Abstract: An electromagnetic-actuator (EA) assembly includes a first EA having a first coil-arrangement (CA) with a first coil-core (CC) and a first coil and having a first movable-magnetic-armature-body (MMAB) which is movable by a magnetic-field generated by the first CA from a first into a second position in which the first AB is attracted towards a first-surface, which is different from the first CC and arranged opposite the first AB, and contacts the first CC, and a second EA having a second CA with a second CC and a second coil and having a MMAB having a damping-device mounted on the second AB and which is movable by a magnetic-field generated by the second CA from a first into a second position in which the second AB is attracted towards a second-surface and abuts against the second-surface by the damping-device. The first and second surfaces are identical in construction.

Abstract: An electromagnetic-actuator (EA) including a coil-element (CE) having a coil-core (CC)/coil arranged about the CC-circumference. The CC has a symmetrical first-region (FR) having an axis-of-symmetry (AOS), the CC being surrounded by the coil, and a movable-magnetic-armature-body (MM AB) as a movable-actuator-element (MAE) interacts with the CE to produce an AB activation-movement, and is supported in the actuator by a bearing-device (BD) and movable from a first/second-position by activating the CE. The BD is radially-offset to the CC AOS, and the AB extends from the BD radially over the CC from a first/second-side of the CC, which has a second-region (SR) extending radially beyond the FR and is on second-side (SS) of the CC between the coil/AB in the direction of AOS such that an air-gap between CC/AB in direction of the AOS is smaller on the SS of the CC than on first-side when the AB is in first-position.

Abstract: A bearing device for fixing and bearing an armature body of an electromagnetic-switching or valve device in a pretensioned manner using a force, including a bearing-force-generating-element (BFGE) for generating a pretensioning-force for bearing the armature-body (AB) and a transmission-element (TE) formed separately from the BFGE and which is pressed in the direction of the AB by the generated pretensioning force when the bearing-device is installed to fix and bear the AB. The TE has a first-side and a second-side lying opposite the first-side, in which the first-side faces the BFGE, and the second-side faces the AB when the bearing-device is installed and contacts the ABy at at least one force-introduction-point (FIP) of the AB such that the force introduction point is mechanically decoupled from the BFGE. A guide device at least partly surrounds the transmission element, and guides and positions the TE on the FIP of the AB.

Abstract: An electromagnetic-actuator having a coil-assembly (CA) with a coil-core (CC) and a coil arranged about the CC circumference and a movable-magnetic-armature-body (MMAB) as a movable-actuator-element (MAE) which is movable by a magnetic-field generated by the CA, the AB being mounted by a bearing-assembly (BA) and movable from a first/second position. The BA has depressions in a first-bearing-section formed on the AB, the depressions being integrated into the AB and being formed in the shape of depressions mutually spaced in the direction of a bearing-axis (BA) of the AB and have an at least partly cylindrical bowl-like shape, and elevations in a second bearing-section formed on the actuator on the CA side, the elevations being formed in the shape elevations which are mutually spaced in the direction of the BA of the AB and have an at least partly cylindrical shape and each of which engages into one of the depressions.

Abstract: An electromagnetic device including: a magnetic core with a longitudinal axis, which magnetic core has a first region and a second region; a coil body arranged circumferentially around the second region of the magnetic core and has at least one receiving region for receiving at least one coil winding of a coil; and a housing made of a magnetic material, which housing circumferentially surrounds the magnetic core and the coil body and has at least one contact region in which the housing surrounds/contacts the magnetic core. The first region of the magnetic core has at least one bulge on a surface of the magnetic core facing the contact region of the housing, the bulge being configured such that the magnetic core does not contact the housing in a portion along the longitudinal axis between the bulge and the second region.

Abstract: A plate armature damping device for a tilting armature valve includes at least one damping body which can be fixed to a plate armature, with at least one damping material which, on an impact movement of the plate armature in the direction of a counter-element, is elastically deformable on impact on the counter-element. The at least one damping body has a geometric contour including at least one bulge on a surface of the at least one damping body facing the counter-element, which is configured such that, on the impact movement of the plate armature, the volume of the at least one damping body contributing to the damping increases.

