Abstract: A hand fixation band includes a fastening band, a sliding arm and a damping element. The fastening band has a main portion, and a connecting portion protruded outward from one end of the main portion. A bottom surface of the connecting portion is defined as a contact surface. The sliding arm is connected with the fastening band. One end of the sliding arm disposed under the connecting portion is recessed downward to form an accommodating groove. A top of a peripheral wall of the accommodating groove is inclined outward from bottom to top to form a first inclined surface. The damping element is disposed in the accommodating groove and contacts with the contact surface. A periphery of a bottom surface of the damping element is inclined outward from bottom to top to form a second inclined surface. The first inclined surface contacts with the second inclined surface.

Abstract: A switch module includes a pressing button, a supporting block and a circuit board. The pressing button has a first surface and a second surface. The second surface of the pressing button has an operation portion. The operation portion is equipped with an extending arm. At least one portion of one side of the first surface of the pressing button protrudes upward to form at least one extending foot. The supporting block supports the pressing button. The supporting block has a third surface and a fourth surface. The circuit board faces to the third surface of the supporting block. The circuit board has a fifth surface and a sixth surface. The circuit board is equipped with a first switch. The sixth surface of the circuit board is equipped with a second switch. The first switch is disposed corresponding to the at least one extending foot.

Abstract: A game grip includes a cover body, a grip shell, a pressure sensor, a buffer material element, a sliding mechanism and an elastic mechanism. An outer surface of the cover body is recessed inward to form an accommodating surface. The grip shell is covered to the accommodating surface. The pressure sensor is disposed to the accommodating surface. The buffer material element is disposed to the grip shell. The buffer material element is disposed corresponding to the pressure sensor. The sliding mechanism is disposed between the cover body and the grip shell. The elastic mechanism abuts between the accommodating surface of the cover body and the grip shell.

Abstract: A pressing structure includes a support frame and a pressing element. The pressing element is mounted to a bottom surface of the base plate. The pressing element includes a pedestal and a cushion element. The pedestal has a base board. A bottom surface of the base board protrudes downward to form a pressing block. A bottom surface of the pressing block is recessed upward and gradually arched outward from top to bottom to form a first pressing face. The rocker component has a base portion. The first pressing face is in contact with the base portion. The cushion element is mounted on the pedestal, so that the rocker component is mounted on the electronic component by the pressing structure, the rocker component and the electronic component are without affording the excessive pressure force to cause a damage and a deformation of the electronic component.

Abstract: A button assembly is disposed in a rocker. The button assembly including a base, a pressure sensor and a keycap. The base has two lower positioning portions with each of the two lower positioning portions protruding outwardly from respective sides of the base. The pressure sensor is mounted on the base. The keycap overlies the pressure sensor. The keycap has two upper positioning portions with each of the two upper positioning portions protruding outwardly from respective sides of the keycap. The two upper positioning portions are individually fixed on each of the two lower positioning portions. As described above, a push-button structure is thus formed by the two lower positioning portions and the two upper positioning portions configured among the base, the pressure sensor and the keycap to achieve the modularization of the button assembly of the present invention.

Abstract: A button assembly adapted for being mounted in a game controller. The button assembly includes a pedestal, a pressure sensor module and a key cap. A middle of the pedestal has an accommodating groove penetrating upward through a top surface of the middle of the pedestal. Two opposite sides of the pedestal have two limiting portions oppositely protruded outward. The pressure sensor module is mounted in the accommodating groove of the pedestal. The key cap is covered on the pressure sensor module. A bottom surface of the key cap has a contact portion contacting with the pressure sensor module. Two opposite sides of the key cap have two active portions protruded outward. The two active portions are mounted to the two limiting portions, respectively. In processes of pressing and releasing the key cap, the two active portions move downward and upward with respect to the two limiting portions.

Abstract: A hand fixation band includes a fastening band, a sliding arm and a damping element. The fastening band has a main portion, and a connecting portion protruded outward from one end of the main portion. A bottom surface of the connecting portion is defined as a contact surface. The sliding arm is connected with the fastening band. One end of the sliding arm disposed under the connecting portion is recessed downward to form an accommodating groove. A top of a peripheral wall of the accommodating groove is inclined outward from bottom to top to form a first inclined surface. The damping element is disposed in the accommodating groove and contacts with the contact surface. A periphery of a bottom surface of the damping element is inclined outward from bottom to top to form a second inclined surface. The first inclined surface contacts with the second inclined surface.

