Abstract: A clamping device, an electronic device, and a remote control method of the electronic device. The clamping device includes a clamping unit, a first communication unit, and a control unit. The clamping unit is suitable for clamping the electronic device. The first communication unit is suitable for pairing with a second communication unit of the electronic device. The control unit is coupled to the clamping unit and the first communication unit. When the clamping unit is switched from an off mode to an on mode, the control unit controls the first communication unit to pair with the second communication unit and sends a screen-off command to the second communication unit via the first communication unit after the pairing is completed. When the clamping unit is in a clamping mode, the control unit sends an application open command to the second communication unit via the first communication unit.

Abstract: An autonomous mobile robot, adapted to move on a surface according to a moving datum plane, is provided. The autonomous mobile robot comprising: a first distance sensor configured to detect a first detecting distance between the first distance sensor and the surface along a first axial direction; a second distance sensor configured to detect a second detecting distance between the second distance sensor to the surface along a second axial direction; and a control unit configured to control the autonomous mobile robot to move in a speed limited mode when the first detecting distance is within a first distance range, and configured to control the autonomous mobile robot to stop moving when the second detecting distance is larger than a second pre-determined distance. A mobile control method is also provided.

Abstract: An autonomous mobile robot, adapted to move on a surface according to a moving datum plane, is provided. The autonomous mobile robot comprising; a first distance sensor configured to detect a first detecting distance between the first distance sensor and the surface along a first axial direction; a second distance sensor configured to detect a second detecting distance between the second distance sensor to the surface along a second axial direction; and a control unit configured to control the autonomous mobile robot to move in a speed limited mode when the first detecting distance is within a first distance range, and configured to control the autonomous mobile robot to stop moving when the second detecting distance is larger than a second pre-determined distance. A mobile control method is also provided.

Abstract: A waste food disposer unit 10 for under sink application has a housing divided into a grinding chamber 12 and a motor chamber 15. The grinding chamber 12 has an inlet 16 for water and waste matter and an outlet 18 for water and shredded waste matter. A shredder ring 20 is disposed within the grinding chamber and has a plurality of cutting teeth 36 formed by slots 34 extending upwardly from a lower edge of the ring. A grinding disc 22 is disposed within the grinding chamber 12 and has a plurality of peripheral recesses 42 which co-acts with the cutting teeth 36 to shred the waste matter.

Abstract: A waste food disposer unit 10 for under sink application has a housing divided into a grinding chamber 12 and a motor chamber 15. The grinding chamber 12 has an inlet 16 for water and waste matter and an outlet 18 for water and shredded waste matter. A shredder ring 20 is disposed within the grinding chamber and has a plurality of cutting teeth 36 formed by slots 34 extending upwardly from a lower edge of the ring. A grinding disc 22 is disposed within the grinding chamber 12 and has a plurality of peripheral recesses 42 which co-acts with the cutting teeth 36 to shred the waste matter.

Abstract: An optical disc drive including a housing, a fixing part, a flexible flat cable and an electronic component is provided. The fixing part is disposed in the housing. The flexible flat cable is disposed in the housing and includes a first and a second portions. The first portion has a component-disposed region whose backside is in contact with the fixing part. The second portion has a conductive surface, and the second portion is connected with and opposite to the first portion. The component-disposed region is located between the fixing part and the conductive surface. Additionally, the first optical disc drive is disposed on the component-disposed region.

Abstract: For the optical disc drive in the invention, the holder, the gear set and the transmission part and other components have mechanical interacting relationship, and therefore, when the power of the optical disc drive is cut off, the optical disc still can be ejected from the casing by the mechanical interaction of the components. An optical disc drive including a casing, a holder, a motor, a first and second gear sets, and a transmission part is provided. The holder which can move between a first and second position is disposed in the casing. When the holder moves to the second position, the second gear set is away from the first gear set at a distance, and the transmission part drives the disc to eject from the casing by the external force.

Abstract: A method for adjusting an optical axis of an optical disc drive. The method includes the following steps. A first reflecting member is disposed on a turntable of the optical disc drive, and is rotated along with the turntable. A laser light is emitted on the first reflecting member by a laser collimator, and a normal vector of the turntable is measured based on a light point reflected to the laser collimator from the first reflecting member. A second reflecting member and a third reflecting member are disposed on a guide bar of the optical disc drive. A first initial vector and a second initial vector are measured based on a light point reflected to the laser collimator from the second reflecting member and the third reflecting member.

Abstract: An electric device includes a first housing, a second housing, an ODD main body and an ODD protecting element. The first housing and the second housing form a containing space. The ODD main body is located in the containing space and is disposed on the second housing. At least one part of the ODD protecting element connects with the second housing. Furthermore, the ODD protecting element covers the ODD main body.

Abstract: A lash-eliminating device for a worm-and-gear assembly. The worm-and-gear assembly includes a worm and a worm gear engaged therewith. The lash-eliminating device comprises a base, a frame, a motor, and a biasing member. The worm gear is disposed on the base. The frame is disposed on the base in a rotatable manner. The motor is disposed in the frame, and includes an output shaft. The output shaft is connected to the worm. The biasing member is disposed on the base in a manner such that the biasing member abuts the frame. Thus, when the worm is rotated by the motor via the output shaft so as to rotate the worm gear, the frame is rotated by the biasing member so that the worm is moved relative to the worm gear to eliminate a lash between the worm and the worm gear.

Abstract: A method for adjusting an optical axis of an optical disc drive. The method includes the following steps. A first reflecting member is disposed on a turntable of the optical disc drive, and is rotated along with the turntable. A laser light is emitted on the first reflecting member by a laser collimator, and a normal vector of the turntable is measured based on a light point reflected to the laser collimator from the first reflecting member. A second reflecting member and a third reflecting member are disposed on a guide bar of the optical disc drive. A first initial vector and a second initial vector are measured based on a light point reflected to the laser collimator from the second reflecting member and the third reflecting member.

Abstract: A lash-eliminating device for a worm-and-gear assembly. The worm-and-gear assembly includes a worm and a worm gear engaged therewith. The lash-eliminating device comprises a base, a frame, a motor, and a biasing member. The worm gear is disposed on the base. The frame is disposed on the base in a rotatable manner. The motor is disposed in the frame, and includes an output shaft. The output shaft is connected to the worm. The biasing member is disposed on the base in a manner such that the biasing member abuts the frame. Thus, when the worm is rotated by the motor via the output shaft so as to rotate the worm gear, the frame is rotated by the biasing member so that the worm is moved relative to the worm gear to eliminate a lash between the worm and the worm gear.