check time validity before pos validity
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@ -164,95 +164,101 @@ class BlackBoxWrapper(gym.ObservationWrapper):
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def step(self, action: np.ndarray):
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""" This function generates a trajectory based on a MP and then does the usual loop over reset and step"""
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time_valid = self.env.check_time_validity(action)
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if self.plan_counts == 0:
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self.tau_first_prediction = action[0]
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if time_valid:
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## tricky part, only use weights basis
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# basis_weights = action.reshape(7, -1)
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# goal_weights = np.zeros((7, 1))
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# action = np.concatenate((basis_weights, goal_weights), axis=1).flatten()
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if self.plan_counts == 0:
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self.tau_first_prediction = action[0]
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# TODO remove this part, right now only needed for beer pong
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# mp_params, env_spec_params, proceed = self.env.episode_callback(action, self.traj_gen)
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position, velocity = self.get_trajectory(action)
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traj_is_valid = self.env.episode_callback(action, position, velocity)
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## tricky part, only use weights basis
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# basis_weights = action.reshape(7, -1)
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# goal_weights = np.zeros((7, 1))
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# action = np.concatenate((basis_weights, goal_weights), axis=1).flatten()
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trajectory_length = len(position)
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rewards = np.zeros(shape=(trajectory_length,))
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if self.verbose >= 2:
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actions = np.zeros(shape=(trajectory_length,) + self.env.action_space.shape)
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observations = np.zeros(shape=(trajectory_length,) + self.env.observation_space.shape,
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dtype=self.env.observation_space.dtype)
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# TODO remove this part, right now only needed for beer pong
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# mp_params, env_spec_params, proceed = self.env.episode_callback(action, self.traj_gen)
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position, velocity = self.get_trajectory(action)
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traj_is_valid = self.env.episode_callback(action, position, velocity)
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infos = dict()
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done = False
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trajectory_length = len(position)
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rewards = np.zeros(shape=(trajectory_length,))
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if self.verbose >= 2:
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actions = np.zeros(shape=(trajectory_length,) + self.env.action_space.shape)
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observations = np.zeros(shape=(trajectory_length,) + self.env.observation_space.shape,
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dtype=self.env.observation_space.dtype)
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if self.verbose >= 2:
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desired_pos_traj = []
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desired_vel_traj = []
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pos_traj = []
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vel_traj = []
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if traj_is_valid:
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self.plan_counts += 1
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for t, (pos, vel) in enumerate(zip(position, velocity)):
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step_action = self.tracking_controller.get_action(pos, vel, self.current_pos, self.current_vel)
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c_action = np.clip(step_action, self.env.action_space.low, self.env.action_space.high)
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obs, c_reward, done, info = self.env.step(c_action)
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rewards[t] = c_reward
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if self.verbose >= 2:
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actions[t, :] = c_action
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observations[t, :] = obs
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for k, v in info.items():
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elems = infos.get(k, [None] * trajectory_length)
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elems[t] = v
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infos[k] = elems
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if self.verbose >= 2:
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desired_pos_traj.append(pos)
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desired_vel_traj.append(vel)
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pos_traj.append(self.current_pos)
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vel_traj.append(self.current_vel)
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if self.render_kwargs:
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self.env.render(**self.render_kwargs)
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if done or self.replanning_schedule(self.current_pos, self.current_vel, obs, c_action,
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t + 1 + self.current_traj_steps):
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# if self.max_planning_times is not None and self.plan_counts >= self.max_planning_times:
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# continue
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self.condition_pos = pos if self.desired_conditioning else self.current_pos
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self.condition_vel = vel if self.desired_conditioning else self.current_vel
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break
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infos.update({k: v[:t+1] for k, v in infos.items()})
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self.current_traj_steps += t + 1
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infos = dict()
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done = False
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if self.verbose >= 2:
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infos['desired_pos'] = position[:t+1]
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infos['desired_vel'] = velocity[:t+1]
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infos['current_pos'] = self.current_pos
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infos['current_vel'] = self.current_vel
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infos['step_actions'] = actions[:t + 1]
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infos['step_observations'] = observations[:t + 1]
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infos['step_rewards'] = rewards[:t + 1]
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infos['desired_pos_traj'] = np.array(desired_pos_traj)
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infos['desired_vel_traj'] = np.array(desired_vel_traj)
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infos['pos_traj'] = np.array(pos_traj)
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infos['vel_traj'] = np.array(vel_traj)
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desired_pos_traj = []
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desired_vel_traj = []
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pos_traj = []
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vel_traj = []
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infos['trajectory_length'] = t + 1
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trajectory_return = self.reward_aggregation(rewards[:t + 1])
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return self.observation(obs), trajectory_return, done, infos
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if traj_is_valid:
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self.plan_counts += 1
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for t, (pos, vel) in enumerate(zip(position, velocity)):
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step_action = self.tracking_controller.get_action(pos, vel, self.current_pos, self.current_vel)
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c_action = np.clip(step_action, self.env.action_space.low, self.env.action_space.high)
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obs, c_reward, done, info = self.env.step(c_action)
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rewards[t] = c_reward
