Abstract: A charging apparatus for charging a battery of an electrically operable vehicle includes a plug element, a base element, and adjusting facility. The plug element is connectable to a corresponding, vehicle-side plug element of the motor vehicle and via which electrical energy is transferrable to the motor vehicle so as to charge the battery. The base element is connected to a current source and provides electrical energy from the current source for the plug element. Via the adjusting facility the plug element is movable relative to the base element in order to connect the plug element to the vehicle-side plug element, and via which an electrical connection is provided between the base element and the plug element. The adjusting facility has an overload protection via which the base element is electrically separated from the plug element in the event of a predetermined mechanical maximal load being exceeded.

Abstract: A hybrid drive device includes an internal combustion engine, an electric machine and an impulse start module which comprises two clutches and a flywheel mass. A method for operating the hybrid device includes opening the first clutch of the impulse-start module and establishing a start-up requirement for the internal-combustion engine. The method also includes closing the first clutch with the second clutch in an open or closed position for a start of the internal-combustion engine.

Abstract: Charging robots can automatically move and connect a plug to a vehicle-side socket connector such that a battery of the vehicle can be conductively charged. A motor vehicle is provided with an electric contacting unit with electric contacts which are protected against soiling and spray water. The electric contacting unit is rigidly connected to the motor vehicle for electrically contacting an external charging cable. The contacting unit includes at least electric contacts and a movable cover that can be moved between a protective position, in which the cover covers the electric contacts and protects same against soiling and/or water, and a charging position, in which the electric contacts can be accessed from the vehicle surroundings.

Abstract: A motor vehicle has an electrical contact-making unit, which is fixed to the vehicle, for making electrical contact with an external charging cable. The contact-making unit includes electrical contacts and a movable cover which can be moved between a protective position, in which the cover covers the electrical contacts and thereby protects them against soiling and/or water, and a charging position, in which the electrical contacts are accessible from the area surrounding the vehicle. The cover here is cuboidal and in the protective position it at least partially surrounds the electrical contacts. In the charging position, the cover is located next to the electrical contacts, wherein the cover can be moved between the charging position and the protective position in a manner operated by external force.

Abstract: A hybrid drive transmission unit for a vehicle with an internal combustion engine and an electric motor for the drive part, includes a power-split transmission with sub-transmissions and a torsion-damping unit with a gyrating mass interconnected between the internal combustion engine and the power-split transmission. A clutch is interconnected between the internal combustion engine and the torsion-damping unit, by which the internal combustion engine can be activated, switching from the electromotive operating mode.

Abstract: A device (1) for conductive charging, having a vehicle unit (2) that is fixedly mounted on a vehicle, and a stationary, but moveably mounted robot unit (3), wherein: the vehicle unit (2) can be operatively connected to the robot unit (3) in order to carry out the charging process; the two units (2, 3) each have a housing (4, 10) in which associated contact elements (5, 11) are disposed; in the robot unit (3), the contact elements (5) are recessed in the housing (4) of the robot unit (3); the contact elements (11) in the housing (10) of the vehicle unit (2) are fixed in place; and the vehicle unit (2) has a centering cone (24) and the robot unit (3) has a mating cone (25), or vice versa, as centering means which can be mutually operatively connected, characterised in that the tapering angles of the centering cone (24) and of the mating cone (25) are different.

Abstract: A device (1) for conductive charging, having a vehicle unit (2) that is fixedly mounted on a vehicle, and a stationary, but moveably mounted robot unit (3), wherein: the vehicle unit (2) can be operatively connected to the robot unit (3) in order to carry out the charging process; the two units (2, 3) each have a housing (4, 10) in which associated contact elements (5, 11) are disposed; in the robot unit (3), the contact elements (5) are recessed in the housing (4) of the robot unit (3); and the contact elements (11) in the housing (10) of the vehicle unit (2) are fixed in place, characterised in that provided on the vehicle unit (2) is a contact engagement guard (12) which can be moved relative to the housing (10) of the vehicle unit (2) and by means of which the contact elements (11) of the vehicle unit (2) are protected or exposed.

