Abstract: A vertical transmission equipment includes a base having a mount surface, a rail structure disposed on the mount surface, and a carrier movably disposed on the rail structure, the carrier includes a supporting surface, and the supporting surface of the carrier is perpendicular to the mount surface of the base.

Abstract: A vertical transmission equipment includes a base which includes a mount surface, a carrier movably disposed on the base and including a supporting surface, and a positioning assembly disposed on the base and to selectively position the carrier, and the supporting surface of the carrier is perpendicular to the mount surface of the base.

Abstract: An overload protection mechanism includes a first accommodating member, a second accommodating member, a force storage member, and an object. The second accommodating member is rotatably disposed on the first accommodating member. The force storage member is disposed between the first accommodating member and the second accommodating member. Opposite ends of the force storage member are connected to the first accommodating member and the second accommodating member. The object is connected to the second accommodating member. When an external force is exerted on the object and a torque generated by the external force is larger than a torque provided by the force storage member, the external force forces the object to drive the second accommodating member to rotate with respect to the first accommodating member.

Abstract: An overload protection mechanism includes a first accommodating member, a second accommodating member, a force storage member, and an object. The second accommodating member is rotatably disposed on the first accommodating member. The force storage member is disposed between the first accommodating member and the second accommodating member. Opposite ends of the force storage member are connected to the first accommodating member and the second accommodating member. The object is connected to the second accommodating member. When an external force is exerted on the object and a torque generated by the external force is larger than a torque provided by the force storage member, the external force forces the object to drive the second accommodating member to rotate with respect to the first accommodating member.

Abstract: A shock absorbing device includes a floating platform, a base, and at least three locking mechanisms. The floating platform is movably spaced above the base and loaded with a machine. A center of gravity of the floating platform and the machine is located within a field enclosed by the at least three locking mechanisms. Each of the at least three locking mechanisms includes a first fixing component, a second fixing component, and a third fixing component. The first fixing component is disposed on the floating platform. The second fixing component is disposed on the base and located at a position corresponding to the first fixing component. The third fixing component is disposed on the second fixing component to engage with the first fixing component, so that the floating platform can be locked onto the base, which prevents damage of internal components of the machine caused by shock loads during transportation.

Abstract: A shock absorbing device includes a floating platform, a base, and at least three locking mechanisms. The floating platform is movably spaced above the base and loaded with a machine. A center of gravity of the floating platform and the machine is located within a field enclosed by the at least three locking mechanisms. Each of the at least three locking mechanisms includes a first fixing component, a second fixing component, and a third fixing component. The first fixing component is disposed on the floating platform. The second fixing component is disposed on the base and located at a position corresponding to the first fixing component. The third fixing component is disposed on the second fixing component to engage with the first fixing component, so that the floating platform can be locked onto the base, which prevents damage of internal components of the machine caused by shock loads during transportation.

Abstract: A body fluid test system includes a test chip, an image capturing device, a moving mechanism for test tube and at least one fluid transfer device. The image capturing device is for capturing image of the test chip. The moving mechanism includes a base and a test tube carrier. The test tube carrier is movably disposed on the base. The test tube carrier is for carrying at least one test tube. One end of the fluid transfer device corresponds to the top of the test tube carrier, and another end of the fluid transfer device corresponds to the test chip. The test tube carrier is movable upwardly from a pre-testing position to a testing position. When the test tube carrier is at the testing position, the fluid transfer device is for transferring a body fluid sample contained in the at least one test tube to the test chip.

Abstract: A body fluid test system includes a test chip, an image capturing device, a moving mechanism for test tube and at least one fluid transfer device. The image capturing device is for capturing image of the test chip. The moving mechanism includes a base and a test tube carrier. The test tube carrier is movably disposed on the base. The test tube carrier is for carrying at least one test tube. One end of the fluid transfer device corresponds to the top of the test tube carrier, and another end of the fluid transfer device corresponds to the test chip. The test tube carrier is movable upwardly from a pre-testing position to a testing position. When the test tube carrier is at the testing position, the fluid transfer device is for transferring a body fluid sample contained in the at least one test tube to the test chip.

