conv7, w7, b7 = conv_layer(conv6, [1, 1, in_conv7, 64], [64], [1, 1, 1, 1],
'conv7', padding, activation, init)
weight_list.append(w7)
bias_list.append(b7)
print('Conv7 ', conv7)
conv8, w8, b8 = conv_layer(conv7, [1, 1, in_conv8, 16], [16], [1, 1, 1, 1],
'conv8', padding, activation, init)
weight_list.append(w8)
bias_list.append(b8)
print('Conv8 ', conv8)
# Dropout on the huge input from Conv layer
flattened = tf.reshape(conv8, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
# Output dense layer
output, w9, b9 = fc_layer(dropped_1, fc_input, targets, 'Output_Layer',
'no-activation') #get raw logits
weight_list.append(w9)
bias_list.append(b9)
print('Output layer shape = ', output.shape)
return flattened, output, weight_list, activation_list, bias_list
def cnnModel3(input_type,
trainSize,
input_placeholder,
activation,
init,
targets,
fftSize,
padding,
keep_prob1,
keep_prob2,
keep_prob3,
n_layers=2,
fc_neurons=100,
fc1_neurons=100):
# This we call as google_small because it uses 100 neurons
t = trainSize
trainSize = str(trainSize) + 'sec'
f = 129
weight_list = list()
activation_list = list()
bias_list = list()
if activation == 'mfm':
if t == 3:
fc_input = 15 * 7 * 8 #f*8 #6448 #1*257*64 = 16448
elif t == 1:
fc_input = 5 * 7 * 8
in_conv2 = 8
in_conv3 = 8
in_conv4 = 8
in_fc2 = int(fc_neurons / 2) #16 #50
in_outputLayer = int(fc_neurons / 2) #16 #50
else:
print('ACtivation is relu')
if t == 3:
fc_input = 15 * 7 * 16 #f*16 #32896 # 1*257*128
elif t == 1:
fc_input = 5 * 7 * 16
in_conv2 = 16
in_conv3 = 16
in_conv4 = 16
in_fc2 = fc_neurons #32 #100
in_fc3 = fc_neurons #32 #100
in_outputLayer = fc_neurons #32 #100
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
#Convolution layer1,2,3
conv1, w1, b1 = conv_layer(input_placeholder, [1, 10, 1, 16], [16],
[1, 1, 1, 1], 'conv1', padding, activation,
init)
weight_list.append(w1)
bias_list.append(b1)
#print('Conv1 ', iconv1)
pool1 = maxPool2x2(conv1, [1, 2, 2, 1], [1, 2, 2, 1])
print('Pool1: ', pool1)
conv2, w2, b2 = conv_layer(pool1, [1, 10, in_conv2, 16], [16],
[1, 1, 1, 1], 'conv2', padding, activation,
init)
weight_list.append(w2)
bias_list.append(b2)
#print('Conv2 ', conv2)
pool2 = maxPool2x2(conv2, [1, 2, 2, 1], [1, 2, 2, 1])
print('Pool2: ', pool2)
conv3, w3, b3 = conv_layer(pool2, [1, 10, in_conv3, 16], [16],
[1, 1, 1, 1], 'conv3', padding, activation,
init)
weight_list.append(w3)
bias_list.append(b3)
#print('Conv3 ', conv3)
pool3 = maxPool2x2(conv3, [1, 5, 5, 1], [1, 5, 5, 1])
print('pool3 shape: ', pool3)
if input_type == 'cqt_spec':
time_dim = 32
else:
time_dim = t * 100
# Dropout on the huge input from Conv layer
flattened = tf.reshape(pool3, shape=[-1, fc_input])
dropped_1 = drop_layer(flattened, keep_prob1, 'dropout1')
fc1, w4, b4, = fc_layer(dropped_1, fc_input, fc_neurons, 'FC_Layer1',
activation)
weight_list.append(w4)
bias_list.append(b4)
print('Shape of FC1 = ', fc1.shape)
#Output layer: 2 neurons. One for genuine and one for spoof. Dropout applied first
print('input to the output layer: ', in_outputLayer)
dropped_2 = drop_layer(fc1, keep_prob2, 'dropout2')
output, w7, b7 = fc_layer(dropped_2, in_outputLayer, targets,
'Output_Layer', 'no-activation') #get raw logits
print('output layer: shape = ', output.shape)
weight_list.append(w7)
bias_list.append(b7)
print('Output layer shape = ', output.shape)
print(
'======================== CNN ARCHITECTURE ==============================\n'
)
return fc1, output, weight_list, activation_list, bias_list
