Abstract: A low dust linear module includes a rail unit, a slide seat unit, a dustproof strip and two magnetic members. The two magnetic members are disposed at the two slide seat end portions of the slide seat, the first magnetic attraction gap is defined between the magnetic attraction area and a corresponding one of the magnetic members, and the second magnetic attraction gap is defined between the magnetic attraction area and the slide seat cover. When the dustproof strip passes through and are magnetically attracted by the magnetic members, a gap will appear between the magnetic members and the slide seat and the slide seat cover, so that the magnetic members and the dustproof strip are kept in a gap without friction, so as to avoid the generation of dust due to friction, so that the linear module can operate normally and maintain the standard of the working environment.

Abstract: A post processing apparatus includes a super-resolution (SR) filtering circuit and a loop restoration (LR) filtering circuit. The SR filtering circuit applies SR filtering to a processing result of a preceding circuit. The LR filtering circuit applies LR filtering to a processing result of the SR filtering circuit. Before the SR filtering circuit finishes SR filtering of all pixels of a frame that are generated by the preceding circuit, the LR filtering circuit starts LR filtering of pixels that are derived from applying SR filtering to pixels included in the frame.

Abstract: A method for fabricating a semiconductor structure is shown. A first gate of a first device and a second gate of a second device are formed over a semiconductor substrate. First LDD regions are formed in the substrate beside the first gate using the first gate as a mask. A conformal layer is formed covering the first gate, the second gate and the substrate, wherein the conformal layer has sidewall portions on sidewalls of the second gate. Second LDD regions are formed in the substrate beside the second gate using the second gate and the sidewall portions of the conformal layer as a mask.

Abstract: The present disclosure provides a device and method for powder distribution and an additive manufacturing method, wherein different size or kind of powders could be chosen to be accommodated within a receptacle. The receptacle can uniformly mix the powder by a rotation movement, pour out the powders by the rotation movement and distribute the powders for forming a layer by a translation movement. In another embodiment, the receptacle further comprises a heating element for preheating the powders. Not only can the present disclosure uniformly mix the powders so as to reduce the thermal deformation and distribute the powder layer compactly, but also can the present disclosure distribute different kinds of powder in different layer so as to increase the diversity in additive manufacturing.

Abstract: A post processing apparatus includes a super-resolution (SR) filtering circuit and a loop restoration (LR) filtering circuit. The SR filtering circuit applies SR filtering to a processing result of a preceding circuit. The LR filtering circuit applies LR filtering to a processing result of the SR filtering circuit. Before the SR filtering circuit finishes SR filtering of all pixels of a frame that are generated by the preceding circuit, the LR filtering circuit starts LR filtering of pixels that are derived from applying SR filtering to pixels included in the frame.

Abstract: A low dust linear module includes a rail unit, a slide seat unit, a dustproof strip and two magnetic members. The two magnetic members are disposed at the two slide seat end portions of the slide seat, the first magnetic attraction gap is defined between the magnetic attraction area and a corresponding one of the magnetic members, and the second magnetic attraction gap is defined between the magnetic attraction area and the slide seat cover. When the dustproof strip passes through and are magnetically attracted by the magnetic members, a gap will appear between the magnetic members and the slide seat and the slide seat cover, so that the magnetic members and the dustproof strip are kept in a gap without friction, so as to avoid the generation of dust due to friction, so that the linear module can operate normally and maintain the standard of the working environment.

Abstract: Provided is a base plate unit, which is of an integrated structure made of fiber reinforced polymer-matrix composite and comprises a base plate unit body and foot plates. The base plate unit body comprises at least one bearing part, each bearing part comprising a panel, a plurality of web plates extending downwards from the bottom of the panel, and bottom supports disposed at the lower end of the web plates. The web plates comprise two side-web plates on the two sides of the panel and a middle web plate in the middle. The foot plates are disposed on the two outer sides of the bottom of the base plate unit body, and are formed by the bottoms of the two side-web plates on the outmost side of the base plate unit body respectively extending outwards horizontally. Also provided is a base plate unit provided with a cavity filling member.

Abstract: An apparatus includes a first device connector configured to be coupled to a first device. The apparatus also includes a second device connector configured to be coupled to a second device. The apparatus further includes at least two connection arms forming a hinged connection between the first device connector and the second device connector. In addition, the apparatus includes a flexible connector coupled to the first device connector and the second device connector, at least a portion of the flexible connector extending through the at least two connection arms, the flexible connector comprising a flexible printed circuit board assembly (PCBA) or a flexible flat cable (FFC).

Abstract: The trajectory planning system for integrating a computer numerical control (CNC) machine, trajectory planning device, trajectory planning method, and computer program thereof are provided. The aforementioned trajectory planning device includes a determining module. The determining module configures the related processing speed or processing acceleration based on type of the processing segment so as to provide a processing setting. Furthermore, the aforementioned trajectory planning device determines the processing segment whether the linear or circular segment and plans the tangent or normal acceleration of related processing segment so as to optimize the processing setting and finish the high order processing trajectory planning.

Abstract: A guide and support apparatus is provided. The guide and support apparatus comprises a mounting portion, a support portion, and a guide and lock portion. The support portion extends to the guide and lock portion and ends at the mounting portion. The mounting portion extends downward from one or two ends of the support portion and comprises a lock structure. The guide and lock portion extends from the support portion to a certain height. Further, a method for manufacturing the guide and support apparatus is provided.

