A speaker system includes a first panel, a second panel, a third panel, a speaker unit, and a sound absorber. The first panel is an outer panel constituting a part of a vehicle door of a vehicle having a compartment. The second panel constitutes a part of the vehicle door and is situated closer to the compartment than the first panel and has an opening. The third panel constitutes a part of the vehicle door and resides between the first panel and the second panel. The speaker unit overlaps the opening in a plan view when viewed from the compartment along a central axis of the speaker unit and outputs sound toward the compartment. The sound absorber is arranged at a location corresponding to an anti-node of particle velocity in a standing wave generated in a space defined between the speaker unit and the first panel.

A trim element for a pillar of a body of a motor vehicle is described, in particular for an A pillar, having a main body; an outer side of the main body, which faces toward a vehicle interior in an installed state of the trim element on the pillar, an inner side of the main body, which faces toward the body in an installed state of the trim element on the pillar, a textile element covering the outer side having multiple edge sections folded over onto the inner side, and a bending section, which is formed in the main body, extending essentially along the longitudinal direction of the trim element; and a pivoting section of the main body extending along the bending section.

A functional interior trim part for a vehicle is disclosed. The trim part includes a layered structure having at least a base support, a functional layer and a haptic layer. The functional interior trim part includes an electrical shielding layer. The electrical shielding layer leads to a selective sensor field expression in the direction of an operating half-space. The electrical shielding layer is arranged on a side of the functional layer facing away from the haptic layer. A method for manufacturing the interior trim part is also disclosed.

A functional interior trim part for a vehicle is disclosed. The trim part includes a layered structure having at least a base support, a functional layer and a haptic layer. The functional interior trim part includes an electrical shielding layer. The electrical shielding layer leads to a selective sensor field expression in the direction of an operating half-space. The electrical shielding layer is arranged on a side of the functional layer facing away from the haptic layer. A method for manufacturing the interior trim part is also disclosed.

A fiber-reinforced polymer composite assembly, that includes a plurality of sheets, each formed from a composite mixture including a fibrous material and a resin, wherein each of the first plurality of sheets are cut to one or more predetermined dimensions. The plurality of sheets are configured to form a stack, and wherein the stack is shaped by positioning the stack on a mold and pressing and consolidating/curing the stack to form a doubly-curved geometric shape. An insert may be positioned between the plurality of sheets, prior to the pressing and consolidating/curing, wherein the fibrous material may in include paper, and wherein the resin includes one of a thermoset resin or a thermoplastic resin.

Method for fixing a glass interior trim element into a motor vehicle. The invention relates to method for fixing a glass trim element into a motor vehicle's interior characterized in that the method comprises a step of fixation of the glass element to a support to provide an assembly that is integrated to motor vehicle's interior body.

A module trim element having a body defining an upper bearing surface, at least one first covering element defining a first upper bearing surface, mounted rotating about a first axis of rotation between a retracted position and at least one deployed position, and at least one second covering element defining a second upper bearing surface and mounted rotating about a second axis of rotation between a retracted position and at least one deployed position. The first axis of rotation and the second axis of rotation are substantially parallel and extend at different heights relative to the body, with at least one of the upper bearing surfaces being a flexible surface and at least another one of the upper bearing surfaces being a rigid surface.

An adjustment assembly for use in a vehicle, including an adjustable part configured to move between an open position and a closed with respect to a vehicle body. The adjustable part may include an outer side and an inner side. At least a portion of the adjustable part may define an opening extending between the outer side and the inner side. The adjustment assembly may include an ultrasonic transmitter, disposed on either the adjustable part or the vehicle body and may be configured to emit a number of ultrasonic waves to an obstacle, and an ultrasonic receiver disposed on the inner side of the adjustable part and configured to receive the ultrasonic waves reflected from the obstacle through the opening.

An adjustment assembly for use in a vehicle, including an adjustable part configured to move between an open position and a closed with respect to a vehicle body. The adjustable part may include an outer side and an inner side. At least a portion of the adjustable part may define an opening extending between the outer side and the inner side. The adjustment assembly may include an ultrasonic transmitter, disposed on either the adjustable part or the vehicle body and may be configured to emit a number of ultrasonic waves to an obstacle, and an ultrasonic receiver disposed on the inner side of the adjustable part and configured to receive the ultrasonic waves reflected from the obstacle through the opening.

A molded body, comprising a resin and cells, the cells having an average diameter of from 0.03 mm to 0.13 mm, and a number per unit area of the cells at a cross-section of the molded body being no less than 20 cells/mm.sup.2.