Abstract: A device (1) for conductive charging, having a vehicle unit (2) that is fixedly mounted on a vehicle, and a stationary, but moveably mounted robot unit (3), wherein: the vehicle unit (2) can be operatively connected to the robot unit (3) in order to carry out the charging process; the two units (2, 3) each have a housing (4, 10) in which associated contact elements (5, 11) are disposed; in the robot unit (3), the contact elements (5) are recessed in the housing (4) of the robot unit (3); and the contact elements (11) in the housing (10) of the vehicle unit (2) are fixed in place, characterised in that the at least one contact element (5) of the robot unit (3) has a base (7), from which a cylindrical portion (8) and a contact tab (6) project, and the at least one contact element (11) of the vehicle unit (2) has a base (18), from which at least one contact spring (20) and a contact tab (19) project.

Abstract: A charging apparatus for charging a battery of an electrically operable vehicle includes a plug element, a base element, and adjusting facility. The plug element is connectable to a corresponding, vehicle-side plug element of the motor vehicle and via which electrical energy is transferrable to the motor vehicle so as to charge the battery. The base element is connected to a current source and provides electrical energy from the current source for the plug element. Via the adjusting facility the plug element is movable relative to the base element in order to connect the plug element to the vehicle-side plug element, and via which an electrical connection is provided between the base element and the plug element. The adjusting facility has an overload protection via which the base element is electrically separated from the plug element in the event of a predetermined mechanical maximal load being exceeded.

Abstract: Charging robots can automatically move and connect a plug to a vehicle-side socket connector such that a battery of the vehicle can be conductively charged. A motor vehicle is provided with an electric contacting unit with electric contacts which are protected against soiling and spray water. The electric contacting unit is rigidly connected to the motor vehicle for electrically contacting an external charging cable. The contacting unit includes at least electric contacts and a movable cover that can be moved between a protective position, in which the cover covers the electric contacts and protects same against soiling and/or water, and a charging position, in which the electric contacts can be accessed from the vehicle surroundings.

Abstract: A drive apparatus for a hybrid vehicle has an internal combustion engine, which has a crankshaft for outputting a drive power, and a torsional vibration reduction device, which is designed to reduce torsional vibrations and to transfer drive power from the crankshaft in the direction of a drivable wheel of the motor vehicle. A clutch device has a clutch input side, a clutch output side, a form-fit clutch and a frictional clutch. The torque transfer from the clutch input side to the clutch output side and thus from the crankshaft to the drivable wheel can be selectively produced, wherein the torque transition from the clutch input side to the clutch output side is enabled as soon as at least one of the two clutches is closed. The torsional vibration reduction device is arranged after the clutch device, relative to the torque transmission from the crankshaft in the direction of the drivable wheel.

Abstract: A plug-in system for a wired charging process for charging an electrical energy store of an at least partially electrically operated device includes a charging socket positioned on the electrically operated device. The plug-in system has a charging device with a charging plug which can be extended towards the charging socket using a translational movement. The charging socket has a cover for protecting contact parts of the charging socket from environmental influences. The charging plug is designed to produce, as a result of the translational movement, one or more reclosable contact part openings in the cover, through which openings contact parts of the charging plug can be guided during the translational movement in order to form pairs of galvanically conductive connections to the corresponding contact parts of the charging socket.

Abstract: A drive system for a hybrid vehicle and a method of operation of the drive system are provided. The drive system includes an internal combustion engine having a shaft, a vehicle transmission having a transmission input shaft and an output shaft, a transmission clutch between the transmission input and output shafts, an inertia-mass drive unit arranged between the internal combustion engine shaft and the transmission input shaft, a first clutch between the internal combustion engine shaft and inertia-mass drive unit and a second clutch between the inertia-mass drive unit and the transmission input shaft; and an electrical machine torque-transmittingly connected to the transmission input shaft. The inertia-mass drive unit may include rotational oscillation reduction device.

