The invention relates to a pressurized gas tank receiving assembly (1) for a motor vehicle (100) for cooling pressurized gas tanks (10), wherein the pressurized gas tank receiving assembly (1) comprises: a) a main body (20) with a plurality of supporting surfaces (22) in the form of channels for receiving the pressurized gas tank (10), wherein the main body (20) is thermally conductive and has a mounting interface (26) for arrangement on a counter mounting interface (126) of a body (120) of the motor vehicle (100), wherein the main body (20) has thermally conducting surfaces (24) for thermally communicating connection to the body (120), b) pressurized gas tanks (10) for storing gas under high pressure, wherein the pressurized gas tanks (10) are thermally conductive and are interlockingly received on the supporting surfaces (22) of the main body (20), which supporting surfaces are in the form of channels, for thermal communication with the main body (20).

An assembly for mounting at least one component in a tank for a motor vehicle, the tank including a wall portion and an attachment portion projecting outward from the wall portion, the attachment portion defining an opening in the wall portion, the assembly including: a mounting module configured to carry the at least one component and to close the opening in the wall portion; the mounting module including an outer side configured to be accessible from outside the tank; at least one connector arranged on the outer side of the mounting module, the at least one connector being connected to the at least one component; a clamp configured to clamp the mounting module to the attachment portion; and a cover attached to the clamp and covering at least partially the at least one connector.

A fuel tank apparatus is disposed above an engine. The fuel tank apparatus includes a fuel tank in which fuel is stored and a fuel pump coupled to the bottom of the fuel tank. A heat-shield cover that covers a portion of the fuel pump, which portion is exposed from the fuel tank, to shield the portion from heat of the engine is mounted on a coupling portion between the fuel pump and the fuel tank.

A baffle clip shield for protecting a clip attaching a baffle to a fuel tank to protect the fuel tank from heat from an exhaust chamber located near the fuel tank is disclosed. The clip shield includes a spring foot extending from the rear side of the clip shield, the spring foot having a hook distal end that is pushed radially inward by the inclined wall as the clip shield is installed, the hook distal end of the spring foot being insertable into a hole in the inclined wall of the clip receiving portion, the hook distal end moving radially outward when installed in the hold, the hook distal end creating an interference fit with the inclined wall to prevent removal of the clip shield.

A natural gas filling system for a vehicle includes a piping system defining a first flow path, a receptacle, a tank, and a cooling circuit. The piping system includes a first end and a second end. The receptacle is coupled to the first end of the piping system, and the receptacle is configured to engage a natural gas filling station. The tank is in fluid communication with the receptacle and is configured to store a natural gas supply. The cooling circuit defines a second flow path and includes an expansion valve configured to reduce a pressure of a secondary fluid flow. The second flow path is in thermal communication with the first flow path such that heat transfer from the piping system into the cooling circuit cools the natural gas flowing between the receptacle and the tank.

A method for welding a heat shield during manufacturing of a vehicle component made from a thermoplastic material. The heat shield includes: a reinforcement layer made from a thermoplastic material which is weldable to the thermoplastic material of the vehicle component; and a heat shielding material that differs from the thermoplastic material of the reinforcement layer and is configured to decrease transfer of heat through the reinforcement layer to the vehicle component. The method includes: heating the heat shield to bring the thermoplastic material of the reinforcement layer in a molten state; placing the heated heat shield in a mold; bringing into the mold the thermoplastic material of the vehicle component in a molten state; welding the thermoplastic material of the reinforcement layer being in a molten state to the thermoplastic material of the vehicle component being in a molten state, by blow molding the vehicle component in the mold.

A heat shield for a motor vehicle includes an elongated planar shield body for separating an exhaust pipe and a fuel tank of the motor vehicle, the shield body extending longitudinally along a longitudinal axis between the exhaust pipe and the fuel tank, the shield body having a generally concave surface extending from the axis to first and second vertical walls along first and second edges of the shield body, a forward attachment portion for attaching the shield body to a frame of the motor vehicle longitudinally forward of the fuel tank, a rearward attachment portion for attaching the shield body to the frame of the motor vehicle longitudinally rearward of the fuel tank, and a water escape port in the first vertical wall.

A hybrid vehicle having an electric drive with an energy storage device for the electric drive, and an internal combustion engine, and a tank device having a tank for storing fuel for the internal combustion engine. The hybrid vehicle further includes a cooling circuit, extending through the tank, having a circulating cooling medium to cool the energy storage device and also cool the fuel in the tank.

A hybrid vehicle having an electric drive with an energy storage device for the electric drive, and an internal combustion engine, and a tank device having a tank for storing fuel for the internal combustion engine. The hybrid vehicle further includes a cooling circuit, extending through the tank, having a circulating cooling medium to cool the energy storage device and also cool the fuel in the tank.

A high pressure container unit includes a container body configured to store high pressure gas, a case storing the container body inside the case, a pipe connected with the container body and extending to an outside of the case, a closing member that is configured to close the pipe and allow the high pressure gas stored in the container body to be discharged from the pipe when a given condition is satisfied, and a ventilation mechanism that discharges air inside the case to the outside of the case with use of pressure of the discharged high pressure gas when the given condition is satisfied.