A method for operating a hybrid electric vehicle and hybrid electric vehicle are provided. The vehicle includes an internal combustion engine and an electric engine, which are operated by an electric controller, and a telecommunication system is communicatively coupled to the electric controller. The method includes determining if a telecommunication session is initiated or ongoing by the telecommunication system based on communication data provided by the telecommunication system to the electric controller. A current driving condition of the vehicle is determined based on driving data obtained by the electric controller to determine if an electric driving mode of the hybrid electric vehicle is feasible for the current driving condition. The hybrid electric vehicle is operated in the electric driving mode during the telecommunication session while the electric driving mode is feasible.

The present disclosure relates to a seat rail for a vehicle having a lever shaft configured to be integrally combined with bracket flanges, whereby shaking of a release lever in the forward/backward and leftward/rightward directions may be reduced. When the release lever is rotated in a restoring direction thereof by an elastic force of a lever spring, lever flanges make contact with a locking mounting bracket and a restoring rotation of the release lever stops. In addition, an end portion of the lever spring may be held by and fixed to the release lever so as to improve operability of a locking pin.

The speed of a motor vehicle causes the production of an air flow which can produce disturbing noises at edges of motor vehicle components. To provide a motor vehicle in which disturbing noises due to the air flow when travelling are avoided, at least one spoiler element is provided, or in that a plurality of spoiler elements are provided. The respectively present number of spoiler elements is formed upstream and/or downstream of at least one existing edge of the particular component acted upon by the air flow. The number of spoiler elements is arranged and/or shaped in such a manner that the air flow striking against the respective spoiler elements is dispersed non-uniformly.

The present invention relates to a composite of a multilayer structure comprising a polyester foam and a polyester resin layer, and a use thereof. A polyester composite according to the present invention provides a composite which is capable of improving a working environment, improves durability and strength and has light weight; is easy to reuse; and can be variously utilized for different uses such as a vehicle interior or exterior material or building insulation materials.

The present invention relates to an attachment mechanism, a gearshift lever housing, a force transmitting element, a shift device, and a method for attaching a shift device, which reduce a system noise that is transmitted from an engine compartment into a motor vehicle interior space. The attachment mechanism comprises an aperture for receiving the gearshift lever device, a bearing surface section at least partially encompassing the aperture, for bearing on a bearing element, a sealant receiver disposed in the bearing surface section, and a mount for supporting a section of a force transmitting device, by means of which the gearshift lever device can be connected to a motor vehicle transmission device in a shift-effecting manner, wherein the mount is disposed on a side of the bearing surface section facing away from the sealant receiver. The attachment mechanism is distinguished in that the sealant receiver is disposed such that it at least partially overlaps a support region delimited by the mount in terms of its cross section.

A hydraulic engine mount may include a nozzle plate including upper and lower nozzle plates, wherein each of the upper and lower nozzle plates may include a rim having an annular shape and forming a peripheral portion of the nozzle plate, a hub disposed at a central portion of the nozzle plate, and ribs connecting the rim and the hub while close contacting and supporting the membrane, and wherein the contact area between each rib of the upper nozzle plate and the membrane differs from the contact area between each rib of the lower nozzle plate and the membrane.

A hybrid vehicle driving system includes: a generator; a motor; a case which accommodates the generator and the motor; and a power control unit for controlling the generator and the motor, the generator and the motor being disposed side by side on a same axis within the case. The power control unit is mounted on the case by connecting a unit-side generator connector and a unit-side motor connector which are provided on a bottom surface of the power control unit with a case-side generator connector and a case-side motor connector which are disposed on the case, directly and respectively. The case is fixed to a vehicle framework member via a mount member, and a fixing point where the case and the mount member are fixed together is disposed near the case-side generator connector and the case-side motor connector.

A vehicle drive device includes an electric motor that is configured to drive a vehicle, a case that houses therein the electric motor and a lubricating oil storage unit that stores lubricating oil, and a soundproof material that covers one side portion of the case. The one side portion of the case has a through hole through which a shaft member is inserted. An outer surface of the soundproof material is covered with a cover member. The cover member includes a partition wall portion that blocks a space between an opening of the through hole and the soundproof material.

A rotary electric machine unit includes a rotary electric machine, a case accommodating the rotary electric machine, a power control unit configured to control the rotary electric machine and mounted on the case by directly connecting a unit-side connector provided on a bottom surface of the power control unit to a case-side connector provided on an upper surface of the case; and a sound absorbing member provided between the upper surface of the case and the bottom surface of the power control unit.

A system for dampening vibrations in a vehicle is provided. The system includes a first heat exchanger core having a first plurality of fins, and a second heat exchanger core having a second plurality of fins. A vibration dampener is connected to the first and second heat exchanger cores. The vibration dampener extends through the first plurality of fins and through the second plurality of fins, while spanning the gap between the first and second heat exchanger cores. To accommodate the vibration dampener passing thorough the fins, the fins may be formed to define an enlarged aperture at a location where the vibration dampener passes through.