The paper presents an anti-lock braking system (ABS) control logic based on the measurement of the longitudinal forces at the hub bearings. The availability of force information allows to design a logic that does not rely on the estimation of the tyre-road friction coefficient, since it continuously tries to exploit the maximum longitudinal tyre force. The logic is designed by means of computer simulation and then tested on a specific hardware in the loop test bench: the experimental results confirm that measured wheel force can lead to a significant improvement of the ABS performances in terms of stopping distance also in the presence of road with variable friction coefficien
Anti-lock brake system (ABS) has been designed to achieve maximum deceleration by preventing the whe...
International audienceA new approach to estimate vehicle tire forces and road maximum adherence is p...
Extensive research on the design and development of antilock brake systems has been done in the past...
The paper presents an anti-lock braking system (ABS) control logic based on the measurement of the l...
Anti-lock Brake System (ABS) is an active safety system nowadays implemented in every new car and co...
Antilock Braking System (ABS) is designed to prevent wheels from locking, in order to enhance vehicl...
International audienceBoth maintaining the vehicle manoeuvrability during heavy braking and maximizi...
Over the past century, cars have become a fundamental part of our society. With the increasingly lar...
Antilock braking systems (ABSs) are usually designed based on controlling the wheel slip ratio so as...
The aims of this study are to establish the mathematical model and the robust control technique for ...
Anti-lock Brake Systems (ABS) are one of the most important safety features for road vehicles. They ...
In this paper a hybrid force-based Anti Locking Braking System (ABS) is presented. The proposed cont...
The main purpose of a vehicle anti-lock braking system (ABS) is to prevent the tyres from locking-up...
This paper presents about the development of an Antilock Braking System (ABS) using quarter vehicle ...
This article belongs to the Special Issue Human Machine Interaction in Automated Vehicles.Tire slip ...
Anti-lock brake system (ABS) has been designed to achieve maximum deceleration by preventing the whe...
International audienceA new approach to estimate vehicle tire forces and road maximum adherence is p...
Extensive research on the design and development of antilock brake systems has been done in the past...
The paper presents an anti-lock braking system (ABS) control logic based on the measurement of the l...
Anti-lock Brake System (ABS) is an active safety system nowadays implemented in every new car and co...
Antilock Braking System (ABS) is designed to prevent wheels from locking, in order to enhance vehicl...
International audienceBoth maintaining the vehicle manoeuvrability during heavy braking and maximizi...
Over the past century, cars have become a fundamental part of our society. With the increasingly lar...
Antilock braking systems (ABSs) are usually designed based on controlling the wheel slip ratio so as...
The aims of this study are to establish the mathematical model and the robust control technique for ...
Anti-lock Brake Systems (ABS) are one of the most important safety features for road vehicles. They ...
In this paper a hybrid force-based Anti Locking Braking System (ABS) is presented. The proposed cont...
The main purpose of a vehicle anti-lock braking system (ABS) is to prevent the tyres from locking-up...
This paper presents about the development of an Antilock Braking System (ABS) using quarter vehicle ...
This article belongs to the Special Issue Human Machine Interaction in Automated Vehicles.Tire slip ...
Anti-lock brake system (ABS) has been designed to achieve maximum deceleration by preventing the whe...
International audienceA new approach to estimate vehicle tire forces and road maximum adherence is p...
Extensive research on the design and development of antilock brake systems has been done in the past...