Abstract: A hybrid drive device includes an internal combustion engine, an electric machine and an impulse start module which comprises two clutches and a flywheel mass. A method for operating the hybrid device includes opening the first clutch of the impulse-start module and establishing a start-up requirement for the internal-combustion engine. The method also includes closing the first clutch with the second clutch in an open or closed position for a start of the internal-combustion engine.

Abstract: A hybrid drive transmission unit for a vehicle with an internal combustion engine and an electric motor for the drive part, includes a power-split transmission with sub-transmissions and a torsion-damping unit with a gyrating mass interconnected between the internal combustion engine and the power-split transmission. A clutch is interconnected between the internal combustion engine and the torsion-damping unit, by which the internal combustion engine can be activated, switching from the electromotive operating mode.

Abstract: A drive apparatus for a hybrid vehicle has an internal combustion engine, which has a crankshaft for outputting a drive power, and a torsional vibration reduction device, which is designed to reduce torsional vibrations and to transfer drive power from the crankshaft in the direction of a drivable wheel of the motor vehicle. A clutch device has a clutch input side, a clutch output side, a form-fit clutch and a frictional clutch. The torque transfer from the clutch input side to the clutch output side and thus from the crankshaft to the drivable wheel can be selectively produced, wherein the torque transition from the clutch input side to the clutch output side is enabled as soon as at least one of the two clutches is closed. The torsional vibration reduction device is arranged after the clutch device, relative to the torque transmission from the crankshaft in the direction of the drivable wheel.

Abstract: A drive system for a hybrid vehicle and a method of operation of the drive system are provided. The drive system includes an internal combustion engine having a shaft, a vehicle transmission having a transmission input shaft and an output shaft, a transmission clutch between the transmission input and output shafts, an inertia-mass drive unit arranged between the internal combustion engine shaft and the transmission input shaft, a first clutch between the internal combustion engine shaft and inertia-mass drive unit and a second clutch between the inertia-mass drive unit and the transmission input shaft; and an electrical machine torque-transmittingly connected to the transmission input shaft. The inertia-mass drive unit may include rotational oscillation reduction device.

Abstract: A mounting device is provided for oscillatingly mounting a range extender, which consists of an internal combustion engine and a generator, on a body and/or a chassis of a motor vehicle by way of vibration-damping elements. At least two of the vibration-damping elements are integrated in load-carrying bearings and one additional one is integrated in a supporting bearing for supporting moments. The mounting device is characterized in that the vibration-damping elements of the mounting device at least for the load-carrying bearings are secured to the range extender, i.e. a first vibration-damping element is secured to the internal combustion engine and a second vibration-damping element is secured to the generator.

Abstract: The invention relates to a torque overlay device for use in a hybrid drive system for motor vehicles having an internal combustion engine, an electric motor and the torque overlay device, wherein a torque of the internal combustion engine and of the electric motor are overlaid using the torque overlay device. The torque overlay device is connected, on the output side, to a driven element of the vehicle, and includes a first and a second torque input and a torque output, as well as a first transmission device and a second transmission device. The electric motor can be coupled to the first torque input in a torque-resistant manner, and the internal combustion engine can be coupled to the second torque input in a torque resistant manner, where the first torque input is connected to the first transmission device and the second torque input is connected to the second transmission device, both in a torque-resistant manner.

Abstract: A mounting device is provided for oscillatingly mounting a range extender, which consists of an internal combustion engine and a generator, on a body and/or a chassis of a motor vehicle by way of vibration-damping elements. At least two of the vibration-damping elements are integrated in load-carrying bearings and one additional one is integrated in a supporting bearing for supporting moments. The mounting device is characterized in that the vibration-damping elements of the mounting device at least for the load-carrying bearings are secured to the range extender, i.e. a first vibration-damping element is secured to the internal combustion engine and a second vibration-damping element is secured to the generator.