Abstract: A single-shaft semi-automatic hinge, wherein a first cam and a second cam fitted on the single shaft of the hinge passing therethrough are abutted on each other with pressure application by an elastic member, thereby generating a rotational friction torque; a region of the first cam and the second cam in which a liquid crystal portion can rotate from a state in which a main body portion and the liquid crystal portion are folded to a fully open state is set narrower than a region in which the hinge can rotate.

Abstract: A hinge structure includes a first shaft, a second shaft, a pivot base and a position-limiting mechanism. The first and second shafts are pivoted on the pivot base. The position-limiting mechanism includes a first position-limiting portion, a second position-limiting portion and a position-limiting component. The first position-limiting portion is fixed to the first shaft. The second position-limiting portion is fixed to the second shaft. The position-limiting component is slidably disposed on the pivot base and has first and second ends opposite to each other. When the position-limiting component moves to a first position, the first end and the first position-limiting portion interfere with each other to stop the first shaft and the pivot base from rotating relatively. When the position-limiting component moves to a second position, the second end and the second position-limiting portion interfere with each other to stop the second shaft and the pivot base from rotating relatively.

Abstract: A steady opening and closing double-axis hinge comprises a first rotation member, a second rotation member and a connection member run through by the first rotation member and the second rotation member in a parallel manner. The first rotation member includes a first shaft and a first sector portion formed on the first shaft. The second rotation member includes a second shaft and a second sector portion formed on the second shaft. The connection member includes a movable detent plate which is located between the first and second shafts and movable between a first operation position and a second operation position. Through the movement of the movable detent plate, the first sector portion and second sector portion can be blocked alternately to control the first and second shafts to rotate in sequence, so as to simplify the shaft rotation switch mechanism and improve the durability.

Abstract: A hinge mechanism for a foldable electronic device is provided. The hinge mechanism includes a hinge, a pivot part and a friction part. The hinge and the pivot part are fixed to a first body and a second body of the foldable electronic device respectively. The friction part is connected to the pivot part and selectively contacting the hinge. When the pivot part rotates relative to the hinge to drive the first body to rotate from a close position to an open position in relative to the second body, the friction part does not contact the hinge. When the pivot part rotates relative to the hinge to drive the first body to rotate from the open position to the close position in relative to the second body, the friction part contacts the hinge and limits a rotation of the pivot part on the hinge.

Abstract: A hinge structure includes a first shaft, a second shaft, a sliding component, a first pillar, and a second pillar. The second shaft is parallel to the first shaft. The sliding component includes a first sliding portion and a second sliding portion, wherein the first shaft and the second shaft are disposed through the first sliding portion and the second sliding portion respectively, and the first sliding portion has a first guiding slot and the second sliding portion has a second guiding slot. When the first shaft rotates with respect to the sliding component and moves the first pillar along the first guiding slot, the first pillar drives the sliding component to slide along the first and second shafts and move the second pillar along the second guiding slot, so as to drive the second shaft to rotate with respect to the sliding component.

Abstract: A synchronous rotation mechanism for a dual-shaft hinge includes a first shaft, a second shaft, a first positioning plate, a second positioning plate, a first lead screw, a second lead screw and a guiding member. The first shaft and the second shaft extend through the first positioning plate and the second positioning plate. The first lead screw and the second lead screw are disposed on the first shaft and the second shaft respectively. A supporting shaft is disposed between the first lead screw and the second lead screw. The guiding member is supported by the supporting shaft and engages screw grooves formed on the first and second lead screws, whereby the first and the second shafts rotate synchronously.

Abstract: A synchronous movement device of dual-shaft system includes a first shaft and a second shaft, which are assembled with each other and synchronously rotatable. The synchronous movement device further includes a driver disposed on the first shaft and a reactor disposed on the second shaft and a link unit connected between the driver and the reactor. The driver is formed with a driving rail. The reactor is formed with a reacting rail. When the first shaft drives the driver to rotate, the driver pushes the link unit to move along the first and second shafts to forcedly push the reactor to rotate in a direction reverse to the moving direction of the driver. Accordingly, the first and second shafts are synchronously rotated.

Abstract: A dual-shaft synchronous movement device includes a first shaft and a second shaft, which are synchronously rotatable. The synchronous movement device further includes a first rotor and/or a third rotor disposed on the first shaft and a second rotor and/or a fourth rotor disposed on the second shaft, and an inextensible/non-contractible flexible plate connected between the first (or the third rotor) and the second rotor (or the fourth rotor). When the first shaft drives the first rotor (or the third rotor) to rotate, the inextensible/non-contractible flexible plate pulls the second rotor (or the fourth rotor) to rotate in a direction reverse to a moving direction of the first rotor so as to make the first and second shafts synchronously rotate. The synchronous movement device solves the problem of delay of kinetic energy transmission and the problem of slippage, deflection and untrue operation of the conventional device.

