This paper addresses the problem of energy-efficient power assist control for quasiperiodic motions. The simplest assist method would be to apply additional torque in proportion to the instantaneous value of torque generated by a user. In our previous study, it was shown that energy efficiency improves by flattening the torque pattern. To cope with the frequency fluctuation of our motion, we introduce a periodic disturbance observer with a frequency estimator and suppress the pulsation of the human torque based on a disturbance observer framework. The effectiveness of the proposed method is evaluated through numerical simulations and experiments with an actual electric bicycle being pedaled by a human
[[abstract]]The purpose of this paper is to stabilize the running motion of an electrical bicycle. I...
While newly installed infrastructure in several European cities for bicycles rental offer a real alt...
The paper addresses the design of a rider on saddle detection algorithm for an all-in-the-wheel Elec...
This dissertation considers intelligent power-assist algorithm designs for electric bicycles. Tradit...
AbstractThis paper presents an activity concerning the development of a control strategy for power-a...
This paper presents an activity concerning the development of a control strategy for power-assisted ...
[[abstract]]lectric power-assist systems help vehicle operators to achieve the same speed with less ...
Abstract This paper presents an activity concerning the development of a control strategy for power-...
[[abstract]]Based on previous studies, two strategies, the controls of the center of gravity (CG) an...
Abstract This paper describes a skill assist method for sinusoidal motions using a se...
AbstractIn this paper, we propose a new nonlinear control strategy for electric bicycles that adjust...
A method is proposed to achieve lateral stability of an autonomous bicycle with only the rotation of...
The need for reducing the cost of and space in Electrically Assisted Bicycles (EABs) has led the res...
The Smart Electric Bicycle Controller is a developed controller that improves the existing pedal-ass...
This paper deals with cyclist power estimation in bicycles via a power meter device measuring the to...
[[abstract]]The purpose of this paper is to stabilize the running motion of an electrical bicycle. I...
While newly installed infrastructure in several European cities for bicycles rental offer a real alt...
The paper addresses the design of a rider on saddle detection algorithm for an all-in-the-wheel Elec...
This dissertation considers intelligent power-assist algorithm designs for electric bicycles. Tradit...
AbstractThis paper presents an activity concerning the development of a control strategy for power-a...
This paper presents an activity concerning the development of a control strategy for power-assisted ...
[[abstract]]lectric power-assist systems help vehicle operators to achieve the same speed with less ...
Abstract This paper presents an activity concerning the development of a control strategy for power-...
[[abstract]]Based on previous studies, two strategies, the controls of the center of gravity (CG) an...
Abstract This paper describes a skill assist method for sinusoidal motions using a se...
AbstractIn this paper, we propose a new nonlinear control strategy for electric bicycles that adjust...
A method is proposed to achieve lateral stability of an autonomous bicycle with only the rotation of...
The need for reducing the cost of and space in Electrically Assisted Bicycles (EABs) has led the res...
The Smart Electric Bicycle Controller is a developed controller that improves the existing pedal-ass...
This paper deals with cyclist power estimation in bicycles via a power meter device measuring the to...
[[abstract]]The purpose of this paper is to stabilize the running motion of an electrical bicycle. I...
While newly installed infrastructure in several European cities for bicycles rental offer a real alt...
The paper addresses the design of a rider on saddle detection algorithm for an all-in-the-wheel Elec...