Abstract: The present invention relates to a linear guide system having: at least a first rail element and a second rail element, the first rail element and the second rail element being mounted linearly displaceably relative to each other in and counter to a extraction direction; an electric motor; an input shaft, the input shaft being operatively coupled to the electric motor such that the electric motor sets the input shaft in rotation during operation of the linear guide system; a linear drive, the linear drive having an output shaft, and the linear drive being designed such that a rotary movement of the output shaft effects a linear movement of the first and second rail elements relative to each other in or counter to the extraction direction; and a clutch, the clutch connecting the input shaft and the output shaft to each other such that the clutch transmits a torque from the input shaft to the output shaft, the clutch being a magnetic clutch.

Abstract: A linear guide system having a first rail element, a second rail element, and a third element. The first rail element and the second rail element are borne such that the first rail element and the second rail element are linearly displaceable in relation to one another in and counter to an extraction direction, and the third element and the first rail element as well as the third element and the second rail element are borne together such that the third element and the first rail element as well as the third element and the second rail element are linearly displaceable in relation to one another in and counter to the extraction direction. The linear guide system in this case additionally includes an electrical conductor.

Abstract: A rolling element cage for positioning a plurality of rolling elements between two rail elements of a telescopic rail or a linear guide which are mounted so as to be movable relative to each other is provided. The rolling element cage is composed or can be composed of two or more module elements which include a base module and one or more extension modules. Each module element has at least two receiving legs, each having one or more openings for receiving rolling elements, and at least one connecting section connecting the two receiving legs, the base module and the one or more extension modules being fixedly or releasably connected or connectable to one another in series in the longitudinal direction of the rolling element cage via fasteners.

Abstract: According to the invention, a telescopic rail is proposed, having a first rail element, a second rail element, a third rail element, and a drive device, wherein the first rail element and the second rail element are mounted together such that the first rail element and the second rail element are linearly displaceable relative to one another in and counter to a pull-out direction, wherein the third rail element and the second rail element are mounted together such that the third rail element and the second rail element are linearly displaceable relative to one another in and counter to the pull-out direction, wherein the drive device is mounted on the first rail element or is mountable on a holding element connectable to the first rail element, wherein the drive device is configured such that, in an operation of the telescopic rail, the drive device causes a linear movement of the second rail element relative to the first rail element in or counter to the pull-out direction, wherein the telescopic rail compri

Abstract: A drive adapter for tool-free mounting of a drive element on a rail element of a guide system includes a drive carrier and a holding section. The drive carrier includes a mounting means for a drive element. The holding section includes two support surfaces and a holding ridge which connects the support surfaces at least in sections and defines a distance between the support surfaces. The two support surfaces are either each convexly curved, face away from one another and configured such that they can be clamped between two rolling element running surfaces of the rail element which face one another, or each concavely curved, face toward one another and configured such that they can be clamped onto two legs of the rail element and carry rolling element running surfaces which face away from one another.

Abstract: A retraction device for a drawer mechanism comprises a spring-loaded carriage that can be moved in the push-in/pull-out direction for temporary coupling to an inner rail of the drawer mechanism. The carriage can be clocked in a retraction position by means of a locking slide that can be moved transverse to the push-in/pull-out direction in a guide. For coupling to the inner rail the carriage has at least one pivot element, which can be pivoted about an axis oriented perpendicular to the push-in/pull-out direction and perpendicular to the direction of movement of the locking slide. The pivot element and guide are arranged in such a manner that, in a locking position, the locking slide blocks a pivoting movement of the pivot element.

Abstract: A retraction device for a drawer mechanism comprises a spring-loaded carriage that can be moved in the push-in/pull-out direction for temporary coupling to an inner rail of the drawer mechanism. The carriage can be clocked in a retraction position by means of a locking slide that can be moved transverse to the push-in/pull-out direction in a guide. For coupling to the inner rail the carriage has at least one pivot element, which can be pivoted about an axis oriented perpendicular to the push-in/pull-out direction and perpendicular to the direction of movement of the locking slide. The pivot element and guide are arranged in such a manner that, in a locking position, the locking slide blocks a pivoting movement of the pivot element.