Abstract: A non-volatile memory device includes a semiconductor substrate, a control gate electrode, a first oxide-nitride-oxide (ONO) structure, a selecting gate electrode, a second ONO structure, and a spacer structure. The control gate electrode and the selecting gate electrode are disposed on the semiconductor substrate. The first ONO structure is disposed between the control gate electrode and the semiconductor substrate. The second ONO structure is disposed between the control gate electrode and the selecting gate electrode in a first direction. The spacer structure is disposed between the control gate electrode and the second ONO structure in the first direction. A distance between the control gate electrode and the selecting gate electrode in the first direction is smaller than or equal to a sum of a width of the second ONO structure and a width of the spacer structure in the first direction.

Abstract: A non-volatile memory device includes a semiconductor substrate, a control gate electrode, a first oxide-nitride-oxide (ONO) structure, a selecting gate electrode, a second ONO structure, and a spacer structure. The control gate electrode and the selecting gate electrode are disposed on the semiconductor substrate. The first ONO structure is disposed between the control gate electrode and the semiconductor substrate. The second ONO structure is disposed between the control gate electrode and the selecting gate electrode in a first direction. The spacer structure is disposed between the control gate electrode and the second ONO structure in the first direction. A distance between the control gate electrode and the selecting gate electrode in the first direction is smaller than or equal to a sum of a width of the second ONO structure and a width of the spacer structure in the first direction.

Abstract: Provided is a base plate unit, which is of an integrated structure made of fiber reinforced polymer-matrix composite and comprises a base plate unit body and foot plates. The base plate unit body comprises at least one bearing part, each bearing part comprising a panel, a plurality of web plates extending downwards from the bottom of the panel, and bottom supports disposed at the lower end of the web plates. The web plates comprise two side-web plates on the two sides of the panel and a middle web plate in the middle. The foot plates are disposed on the two outer sides of the bottom of the base plate unit body, and are formed by the bottoms of the two side-web plates on the outmost side of the base plate unit body respectively extending outwards horizontally. Also provided is a base plate unit provided with a cavity filling member.

Abstract: An apparatus includes a first device connector configured to be coupled to a first device. The apparatus also includes a second device connector configured to be coupled to a second device. The apparatus further includes at least two connection arms forming a hinged connection between the first device connector and the second device connector. In addition, the apparatus includes a flexible connector coupled to the first device connector and the second device connector, at least a portion of the flexible connector extending through the at least two connection arms, the flexible connector comprising a flexible printed circuit board assembly (PCBA) or a flexible flat cable (FFC).

Abstract: A method for fabricating a semiconductor structure is shown. A first gate of a first device and a second gate of a second device are formed over a semiconductor substrate. First LDD regions are formed in the substrate beside the first gate using the first gate as a mask. A conformal layer is formed covering the first gate, the second gate and the substrate, wherein the conformal layer has sidewall portions on sidewalls of the second gate. Second LDD regions are formed in the substrate beside the second gate using the second gate and the sidewall portions of the conformal layer as a mask.

Abstract: A belt driven linear actuator includes: a base, a linearly movable unit, a belt driven unit, a first cover, a second cover, a drive source, and a slide block. With the first and second covers removably disposed on the base, the first and second covers can be located at different positions to define different gaps in different directions, so as to allow the slide block to be assembled in different directions, and reduce the restriction on the assembling direction of the drive source. Besides, the width of the base is equal to the height of the base, and the height of the cover portion is equal to the height and the width of the base, which allows the base to be assembled in the same position while in different directions.

Abstract: A method for fabricating a semiconductor structure is shown. A first gate of a first device and a second gate of a second device are formed over a semiconductor substrate. First LDD regions are formed in the substrate beside the first gate using the first gate as a mask. A conformal layer is formed covering the first gate, the second gate and the substrate, wherein the conformal layer has sidewall portions on sidewalls of the second gate. Second LDD regions are formed in the substrate beside the second gate using the second gate and the sidewall portions of the conformal layer as a mask.

Abstract: A linear actuator includes a linear module including a base, a screw rod mounted in the base and a transmission carriage threaded onto the screw rod, and a support module including two support carriages movably mounted on the screw rod at two opposite sides relative to the transmission carriage, a protective cover disposed at one side of the base and connected to the two support carriages, two pulley blocks mounted at the two opposite ends of the protective cover and a cable wound round the pulleys of the pulley blocks and connected to the transmission carriage and the base by a respective cable connection plate. Thus, the transmission carriage utilizes the cable to carry one pulley block and then the protective cover, causing the protective cover to carry the two support carriages and the other pulley block, achieving the effect of supporting the screw rod.

Abstract: A method for fabricating a semiconductor structure is shown. A first gate of a first device and a second gate of a second device are formed over a semiconductor substrate. First LDD regions are formed in the substrate beside the first gate using the first gate as a mask. A conformal layer is formed covering the first gate, the second gate and the substrate, wherein the conformal layer has sidewall portions on sidewalls of the second gate. Second LDD regions are formed in the substrate beside the second gate using the second gate and the sidewall portions of the conformal layer as a mask.

Abstract: A touch device and a sensing compensation method are provided. The touch device may include a touch panel, a sensing compensation circuit and a sensing circuit. The sensing compensation circuit may be coupled to the touch panel for providing a compensation-impedance according to features of the touch panel. The sensing circuit may be coupled to the sensing compensation circuit. The sensing circuit receives touch information compensated by the sensing compensation circuit.