© 2012 WEVA.This paper deals with the description of current and future vehicle technology related to yaw moment control, anti-lock braking and traction control through the employment of effective torque vectoring strategies for electric vehicles. In particular, the adoption of individually controlled electric powertrains with the aim of tuning the vehicle dynamic characteristics in steady-state and transient conditions is discussed. This subject is currently investigated within the European Union (EU) funded Seventh Framework Programme (FP7) consortium E-VECTOORC, focused on the development and experimental testing of novel control strategies. Through a comprehensive literature review, the article outlines the stateof- the-art of torque ve...
Vehicles equipped with multiple electric machines allow variable distribution of propulsive and rege...
The benefits of individual wheel torque control, or torque vectoring, in terms of vehicle dynamics b...
The safety benefits of torque-vectoring control of electric vehicles with multiple drivetrains are w...
© 2012 WEVA.This paper deals with the description of current and future vehicle technology related t...
This paper deals with the description of current and future vehicle technology related to yaw moment...
This paper introduces the current state of research project related to yaw moment control, anti-lock...
This paper introduces the current state of research project related to yaw moment control, anti-lock...
Electric vehicles with multiple motors permit continuous direct yaw moment control, also called torq...
Fully electric vehicles with individually controlled powertrains can achieve significantly enhanced ...
A key feature achievable by electric vehicles with multiple motors is torque-vectoring. Many control...
Torque vectoring control is one of the most interesting techniques applicable to electric vehicles w...
Automotive industries are growing interest towards electric and hybrid vehicles which offer many adv...
Torque vectoring in electric ground vehicles (EGV) with individually actuated in-wheel motors (IAIWM...
In electric vehicles with multiple motors, the individual wheel torque control, i.e., the so-called ...
Vehicles equipped with multiple electric machines allow variable distribution of propulsive and rege...
The benefits of individual wheel torque control, or torque vectoring, in terms of vehicle dynamics b...
The safety benefits of torque-vectoring control of electric vehicles with multiple drivetrains are w...
© 2012 WEVA.This paper deals with the description of current and future vehicle technology related t...
This paper deals with the description of current and future vehicle technology related to yaw moment...
This paper introduces the current state of research project related to yaw moment control, anti-lock...
This paper introduces the current state of research project related to yaw moment control, anti-lock...
Electric vehicles with multiple motors permit continuous direct yaw moment control, also called torq...
Fully electric vehicles with individually controlled powertrains can achieve significantly enhanced ...
A key feature achievable by electric vehicles with multiple motors is torque-vectoring. Many control...
Torque vectoring control is one of the most interesting techniques applicable to electric vehicles w...
Automotive industries are growing interest towards electric and hybrid vehicles which offer many adv...
Torque vectoring in electric ground vehicles (EGV) with individually actuated in-wheel motors (IAIWM...
In electric vehicles with multiple motors, the individual wheel torque control, i.e., the so-called ...
Vehicles equipped with multiple electric machines allow variable distribution of propulsive and rege...
The benefits of individual wheel torque control, or torque vectoring, in terms of vehicle dynamics b...
The safety benefits of torque-vectoring control of electric vehicles with multiple drivetrains are w...