A method of securing two components to each other includes locating a mounting strip at a first mounting flange of a first component. The mounting strip is slidably affixed to the first component and includes a plurality of strip openings and a tightening ramp located at each strip opening of the plurality of strip openings. A second component is located such that a second mounting flange of the second component abuts the first mounting flange. A plurality of fasteners are located at the second mounting flange. A fastener of the plurality of fasteners extends through each strip opening of the plurality of strip openings. The mounting strip is slid in a direction to increase tension on the plurality of fasteners via an increasing height of the tightening ramp under a fastener head of the fastener, thereby securing the first mounting flange to the second mounting flange.

An adjustable spacer for adjusting the spacing between two bodies includes a first rotatable indexing mechanism configured to rotate in a first rotational direction; and/or a second rotatable indexing mechanism configured to rotate in a second rotational direction opposite the first rotational direction; wherein rotation of the first rotatable indexing mechanism by a given angular rotation in the first rotational direction changes a length of the adjustable spacer along the rotational axis by a first length, and rotation of the second rotatable indexing mechanism in the second direction by the same given angular rotation about the rotational axis changes the length of the adjustable spacer along the rotational axis by a second length.

A fastening device for fastening an object to a wall includes a fastening element, a bearing element adapted for bearing against the wall, and a holding element configured to hold at least a part of the object. The holding element has a through opening running at least through the holding element and the bearing element for allowing passage of the fastening element. A connecting element constructed as an eccentric connects the bearing element and the holding element to one another. The holding element together with the connecting element and the bearing element form a single-piece fastening unit.

Embodiments of the present disclosure are directed towards an annular bearing retainer ring comprising a first axial surface, wherein the first axial surface is planar, and a second axial surface, wherein the second axial surface is non-planar.

A bicycle component is provided that is capable of suppressing rattling against a frame. The bicycle component includes a housing, a first attaching part and an adjustment member. The housing is configured to rotatably support a crankshaft. The first attaching part is provided to the housing and configured to be attached to a frame. The adjustment member has at least a portion which is configured to be disposed in a gap that is formed between the first attaching part and the frame while in a state in which the first attaching part is attached to the frame.

The invention relates to an apparatus for the compensation of tolerances between components to be screwed to one another, comprising a hollow-cylindrical base element and a hollow-cylindrical compensation element which is in threaded engagement with the base element and which can be moved from a starting position into a compensation position by rotation relative to the base element. The apparatus is characterized in that a fixing means is provided by which the compensation element can be fixed in the compensation position relative to the base element.

A fixing device for fixing of two bodies to each other, for example a panel to a wall or two panels to each other, includes a male element having a support base and an engaging element, the support base having a rear surface for leaning onto one of the two bodies to be connected and a front surface from which the engaging element protrudes; and a female element having a support base with a rear surface for leaning and fixing onto the other body and a receiving channel for receiving the engaging element of the male element so that the engaging element, when inserted into the receiving channel, snaps inside it detachably, thus enabling the releasable coupling of the two bodies. The fixing device is configured for selecting two or more different distances along the axis defined by the rear surfaces of the male and female elements when coupled.

A washer device is disclosed including two annular components each having a main face arranged to contact the main face of the other component. Each main face has surface regions of different levels along an axis of the component, such as a step and/or a helical ramp. Relative rotation of one component with respect to the other about their common axis alters the effective thickness of the washer device. The washer device 1 further includes at least one radial projection on one of the annular components arranged to engage with a corresponding notch on the other annular component such that the annular components may be oriented in predetermined angular positions corresponding to different predetermined effective thicknesses of the washer device.