Continental Teves, Ag and Company Ohg

Continental Automotive Technologies Gmbh

Schaeffler Technologies Ag & Co. Kg

Martin Semsch

Jens Hoffmann

Uwe Bach

Holger Von Hayn

Wolfgang Ritter

Johann Jungbecker

Ahmed Sefo

Jürgen Balz

Paul Linhoff

Adrian Messner

Martin Gädke

Ulrike Meyer

Ralf Schwarz

Thomas Winkler

Stefan Johannes Schmitt

Matthias Würz

Matthias Schulitz

Holger Kranlich

Ralf Sundheim

Götz Mehner

Martin Kruse

Hans-Peter Metzen

Christian Philipp

Rudolf Platzer

Dragan Stojkovic

Achim Reich

Matthias Töns

Michel Stoltze

Martin Spornraft

Olivier Frament

Hilmar Teitge

Vincent Vahee

Peter Kilian

Martin GÄDKE

Michael Stoltze

Matthies WÜRZ

A method for controlling an electromotive drive of a motor vehicle. At least one of the motor vehicle wheels can be driven by an electric motor of the electromotive drive and the electromotive drive has at least one energy source for the electric motor. The method includes: identifying a request for applying a deceleration torque to the vehicle wheel, identifying status of the electromotive drive, selecting an operating mode of the electric motor according to the identified status, and controlling the electric motor in the selected operating mode for applying the deceleration torque. In a first operating mode, the electric motor is controlled such that the rotational energy of the vehicle wheel is converted at a first efficiency into electrical energy. In a second operating mode, the electric motor is controlled such that the rotational energy of the vehicle wheel is converted at a second efficiency into electrical energy.

Method for controlling an electromotive drive of a motor vehicle

A method for controlling the longitudinal dynamics of a vehicle, where the vehicle has a friction brake system brakes, a drive system with an electromotive drive acting on at least one wheel, and a battery for supplying power to the electromotive drive determines state information which describes the state of the vehicle and/or the state of the brake system and/or of the drive system. Route information is determined which describes the route profile of the vehicle. An action plan for implementing a future braking request by the friction brakes and/or the electromotive drive on the basis of the state information and the route information is determined. The action plan specifies, for future times and/or areas on the route, whether a braking request of the vehicle is to be implemented by means of the friction brake and/or the drive system and implements a braking request accordingly.

Method for controlling the longitudinal dynamics of a vehicle

The abutment of a drum brake is formed from a solid material which deforms under load, wherein measurement devices are provided which detect this deformation. The abutment has two limbs, on which the brake shoes are supported. The changing distance between the two brake shoes under load is determined by detecting the distance between extension rods on the limbs by a measurement device comprising magnets and Hall sensors or AMR sensors.

Drum brake

Differentials having plate packs for exerting a braking torque onto the output shafts of the gear unit are known. The brake device is intended to be designed such that effective braking can be achieved using it and that it is easy to service. To this end, the invention makes provision for the brake device to be a drum brake having a passive element, exhibiting a cylindrical frictional surface, and brake shoes, the frictional surfaces of which brake shoes can be placed against the cylindrical frictional surface of the passive element. The passive element can be a brake drum or a radial brake disk, the cylindrical edge of which serves as a frictional surface. The passive element is fastened to the differential cage and/or one of the shafts. The brake shoes are held in a pivotable manner on a carrier plate fastened to the outside of the differential housing.

Differential having a brake device

An electromechanically actuated vehicle brake having a hydraulically and/or mechanically actuated piston and at least one spindle-nut-arrangement. The invention further relates to a piston. To prevent unnecessary play, vibration, noises between adjacent components it is proposed that in the area of a coupling between the spindle-nut-arrangement and the piston at least one compensating element be provided, which prevents unwanted component oscillations.

Electromechanically actuated vehicle brake having an improved piston

A drum brake module for motor vehicles operable by electric motor and performs at least one parking brake function, having an electromechanical actuator mounted on one side of the armature plate and a rotational-translational movement converter converting a rotational drive rotational movement into a translational activation movement of brake shoes arranged on a side of the armature plate facing away from the actuator in a brake drum, and including at least one supporting device between the brake shoes such that the latter can carry out an activation movement in the direction of the brake drum. A drive nut is supported by the rotational-translational movement converter in an axially secure and rotatable fashion on the armature plate to assist the braking force. The drive nut drives a spindle arrangement mounted in a rotationally fixed and axially displaceable fashion and engages with an activation cable on at least one brake shoe.

Drum brake module which can be operated by electric motor

Disc brake which can be actuated electromechanically

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Maibach-Butzbach, Germany

Martin Semsch