Abstract: A constant tension mechanism of a training machine is provided, including: a base, configured to be connected to a body of the training machine; an elastic member, abutted against the base; and a tension mechanism, including a movable member movably connected with the base and abutted against the elastic member, and at least one tension pulley rotatably disposed on the movable member and configured to urge a belt connected to the body; wherein relative to the base a direction in which the elastic member forces the movable member and a direction in which the at least one tension pulley moves point toward the same direction.

Abstract: A method for forming a semiconductor device includes providing a semiconductor substrate, implanting n-type impurities into a device region in the semiconductor substrate to form an implanted region and an un-implanted region. The method also includes forming an epitaxial layer on the semiconductor substrate and forming a trench surrounding the device region in direct contact with the implanted region. The method further includes performing a selective lateral etch through the trench to remove the implanted region to form a cavity under the epitaxial layer. The un-implanted region is retained to form a pillar under the epitaxial layer. Next, an insulating material is disposed in the cavity and the trench. The method forms a single crystalline region that is separated from the semiconductor substrate by the insulating material except at the pillar.

Abstract: Various embodiments of the present disclosure are directed towards a semiconductor processing system including an overlay (OVL) shift measurement device. The OVL shift measurement device is configured to determine an OVL shift between a first wafer and a second wafer, where the second wafer overlies the first wafer. A photolithography device is configured to perform one or more photolithography processes on the second wafer. A controller is configured to perform an alignment process on the photolithography device according to the determined OVL shift. The photolithography device performs the one or more photolithography processes based on the OVL shift.

Abstract: A constant tension mechanism of a training machine is provided, including: a base, configured to be connected to a body of the training machine; an elastic member, abutted against the base; and a tension mechanism, including a movable member movably connected with the base and abutted against the elastic member, and at least one tension pulley rotatably disposed on the movable member and configured to urge a belt connected to the body; wherein relative to the base a direction in which the elastic member forces the movable member and a direction in which the at least one tension pulley moves point toward the same direction.

Abstract: An automatic processing device for liquid samples includes a sample region, a control module, an image identification device and a centrifuge. The sample region is configured to accommodate a plurality of centrifuge tubes. The control module includes a mechanical module. The mechanical module is configured to unscrew or tighten upper caps of the centrifuge tubes, and is configured to draw liquid from the centrifuge tubes or discharge liquid to the centrifuge tubes. The image identification device is coupled to the control module. The centrifuge is coupled to the control module. The centrifuge is configured to accommodate the centrifuge tubes and perform centrifugal treatment.

Abstract: A pedal structure includes a pedal body, a first bearing, a stopping element, a central axle, and a fixing element. The pedal body has a receiving space, and a fixing hole is formed at an end of the receiving space. A first stepped face is formed around the fixing hole. The first bearing is received in the receiving space and abuts against the first stepped face. The stopping element is received in the receiving space and abuts against the first bearing and is engaged with the inner wall of the receiving space. The central axle is inserted through the stopping element and the first bearing. The fixing element is inserted through the fixing hole to engage with the central axle to pull the central axle toward the first bearing.

Abstract: A single-face clipless pedal structure includes a pedal body for a cleat to be disposed thereon. The axle portion of the pedal body is formed with a recessed stepped portion at the front end thereof The stepped portion is enclosed by a bottom wall and a lateral wall including a stopping face, a first and a second guiding faces at two ends of the stopping face. The first and the second guiding faces are arc concave-shaped. The cleat is formed with an abutting piece downward having an abutting face, a third and a fourth guiding faces at two ends of the abutting face. The abutting face abuts against the stopping face to prohibit the cleat from moving rearward and upward. The third and the fourth guiding faces correspond to the first and the second guiding faces respectively to facilitate the cleat to detach laterally.

Abstract: An adjusted pedal is provided, including: a pedal body, having two clamp portions respectively configured to engage with a shoe; a pedal shaft, defining an axial direction; an engaging portion, disposed on the pedal body and movably engaged with the pedal shaft so that the pedal body is slidable positionly to the pedal shaft along the axial direction; wherein when the engaging portion is disengaged with the pedal shaft, the pedal body is slidable to the pedal shaft along the axial direction.

Abstract: A bicycle pedal, including: a pedal axle; a fixed portion, rotatably connected to the pedal axle, including a pedal body and a first cleat securing member fixedly attached to the pedal body, the first cleat securing member including a first securing opening; a second cleat securing member, rotatably connected to the fixed portion, including a second securing opening opposite to the first securing opening, the first and second securing openings configured for securing a cleat of a shoe; a biasing mechanism, including an adjustment mechanism movably attached to the fixed portion and an elastic member located between the second cleat securing member and the adjustment mechanism, the elastic member biasing the second cleat securing member in such a manner that the second cleat securing member tends to swing toward the first cleat securing member.