Abstract: A hand fixation band includes a fastening band, a sliding arm and a damping element. The fastening band has a connecting portion. A bottom surface of the connecting portion is defined as a contact surface. The sliding arm is connected with the fastening band. A top surface of one end of the sliding arm is recessed downward to form an accommodating groove. Several portions of a top surface of a bottom wall of the accommodating groove protrude upward to form a plurality of buckling blocks. The damping element is disposed in the accommodating groove and contacts with the contact surface. Several portions of a bottom surface of the damping element are recessed upward to form a plurality of buckling holes. The plurality of the buckling blocks are buckled in the plurality of the buckling holes.

Abstract: A hand fixation band includes a fastening band, a damping element and a sliding arm. The fastening band has a main portion, and a connecting portion protruded outward from one end of the main portion. A free end of the connecting portion protrudes downward to form a first protruding portion. The damping element is assembled to the fastening band. A top surface of an inner side of the damping element is recessed downward to form a first recess. A bottom surface of the damping element is recessed upward to form a second recess. The first protruding portion is assembled in the first recess. The sliding arm is connected with the fastening band and the damping element. One end of the sliding arm protrudes upward to form a second protruding portion. The second protruding portion is assembled in the second recess.

Abstract: A hand fixation band includes a fastening band, a sliding arm and a damping element. The fastening band has a main portion, and a connecting portion protruded outward from one end of the main portion. The connecting portion protrudes downward to form a first protruding rib. An inside of the first protruding rib has an accommodating space. The sliding arm is connected with the fastening band. A top surface of one end of the sliding arm has a buckling slot. The buckling slot is corresponding to and buckled with the first protruding rib. One end of the sliding arm opens a locating hole. A top surface of a peripheral wall of the locating hole surrounded by the buckling slot is defined as an accommodating surface. The damping element is disposed on the accommodating surface and is accommodated in the accommodating space.

Abstract: A rocker assembly structure includes a pedestal having a base portion, and a keycap. A bottom wall of the accommodating groove protrudes upward to form a rod portion. Several portions of a peripheral surface of the rod portion are recessed inward to form a plurality of first guiding grooves. A lower portion of an inner wall of each first guiding groove is recessed inward to form a buckling slot. A front of the peripheral surface of the rod portion is further recessed inward to form a second guiding groove. The keycap covers the rod portion. Several portions of an inner wall of the keycap protrudes inward to form a plurality of buckling blocks. The plurality of the buckling blocks are disposed in the buckling slots of the plurality of the first guiding grooves and the second guiding groove.

Abstract: A button assembly is disposed in a rocker. The button assembly including a base, a pressure sensor and a keycap. The base has two lower pivoting portions with each of the two lower pivoting portions protruding outwardly from respective sides of the base. The pressure sensor is mounted on the base. The keycap overlies the pressure sensor. The keycap has two upper pivoting portions with each of the two upper pivoting portions protruding outwardly from respective sides of the keycap. The two lower pivoting portions are pivoted with the two upper pivoting portions to allow the two upper pivoting portions to be rotatable relative to the two lower pivoting portions. As described above, a push-button structure is thus formed by the two lower pivoting portions and the two upper pivoting portions configured among the base, the pressure sensor and the keycap to achieve the modularization of the button assembly.

Abstract: A button assembly adapted for being mounted in a game controller. The button assembly includes a pedestal, a pressure sensor module and a key cap. A middle of the pedestal has an accommodating groove penetrating upward through a top surface of the middle of the pedestal. Two opposite sides of the pedestal have two limiting portions oppositely protruded outward. The pressure sensor module is mounted in the accommodating groove of the pedestal. The key cap is covered on the pressure sensor module. A bottom surface of the key cap has a contact portion contacting with the pressure sensor module. Two opposite sides of the key cap have two active portions protruded outward. The two active portions are mounted to the two limiting portions, respectively. In processes of pressing and releasing the key cap, the two active portions move downward and upward with respect to the two limiting portions.