Abstract: A synchronous movement device applied to dual-shaft system includes a first shaft and a second shaft, which are assembled with each other and synchronously rotatable. The synchronous movement device further includes a driver disposed on the first shaft and a reactor disposed on the second shaft and a link unit connected between the driver and the reactor. When the first shaft drives the driver to rotate, the driver pushes the link unit to move along the first and second shafts to forcedly push the reactor to rotate in a direction reverse to the moving direction of the driver. Accordingly, the first and second shafts are synchronously rotated.

Abstract: A hinge device for rotatably moving a closing element includes a fixed element anchorable to a stationary support structure coupled to a movable element anchorable to the closing element for rotating around a first longitudinal axis between an open position and a closed position. The device further includes at least one slider movable along a second axis between a compressed and an extended position. One between the movable element and the fixed element includes at least one operating chamber defining the second axis so as to slidably house the slider, the other element including a pivot defining the first axis. The pivot and the slider are reciprocally coupled so that to the rotation of the movable element around the first axis corresponds the sliding of the slider along the second axis and vice versa.

Abstract: A counterbalance assembly for an appliance hinge has a base including first and second spaced-apart side walls and a transverse face wall. A channel is located between the first and second side walls. First and second notch portions are respectively located in the first and second side walls. A rotating cam is supported on the base and has a camshaft that extends between the side walls and that is adapted for rotation about an axis of rotation, a first end located in the first notch portion and a second end located in the second notch portion. A biasing spring has an inner end engaged with the base and an outer end spaced from the base. A spring rod includes an outer end operatively coupled to the spring and an inner end operatively coupled to the lever. The lever also pivotally connects to the lobe of the cam. A damper assembly is connected to the base and having a piston which is moved between a first position and a second position by the lever contacting the piston.

Abstract: A hinge device includes a first main body and a second main body relative to the first main body. The first main body includes a raised structure. The second main body includes a first position structure, a first torsion control structure, a second position structure, and a second torsion control structure, and the first position structure and the second position structure correspond to the raised structure respectively. The first torsion control structure includes a first outer control portion and a first inner control portion. The second torsion control structure includes a second outer control portion and a second inner control portion. A height of the first inner control portion is different from a height of the second inner control portion, and a height of the first outer control portion is different from a height of the second outer control portion.

Abstract: A hinge assembly for attaching a door member to a main structure is provided. The hinge assembly, in an embodiment, includes a first hinge member securely attached to one of the door member or the main structure; a second hinge member securely attached to the other of the door member or the main structure and rotatably engaging the first hinge member; and a cam/spring assembly configured to bias the door member into an open or a closed position with respect to the main structure.

Abstract: A refrigerator is equipped with an improved middle hinge module, by which a door is hinged to a main body, capable of preventing noise when the door is opened and closed and easily adjusting a height of the door. The middle hinge module includes a hinge member fixed to a main body, a casing rotatably coupled to the hinge member and configured to rotate with a door, a shaft accommodated in the casing and coupled to the hinge member, a cam member disposed on the shaft and configured to convert rotational movement of the door into vertical linear movement, a compression spring disposed on the cam member and configured to be compressed by vertical linear movement of the cam member, and a height adjustment screw, an upper portion of which is coupled to a lower portion of the shaft to adjust a height of the door.

Abstract: The present invention relates to a pin locking dual shaft hinge, including a connecting support, a first core shaft and a second core shaft parallel to each other, a first engaging cam, a second engaging cam and an insertion pin. The connecting support includes a main body and a first connecting member disposed between an upper and a lower end thereof, the first connecting member is penetrated with a penetrated hole. The first core shaft and the second core shaft are respectively pivoted at the upper and lower end of the main body. The first engaging cam is sleeved and engaged on the first core shaft, the periphery of the first engaging cam is formed with at least a first engaging part. The second engaging cam is sleeved and engaged on the second core shaft, the periphery of second engaging cam is formed with at least a second engaging part.