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if self.verbose >= 2:
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actions[t, :] = c_action
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observations[t, :] = obs
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for k, v in info.items():
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elems = infos.get(k, [None] * trajectory_length)
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elems[t] = v
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infos[k] = elems
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if self.verbose >= 2:
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desired_pos_traj.append(pos)
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desired_vel_traj.append(vel)
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pos_traj.append(self.current_pos)
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vel_traj.append(self.current_vel)
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if self.render_kwargs:
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self.env.render(**self.render_kwargs)
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if done or self.replanning_schedule(self.current_pos, self.current_vel, obs, c_action,
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t + 1 + self.current_traj_steps):
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# if self.max_planning_times is not None and self.plan_counts >= self.max_planning_times:
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# continue
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self.condition_pos = pos if self.desired_conditioning else self.current_pos
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self.condition_vel = vel if self.desired_conditioning else self.current_vel
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break
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infos.update({k: v[:t+1] for k, v in infos.items()})
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self.current_traj_steps += t + 1
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if self.verbose >= 2:
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infos['desired_pos'] = position[:t+1]
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infos['desired_vel'] = velocity[:t+1]
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infos['current_pos'] = self.current_pos
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infos['current_vel'] = self.current_vel
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infos['step_actions'] = actions[:t + 1]
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infos['step_observations'] = observations[:t + 1]
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infos['step_rewards'] = rewards[:t + 1]
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infos['desired_pos_traj'] = np.array(desired_pos_traj)
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infos['desired_vel_traj'] = np.array(desired_vel_traj)
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infos['pos_traj'] = np.array(pos_traj)
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infos['vel_traj'] = np.array(vel_traj)
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infos['trajectory_length'] = t + 1
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trajectory_return = self.reward_aggregation(rewards[:t + 1])
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return self.observation(obs), trajectory_return, done, infos
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else:
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obs, trajectory_return, done, infos = self.env.invalid_traj_callback(action, position, velocity)
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return self.observation(obs), trajectory_return, done, infos
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else:
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obs, trajectory_return, done, infos = self.env.invalid_traj_callback(action, position, velocity)
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return self.observation(obs), trajectory_return, done, infos
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obs, trajectory_return, done, infos = self.env.time_invalid_traj_callback(action)
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return self.observation(obs), trajectory_return, done, infos
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def render(self, **kwargs):
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"""Only set render options here, such that they can be used during the rollout.
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This only needs to be called once"""
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@ -560,7 +560,7 @@ for _v in _versions:
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_name = _v.split("-")
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_env_id = f'{_name[0]}ProDMP-{_name[1]}'
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kwargs_dict_tt_prodmp = deepcopy(DEFAULT_BB_DICT_ProDMP)
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kwargs_dict_tt_prodmp['wrappers'].append(mujoco.box_pushing.MPWrapper)
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kwargs_dict_tt_prodmp['wrappers'].append(mujoco.table_tennis.MPWrapper)
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kwargs_dict_tt_prodmp['name'] = _v
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kwargs_dict_tt_prodmp['controller_kwargs']['p_gains'] = 0.5 * np.array([1.0, 4.0, 2.0, 4.0, 1.0, 4.0, 1.0])
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kwargs_dict_tt_prodmp['controller_kwargs']['d_gains'] = 0.5 * np.array([0.1, 0.4, 0.2, 0.4, 0.1, 0.4, 0.1])
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@ -28,12 +28,31 @@ class MPWrapper(RawInterfaceWrapper):
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def current_vel(self) -> Union[float, int, np.ndarray, Tuple]:
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return self.data.qvel[:7].copy()
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def check_time_validity(self, action):
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return action[0] <= tau_bound[1] and action[0] >= tau_bound[0] \
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and action[1] <= delay_bound[1] and action[1] >= delay_bound[0]
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def time_invalid_traj_callback(self, action) \
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-> Tuple[np.ndarray, float, bool, dict]:
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tau_invalid_penalty = 3 * (np.max([0, action[0] - tau_bound[1]]) + np.max([0, tau_bound[0] - action[0]]))
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delay_invalid_penalty = 3 * (np.max([0, action[1] - delay_bound[1]]) + np.max([0, delay_bound[0] - action[1]]))
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invalid_penalty = tau_invalid_penalty + delay_invalid_penalty
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obs = np.concatenate([self.get_obs(), np.array([0])])
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return obs, -invalid_penalty, True, {
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"hit_ball": [False],
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"ball_returned_success": [False],
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"land_dist_error": [10.],
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"is_success": [False],
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'trajectory_length': 1,
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"num_steps": [1]
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}
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def episode_callback(self, action, pos_traj, vel_traj):
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time_invalid = action[0] > tau_bound[1] or action[0] < tau_bound[0] \
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or action[1] > delay_bound[1] or action[1] < delay_bound[0]
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if time_invalid or np.any(pos_traj > jnt_pos_high) or np.any(pos_traj < jnt_pos_low):
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return False
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return True
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return True
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return False
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def invalid_traj_callback(self, action, pos_traj: np.ndarray, vel_traj: np.ndarray) \
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-> Tuple[np.ndarray, float, bool, dict]:
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@ -43,7 +62,8 @@ class MPWrapper(RawInterfaceWrapper):
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violate_low_bound_error = np.mean(np.maximum(jnt_pos_low - pos_traj, 0))
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invalid_penalty = tau_invalid_penalty + delay_invalid_penalty + \
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violate_high_bound_error + violate_low_bound_error
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return self.get_obs(), -invalid_penalty, True, {
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obs = np.concatenate([self.get_obs(), np.array([0])])
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return obs, -invalid_penalty, True, {
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"hit_ball": [False],
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"ball_returned_success": [False],
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"land_dist_error": [10.],
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