A fuel tank includes a tank body and a built-in component, which has a head portion, a neck portion, and a shoulder portion, the built-in component being anchored to the tank body with a parison wrapped around the neck portion during molding of the tank body. The head portion and the neck portion are formed with at least one hollowed portion, which is open to an end surface of the head portion, and a cap member is provided to seal an opening of the at least one hollowed portion.

A method of making a polymeric engine hood assembly for use in a vehicle can include applying heat to a first polymeric sheet, applying heat to a second polymeric sheet, stacking the first polymeric sheet and the second polymeric sheet, placing the stacked sheets between a first mold half and a second mold half, closing the first mold half and second mold half, applying vacuum to the space between the first polymeric sheet and the first mold half and between the second polymeric sheet and the second mold half, wherein the first polymeric sheet forms an exterior panel and wherein the second polymeric sheet forms a reinforcing structure; and attaching an exterior panel to a fender skin at a junction surface, wherein the reinforcing structure includes a connecting ridge extending transversely across the reinforcing structure, wherein the connecting ridge is configured to accept the junction surface of the exterior panel and the feeder skin.

An exterior trim for a motor vehicle has a body that forms a surface of the exterior trim. The body has an exterior surface and an interior surface, and defines a recess or cut-out. The body has a single undulating wall formed on the interior surface of the body substantially perpendicular to a plane defined by the body, and the single undulating wall at least partially surrounds the recess or cut-out. The exterior trim also includes a human-machine interface (HMI) device disposed at least partially within the recess or cut-out of the body. The HMI device may be used to externally control certain features of the motor vehicle.

A polyolefin resin composition, containing: a polyolefin resin; and cellulose microfibrils, in which a content of the cellulose microfibrils is 0.5 to 20 parts by mass, with respect to 100 parts by mass of an entire resin component in the polyolefin resin composition, a molded article and a back door for a vehicle.

Polyoxymethylene polymer compositions and molded articles made from the composition are disclosed that are fuel resistant, particularly diesel fuel resistant, and resistant to highly acidic solutions. The polymer composition contains a polyoxymethylene polymer generally in an amount from about 90% to about 95% by weight. In addition, the polymer composition contains an add neutralizing agent and a plasticizer at a weight ratio that has been found to significantly improve the add resistant properties of the composition.

An automotive exhaust system isolator including an elastomeric body. The elastomeric body includes a central member having a through hole for inserting a pin of an exhaust system, and a peripheral member being configured to be coupled to a vehicle body, which surrounds the central member and is connected to the central member. The elastomeric body further includes two support arms having a first end and a second end, the first and second ends of the respective support arms being joined to the peripheral member, and the central member being connected to the two support arms by means of respective lateral bridges, so that, in use, the first ends of the support arms are positioned in an upper part of the peripheral member and the second ends are positioned in a lower part of the peripheral member, the central member being positioned between both support arms.

A fuel tank includes a tank body and a built-in component, which has a head portion, a neck portion, and a shoulder portion, the built-in component being anchored to the tank body with a parison wrapped around the neck portion during molding of the tank body. The head portion and the neck portion are formed with at least one hollowed portion, which is open to an end surface of the head portion, and a cap member is provided to seal an opening of the at least one hollowed portion.

A roof module for a motor vehicle comprises an RTM frame and a Class-A covering layer, which at least partially covers the frame and is made of polyurethane. A method for manufacturing a roof module comprises the following steps: Initially, a fiber mat is put into a first mold. Then, a reactive resin system is introduced into the closed mold and the resin cures, so that a blank is formed. The blank is put into a second mold, into which subsequently polyurethane is introduced in the open condition. The polyurethane expands, wherein it at least partially forms a Class-A surface.

An auxiliary sun visor that attaches to an existing vehicle sun visor assembly which allows the auxiliary visor to act as a front facing sun block while the standard vehicle visor can be swung ninety degrees to block sun coming in from the side window. A hook assembly on one side of the auxiliary visor snaps onto the existing hinge post of the standard vehicle visor. A crescent shaped member of the auxiliary sun visor is trapped inside the standard visor's receiver hook, behind the tubular shaped end portion of the standard visor. The auxiliary visor is adjustable lengthwise to accommodate different vehicle visor sizes. A spring steel member holds the sun blocking panel of the auxiliary visor in the upward, upward position when not in use.

Provided is a resin pedal arm of which strength is further improved. A resin pedal arm 10 includes a hollow arm body 20. The arm body 20 includes a front wall portion 30, a rear wall portion 32 facing the front wall portion 30, a left wall portion 34 formed between left edges 30A, 32A of the front wall portion 30 and the rear wall portion 32 and having multiple first flat plate portions 38 arranged to bridge between the left edges 30A, 32A, and a right wall portion 36 formed between right edges 30B, 32B of the front wall portion 30 and the rear wall portion 32, having multiple second flat plate portions 40 arranged to bridge between the right edges 30B, 32B, and facing the left wall portion 34. The multiple second flat plate portions 40 are each present in multiple left opening areas S1 each provided between adjacent ones of the multiple first flat plate portions 38, as viewed in a direction in which the left wall portion 34 and the right wall portion 36 face each other.