Abstract: Door construction includes a door panel and at the top and at the bottom each time a self-closing pivot hinge. Each of the pivot hinges includes a spring which extends along the rotation axle and which provides a self-closing function to the pivot hinge. Each of the pivot hinges includes a first cam element and a second cam element which are pushed onto each other by the spring and push the door panel towards the closed position under the influence of the spring pressure. The first cam element includes at least one protrusion which upon rotation runs along a running surface with inclined parts of the second cam element. The second cam element is movably mounted in longitudinal direction of the pivot axle by means of a pen which is accommodated in a slotted hole of the second cam element. The slotted hole extends at least partly between the inclined parts of the running surface.

Abstract: A hinge apparatus for a cover of an image forming apparatus has a hinge body with supporting brackets, movably inserted into a coupling hole positioned in a main body of the image forming apparatus, a hinge cam connected to the cover and pivotably connected to the supporting brackets, and a pressure device disposed at the hinge body to press the hinge cam. Accordingly, the hinge apparatus can be implemented with a simple and easy assembly operation, since it is not a complicated structural connection among the component parts of the hinge apparatus.

Abstract: A free-stop hinge apparatus employed in a folding-type mobile terminal preferably includes: a hinge housing; a driving part for providing a free-stop operation, which is received in the hinge housing. A hinge shaft restrains the driving part in the hinge housing, and the driving part includes a rotating driving actuating cam and a driven sliding cam slides according to rotation of the driving actuating cam. The driving actuating cam includes an inner cam formed on one surface of a body, and an outer cam confronting the inner cam, and the driven sliding cam includes an inner valley which is disposed to confront the inner cam and slides together with the inner cam, and an outer valley which is disposed to confront the outer cam and slides together with the outer cam.

Abstract: A riser hinge (10) is disclosed which includes a mounting flange assembly (12) pivotally coupled to a strap assembly (15). The cylindrical portion (52) includes an upper strap bearing (54) and a lower strap bearing (55) which are each mounted partially within the cylindrical portion. The strap cylinder portion has a space (82) which includes an enlarged portion (83) flanked by narrowed portions (84) at stop ledges (85). The upper strap bearing and lower strap bearing each have a vertically oriented, elongated, locking tongue or flange (87) with a narrowed portion (88) extending to an enlarged portion or stop (89), which enables them to be removably mounted within the space.

Abstract: A hinge assembly includes a shaft, a main body drive member, a follower, and a resilient member. The main body drive member, the follower, and the resilient member are mounted with the shaft in turn. One end of the main body drive member has a cam. One end of the follower has a cam engaging with the cam of the main body drive member. The resilient member causes the cam of the follower to resist the cam of the main body drive member due to the decompression of the resilient member, and when the follower is manually rotated relative to the main body drive member about an angle, the follower automatically rotates relative to the main body drive member due to the decompression of the resilient member.

Abstract: A hinge assembly includes a receiving seat, a control member, a clutch member, a follower, a main shaft and an elastic element. The receiving seat includes a first cam surface. The control member is releasably latched with the receiving seat. The clutch member includes at least one projection. The follower includes a second cam surface engaging with the at least one projection. The receiving seat, the control member, the clutch member and the follower are placed around the shaft. The elastic element provides an elastic force for the follower. After the control member is unlocked, the second cam surface engages with the first cam surface.

Abstract: A hinge mechanism and a clamshell device thereof are disclosed. The hinge mechanism includes a base, an axial portion, and a magnetic ring. The base is a metal material and has a pivot portion. The axial portion is pivoted to the pivot portion and can rotate with respect to the base, wherein the axial portion has at least one guiding groove. The magnetic ring is connected to the axial portion and adjacent to the base. The magnetic ring has at least one guiding portion used for sliding along the least one guiding groove. When the axial portion is rotating with respect to the base, the magnetic ring separates from the base and moving along the least one guiding groove by the at least one guiding portion. When the axial portion stops rotating, the magnetic ring attracts to connect to the base by a magnetic force.

Abstract: A hinge apparatus for a cover of an image forming apparatus has a hinge body with supporting brackets, movably inserted into a coupling hole positioned in a main body of the image forming apparatus, a hinge cam connected to the cover and pivotably connected to the supporting brackets, and a pressure device disposed at the hinge body to press the hinge cam. Accordingly, the hinge apparatus can be implemented with a simple and easy assembly operation, since it is not a complicated structural connection among the component parts of the hinge apparatus.

Abstract: A hinge assembly includes a receiving seat, a control member, a clutch member, a follower, a main shaft and an elastic element. The receiving seat includes a first cam surface. The control member is releasably latched with the receiving seat. The cam includes a second cam surface. The follower includes a third cam surface engaging with the first cam surface or the second cam surface. The receiving seat, the control member, the cam and the follower are placed around the shaft. The elastic element provides an elastic force for the follower. After the control member is unlocked, the second cam surface engages with the first cam surface.

