Abstract: A disclosed vehicle driving assist system includes a first sensing system configured for monitoring an environment surrounding a vehicle and generating a first signal indicative the environment surrounding the vehicle, an audio recognition system configured for monitoring noise signals surrounding the vehicle and generating a second signal indicative of a traffic participant surrounding the vehicle, and a controller configured to receive the first signal from the first sensing system and the second signal from the audio recognition system, verify the first signal from the first sensing system utilizing the second signal from the audio recognition system and initiate vehicle response based on the verification of the first signal and a determination of the presence of traffic participant surrounding the vehicle based on the second signal from the audio recognition system.

Abstract: A traction control system is provided for a vehicle having wheels driven on a primary axle via an engine, and wheels on a secondary axle torsionally isolated from the engine. Wheel speed sensors and brakes are provided for each wheel. A motor/hydraulic pump is operatively associated with each secondary axle wheel for selectively powering the secondary axle wheel or being regenerativly powered by the secondary axle wheel for regenerative braking. A clutch is provided to connect each secondary axle wheel with the secondary axle wheel's motor/hydraulic pump. An accumulator is provided to hydraulically power the secondary axle wheels and to accept regenerative pressure from the secondary axle wheel's motor/hydraulic pump. A wheel valve is provided for each respective secondary axle wheel for selectively connecting the secondary axle wheel's motor/hydraulic pump with the accumulator. A controller is provided to control the primary axle and secondary axle wheels.

Abstract: A traction control system is provided for a vehicle having wheels driven on a primary axle via an engine, and wheels on a secondary axle torsionally isolated from the engine. Wheel speed sensors and brakes are provided for each wheel. A motor/hydraulic pump is operatively associated with each secondary axle wheel for selectively powering the secondary axle wheel or being regenerativly powered by the secondary axle wheel for regenerative braking. A clutch is provided to connect each secondary axle wheel with the secondary axle wheel's motor/hydraulic pump. An accumulator is provided to hydraulically power the secondary axle wheels and to accept regenerative pressure from the secondary axle wheel's motor/hydraulic pump. A wheel valve is provided for each respective secondary axle wheel for selectively connecting the secondary axle wheel's motor/hydraulic pump with the accumulator. A controller is provided to control the primary axle and secondary axle wheels.

Abstract: A brake system for a motor vehicle includes a first control module coupled to a first hydraulic brake circuit and a second hydraulic brake circuit. The first control module is configured to control fluid pressure within both the first hydraulic brake circuit and the second hydraulic brake circuit. A second control module coupled to the first hydraulic brake circuit and the second hydraulic brake circuit, wherein the second control module is configured to control fluid pressure within both the first hydraulic brake circuit and the second hydraulic brake circuit independent of the first control module. The first control module is disposed in series with the second control module in the first hydraulic brake circuit and the second hydraulic brake circuit.

Abstract: A brake system for a motor vehicle includes a first control module coupled to a first hydraulic brake circuit and a second hydraulic brake circuit. The first control module is configured to control fluid pressure within both the first hydraulic brake circuit and the second hydraulic brake circuit. A second control module coupled to the first hydraulic brake circuit and the second hydraulic brake circuit, wherein the second control module is configured to control fluid pressure within both the first hydraulic brake circuit and the second hydraulic brake circuit independent of the first control module. The first control module is disposed in series with the second control module in the first hydraulic brake circuit and the second hydraulic brake circuit.

Abstract: A fault controller for a brake system includes a control display having a plurality of identifying labels displayed thereon corresponding to predetermined brake system fault mode options. A plurality of switches corresponding to the identifying labels and selectively setable to activate and deactivate conditions are on the control display. Fluid control valves are disposed along brake lines between the master cylinder and the wheel brakes. There are electrical connections between the switches and fluid control valves wherein setting one of the switches to the activate condition activates a corresponding fault mode of the brake system. An enable switch on the controller, if included, must be set to an "enable" condition for the fault controller to affect brake operation.

Abstract: A fault controller for a brake system has a control display with a plurality of identifying labels displayed thereon which correspond to predetermined brake system fault options. A plurality of switches corresponding to the identifying labels and selectively setable to activate and deactivate conditions are on the control display. Fluid control valves are disposed along brake lines between the master cylinder and the wheel brakes. There are electrical connections between the switches and the fluid control valves wherein setting one of the switches to the activate condition activates a corresponding fault mode of the anti-lock brake system.

Abstract: A vacuum booster assembly having first and second walls defining a vacuum chamber and a diaphragm disposed within said vacuum chamber. The diaphragm includes a beaded peripheral portion which is sealingly engaged between the walls and the beaded portion is adhesively secured to at least one of the walls to prevent movement during assembly.

Abstract: A disc brake for the wheel of a motor vehicle includes a rotor mounted to the wheel, and a caliper straddling the rotor and supporting a brake pad on either side thereof. In order to accommodate packaging constraints within the wheel's rim, the outboard pad and the rotor's outboard friction surface are both positioned radially inwardly of the inboard pad and inboard rotor friction surface. A hydraulic piston located in the inboard portion of the caliper first urges the inboard pad along the piston's longitudinal axis into initial engagement with the rotor's inboard friction surface, whereupon the piston acts through the caliper's bridge and finger area to urge the outboard pad into engagement with the rotor's outboard friction surface. The effective radius of each pad is less than the radial offset of the piston's longitudinal axis from the rotational axis of the wheel and rotor so as to reduce the bending moment applied to the rotor upon braking.