10results about "Key-laykey mechanism" patented technology

A housing assembly, a mobile energy storage apparatus, and an energy storage system are provided. The housing assembly includes a first housing, a button structure, and a circuit board. The first housing is provided with a first fixing portion on an inner surface of the first housing. The button structure includes a button body passing through a button via hole of the first housing and a resilient arm. The button body is provided with a button protrusion. The circuit board is positioned at one side of the button structure positioned facing away from the button via hole. The circuit board is provided with a control button positioned facing towards the button structure. One of the circuit board and a fixing end of the resilient arm is provided with a positioning portion, and the other of the circuit board and the fixing end is provided with a fitting portion.

An electronic device, including a frame body and a button assembly, where the frame body includes a first side surface and a second side surface, the second side surface is exposed to an outer surface of the electronic device, a mounting groove is provided in the frame body, a first opening is provided on the first side surface, a second opening is provided on the second side surface, and both the first opening and the second opening are in communication with the mounting groove; the button assembly includes a button cap and an elastic member, the button cap is disposed in the second opening, the elastic member is disposed in the mounting groove, a slide cover is disposed in the first opening, and the slide cover is detachably connected to the frame body.

A housing assembly (10), a mobile energy storage apparatus (100), and an energy storage system (1000) are provided. The housing assembly (10) includes a first housing (11), a button structure (12), and a circuit board (13). The first housing (11) is provided with a first fixing portion (112) on an inner surface of the first housing (11). The button structure (12) includes a button body (121) passing through a button via hole (111) of the first housing (11) and a resilient arm (122). The button body (121) is provided with a button protrusion (1211). The circuit board (13) is positioned at one side of the button structure (12) positioned facing away from the button via hole (111). The circuit board (13) is provided with a control button (131) positioned facing towards the button structure (12). One of the circuit board (13) and a fixing end (1222) of the resilient arm (122) is provided with a positioning portion (132), and the other of the circuit board (13) and the fixing end (1222) is provided with a fitting portion (1223).

An ion source capable of different operation modes is disclosed. A vaporizer communicates with the ion source. The ion source can have a plurality of gas inlets communicating with different gases. When operating in the first mode, the ion source can supply a first gas, such as an inert gas, while heating the vaporizer. When operating in the second mode, the ion source can supply a second gas, and the second gas can be an organoaluminum gas. When operating in the third mode, the ion source can supply the second gas while heating the vaporizer. Ions having a single charge can be generated in the first and second modes, while ions having multiple charges can be generated in the third mode.

Pressure switch (100), comprising: a housing (110) with an opening (111) and a compartment (112) that is connected to the opening (111); a fixed contact element that is attached to the housing (110) and arranged in the compartment (112); a movable contact element (130A) which is arranged in the compartment (112) closer to the opening (111) than the fixed contact element and has a bulge (131A, 131B) wherein the bulge (131A, 131B) projects towards the opening (111) and is invertible; and a first pressure element (140) which is arranged closer to the opening (111) than the movable contact element within the compartment (112) and which has a first pivot section (142), a first load section (143) and a first force application section (144), wherein the first pivot section is arranged on one side of the first pressure element (140) to contact the housing (110), the first load section (143) is arranged on another side of the first pressure element to press the movable contact element, and the first force application section (144) is arranged between the first pivot section (142) and the first load section (143), wherein, when the first force application section is pressed through the opening (111), a first projection (144A) of the first force application section (144) presses and inverts the curvature (131A, 131B) of the movable contact element, and the movable contact element touches the fixed contact element, wherein the first pressure element has a first elastic section that projects towards one side opposite the opening (111), wherein the fixed contact element has a first fixed contact which is configured to be brought into contact with and separated from the movable contact element, and a second fixed contact which is configured to be brought into contact with and separated from the first elastic section, and When the first load section (143) is pressed through the opening (111), the first elastic section touches the second fixed contact, and subsequently the first projection (144A) of the first load section (143) presses the bulge (131A, 131B) of the movable contact element and inverts it, and the movable contact element touches the first fixed contact.

A control device configured for use in a load control system to control an electrical load external to the control device may comprise an actuation member having a front surface defining a capacitive touch surface configured to detect a touch actuation along at least a portion of the front surface. The control device includes a main printed circuit board (PCB) comprising a control circuit, a tactile switch, a controllably conductive device, and a drive circuit operatively coupled to a control input of the controllably conductive device for rendering the controllably conductive device conductive or non-conductive to control the amount of power delivered to the electrical load. The control device also includes a capacitive touch PCB that comprises a touch sensitive circuit comprising one or more receiving capacitive touch pads located on the capacitive touch PCB and arranged in a linear array adjacent to the capacitive touch surface.

Embodiments of this application provide an electronic device, including a frame body and a button assembly, where the frame body includes a first side surface and a second side surface, the second side surface is exposed to an outer surface of the electronic device, a mounting groove is provided in the frame body, a first opening is provided on the first side surface, a second opening is provided on the second side surface, and both the first opening and the second opening are in communication with the mounting groove; the button assembly includes a button cap and an elastic member, the button cap is disposed in the second opening, the elastic member is disposed in the mounting groove, a slide cover is disposed in the first opening, and the slide cover is detachably connected to the frame body; and a projection size of the elastic member on the first side surface is smaller than a size of the first opening, and a projection size of the elastic member on the second side surface is larger than a size of the second opening.

An input device includes a housing, an operation knob, a cam member disposed so as to be able to swing in a direction intersecting a rotation direction of the operation knob, a first action being performed in a swinging manner when the operation knob is rotated in a first angle range, a second action being performed in a swinging manner when the operation knob is rotated in a second angle range, a substrate, a first switch provided on the substrate, being turned on in response to the first action of the cam member, and a second switch provided on the substrate, being turned on in response to the second action of the cam member, the operation knob being automatically restored by a restoring force from the first switch and the second switch when an operation force is released, wherein the input device has a first actuator which slides in response to the first action of the cam member, pressing the first switch in a direction perpendicular to the substrate, and a second actuator which slides in response to the second action of the cam member, pressing the second switch in a direction perpendicular to the substrate.

A housing assembly (10), a mobile energy storage apparatus (100), and an energy storage system (1000) are provided. The housing assembly (10) includes a first housing (11), a button structure (12), and a circuit board (13). The first housing (11) is provided with a first fixing portion (112) on an inner surface of the first housing (11). The button structure (12) includes a button body (121) passing through a button via hole (111) of the first housing (11) and a resilient arm (122). The button body (121) is provided with a button protrusion (1211). The circuit board (13) is positioned at one side of the button structure (12) positioned facing away from the button via hole (111). The circuit board (13) is provided with a control button (131) positioned facing towards the button structure (12). One of the circuit board (13) and a fixing end (1222) of the resilient arm (122) is provided with a positioning portion (132), and the other of the circuit board (13) and the fixing end (1222) is provided with a fitting portion (1223).