Abstract: The disclosure provides a floating touch display device which includes a capacitive touch panel, a display device, an interval layer, and an optical-lens structure. The capacitive touch panel is configured to provide a floating touch surface at a floating height above a first surface. The display device includes a second surface, and the display device is configured to provide a display image from the second surface. The optical-lens structure is disposed between the capacitive touch panel and the display device. The interval layer is disposed between the second surface and the optical-lens structure, and a first optical distance is between the second surface and the optical-lens structure. The optical-lens structure is configured to image the display image on the floating touch surface at a second optical distance, and the first optical distance is equal to the second optical distance.

Abstract: A touch display device includes a cover plate, a touch module, a frame, and a display module. The touch module is disposed on the cover plate and defines thereon a sensing zone and a peripheral zone connecting each other. The frame is located at a side of the touch module away from the cover plate and includes a plurality of fixing members and an accommodating trough. The fixing members cross the peripheral zone to be fixed to the cover plate. At least one part of the touch module in the peripheral zone is attached to a side of the frame away from the cover plate. The display module is disposed in the accommodating trough and over the sensing zone.

Abstract: A touch display device includes a cover plate, a touch module, a frame, and a display module. The touch module is disposed on the cover plate and defines thereon a sensing zone and a peripheral zone connecting each other. The frame is located at a side of the touch module away from the cover plate and includes a plurality of fixing members and an accommodating trough. The fixing members cross the peripheral zone to be fixed to the cover plate. At least one part of the touch module in the peripheral zone is attached to a side of the frame away from the cover plate. The display module is disposed in the accommodating trough and over the sensing zone.

Abstract: A transmission mechanism includes a feeder, a belt furling module, a tension maintaining module, and a carrier belt. The tension maintaining module and the belt furling module are positioned on the feeder, and the carrier belt runs along the feeder, the tension maintaining module, and the belt furling module in that order. The tension maintaining module includes a base, a pivot shaft slidably positioned on the base, and an elastic member sleeved on the pivot shaft. When the carrier belt relaxes, the elastic member releases its compression force to drive the pivot shaft to move away relative to the base, thereby maintaining the tension force of the carrier belt. The disclosure also provides a surface mount device using the transmission mechanism, which reduces the likelihood of the carrier belt breaking or jamming, thereby promoting improved precision and yield rate of the surface mounted equipment.

Abstract: A feeder capable of transferring and separating an adhesive component on a tap, includes a frame, a separator, and a drive device. The frame has a top portion for supporting the tap. The separator is mounted to the frame to separate the adhesive component from the tap when the tap passes through the separator. The drive device drives the tap to pass through the separator.

Abstract: A feeder capable of transferring and separating an adhesive component from a tap, includes a frame, a driven capstan device, a separating device, and a drive device. The driven capstan device is mounted to the frame. The separating device is mounted to the frame to separate the adhesive component from the tap. The drive device drives the tap to unwind from the driven capstan and transfer to the separating device to enable the separating device to separate the adhesive component.

Abstract: An exemplary surface mount machine nozzle includes a mounting element, a pneumatic suction nozzle and a fixing pin. The mounting element defines one of a pivot hole and an elongated perforation in a sidewall thereof. The pneumatic suction nozzle defines another one of the pivot hole and the elongated perforation therein. The fixing pin horizontally extends through the pivot hole and the perforation for connecting the mounting element and the pneumatic suction nozzle together. The fixing pin is slidable along the elongated perforation such that the pneumatic suction nozzle is telescopically slidable relative to the mounting element.

Abstract: A transmission mechanism includes a feeder, a belt furling module, a tension maintaining module, and a carrier belt. The tension maintaining module and the belt furling module are positioned on the feeder, and the carrier belt runs along the feeder, the tension maintaining module, and the belt furling module in that order. The tension maintaining module includes a base, a pivot shaft slidably positioned on the base, and an elastic member sleeved on the pivot shaft. When the carrier belt relaxes, the elastic member releases its compression force to drive the pivot shaft to move away relative to the base, thereby maintaining the tension force of the carrier belt. The disclosure also provides a surface mount device using the transmission mechanism, which reduces the likelihood of the carrier belt breaking or jamming, thereby promoting improved precision and yield rate of the surface mounted equipment.

Abstract: An exemplary surface mounting apparatus includes a winder, a waste tape and a feeder for discharging the waste tape towards the winder. The winder includes a pivot, a wheel rotatably mounted around the pivot, and a coil spring disposed between the pivot and the wheel. An outer end of the coil spring is connected to the wheel to rotate with the wheel, and an inner end of the coil spring is static relative to the pivot during rotation of the wheel. The waste tape is connected to the wheel of the winder.

Abstract: An exemplary surface mount machine nozzle includes a mounting element, a pneumatic suction nozzle and a fixing pin. The mounting element defines one of a pivot hole and an elongated perforation in a sidewall thereof. The pneumatic suction nozzle defines another one of the pivot hole and the elongated perforation therein. The fixing pin horizontally extends through the pivot hole and the perforation for connecting the mounting element and the pneumatic suction nozzle together. The fixing pin is slidable along the elongated perforation such that the pneumatic suction nozzle is telescopically slidable relative to the mounting element.