Abstract: A vacuum device includes a device body, a dust-collecting box, a fan and a detection unit. The device body further has a duct outlet and a fan outlet. The dust-collecting box located inside the device body is spatially connected to the duct outlet. The fan located inside the device body at a place beside the dust-collecting box is spatially connected to the fan outlet. The detection unit located close to the fan outlet further includes a sensor and a rotation assembly; in which the sensor further has an infrared-emitting component and an infrared-receiving component, the rotation assembly is able to pass rotationally through a space between the infrared-emitting component and the infrared-receiving component, and the infrared-emitting component is to emit an infrared to the infrared-receiving component for detecting the rotation assembly.

Abstract: A self-propelled apparatus includes a main body and an anti-drop system. The main body includes an aperture located at a bottom portion thereof and communicative with an interior thereof. The anti-drop system located inside the main body respective to the aperture includes an infrared detection module and an angle-limiting unit electrically coupled with the infrared detection module. The infrared detection module detects a distance between the bottom portion and a first detection surface. The infrared detection module includes an infrared emitting unit and an infrared receiving unit. The infrared emitting unit emits an infrared signal to the first detection surface. The infrared signal produces a first boundary signal and a second boundary signal after the infrared signal passes through the angle-limiting unit. The infrared receiving unit receives a reflected signal of the first boundary signal with respect to the first detection surface.

Abstract: A turbine includes a top cover, a bottom cover and fans between the top cover and the bottom cover. The fans extend to connect the central shaft and do not overlap with each other in the axial direction. The air sucked in through the central air inlet can swiftly flow along the fans and then be expelled out of the turbine through the circumferential air outlets. Compared with the conventional centrifugal fan, the disclosed turbine can effectively increase the air draft efficiency of the turbine. Compared with the standard turbine, the disclosed turbine is simpler and easier to process, and thus the cost can be significantly reduced.

Abstract: A foldable multi-shelf stand includes two frame structures, a plurality of foldable storage shelves located in a pivotal manner between the two frame structures, a plurality of fixation mechanisms for controlling the folding of the corresponding storage shelves and at least one supportive member. Each the frame structure has a plurality of vertical columns and a plurality of horizontal beams connected with the respective vertical columns. The storage shelf is separated to two foldable halves and consisted of a plurality of foldable first-directional horizontal members. The fixation mechanism mates the corresponding plug hole structure at the respective half of the storage shelf so as to perform the folding control of the corresponding storage shelf. The supportive member located to a respective connection place of the first-directional horizontal member and the frame structure is to support the unfolded first-directional horizontal member at the respective vertical columns.

Abstract: A shelving system having improved structural characteristics. The shelving system comprises at least three weight-supporting crossbeams and at least three continuously tubular, V-shaped crossbeam-supporting posts. The at least three weight-supporting crossbeams have a substantially vertical outer shoulder and substantially horizontal inner reinforcement flange positioned along the substantially vertical outer shoulder, upon which a shelf may be placed such that the shelf is supported by at least two of the at least three weight-supporting crossbeams.

Abstract: A furniture assembly includes at least four division plates, at least four squared beams, and at least one storage space. The division plate has a left lateral surface and a right lateral surface to respectively mount a front fastener and a rear fastener. Four division plates are adhered to the squared beam at four orthogonal directions. The front fastener and the rear fastener of the division plate are to penetrate respective anchorage holes at the squared beam. With end plugs to be inserted into the corresponding end opening of the squared beam, the end plug and the corresponding fasteners of the division plates can be buckled up firmly at the corresponding end of the squared beam.

Abstract: A scan method for a capacitive touch panel has steps of performing a relatively small first number of estimation scans on multiple sensing lines of a capacitive touch panel and recording results of the estimation scans, marking the sensing lines meeting a predetermined condition according to the results of the estimation scans, and performing a relatively large second number of practical scans on the marked sensing lines. Given the first-stage estimation scans and the second-stage practical scans, the sensing lines possibly touched by a touch object can be rapidly identified and marked, and the second-stage practical scans are performed on the marked sensing lines. Accordingly, noises and errors can be effectively reduced, accurate scan can be ensured, and higher frame rate can be achieved.

Abstract: A furniture assembly includes at least four division plates, at least four squared beams, and at least one storage space. The division plate has a left lateral surface and a right lateral surface to respectively mount a front fastener and a rear fastener. Four division plates are adhered to the squared beam at four orthogonal directions. The front fastener and the rear fastener of the division plate are to penetrate respective anchorage holes at the squared beam. With end plugs to be inserted into the corresponding end opening of the squared beam, the end plug and the corresponding fasteners of the division plates can be buckled up firmly at the corresponding end of the squared beam.

Abstract: A scan method for a touch panel has steps of: receiving a self-sensing frame; calculating sensing slopes between each sensing line and its neighboring sensing lines in the self-sensing frame; determining whether any sensing slope is larger than a slope threshold, and marking the sensing line if the sensing slope is larger than the slope threshold; and executing a mutual scan approach on the marked sensing lines to produce a mutual sensing frame without sensing point caused by noise. Further, the present invention also increases the frame rate since only a part of sensing lines need to be scanned.

Abstract: A method of detecting floating mode of a touch panel has steps of reading a sensing cluster and presetting a detection window; taking each sensing point of the sensing cluster as a center point of the detection window; after determining that the center point has a negative sensing value qualifying to be generated under a floating mode, further determining a count of the sensing points other than the center point having the sensing values generated under a grounding mode and incrementing an accumulative number by one if the count exceeds a first critical value; keeping incrementing the accumulative number until each sensing point in the sensing cluster has been taken as the center point of the detection window for scanning; and determining if the accumulative number exceeds a second critical value, and if positive, further determining that the current sensing cluster is generated under the floating mode.

