Abstract—This paper investigates the learning of a controller for a flat-footed bipedal robot using reinforcement learning to optimally respond to (1) external disturbances induced by stepping on objects or being pushed, and (2) rapid reversal of demanded walk direction. The reinforcement learning method employed learns an optimal policy by actuating the ankle joints to assert pressure along the support foot, and optionally the leg joints to determine the next swing foot placement. The controller is learnt in simulation using an inverted pendulum model and the policy transferred to two small physical humanoid robots. I
This thesis presents a study of biped dynamic walking using reinforcement learning. A hardware biped...
In this paper, we proposed a novel Hybrid Reinforcement Learning framework to maintain the stability...
This paper investigates the efficacy of the implementation of the conventional Proportional-Derivati...
Service robots have the potential to be of great value in households, health care and other labor in...
Abstract: Learning controllers that reproduce legged locomotion in nature have been a long-time goa...
AbstractDue to the high complexity of the humanoid body, and its inherently unstable inverted pendul...
Recently, work on reinforcement learning (RL) for bipedal robots has successfully learned controller...
In this work, we proposed a new approach for learning legged locomotion for any legged robot, in the...
Abstract. This paper presents a novel dynamic control approach to acquire biped walking of humanoid ...
The Ph.D. thesis is focused on using the reinforcement learning for four legged robot control. The m...
Deep reinforcement learning (DRL) offers a promising approach for the synthesis of control policies ...
A novel behavior based locomotion controller (BBLC) capable of adapting to unknown disturbances is p...
A significant goal of the yearly progression of RoboCup robotics is the improvement of bipedal locom...
Abstract: In this work, we proposed a new approach for learning legged locomotion for any legged rob...
In this work, we introduced a novel hybrid reinforcement learning scheme to balance a biped robot (N...
This thesis presents a study of biped dynamic walking using reinforcement learning. A hardware biped...
In this paper, we proposed a novel Hybrid Reinforcement Learning framework to maintain the stability...
This paper investigates the efficacy of the implementation of the conventional Proportional-Derivati...
Service robots have the potential to be of great value in households, health care and other labor in...
Abstract: Learning controllers that reproduce legged locomotion in nature have been a long-time goa...
AbstractDue to the high complexity of the humanoid body, and its inherently unstable inverted pendul...
Recently, work on reinforcement learning (RL) for bipedal robots has successfully learned controller...
In this work, we proposed a new approach for learning legged locomotion for any legged robot, in the...
Abstract. This paper presents a novel dynamic control approach to acquire biped walking of humanoid ...
The Ph.D. thesis is focused on using the reinforcement learning for four legged robot control. The m...
Deep reinforcement learning (DRL) offers a promising approach for the synthesis of control policies ...
A novel behavior based locomotion controller (BBLC) capable of adapting to unknown disturbances is p...
A significant goal of the yearly progression of RoboCup robotics is the improvement of bipedal locom...
Abstract: In this work, we proposed a new approach for learning legged locomotion for any legged rob...
In this work, we introduced a novel hybrid reinforcement learning scheme to balance a biped robot (N...
This thesis presents a study of biped dynamic walking using reinforcement learning. A hardware biped...
In this paper, we proposed a novel Hybrid Reinforcement Learning framework to maintain the stability...
This paper investigates the efficacy of the implementation of the conventional Proportional-Derivati...