def __init__(self,
env_spec: EnvSpec,
name_scope: str,
name: str,
mlp_config: list,
input_norm: np.ndarray = None,
output_norm: np.ndarray = None,
output_low: np.ndarray = None,
output_high: np.ndarray = None,
reuse=False):
DeterministicPolicy.__init__(self,
env_spec=env_spec,
name=name,
parameters=None)
obs_dim = env_spec.flat_obs_dim
action_dim = env_spec.flat_action_dim
print(mlp_config[-1]['N_UNITS'])
print(action_dim)
assert action_dim == mlp_config[-1]['N_UNITS']
with tf.variable_scope(name_scope):
state_input = tf.placeholder(shape=[None, obs_dim],
dtype=tf.float32,
name='state_ph')
mlp_kwargs = dict(reuse=reuse,
input_norm=input_norm,
output_norm=output_norm,
output_low=output_low,
output_high=output_high,
mlp_config=mlp_config,
name_scope=name_scope)
mlp_net = MLP(input_ph=state_input,
**mlp_kwargs,
net_name='deterministic_mlp_policy')
PlaceholderInput.__init__(self, parameters=None)
self.parameters = ParametersWithTensorflowVariable(
tf_var_list=mlp_net.var_list,
rest_parameters=mlp_kwargs,
name='deterministic_mlp_policy_tf_param')
self.state_input = state_input
self.mlp_net = mlp_net
self.action_tensor = mlp_net.output
self.mlp_config = mlp_config
self.mlp_config = mlp_config
self.input_norm = input_norm
self.output_norm = output_norm
self.output_low = output_low
self.output_high = output_high
self.name_scope = name_scope
def __init__(self,
env_spec: EnvSpec,
name_scope: str,
name: str,
mlp_config: list,
state_input: tf.Tensor = None,
reuse=False,
input_norm: np.ndarray = None,
output_norm: np.ndarray = None,
output_low: np.ndarray = None,
output_high: np.ndarray = None,
):
with tf.variable_scope(name_scope):
state_input = state_input if state_input is not None else tf.placeholder(
shape=[None, env_spec.flat_obs_dim],
dtype=tf.float32,
name='state_ph')
mlp_input_ph = state_input
mlp_kwargs = dict(
reuse=reuse,
mlp_config=mlp_config,
input_norm=input_norm,
output_norm=output_norm,
output_high=output_high,
output_low=output_low,
name_scope=name_scope
)
mlp_net = MLP(input_ph=mlp_input_ph,
net_name='mlp',
**mlp_kwargs)
parameters = ParametersWithTensorflowVariable(tf_var_list=mlp_net.var_list,
rest_parameters=mlp_kwargs,
name='mlp_v_value_function_tf_param')
VValueFunction.__init__(self,
env_spec=env_spec,
state_input=state_input,
name=name,
parameters=None)
PlaceholderInput.__init__(self, parameters=parameters)
self.name_scope = name_scope
self.mlp_config = mlp_config
self.input_norm = input_norm
self.output_norm = output_norm
self.output_low = output_low
self.output_high = output_high
self.state_input = state_input
self.mlp_input_ph = mlp_input_ph
self.mlp_net = mlp_net
self.v_tensor = self.mlp_net.output
def __init__(
self,
env_spec: EnvSpec,
name: str,
name_scope: str,
mlp_config: list,
state_input: tf.Tensor = None,
action_input: tf.Tensor = None,
reuse=False,
input_norm: np.ndarray = None,
output_norm: np.ndarray = None,
output_low: np.ndarray = None,
output_high: np.ndarray = None,
):
with tf.name_scope(name_scope):
state_input = state_input if state_input is not None else tf.placeholder(
shape=[None, env_spec.flat_obs_dim],
dtype=tf.float32,
name='state_ph')
action_input = action_input if action_input is not None else tf.placeholder(
shape=[None, env_spec.flat_action_dim],
dtype=tf.float32,
name='action_ph')
with tf.variable_scope(name_scope):