Abstract: A bicycle pedal includes a body having a fixed member, a movable member, a resilient unit and a link respectively connected to each of a first face and a second face thereof. The link and the resilient unit are respectively located on inside of the movable member. The link contacts the movable member. When the cleat of a bicycle shoe pushes the movable member and the link away from the body, the push end of the link swings away from the body and pushes the cleat to disengage from the peal. The link has a restriction portion located corresponding to outside of the end piece. The restriction portion extends from the link and toward the end piece to prevent the bolt from dropping from the end piece.

Abstract: A pedal assembly includes an axle and a pedal. The pedal has a passage defined therein, and a shoulder is defined in the inner periphery of the passage. An engaging member is engaged with the passage and the axle rotatably extends through the engaging member. The engaging member has multiple pawls which are engaged with the shoulder to connect the pedal and the axle.

Abstract: A pedal assembly includes an axle and a pedal. The pedal has a passage defined therein, and a shoulder is defined in the inner periphery of the passage. An engaging member is engaged with the passage and the axle rotatably extends through the engaging member. The engaging member has multiple pawls which are engaged with the shoulder to connect the pedal and the axle.

Abstract: A bicycle pedal with cadence sensor is disclosed and comprises a pedal shaft, a frame, and a cadence sensor. The pedal shaft is fastened at a crank of a bicycle. The frame is pivotably installed at the pedal shaft. The cadence sensor is arranged at the frame and the cadence sensor includes a G-sensor and a power supply coupled to the G-sensor. The cadence sensor is arranged at the frame. The cadence sensor is cooperating with the frame and the cadence information may be gained through the G-sensor. The cadence information may be transmitted to a bicycle computer or a smart mobile device. A cadence data may be resulted by program operation. The cadence data may be provided to analyze and apply.

Abstract: A vehicle-mounted detecting device for a bicycle comprises a force sensing base, a strain touch member for detecting the direction and magnitude of force, and a sensor contacted with the sensor. The detecting device is assembled to a crank and a pedal shaft of the bicycle in a manner of external hanging. The detecting device may obtain a pedaling force detecting message. The message of the rotating speed and the tilted angle message may be obtained by a cadence sensor which is packaged in a ring housing. The messages are finally transmitted to a smart mobile device by a microprocessor which is mounted at a ring outer base.

Abstract: A vehicle-mounted detecting device for a bicycle comprises a force sensing base, a strain touch member for detecting the direction and magnitude of force, and a sensor contacted with the sensor. The detecting device is assembled to a crank and a pedal shaft of the bicycle in a manner of external hanging. The detecting device may obtain a pedaling force detecting message. The message of the rotating speed and the tilted angle message may be obtained by a cadence sensor which is packaged in a ring housing. The messages are finally transmitted to a smart mobile device by a microprocessor which is mounted at a ring outer base.

Abstract: A bicycle pedal with cadence sensor is disclosed and comprises a pedal shaft, a frame, and a cadence sensor. The pedal shaft is fastened at a crank of a bicycle. The frame is pivotably installed at the pedal shaft. The cadence sensor is arranged at the frame and the cadence sensor includes a G-sensor and a power supply coupled to the G-sensor. The cadence sensor is arranged at the frame. The cadence sensor is cooperating with the frame and the cadence information may be gained through the G-sensor. The cadence information may be transmitted to a bicycle computer or a smart mobile device. A cadence data may be resulted by program operation. The cadence data may be provided to analyze and apply.

Abstract: A spindle structure for a pedal includes a pedal body having a through hole formed from one end thereof to another end thereof, two ends of the through hole respectively defined as a first end opening and a second end opening; and a spindle body assembled on the pedal body, the spindle body having an insert portion and a threaded portion respectively defined at two ends thereof, the insert portion inserted into the through hole of the pedal body, a tip portion of the insert portion defined as a positioning portion, a periphery of the positioning portion gradually widened toward the second end opening, the threaded portion exposed from the first end opening, the positioning portion exposed from the second end opening.

Abstract: A bicycle pedal is provided to be releasably secured to a cleat that is attached to a sole of a cyclist's shoe. The pedal includes a spindle, a pedal body mounted for rotation on the spindle and a measuring device. The pedal body has front and rear engaging portions which releasably engage with respective front and rear lips of the cleat when the pedal is secured to the cleat. The measuring device is disposed in the pedal body and includes a sensor configured to detect the tightness between the pedal body and the cleat.

Abstract: A bicycle pedal includes a pedal body, a spindle and a bushing The pedal body defines an axle hole therein with opposite first and second openings. The spindle is formed in one piece and has an insert portion generally passing through the axle hole of the pedal body, and a threaded portion extending outside the second opening of the pedal body for being secured to a crane arm of a bicycle. The insert portion has a distal end extending outside the first opening and being shaped to include at least one raised bump on a periphery thereof. The bushing is mounted around the insert portion of the spindle and proximate to the first opening of the pedal body. The distal end of the insert portion of the spindle has a diameter through its raised bump greater than an inner diameter of the bushing so as to retain the spindle in position.