Abstract: A hinge assembly includes a first member, a second member, two rotary members, a resilient member, and a main shaft. The first member includes a cam surface. The two rotary members engage with the second member to constitute a latching cam surface engaging with the cam surface. The resilient member provides an elastic force for the first member to abut against the second member. The first member, the second member, the resilient member are placed around the main shaft. After the rotary members are rotated, the first member automatically rotates relative to the second member.

Abstract: A hinge including a device bracket, a door bracket, a first arm, a second arm, and a closure device is provided. The first arm mounts to the device bracket at a first pin and to the door bracket at a second pin. The second arm mounts to the device bracket at a third pin and to the door bracket at a fourth pin. The third pin is closer to an axis of rotation of a door than the first pin when the door is in a closed position. The closure device includes a closure device body mounted to move with the second arm, a rod mounted within the closure device body, a spring, a spring retainer mounted to the rod, and a nut mounting the rod to the device bracket. The spring is mounted between the spring retainer and the closure device body to exert a force on the second arm.

Abstract: Provided is a portable terminal including a first housing, a second housing, and a hinge apparatus rotatably coupling the first housing and the second housing. The hinge apparatus includes a hinge housing fixed to the first housing, a hinge member fixed to the second housing and coupled to the hinge housing, the hinge member rotating around a hinge axis which extends perpendicular to a surface of the first housing, an interference protrusion provided on one of the hinge housing and the hinge member, and a stopper groove formed in the other of the hinge housing and the hinge member wherein the hinge member rotates around the hinge axis while being spaced apart from the hinge housing.

Abstract: A hinge assembly includes a follower member, a rotary member, two swing rods, a resilient member and a main shaft. The follower member includes a cam surface. The rotary member includes a latching cam surface. The two swing rods engage with the rotary second member. Each swing rod includes a contact area engaging the cam surface, and each swing rod is rotated to allow the follower member to automatically rotate relative to the latching cam surface. The resilient member provides an elastic force for the follower member abutting against the rotary member. The main shaft, the follower member, the rotary member, the resilient member are placed around the main shaft.

Abstract: A linkage mechanism includes a fixing member, a rotary member, a support member and a sliding module. A first end of the rotary member is rotatably assembled to the fixing member. A first end of the support member is rotatably hinged to the second end of the rotary member, and the second end of the support member is hinged with the sliding module. The sliding module includes a sliding member and a sliding rod slidably assembled to the sliding member. The sliding member is slidably mounted to the fixing member, and further hinged to the second end of the support member. The sliding member defines a sliding hole. The sliding rod is rotatably assembled to the rotary member together with the fixing member, and further slidably passing through the sliding hole of the sliding member. An electronic device using the linkage mechanism is also provided.

Abstract: A cam plate for door hinge assembly of a domestic refrigerator includes a plate body having a cam surface that is configured to engage a corresponding cam surface positioned at an end of a refrigerator door. The plate body has a plug that extends from the plate body and a resilient tongue including a catch extending outwardly therefrom.

Abstract: A hinge assembly includes a first cam, a second cam, a third cam, at least one resilient member and a shaft. The first cam includes an outer cam surface and an inner cam surface. The third cam is slidably received in the second cam, and the second cam and the third cam respectively engage with the outer cam surface and the inner cam surface. The resilient member provides an elastic force making the third cam and the second cam abut against the first cam. The shaft extends through the first cam, the second cam, the third cam and the at least one resilient member.

Abstract: A snap hinge device for a folding-type portable terminal is provided with a gap between an outer face of a hinge shaft and an inner face of a second cam so that the outer face of the hinge shaft and the inner face of the second cam are compelled to strike into each other an generate and aural snap by an urging of an elastic member at the time of opening/closing the folder of the portable terminal. As a result of the aural snap, users experience a feeling of use at the time of opening/closing the folder, and a sense of comfort therefrom.

Abstract: A riser hinge (10) is disclosed which includes a mounting flange assembly (12) pivotally coupled to a strap assembly (15). The cylindrical portion (52) includes an upper strap bearing (54) and a lower strap bearing (55) which are each mounted partially within the cylindrical portion. The strap cylinder portion has a space (82) which includes an enlarged portion (83) flanked by narrowed portions (84) at stop ledges (85). The upper strap bearing and lower strap bearing each have a vertically oriented, elongated, locking tongue or flange (87) with a narrowed portion (88) extending to an enlarged portion or stop (89), which enables them to be removably mounted within the space.