Abstract: A multi-directional button assembly includes a first switch, a second switch, a support piece, a pressing slice, a center button body, and a directional button body. The first switch and the second switch respectively provide a first trigger point and a second trigger point to be pressed to generate a first trigger signal and a second trigger signal. The support piece is disposed above the first switch and includes an aperture corresponding to the first trigger point. The pressing slice extends from the support piece to a position above the second switch. The center button body includes an extension post and is pressed for driving the extension post to press the first trigger point via the aperture. The directional button body is disposed above the pressing slice and is pressed to bias the pressing slice to press the second trigger point without pressing the first trigger point.

Abstract: A multi-directional button assembly includes a first switch, a second switch, a support piece, a pressing slice, a center button body, and a directional button body. The first switch and the second switch respectively provide a first trigger point and a second trigger point to be pressed to generate a first trigger signal and a second trigger signal. The support piece is disposed above the first switch and includes an aperture corresponding to the first trigger point. The pressing slice extends from the support piece to a position above the second switch. The center button body includes an extension post and is pressed for driving the extension post to press the first trigger point via the aperture. The directional button body is disposed above the pressing slice and is pressed to bias the pressing slice to press the second trigger point without pressing the first trigger point.

Abstract: A housing is for an electronic device. The housing includes a main body made of thermoplastic, and a transparent layer formed on the main body. The transparent layer is made of transparent thermosetting plastic.

Abstract: A transmission unit mounted on the machine base of an office automation machine and covered with a cover and controlled to turn a document feeding control roller through a first driven gear set and/or a thermal paper letting-off control roller through a second driven gear set, including motor, a drive gear turned by the motor, a gear transmission mechanism which includes a first planet gear, a second planet gear, and a sector gear respectively turned by the drive gear to turn the first driven gear set and/or the second driven gear set, and a memory transmission setting mechanism which includes an electromagnetic valve, and a reciprocating rod reciprocated by the electromagnetic valve and having a front notch at a front end thereof, the front notch of the reciprocating rod being forced into engagement with the gear shaft of the first planet gear to disengage the first planet gear from the first driven gear set when the fax machine is set at the memory transmission mode.

Abstract: A transmission unit mounted on the machine base of an office automation machine and covered with a cover and controlled to turn a first roller and a second roller, including a gear transmission mechanism, a first roller having a driven gear set at one end, and a second roller having a driven gear set at one end, wherein the gear transmission mechanism includes a motor, a rounded seat raised from the machine base, a drive gear mounted on the rounded seat and coupled to the motor, a first annular gear holder revolvably mounted around the rounded seat and having an upright gear shaft, a second annular gear holder revolvably mounted around the rounded seat and having two upright gear shafts, an auxiliary gear mounted on the machine base, a first planet gear revolvably mounted around the gear shaft of the first annular gear holder and driven by the drive gear to turn the driven gear set of the first roller, a second planet gear revolvably mounted around one upright gear shaft of the second annular gear holder and

Abstract: A transmission unit mounted on the machine base of an office automation machine and covered with a cover and controlled to turn a first roller and a second roller, including a gear transmission mechanism, a first roller having a driven gear set at one end, and a second roller having a driven gear set at one end, wherein the gear transmission mechanism includes a motor, a rounded seat raised from the machine base, a drive gear mounted on the rounded seat and coupled to the motor, a first annular gear holder and a second annular gear holder revolvably mounted around the rounded seat and having a respective upright gear shaft, a crank turned about a pivot on the machine base and having an upright gear shaft at the free end, a first planet gear revolvably mounted around the gear shaft of the first annular gear holder and driven by the drive gear to turn the driven gear set of the first roller, a second planet gear revolvably mounted around the upright gear shaft of the crank and forced by the drive gear to turn t

Abstract: A transmission unit mounted on the machine base of an office automation machine and covered with a cover and controlled to turn a first roller and a second roller, including a gear transmission mechanism, a first roller transmission mechanism driven and a second roller transmission mechanism respectively driven by the gear transmission mechanism to turn the rollers, wherein the gear transmission mechanism includes a motor, a rounded seat raised from the machine base, a drive gear mounted on the rounded seat and coupled to the motor, an annular gear holder revolvably mounted around the rounded seat and having an upright gear shaft, an upright axle raised from the machine base adjacent to the rounded seat, a crank having a pivot hole at one end coupled to the upright axle and a gear shaft at an opposite end, a first planet gear revolvably mounted around the gear shaft of the crank and driven by the drive gear to turn the first roller transmission mechanism, a second planet gear revolvably mounted around the gea