Abstract: A button assembly is disposed in a rocker. The button assembly including a base, a pressure sensor and a keycap. The base has two lower positioning portions with each of the two lower positioning portions protruding outwardly from respective sides of the base. The pressure sensor is mounted on the base. The keycap overlies the pressure sensor. The keycap has two upper positioning portions with each of the two upper positioning portions protruding outwardly from respective sides of the keycap. The two upper positioning portions are individually fixed on each of the two lower positioning portions. As described above, a push-button structure is thus formed by the two lower positioning portions and the two upper positioning portions configured among the base, the pressure sensor and the keycap to achieve the modularization of the button assembly of the present invention.

Abstract: A button assembly includes a pedestal, a pressure sensor module and a key cap. The pedestal has an accommodating groove penetrating upward through a top surface of the pedestal. Two opposite sides of the pedestal protrude oppositely outward to form a lower active portion and a lower pivot portion. The pressure sensor module is mounted in the accommodating groove. The key cap is covered on the pressure sensor module. A bottom surface of the key cap has a contact portion contacting with the pressure sensor module. Two opposite sides of the key cap protrude oppositely outward to form an upper active portion and an upper pivot portion. The upper pivot portion rotate pivoting the lower pivot portion, the upper active portion moves downward and upward with respect to the lower active portion.

Abstract: A button assembly adapted for being mounted in a controller includes a pedestal, a pressure sensor module and a key cap. A middle of the pedestal has an accommodating groove penetrating upward through a top surface of the middle of the pedestal. Two opposite sides of the pedestal have two limiting portions oppositely protruded outward. The pressure sensor module is mounted in the accommodating groove of the pedestal. The key cap is covered on the pressure sensor module. A bottom surface of the key cap has a contact portion contacting with the pressure sensor module. Two opposite sides of the key cap have an active portion and a fixing portion protruded outward. The active portion and the fixing portion are mounted to the two limiting portions, respectively. In processes of pressing and releasing the key cap, the active portion move downward and upward with respect to the one limiting portion.

Abstract: A biaxial razor is disclosed. The biaxial razor includes a shaving head, a handle, and a pivot assembly arranged between the shaving head and the handle. The pivot assembly is composed of a first axial driving group and a second axial driving group. The first and second axial driving groups enable the shaving head to make both a rotating displacement in a front-rear direction and a swing displacement in a left-right direction, so as to perfectly fit with facial skins of users whose face contours are different, without taking lots of arm motions in operations when shaving, thereby to enhance the convenience in operations and improve the efficiency in shaving.

Abstract: A game joystick includes a lower half body, an upper half body covering on the lower half body, a battery cover covering on the upper half body and elastic elements mounted in the upper half body. The upper half body is concaved downward to form a plurality of buckling slots. An opening is opened in one sidewall of each buckling slot. The battery cover protrudes downward to form a plurality of buckling strips of which each defines a first pushing surface and a second pushing surface. The elastic element has a first elastic arm fastened in the upper half body, and a second elastic arm passing through the opening to elastically project in the buckling slot. The second elastic arms cooperate with the first pushing surfaces and the second pushing surfaces of the buckling strips inserted into the buckling slots to close or open the battery cover easily.

Abstract: The present invention provides a razor module comprising a body unit and a cutter unit; the body unit has a button part comprising a guiding member, and a lever part comprising an elastic member; the cutter unit is formed with a connecting element having a buckle groove thereon; with the normal situation that the lever part clamps the buckle groove, the button part begins to be pressed by the user and makes the elastic member and the guiding member contract inwardly to produce an elastic energy storage, and meanwhile, the lever part releases the connecting element for the replacement of the cutter unit; when the user stops pressing the button part, the lever part and the button part reposition again due to the flexibility of the elastic member and the guiding member, so as to achieve effects such as easy operation, convenient and quick replacement.

Abstract: A game joystick adapted for being operated by optical finger navigator includes a body, a main circuit board assembled inside the body, at least one operation interface mounted in the top of the body and exposed through a top face of the body to be substantially flush with the top face of the body, and at least one detective control unit mounted on the main circuit board inside the body and electrically connected to the main circuit board. The operation interface is located over the detective control unit. The detective control unit emits light to the bottom of the operation interface and further captures fingerprint information through the operation interface under the action of the light while moving a finger on the operation interface. The fingerprint information is further processed and converted into operation commands by the detective control unit and then the operation commands are sent out.