Abstract:
A data cabling jack device for configuring a plurality of cables on an assembly frame is provided. The data cabling jack device includes a housing and an engaging structure. The housing has an accommodation space, wherein the housing includes a jack side and a cable side opposite to the jack side. The engaging structure is disposed on the housing and has an engaging switch and an engaging portion, wherein the engaging switch is switched between a release position and an engaging position. The release position and the engaging position are respectively disposed nearby the cable side and the jack side. The engaging portion engages the assembly frame when the engaging switch is switched from the release position to the engaging position to drive the engaging portion to protrude out of the assembly frame.
Abstract:
A waterproof sensing device including a base, a rear cover, a sensing module, and a lens is provided. The rear cover is selectively rotatably disposed on the base, wherein the rear cover has a side wall to enclose an accommodation space. The sensing module is disposed in the accommodation space. The lens covers the rear cover on the edge of the side wall of the rear cover and seals the accommodation space. A waterproof treatment is disposed between the lens and the edge of the side wall, such that moisture is prevented from intruding into the accommodation space to cause damage, no matter where the sensing device is disposed.
Abstract:
A temperature variation sensing apparatus and a method thereof are provided. The temperature variation sensing apparatus includes a sensing unit and a control unit. The sensing unit senses a variation in temperature to generate a temperature difference signal, while the control unit executes a program code to determine a non-trigger range based on the ambient temperature. When the level of the temperature difference signal is out of the non-trigger range, the control unit generates a control signal, wherein of the non-trigger range varies with the ambient temperature and forms a first curve. The first curve includes at least one first extreme point; the product of slopes of the first curve on two ends of the first extreme point is negative. Software is utilized to perform temperature compensation. As a result, a better sensitivity curve is obtained and the sensing accuracy is accordingly enhanced.
Abstract:
A connector is provided. The connector includes a connector body, a signal transmitting unit, a cover, a fastening plate, and an extension plate. The connector body has side walls to enclose an assembly hole. The signal transmitting unit is disposed in the assembly hole. The cover has a first end, a second end, and a first pivot and is disposed outside the assembly hole. The first end and the first pivot are disposed on two ends of a side case of the cover. The second end is opposite to the first end while the first pivot is axially connected to one side of the assembly hole. The fastening plate has a second pivot opposite and parallel to the first pivot. The second pivot axially connected to the side wall around the assembly hole. One end of the extension plate has a third pivot parallel to the first pivot and is rotatably connected to the fastening plate. The other end of the extension plate has a pressing portion to press the second end of the cover from outside to make the cover rotates toward the connector body and press the signal transmitting unit.
Abstract:
The present invention discloses an automatic calibration method of a sensor, including the following steps of: (A1) setting a default trigger value; (A2) sampling a signal and accumulating a signal value to perform signal judgment; (A3) determining whether a trigger condition is met or not; (A4) if yes, recording an accumulated signal value meeting the trigger condition, and if not, returning to step (A2); and (A5) analyzing and updating the default trigger value.
Abstract:
The present invention discloses a circuit substrate, including a first signal end, a second signal end, a first circular capacitor structure, and a second circular capacitor structure. The first circular capacitor structure is electrically connected to the first signal end. The second circular capacitor structure is electrically connected to the second signal end. The first circular capacitor structure and the second circular capacitor structure are located in different planes of the circuit substrate.
Abstract:
A rotatable frame is provided for accommodating a connector. The rotatable frame can be used with a plate and includes a frame body, two positioning portions, and two pivots. The frame body has a first sidewall, a second sidewall, a top plate, and a bottom plate, wherein the first sidewall, the second sidewall, the top plate, and the bottom plate are connected to enclose an accommodation space for accommodating the connector and to form a connector inserting opening. The two positioning portions are respectively formed on the top plate and the bottom plate at one side that is near the connector inserting port. The two positioning portions respectively have a blocking surface, wherein the blocking surface obliquely extends away from the connector inserting opening. The two pivots respectively protrude from the outer side of the first sidewall and the outer side of the second sidewall coaxially.
Abstract:
A connector is provided. The connector includes a connector body, a signal transmitting unit, a cover, a fastening plate, and an extension plate. The connector body has side walls to enclose an assembly hole. The signal transmitting unit is disposed in the assembly hole. The cover has a first end, a second end, and a first pivot and is disposed outside the assembly hole. The first end and the first pivot are disposed on two ends of a side case of the cover. The second end is opposite to the first end while the first pivot is axially connected to one side of the assembly hole. The fastening plate has a second pivot opposite and parallel to the first pivot. The second pivot axially connected to the side wall around the assembly hole. One end of the extension plate has a third pivot parallel to the first pivot and is rotatably connected to the fastening plate. The other end of the extension plate has a pressing portion to press the second end of the cover from outside to make the cover rotates toward the connector body and press the signal transmitting unit.
Abstract:
A multi-directional mounting faceplate for managing a plurality of cables is provided. The mounting faceplate includes a faceplate body and a nose cover, wherein the faceplate body has an opening disposed about the center of the faceplate body. The cross-sectional shape of the nose cover is similar to the shape of the opening. The nose cover has two side plates and a linking plate which is connected between the two side plates, such that the nose cover can be rotatably connected to the faceplate body to change the open direction of the mounting faceplate.