Abstract: A plate armature damping device for a tilting armature valve includes at least one damping body which can be fixed to a plate armature, with at least one damping material which, on an impact movement of the plate armature in the direction of a counter-element, is elastically deformable on impact on the counter-element. The at least one damping body has a geometric contour including at least one bulge on a surface of the at least one damping body facing the counter-element, which is configured such that, on the impact movement of the plate armature, the volume of the at least one damping body contributing to the damping increases.

Abstract: A solenoid valve apparatus for a brake system for a vehicle, including: a main valve unit; a pilot-control valve unit that is fluidically connected to the main valve unit; and a housing to accommodate at least the main valve unit and the pilot-control valve unit; in which the pilot-control valve unit includes a double solenoid unit and at least one valve device, in which the double solenoid unit is formed such that it can be populated with at least one valve device, and in which the double solenoid unit has at least two accommodating portions for accommodating valve devices and at least two solenoid devices for actuating valve devices. Also described are a related braking system and a related method for mounting a solenoid valve assembly for a braking system for a vehicle.

Abstract: A pilot-controlled valve having a valve system switches a pressure medium flow between at least one working connection, a supply pressure connection and a ventilation connection, and includes at least one valve member of ceramic material operated rotationally/linearly by pilot control, at least one connecting channel is bringable into flow connection to the working connection, which, based on the valve member's position, produces a flow connection of the working connection to a first flow channel connected to the ventilation connection or to a second flow channel that is connected to the supply pressure connection, at least one section of the first and second flow channels being in at least one static valve body of ceramic material, at least the first flow channel is sealed from the second flow channel by at least one seal that is in a region outside a direct inflow by the pressure medium.

Abstract: An electromagnetic pressure control module for a pressure-medium-actuated brake system of a motor vehicle, having at least two channels, the module being controlled electrically in undisrupted operation and pneumatically in the event of a fault in the electrics, and also from a method for operating the electropneumatic pressure control module.

Abstract: An electromagnetic pressure control module for a pressure-medium-actuated brake system of a motor vehicle, having at least two channels, the module being controlled electrically in undisrupted operation and pneumatically in the event of a fault in the electrics, and also from a method for operating the electropneumatic pressure control module.

Abstract: A pilot-controlled valve, having a valve system which switches a pressure medium flow between at least one working connection, a supply pressure connection and a ventilation connection.

Abstract: An internal combustion engine having one injection valve (3) per cylinder and at least one additional port injector (5) for injecting fuel into combustion air which is fed to the cylinders (2) in the intake tract (4). The port injector (5) havs two supply inlets (10, 11) which can be closed off. A control unit (8) determines the quantity of fuel which is to be delivered as a function of the operating state of the internal combustion engine (1). Separately provided starting fuel is delivered by the port injector (5) during the warm-up phase of the internal combustion engine.

Abstract: An internal combustion engine having one injection valve (3) per cylinder and at least one additional port injector (5) for injecting fuel into combustion air which is fed to the cylinders (2) in the intake tract (4). The port injector (5) havs two supply inlets (10, 11) which can be closed off. A control unit (8) determines the quantity of fuel which is to be delivered as a function of the operating state of the internal combustion engine (1). Separately provided starting fuel is delivered by the port injector (5) during the warm-up phase of the internal combustion engine.

Abstract: A method and control apparatus for the correction of a mathematically determined torque in the drive train of a motor vehicle, in which a recognition signal for distinguishing between automatic and manual transmissions is produced and motor and transmission operating states (selected in accord with the recognition signal) in which the actual torque applied to the crankshaft is equal to zero are established. When the motor and transmission operating states are reached, the mathematically determined torque associated with the operating states is compared to the actual (zero) torque, and the difference between the mathematically determined torque and the actual torque is used as a control factor for the correction of additional computed torques.