A hinge having a first hinge part and a second hinge part. The second hinge part has a hinge pin to which the first hinge part is connected for movement relative to the second hinge part about a hinge axis between a closed position. An over-close mechanism is provided comprising a catch member on the second hinge part arranged to co-operate with the first hinge part to urge the first hinge part towards the closed position during closing movement of the first hinge part and to retain the first hinge part arrange to co-operate with the hinge pin to urge the first hinge part towards the closed position during closing movement. A soft-close mechanism is provided comprising a damper member on the first hinge part arranged to co-operate with the hinge pin to provide a braking force in the direction of closing.

A hinge assembly for a swinging door includes a shifting pivot point movable between a first concealed positioned and a second extended position to provide clearance for protruding trim pieces and the like upon opening the swinging door. A double action spring mechanism energizes to drive the shifting pivot point between the first and second positions. An assembly including a link arm and a bell crank is driven by the double action spring mechanism to shift the shifting pivot point and locking mechanisms are provided to lock each of the link arm and the bell crank in their respective extended positions. A compartment assembly includes a swinging door, a fixed structure to which the swinging door is movably coupled, at least one hinge assembly according to the present disclosure.

A hinge device for supporting an electronic device includes a first portion and a second portion movable relative to the first portion with a biasing element supported by one or the first portion or the second portion. The first portion has an arcuate groove, and the second portion has an arcuate rail configured to complementarily mate with the arcuate groove and slide therein. The biasing element contacts a leading edge of the other of the first portion or second portion, and the first portion and second portion are bistable in a closed state relative to one another and an open state relative to one another based at least partially on a surface profile of the biasing element applying a radial force to the leading edge.

A low-bulkiness hinge for closing a closing element anchored to a stationary support structure, such as a wall, a frame or a floor includes a hinge body which includes a longitudinal operating chamber defining a first axis, a pivot coupled to the hinge body to rotate around a second axis between the opening and closing positions of the closing element, and a slider slidable in the operating chamber along the first axis. The operating chamber has a first seat for the pivot and a second seat for the sliding of the slider, which includes a shaft and an operative head that are mutually coupled. The hinge body has a first opening for inserting, perpendicularly to the first axis, the operative head into the second seat and a second through opening for inserting, coaxially to the first axis, the shaft into the housing. The hinge further has the shaft and the operative head fixed to one another after insertion in the second seat (so as to form a unitary assembly integrally slidable along the first axis.

The invention relates to a hinge for a swinging door, the hinge has at least one hinge axis element, a first hinge part and a second hinge part which are connected to one another in a hinge-like manner via the at least one hinge axis element, at least one latching arrangement, which comprises at least one latching means arranged at the second hinge part and comprising a latching body, and at least one latching recess arranged at the hinge axis element, wherein the latching means is configured such that the latching body engages in the latching recess in a latching position, and a clamping means for releasably fixing the hinge axis element to the first hinge part, wherein an angular position of the hinge axis element and the latching recess with respect to the first hinge part can be adjusted. The clamping means comprises at least one pair of clamping jaws for clamping the hinge axis element between these clamping jaws, wherein each of the clamping jaws comprises a clamping surface adapted to the contour of the hinge axis element.

The invention concerns a strap hinge (1) for a separating element. The separating element takes the form of a door, for example, in particular a swing door. The strap hinge (1) comprises two active units. The strap hinge (1) is provided with securing units (27 to 29), which are actively connected to a surface owing to a radial movement. The strap hinge further comprises pressure units (40, 43). The strap hinge (1) offers the same properties as a strap hinge which is provided with a hydraulic braking device.

A hinge for rotatably coupling an appliance door with an appliance body includes an input arm affixable with the body and a housing affixable within the door and coupled with the input arm so as to be rotatable through a range of motion between a closed position and an open position. The hinge further includes a spring engaged between the housing and the input arm and deformable to apply a balancing torque to the housing relative to the input arm and a first magnet coupled with one of the housing and the input arm and magnetically applying a closing torque between the housing relative and the input arm when the housing is within a predetermined range of the closed position.

Examples disclosed herein relate to a hinge assembly with a compressible sleeve. In one example, a base member is coupled to an upright member via a hinge assembly. In an example, the hinge assembly include a first securing member, a second securing member including a shaft coupled to the first securing member; a compressible sleeve to engage the shaft, and a spring coupled to the first securing member. In an example, the spring is to engage the compressible sleeve and apply a compressive force on the sleeve in response to a rotational movement of the hinge assembly in a first direction and reduce a compressive force when the hinge assembly is rotated in a second direction.

A portable communication device includes a housing including a first housing portion and a second housing portion; a flexible display accommodated in the first housing portion and the second housing portion; a first hinge plate coupled to the first housing portion; a second hinge plate coupled to the second housing portion; and a hinge coupled to the first housing portion and the second housing portion, wherein the hinge includes a first hinge structure coupled to the first hinge plate and the second hinge plate, wherein the first hinge structure includes a first gear configured to be rotated corresponding to a rotation of the first hinge plate; a second gear configured to be rotated corresponding to a rotation of the second hinge plate; and a third gear located between the first gear and the second gear and configured to link the first gear and the second gear; a second hinge structure coupled to the first hinge plate and the second hinge plate, wherein the second hinge structure includes a first member having a first rail part and a. second rail part formed thereon; a second member at least partially accommodated in the first rail part and configured to rotate in a first direction relative to the first member, the second member being coupled to the first hinge plate; and a third member at least partially accommodated in the second rail part and configured to rotate in a second direction relative to the first member, the third member being coupled to the second hinge plate; and a third hinge structure coupled to the first hinge plate and the second hinge plate and located between the second hinge structure and the first hinge structure, wherein the third hinge structure includes a first plate coupling portion coupled with the first hinge plate; and a second plate coupling portion coupled with the second hinge plate, wherein the first plate coupling portion and the second plate coupling portion are engaged with each other in a state in which the housing is unfolded and are disengaged from each other in a state in which the housing is at least partially folded, wherein the first plate coupling portion includes a first wing and a second wing spaced apart from each other at a predetermined interval, and wherein at least part of the second plate coupling portion is inserted and fastened between the first wing and the second wing e state in which the housing is unfolded.

A multi-link door hinge is proposed. The multi-link door hinge includes: a main body frame provided in a main body of an apparatus having a door; a door frame provided on the door; a body frame rotatably connected to one side portion of the main body frame; an inner link and an outer link rotatably connecting the door frame to the body frame; a leaf spring link rotatably connecting the main body frame to the outer link; an upper cam coupled to a portion connecting the body frame to the inner link in a co-rotatable manner, provided between first and second side portions of a sidewall of the inner link, and securely coupled to the body frame; an upper elastic member having a first side portion provided inside the inner link and a second side portion rollably coupled to the upper cam and elastically supporting the door frame.