Abstract: An exemplary hinge assembly includes a sleeve, a first member, a second member, and a resilient member. The sleeve includes a sleeve wall and an open end. The first member is received in the sleeve. The second member is located next to the first member. One of the first member and the second member have a cam, the other of the first member and second member have a cam follower interacting with the cam so that the first member rotates about an axis and the second member moves linearly along the axis when the cam follower follows the cam. The resilient member is fitted in the sleeve and provides an elastic force to bias the first member and the second member into contact with each other. At least one tab is formed adjacent to the open end and blocking a minor portion of the open end. The at least one tab retains the first, second, and resilient members in the sleeve for preventing them from escaping the sleeve through the open end.

Abstract: A hinge assembly includes a main shaft, a fixing seat, a follower, a cam and a first elastic element. The fixing seat is fixed with the main shaft. The follower is placed around the shaft, and the fixing seat selectively locks with the follower. The cam is placed around the shaft, and engages with the follower. The first elastic element provides an elastic force to make the cam and the follower resist each other and provides a force to make the cam and the follower rotate together.

Abstract: A hinge mechanism includes a pivot shaft, a resilient member coiling around the pivot shaft, a first cam, a second cam, and a rolling assembly. The pivot shaft defines a through hole in a radial direction thereof. The first cam and the second cam are sleeved on the pivot shaft, the first cam defines two pairs of recesses at one end surface thereof, and the second cam defines a groove at one end surface thereof facing the first cam. The rolling assembly positioned between the first cam and the second cam includes a pin and two rolling bearings sleeved on opposite ends of the pin.

Abstract: A dual-axis hinge structure and electric device having the same are provided, and the dual-axis hinge structure includes a hinge base having a pushed portion, a first pivot portion having a first cam and a first shaft, a second pivot portion having a second cam and a second shaft, and a restoring member connected both the first pivot portion and the second pivot portion. The first shaft is pivoted on the hinge base, and the first cam is fixed on the first shaft, and the first cam is contacted with one lateral side of the pushed portion. The second shaft is parallel to the first shaft, and is pivoted on the hinge base, and the second cam is fixed on the second shaft, and the second cam is contacted with another lateral side of the pushed portion.

Abstract: A collapsible electronic equipment includes a pivot structure, a base and a cover. The pivot structure includes a first pivot assembly, a second pivot assembly, and a gear mechanism. The first pivot assembly is disposed on a side of the base. The second pivot assembly is disposed on a side of the cover. The gear mechanism is connected to the first pivot assembly and the second pivot assembly. The cover may be opened or closed relative to the base by the gear mechanism. When the cover is opened at 180 degrees relative to the base, the gap between the cover and the base is narrow, and the surfaces of the cover and the base are located on the same plane.

Abstract: An exemplary hinge assembly includes a sleeve, a first member, a second member, a conductive member and a resilient member. The sleeve includes an open end. The first member is received in the sleeve. The conductive member is positioned on the first member. The second member is located next to the first member. One of the first member and the second member have a cam, the other of the first member and second member have a cam follower interacting with the cam so that the first member rotates about an axis and the second member moves linearly along the axis when the cam follower follows the cam. The resilient member is fitted in the sleeve and provides an elastic force to bias the first member and the second member into contact with each other. A plurality of tabs formed adjacent to the open end contact the conductive member for electronically connecting the sleeve to the first member.

Abstract: The present invention is directed to an automatic hinge module for a cellular phone, which is capable of automatically opening the cellular phone in a one-touch manner. The automatic hinge module of the present invention automatically opens a cellular phone by simply pressing a button. When the button is pressed, a housing coupled to a folder portion of the cellular phone is rotated by an elastic restoring force of a compressed torsion spring, thereby opening the cellular phone.

Abstract: A dual-axis hinge device in a portable apparatus is provided, in which a first hinge unit has a first driving cam for rotating upon a first hinge axis along with rotation of a second housing, and a second hinge unit having a second driving cam adapted to be engaged with the first driving cam rotating upon a second hinge axis parallel to the first hinge axis, while reciprocating along the second hinge axis.

Abstract: A hinge apparatus for a cover of an image forming apparatus has a hinge body with supporting brackets, movably inserted into a coupling hole positioned in a main body of the image forming apparatus, a hinge cam connected to the cover and pivotably connected to the supporting brackets, and a pressure device disposed at the hinge body to press the hinge cam. Accordingly, the hinge apparatus can be implemented with a simple and easy assembly operation, since it is not a complicated structural connection among the component parts of the hinge apparatus.