mlp_input_ph = tf.concat([state_input, action_input],
axis=1,
name='state_action_input')
mlp_net_kwargs = dict(
reuse=reuse,
mlp_config=mlp_config,
input_norm=input_norm,
output_norm=output_norm,
output_high=output_high,
output_low=output_low,
name_scope=name_scope,
)
mlp_net = MLP(input_ph=mlp_input_ph,
net_name=name_scope,
**mlp_net_kwargs)
parameters = ParametersWithTensorflowVariable(
tf_var_list=mlp_net.var_list,
rest_parameters=dict(**mlp_net_kwargs, name=name),
default_save_type='tf',
name='{}_tf_param'.format(name))
QValueFunction.__init__(self,
env_spec=env_spec,
name=name,
action_input=action_input,
state_input=state_input,
parameters=None)
PlaceholderInput.__init__(self, parameters=parameters)
self.mlp_config = mlp_config
self.input_norm = input_norm
self.output_norm = output_norm
self.output_low = output_low
self.output_high = output_high
self.name_scope = name_scope
self.mlp_input_ph = mlp_input_ph
self.mlp_net = mlp_net
self.q_tensor = self.mlp_net.output
def __init__(self,
env_spec: EnvSpec,
name: str,
name_scope: str,
mlp_config: list,
input_norm: np.ndarray = None,
output_norm: np.ndarray = None,
output_low: np.ndarray = None,
output_high: np.ndarray = None,
reuse=False,
distribution_tensors_tuple: tuple = None):
StochasticPolicy.__init__(self,
env_spec=env_spec,
name=name,
parameters=None)
obs_dim = env_spec.flat_obs_dim
action_dim = env_spec.flat_action_dim
assert action_dim == mlp_config[-1]['N_UNITS']
self.mlp_config = mlp_config
self.input_norm = input_norm
self.output_norm = output_norm
self.output_low = output_low
self.output_high = output_high
self.mlp_config = mlp_config
self.name_scope = name_scope
mlp_kwargs = dict(reuse=reuse,
input_norm=input_norm,
output_norm=output_norm,
output_low=output_low,
output_high=output_high,
mlp_config=mlp_config,
name_scope=name_scope)
ph_inputs = []
if distribution_tensors_tuple is not None:
self.mean_output = distribution_tensors_tuple[0][0]
self.logvar_output = distribution_tensors_tuple[1][0]
assert list(self.mean_output.shape)[-1] == action_dim
assert list(self.logvar_output.shape)[-1] == action_dim
self.mlp_net = None
else:
with tf.variable_scope(self.name_scope):
self.state_input = tf.placeholder(shape=[None, obs_dim],
dtype=tf.float32,
name='state_ph')
ph_inputs.append(self.state_input)
self.mlp_net = MLP(input_ph=self.state_input,
net_name='normal_distribution_mlp_policy',
**mlp_kwargs)
self.mean_output = self.mlp_net.output
with tf.variable_scope(name_scope, reuse=reuse):
with tf.variable_scope('norm_dist', reuse=reuse):
logvar_speed = (10 * self.mlp_config[-2]['N_UNITS']) // 48
logvar_output = tf.get_variable(
name='normal_distribution_variance',
shape=[logvar_speed, self.mlp_config[-1]['N_UNITS']],
dtype=tf.float32)
# self.logvar_output = tf.reduce_sum(logvar_output, axis=0) + self.parameters('log_var_init')
self.logvar_output = tf.reduce_sum(logvar_output, axis=0)
with tf.variable_scope(name_scope, reuse=reuse):
self.action_input = tf.placeholder(shape=[None, action_dim],
dtype=tf.float32,
name='action_ph')
ph_inputs.append(self.action_input)
with tf.variable_scope('norm_dist', reuse=reuse):
self.stddev_output = tf.exp(self.logvar_output / 2.0,
name='std_dev')
self.var_output = tf.exp(self.logvar_output, name='variance')
self.action_distribution = tfp.distributions.MultivariateNormalDiag(
loc=self.mean_output,
scale_diag=self.stddev_output,
