def nn(input, layers_sizes, reuse=None, flatten=False, name=""):
    """Creates a simple neural network
    """
    for i, size in enumerate(layers_sizes):
        activation = tf.nn.relu if i < len(layers_sizes) - 1 else None
        input = tf.layers.dense(inputs=input,
                                units=size,
                                kernel_initializer=tf.contrib.layers.xavier_initializer(),
                                reuse=reuse,
                                name=name + '_' + str(i))
        if activation:
            input = activation(input)
    if flatten:
        assert layers_sizes[-1] == 1
        input = tf.reshape(input, [-1])
    return input
def nn(input, layers_sizes, reuse=None, flatten=False, name=""):
    
    for i, size in enumerate(layers_sizes):
        activation = tf.nn.relu if i < len(layers_sizes) - 1 else None
        input = tf.layers.dense(inputs=input,
                                units=size,
                                kernel_initializer=tf.contrib.layers.xavier_initializer(),
                                reuse=reuse,
                                name=name + '_' + str(i))
        if activation:
            input = activation(input)
    if flatten:
        assert layers_sizes[-1] == 1
        input = tf.reshape(input, [-1])
    return input
def nn ( input , layers_sizes , reuse = None , flatten = False , name = "" ) : for i , size in enumerate ( layers_sizes ) : activation = tf . nn . relu if i < len ( layers_sizes ) - 1 else None input = tf . layers . dense ( inputs = input , units = size , kernel_initializer = tf . contrib . layers . xavier_initializer ( ) , reuse = reuse , name = name + '_' + str ( i ) ) if activation : input = activation ( input ) if flatten : assert layers_sizes [ - 1 ] == 1 input = tf . reshape ( input , [ - 1 ] ) return input
Creates a simple neural network
Creates a simple neural network