Abstract: A driving method for charger noise rejection in a touch panel has steps of: reading the sensing frame of the touch panel with a self-capacitance sensing mode, marking at least one first-axis sensing line having a recognizable sensing value, and driving the at least one marked first-axis sensing line with a mutual-capacitance sensing mode to acquire at least one sensing value corresponding to at least one sensing point on each one of the at least one marked first-axis sensing line. Accordingly, the charger noise is rejected in the touch panel by the driving method of the present invention. Additionally, a frame rate is further increased since the sensing lines are partially driven under the mutual-capacitance sensing mode.

Abstract: A scan method for a capacitive touch panel has steps of performing a relatively small first number of estimation scans on multiple sensing lines of a capacitive touch panel and recording results of the estimation scans, marking the sensing lines meeting a predetermined condition according to the results of the estimation scans, and performing a relatively large second number of practical scans on the marked sensing lines. Given the first-stage estimation scans and the second-stage practical scans, the sensing lines possibly touched by a touch object can be rapidly identified and marked, and the second-stage practical scans are performed on the marked sensing lines. Accordingly, noises and errors can be effectively reduced, accurate scan can be ensured, and higher frame rate can be achieved.

Abstract: A scan method for a touch panel has steps of: receiving a self-sensing frame; calculating sensing slopes between each sensing line and its neighboring sensing lines in the self-sensing frame; determining whether any sensing slope is larger than a slope threshold, and marking the sensing line if the sensing slope is larger than the slope threshold; and executing a mutual scan approach on the marked sensing lines to produce a mutual sensing frame without sensing point caused by noise. Further, the present invention also increases the frame rate since only a part of sensing lines need to be scanned.

Abstract: A dustproof structure for a laptop includes a gate, a motor and a controller. The laptop includes a shell having an air vent defined therein. The gate is movably mounted on the shell. The motor is mounted on the shell and connected to the gate. The controller is installed inside the laptop and configured for controlling the motor to drive the gate to open the air vent of the shell when the laptop is powered on, and to close the air vent of the shell when the laptop is being powered off.

Abstract: An electric assembly includes a heat sink defining a through hole and a notch communicating with the through hole; a circuit board defining a fixing hole; and a fastening assembly. The fastening assembly includes a fastener comprising a stem, a head connected one end of the stem, and a clamp connected to an opposite end of the stem; a limiting member comprising a main body slideably disposed on the stem and a limiting portion extending from the main body, the main body received into the through hole, and the limiting portion engageably inserted into the notch; and an elastic member disposed around the stem and between the head and the main body. Wherein the limiting portion is capable of sliding out of the notch and against the heat sink to compress the elastic member.

Abstract: A displaying apparatus with prompt facility in HDMI-CEC device includes a control unit, a display panel and a HDMI signal processing unit. The control unit can receive a control signal generated from a remote controller. The display panel is controlled by the control unit to display an image. The HDMI signal processing unit is coupled with the control unit and coupled with at least one peripheral apparatus, which also has the HDMI-CEC facility. When the remote controller controls the peripheral apparatus via the control unit and the HDMI signal processing unit, the image of the display panel can show a set of functional-key prompting pattern in the remote controller, corresponding to the peripheral apparatus.

Abstract: An electronic device with a heat dissipation mechanism includes a main body, at least one supporting member, at least one driving device, a temperature sensor, and a controller. The main body defines a plurality of heat dissipation holes and at least one through hole. The heat dissipation holes are configured for dissipating heat of the electronic device. The supporting member passes through the through hole, and one end of the supporting member protrudes from the bottom of the main body. The driving device is configured for driving the supporting member to move along its axis, causing the electronic device to be kept in a flat state or in an inclined state. The temperature sensor is for sensing the temperature of the electronic device. The controller is for driving the driving device, causing the supporting member to move a predetermined distance along its axis, according to the sensed temperature.

Abstract: A dustproof structure for a laptop includes a gate, a motor and a controller. The laptop includes a shell having an air vent defined therein. The gate is movably mounted on the shell. The motor is mounted on the shell and connected to the gate. The controller is installed inside the laptop and configured for controlling the motor to drive the gate to open the air vent of the shell when the laptop is powered on, and to close the air vent of the shell when the laptop is being powered off.

Abstract: The present disclosure provides a simulated pupil assembly. The simulated pupil assembly includes a substrate, a number of blades, and a driving device. The substrate includes a number of rotation portions arranged in a circular. The blades are arranged to sequentially overlap each other to cooperatively form a dome, and the blades at one side of the substrate. The blades include a number of linking end rotatably mounted to the corresponding the rotation portions, a number of distal ends cooperatively defines a hole. The driving device is to the substrate and the blades. The driving device is configured for driving the blades to rotate toward or away from the substrate to contract or dilate the hole of the blades.

Abstract: An electronic device with a heat dissipation mechanism includes a main body, at least one supporting member, at least one driving device, a temperature sensor, and a controller. The main body defines a plurality of heat dissipation holes and at least one through hole. The heat dissipation holes are configured for dissipating heat of the electronic device. The supporting member passes through the through hole, and one end of the supporting member protrudes from the bottom of the main body. The driving device is configured for driving the supporting member to move along its axis, causing the electronic device to be kept in a flat state or in an inclined state. The temperature sensor is for sensing the temperature of the electronic device. The controller is for driving the driving device, causing the supporting member to move a predetermined distance along its axis, according to the sensed temperature.