A bedside holster assembly is configured with a backing having a flap portion and hanging portion. The flap portion is positionable under a mattress of a bed, and the hanging portion is adaptable to hanging downwardly along the side of the bed. A holster is secured to the hanging portion of the backing, the holster being adaptable to holding a handgun.

A grommet has a body that includes a longitudinal axis and has a passageway therein. The grommet further includes a collar and a box prong. The collar extends from the body and away from the longitudinal axis. The box prong extends at least partially around the body. The grommet also includes a plurality of openings that extend through at least the box prong.

A magnet holder insert comprising a magnet and magnet holder housing designed with internal wall features capable of keeping the magnet properly positioned in the holder device, and external wall features capable of keeping the magnet holder device securely mounted in the finished part. The internal and external fastening elements of the magnet holder housing are designed in such a way as to promote rapid and secure assembly of both the magnet device and the finished part. The exposed surface of the magnet holder device can be configured with flat or dome shaped exposed contact surfaces, depending on how secure or flexible the magnetic joining feature is intended, capable of attaching to another magnet device or a material susceptible to magnetic attraction.

Disclosed is a tolerance compensator for joining materials that are spaced apart from one another. The tolerance compensator includes a base, a compensation member, a first flange portion, a first tree fastener, a second flange portion, and a second tree fastener. The compensation member is slidably engaged with the base and disposed at least partially within a cavity defined by the base. The first flange portion and the second flange portion are coupled to the base and extend radially outwardly from the base. The first tree fastener extends away from the first flange portion. The second tree fastener extends away from the second flange portion. Each of the first tree fastener and the second tree fastener include a body and a plurality of ribs extending outwardly therefrom.

A screw includes a head having and a stem with spaced apart threads. The thread of the thread of the screw includes flat spots and sloped section, and is sized, such that it can securing attach through a hole in the pegboard without damaging the hole despite the thread being wider than the hole.

A tree fastener assembly includes a cap, a base, a strap that connects the cap with the base, and a stem that extends from the base. A plurality of first wings extend radially outward from the stem.

Disclosed are systems and methods for coupling a first panel to a second panel via a fastener. The fastener having a cap, a shank, pair of wings, and one or more PIA-retention features. The shank defines a central longitudinal axis that is substantially perpendicular to the cap. The pair of wings is resiliently coupled to the shank at a distal end thereof. The pair of wings includes a first wing and a second wing, each angled away from the central longitudinal axis. In some examples, the one or more PIA-retention features can be a pair of whiskers resiliently coupled to the shank and angled away from the central longitudinal axis. Each of the pair of whiskers is substantially perpendicular to the central longitudinal axis. In other examples, the one or more PIA-retention features include a first fin resiliently coupled to and angled away from the first wing and a second fin resiliently coupled to and angled away from the second wing. The first fin and the second fin can retain the fastener relative to the first panel.

A connection assembly includes first and second components joinable along an axis of relative movement, starting from a separated disassembled state, into an interconnected assembled state, and transferable back into the disassembled state. The first component has a latching element and the second component has a latching element receptacle which cooperates with latching portions of the latching element in the assembled state. The latching portions are offset relative to each other when viewed in a circumferential direction, and are each movable along a movement path starting from a non-deformed rest state. A first portion of the movement path points in a disassembly direction, and a second portion of the movement path points in an assembly direction opposite the disassembly direction. The first portion of the movement path is limited by a stop against which the latching element rests in a course of disassembling the components.

A coupling element includes at least one coupling member having a first end and a second end, wherein the coupling member has a flat face on a first side thereof, at least one barb extending in cantilever manner from the flat face and depending away from the first end so as to hinder or prevent the removal of the coupling element from a bore in a surface of a first article into which the coupling member has been inserted from the first end.

The apparatus for fastening a vehicle component in and/or on a vehicle has a sound insulation element with a carrier layer and a sound absorbing layer. An anchoring recess is formed in the carrier layer and has an insertion opening in a first side of the carrier layer, which insertion opening is adjoined by a receiving space which is delimited by the plastic material of the carrier layer and is defined by a closed circumferential inner side and a closed bottom surface. An anchoring element is further provided. The anchoring recess has a constriction area formed on the circumferential inner side and at least partially narrowing the receiving space, with a widened widening area adjoining in the direction of the bottom surface. The anchoring element has an anchoring shoulder for engaging behind the constriction area when the anchoring element is received by the anchoring recess.