Embodiments of the present invention disclose a method, computer system, and computer program product for a processor-implemented method for a movable wall process, the method including collecting a set of rules governing a size of a main room and a size of one or more sub-rooms comprising the main room, determining a starting position of a movable wall, where the movable wall separates the one or more sub-rooms, and where the starting position is determined by the set of rules, determining a location of one or more people, determining a required wall movement for the movable wall, wherein the required wall movement is determined by the set of rules and the location of one or more people, and moving the movable wall to a new position, based on the starting position and the required wall movement.

A stop position damping device (13) for a sliding element (11) that is slidably arranged in a sliding direction (R) relative to a stationary element (12) includes a structural unit (14) and an activating part (15) that are connected to one of the two elements (11), (12) respectively. The structural unit (14) has a base carrier (21) at which a damping cylinder supporting arrangement (23) is pivotably mounted with one and around a first pivot axis (S1). At the opposite free end (24), the damping cylinder supporting arrangement (23) is supported without guidance at the base carrier (21) via a biasing element (25), wherein the biasing element (25) creates a torque around the first pivot axis (S1). In an area that is closer to the free end (24) as to the first pivot axis (S1), a catch part (45) can move in a length direction (L) relative to the damping cylinder supporting arrangement (23). If an unintended collision occurs between the activating part (15) and the catch part (45), the damping cylinder supporting arrangement (23) with the catch part (45) can pivot away from the activating part (15).

The description relates to hinged devices, such as hinged computing devices. One example can include a first portion and a second portion that have hinge ends rotatably secured relative to a hinge shaft. The example can also include a u-shaped friction arm extending from a first end positioned around the hinge shaft to a second end positioned around the hinge shaft and a pop-up assembly positioned along the hinge shaft between the first end and the second end and configured to create a bias to rotate the first and second portions away from one another.

An electronic device according to one embodiment may include: a first housing including a first side; a second housing including a second side facing the first side; at least one first magnetic member configured to be rotatably disposed inside the first housing and adjacent to the first side; and at least one second magnetic member configured to be rotatably disposed inside the second housing and adjacent to the second side, wherein the first housing and the second housing are rotatably coupled to each other by a magnetic force between the at least one first magnetic member and the at least one second magnetic member. Various other embodiments are also possible.

The present disclosure generally relates a stop apparatus for use with a system comprising: a first component having a first surface; and a second component having a second surface. The second component is movable relative to the first component. The first surface and the second surface are disposed at different orientations when the first surface is located in proximity to the second surface. The stop apparatus is operable to be disposed between the two surfaces and operable to prevent them directly contacting each other. The apparatus may comprise an elongated body and an adjustable setting mount assembly inter-connected to the body. The mount assembly is operable to selectively adjust the angle at which the body is mounted relative to the first mounting surface over a range of angles.

An overhead door operator system (1) for opening and closing an opening (2), comprising a door frame (3) comprising a first frame section (4) at a first side (7) of the opening (2) and a second frame section (6) at a second side (5) of the opening (2). The operator system further comprises a door (8) arranged to be moved between an open and closed (C) position, the door (8) being movably connected to the door frame (3) and a drive unit (10) mounted on the door (8), the drive unit (10) comprising at least one motor (11) arranged to move the door (8) from the closed position (C) to the open position (O). An elongated transmission member (19) extends along the first side (7) of the opening (2) and the first frame section (4). The drive unit (10) further comprises a driven transmission member (18) in driving connection with the motor (11).

A retractable handle arrangement comprising a handle movable between stowed, deployed and operative states, and including first and second deployment means both of which are operable independently to move the handle from the stowed state to the deployed state. The first deployment mechanism is electrically actuated and the second deployment mechanism is manually actuated. The second deployment mechanism is a two-state latching mechanism, which may be a so-called push-push mechanism, operable to deploy the handle when triggered by a small inward movement.

The apparatus operates roll up doors used on commercial vehicles by employing dual powered opener/closer motors. The motors are mounted along the door tracks and there is no motor unit that must be mounted in the cargo space of the truck in the matter of a garage door opener the current invention is more suited for commercial vehicle use. The motors are synchronized in order to avoid having the door jam, or otherwise damaging the door, due to one side of the door raising or lowering more quickly than the other. The motors may have integrated rechargeable batteries so that the motors and door move along the tracks with wires.

A furniture drive having an actuating arm with a coupling device for coupling the actuating arm to at least one drive part and at least one output part rotatable relative thereto. A coupling intensity between the at least one drive part and the at least one output part is adjustable by an adjustment device, and the at least one drive part and the at least one output part are arranged at a distance from one another to form a gap. The gap is filled with a magnetorheological medium that can be influenced by a magnetic field, and the adjustment device for adjusting the coupling intensity has a device for generating a magnetic field for magnetic polarization of the magnetorheological medium.