name='mlp_normal_distribution')
self.action_output = self.action_distribution.sample()
self.dist_info_tensor_op_dict = {
# todo support more in future
'prob': self.action_distribution.prob,
'log_prob': self.action_distribution.log_prob,
'entropy': self.action_distribution.entropy,
'kl': self.kl
}
var_list = get_tf_collection_var_list(
scope='{}/norm_dist'.format(name_scope))
if self.mlp_net:
var_list += self.mlp_net.var_list
self.parameters = ParametersWithTensorflowVariable(
tf_var_list=sorted(list(set(var_list)), key=lambda x: x.name),
rest_parameters=dict(state_input=self.state_input,
action_input=self.action_input,
**mlp_kwargs),
name='normal_distribution_mlp_tf_param')
PlaceholderInput.__init__(self, parameters=self.parameters)
def __init__(self,
env_spec: EnvSpec,
name_scope: str,
name: str,
mlp_config: list,
learning_rate: float,
state_input_scaler: DataScaler = None,
action_input_scaler: DataScaler = None,
output_delta_state_scaler: DataScaler = None,
init_state=None):
if not isinstance(env_spec.obs_space, Box):
raise TypeError(
'ContinuousMLPGlobalDynamicsModel only support to predict state that hold space Box type'
)
GlobalDynamicsModel.__init__(self,
env_spec=env_spec,
parameters=None,
name=name,
state_input_scaler=state_input_scaler,
action_input_scaler=action_input_scaler,
init_state=init_state)
with tf.variable_scope(name_scope):
state_input = tf.placeholder(shape=[None, env_spec.flat_obs_dim],
dtype=tf.float32,
name='state_ph')
action_input = tf.placeholder(
shape=[None, env_spec.flat_action_dim],
dtype=tf.float32,
name='action_ph')
mlp_input_ph = tf.concat([state_input, action_input],
axis=1,
name='state_action_input')
delta_state_label_ph = tf.placeholder(
shape=[None, env_spec.flat_obs_dim],
dtype=tf.float32,
name='delta_state_label_ph')
mlp_net = MLP(input_ph=mlp_input_ph,
reuse=False,
mlp_config=mlp_config,
name_scope=name_scope,
net_name='mlp')
if mlp_net.output.shape[1] != env_spec.flat_obs_dim:
raise InappropriateParameterSetting(
"mlp output dims {} != env spec obs dim {}".format(
mlp_net.output.shape[1], env_spec.flat_obs_dim))
parameters = ParametersWithTensorflowVariable(
tf_var_list=mlp_net.var_list,
name=name + '_'
'mlp_continuous_dynamics_model',
rest_parameters=dict(learning_rate=learning_rate))
DifferentiableDynamics.__init__(
self,
input_node_dict=dict(state_input=state_input,
action_action_input=action_input),
output_node_dict=dict(delta_state_output=mlp_net.output))
PlaceholderInput.__init__(self, parameters=parameters)
self.mlp_config = mlp_config
self.name_scope = name_scope
self.action_input = action_input
self.state_input = state_input
self.mlp_input_ph = mlp_input_ph
self.delta_state_label_ph = delta_state_label_ph
self.delta_state_output = mlp_net.output
self.mlp_net = mlp_net
self.output_delta_state_scaler = output_delta_state_scaler if output_delta_state_scaler else IdenticalDataScaler(
dims=self.env_spec.flat_obs_dim)
self._status = StatusWithSubInfo(obj=self)
with tf.variable_scope(name_scope):
with tf.variable_scope('train'):
self.loss, self.optimizer, self.optimize_op = self._setup_loss(
)
train_var_list = get_tf_collection_var_list(
key=tf.GraphKeys.GLOBAL_VARIABLES,
scope='{}/train'.format(name_scope)) + self.optimizer.variables()
self.parameters.set_tf_var_list(
sorted(list(set(train_var_list)), key=lambda x: x.name))