Abstract: A hinge assembly has a pintle, a stationary leaf, a rotating leaf, a rotating pressing disk, a stationary pressing disk, a biasing assembly and a fastener. The rotating pressing disk is mounted rotatably around the pintle, is attached non-rotatably to the rotating leaf and has a track face, an inner track and an outer track. The stationary pressing disk is mounted securely around the pintle and has a protrusion face, an inner protrusion and an outer protrusion. The inner and outer protrusions respectively contact slidably with the inner and outer track on the rotating pressing disk. With the arrangement of the inner and outer tracks on the rotating pressing disk and the inner and outer protrusions on the stationary pressing disk, the resistance provided by the hinge assembly is variable.

Abstract: The embodiment includes a hinge, a pivot shaft, a cam, and a cam follower. The pivot shaft includes an engaging portion bound by two curved surfaces and two non-rotatable surfaces. The cam is non-rotatably sleeved on the engaging portion of the pivot shaft and defines a noncircular hole and two cutouts. The noncircular hole is bound by two first contact surfaces and two second contact surfaces. The second contact surfaces are tangent to the curved surfaces of the engaging portion of the pivot shaft. The cam follower is rotatably sleeved on the engaging portion of the pivot shaft and resists the cam. The cam follower forms two peaks engaging with the cutouts in the cam.

Abstract: A multi-staged hinge assembly and a portable electrical device comprising the multi-staged hinge assembly are provided. The multi-staged hinge assembly utilizes a spindle with a non-circular cross-section and the relative movement resulting from the movable components disposed on the spindle, such that one of the body portions of the portable electrical device automatically tilts in an angle after the body portions slides with each other. The user could further adjust the angle to meet various use conditions.

Abstract: A portable computing device includes a base and a display rotatably connected to the base. A display positioning mechanism includes a first sleeve that is fixed to the display and includes a first end wall defining a first through bore and a plurality of first positioning holes extending therethrough. The positioning mechanism also includes a second sleeve fixed to the base and including a second end wall defining a second through bore and a second positioning hole. The positioning mechanism further includes a button slidably that is received in the first sleeve and the second sleeve and includes a rod, a first annular plate, and a second annular plate. The rod extends through the first through bore and the second bore. The first annular plate and the second annular plate are spaced from each other and extend radially outward from the rod. The first annular plate includes a first post.

Abstract: The present invention relates to a step hinge for a portable communication terminal, and more particularly to a step hinge mounted to a portable communication terminal, which can rotate at various angles thereto. A step hinge for a portable communication terminal according to the present invention, comprises: a housing; a rotating member mounted in the housing; a friction member mounted in the housing and contacting the rotating member; a belleville spring disposed in the housing so as to press the friction member and the rotating member for a tight contact therebetween.

Abstract: A hinge assembly has a pintle, a torque assembly and a resistance assembly. The pintle has a head formed on the pintle. The torque assembly is mounted on the pintle at a first side of the head to provide a force to automatically open the cover relative to the body to a first angle. The resistance assembly is mounted on the pintle at a second side of the head to provide a frictional force to hold the cover at a second angle relative to the body when the cover is closed relative to the body. Accordingly, the cover can be pivoted open relative to the body automatically with the torque provided by the torque assembly.

Abstract: A hinge includes a fixing frame, a rotating frame, a support, and a connecting member. The rotating frame is pivotally joined to the fixing frame. The support includes a first connecting portion for joining to the base and a second connecting portion. The connecting member is mounted between the rotating frame and the support. Furthermore, the connecting member is operably moved between an extended position and a retracted position in response to two opposite pivoting directions of the rotating frame with respect to the fixing frame. In addition, the support moves away from the rotating frame in response to the connection member moving from the retracted position to the extended position thereof.

Abstract: An interfering assembly of a hinge includes a male element including a first raised portion and a second raised portion, and a female element defining a through hole. A sliding surface apart from a center of the through hole protrudes from the female element. An inner slot and an outer slot are formed beside the sliding surface. The female element defines a first depressed portion and a second depressed portion correspondingly engaged with the first and second raised portions. Widths of the inner slot and the outer slot are gradually varied. During rotation of the rotating member, the first and second raised portions are slid out from the first and second depressed portions, respectively, and then in frictional engagement with the sliding surface, together with partial portions covering the inner and outer slots, correspondingly.