Abstract:
A support mechanism includes a bracket, a sliding member, a connecting unit, and an elastic member. The sliding member is slidably connected to the bracket. The connecting unit includes a first arm, a second arm pivotally connected to the first arm, a first pivot pivotally connecting a first ends of the first arm and the second arm, a second pivot pivotally connecting a second end of the first arm opposite to the first pivot and the bracket, a third pivot pivotally connecting a second end of the second arm opposite to the first pivot and the bracket, and a connecting piece sleeved on the first pivot. The elastic member is positioned between the connecting piece and the bracket. The sliding member resists the first arm and the second arm by an elastic force of the elastic member acting on the first arm and the second arm.
Abstract:
An exemplary slide mechanism (100) includes a rear cover (10), a front cover (20), and a magnetic assembly (80) connected to the rear cover and the front cover. The front cover is slidably attached to the rear cover. Each of the at least one magnetic assembly includes a first magnetic member (44) and a second magnetic member (74). A magnetic force created between the first and second magnetic members forces the front cover sliding relative to the rear cover. The magnetic members are arranged such that the height of the space occupied by the magnetic members is less than an arithmetic sum of the height of each of the magnetic members.
Abstract:
A hinge assembly includes a base, a joint member, a pintle, and a coiling spring. The joint member is rotatably connected to the base. The pintle runs through the base and the joint member. The coiling spring has a first end and a second end. The first end is fixed relative to the base, and the second end is fixed relative to the joint member.
Abstract:
A hinge assembly includes a pivot shaft defining a latching recess, a second leaf non-rotatably connected to the pivot shaft, a first leaf rotatably connected to the pivot shaft, and a clasping member fixed on the first leaf. The clasping member includes a receiving portion sleeved on the pivot shaft, and an elastic portion adjacent to the receiving portion. A part of the elastic portion engages in the latching recess of the pivot shaft, and the part of the elastic portion is separated from the receiving portion.
Abstract:
A support stand includes a supporting leg and a hinge subassembly. The supporting leg includes a connecting portion. The hinge subassembly includes a shaft and a leaf rotatably sleeved on the shaft. The shaft has a connecting portion engaging with the connecting portion of the supporting leg. One of the connecting portions of the supporting leg and the shaft is a connecting slot, and the other one of the connecting portions of the supporting leg and the shaft is a protrusion engaged in the connecting slot, thus fixing the shaft to the supporting leg. A friction is created between the shaft and the leaf.
Abstract:
A hinge assembly includes a shaft, a first bracket, a resilient member, and an engaging member. The shaft includes a limiting structure including a guiding groove and a limiting slot. The first bracket is rotatable relative to the shaft. The engaging member is rotatably sleeved on the shaft and non-rotatable relative to the first bracket. The engaging member forms a latching pole slidably received in the guiding groove and being engagable with the limiting slot of the shaft.
Abstract:
An exemplary slide mechanism includes a main plate a slide plate, and two arched resilient members. The arched resilient members are disposed on the main plate. The slide plate is slidably laid over the main plate. A resisting member is fixed on one surface of the slide plate facing to the main plate. The resisting member keeps resisting the arched resilient members when the slide plate sliding along the main plate. A guiding surface is formed on the main plate. One end of each arched resilient member is fixed to the main plate, and the other end of each arched resilient member resists and is slidable on the guiding surface. A slide-type portable terminal device using the slide mechanism is also provided.
Abstract:
A hinge assembly includes a pivot shaft, a fixing module, a rotatable module, and a fixing member. The pivot shaft includes a first end and a second end opposite to the first end. The fixing module is non-rotatably sleeved on the pivot shaft adjacent to the first end and includes a first magnet. The rotatable module is rotatably sleeved on the pivot shaft adjacent to the second end and includes a second magnet. A polarity of the second magnet faces an opposite polarity of the first magnet such that the first and second magnets creating an attracting force. The rotatable module is pushed to tightly contact the fixing module by the attracting force such that a friction is created between the rotatable module and the fixing module to hold the rotatable module. The fixing member is fixed at the second end of the pivot shaft.
Abstract:
A display device includes a display monitor, a supporting portion formed on a bottom surface of the display monitor, and a support stand fixed on the display monitor. The supporting portion and the support stand cooperatively support the display monitor. The support stand includes a connecting member fixed on the display monitor and a sliding member sleeved on the connecting member. The sliding member slides along the connecting member to change the length of the support stand, thus adjusting the viewing angle of the display monitor.
Abstract:
A hinge assembly includes a shaft, a first bracket, a second bracket, a spacer, and a restricting member. The spacer includes a main body and a resilient area protruding from the main body. The resilient area includes a top portion and a base portion connecting the top portion with the main body. The restricting member and the second bracket are arranged at opposite sides of the spacer. The restricting member forms a protrusion resisting the top portion of the resilient area. The spacer is fixed with the second bracket, and the second bracket includes a receiving portion corresponding to the resilient area. The base portion is located in the projection of the receiving portion projected at the spacer, situated parallel to the axis of the shaft.