Abstract: A touch sensing reading device includes an operation circuit and an adjustment circuit. The operation circuit includes a feedback capacitor, receives a sensing signal through a first input terminal, receives a driving signal through a second input terminal, and feedbacks an output signal via an output terminal through the feedback capacitor and the first input terminal. The adjustment circuit provides an adjustment signal to the first input terminal of the operation circuit, and adjusts the output signal. A first sub-signal in the adjustment signal is set based on the inverted signal of the driving signal. A second sub-signal in the adjustment signal is set based on the inverted signal of the sensing signal.

Abstract: An autostereoscopic display apparatus includes an array of display pixels arranged in rows and columns; an array of elongated optical elements extending parallel to one another and overlying the display pixels, wherein the optical elements are slanted at an angle relative to the columns of display pixels; for any given display pixel, an optimized brightness is determined based on the distance between the pixel and the nearest end of a boundary separating adjacent images. By adjusting pixel brightness, the apparatus effectively reduces image crosstalk, thereby enhancing the clarity and quality of autostereoscopic displays.

Abstract: A driving device and a method for generating a driving voltage are provided. The method for generating the driving voltage is applicable to a driving device of a touch panel. The method includes: generating multiple different reference voltages; providing a voltage selector to select and output each of the reference voltages in each of multiple time intervals to generate a driving voltage; and setting a time length for each of the time intervals according to whether a signal power of the driving device is greater than a set value.

Abstract: The present teaching relates to method, system, medium, and implementations for region boundary identification and overlay display. An input associated with a 3D object is received. A 3D volumetric model is obtained for the 3D object with multiple regions, each of which includes multiple labeled voxels. A mesh representation is generated for the surface of the 3D object. Region boundaries on surface of the 3D object are identified based on the 3D volumetric model and the mesh representation. The 3D object is rendered, and the region boundaries are overlaid on the rendered 3D object.

Abstract: A method of converting waste into energy is provided. The method includes the following steps: (a) providing a lipid-containing substrate to react with a biocatalyst to produce a surfactant molecular liquid; (b) pretreating an organic waste with the surfactant molecular liquid to produce a first organic liquid; (c) subjecting the first organic liquid to an ultrasonic treatment to produce a second organic liquid; and (d) subjecting the second organic liquid to an anaerobic biological treatment for conversion to methane. The biocatalyst includes at least one lipase. Moreover, the surfactant molecular liquid includes at least one of monoglyceride and diglyceride. A waste treatment system for converting waste into energy is also provided.

Abstract: A magnetic assembly is provided, including an annular main magnetic element and an annular axillary magnetic element. The main magnetic element has a plurality of main magnetic segments of different polar directions and lengths. The axillary magnetic element has a plurality of axillary magnetic segments of different polar directions and lengths, corresponding to the main magnetic segments.

Abstract: An electronic device with switchable modes includes a light scattering switching element, a light absorbing switching and an image generating element. The light absorbing switching element is disposed adjacent to the light scattering switching element. The image generating element is provided for generating an image. In a projection mode, the image generated by the image generating element sequentially passes through the light scattering switching element and the light absorbing switching element to be displayed.

Abstract: A foam and a foaming composition are provided. The foam includes a composite material and a plurality of foam cells, wherein the foam cells are disposed in the composite material. The composite material includes a modified sulfur-containing polymer and a fluorine-containing polymer fiber, wherein a degree of orientation as defined by the ratio I110/I200 is from 1.0 to 1.3, wherein I110 is the X-ray diffraction peak intensity of (110) planes of the modified sulfur-containing polymer and I200 is the X-ray diffraction peak intensity of (200) planes of the modified sulfur-containing polymer.

Abstract: A planting column includes a hollow pillar including upper and lower end portions, a body portion located between the upper and lower end portions, and an accommodating chamber located in the body portion. The upper end portion includes a top opening communicating with the accommodating chamber. The body portion includes through holes communicating the accommodating chamber with the outside of the hollow pillar. The lower end portion includes an inner surface opposite to the top opening, an outer surface, and at least one through hole penetrating through the inner and outer surfaces and communicating the accommodating chamber with the outside of the hollow pillar. The planting column is adapted for a climbing plant to grow and climb thereon, and helps for ramet of the climbing plant. The planting column is insertable in the soil, and helps for improving the soil's water permeability and breathability.

Abstract: A transmission device includes a base body and a plurality of driving modules disposed in the base body. Each driving module includes a first transmission set, a linking member, a second transmission set, a third transmission set, a gear set, and a driving motor. The first transmission set includes a slide rail and a slide block. The slide block is fixed on the base body. The linking member is fixed on the slide rail and has a slide shaft. The second transmission set includes a screw rod and a nut, and the nut is fixed on the slide rail. The third transmission set includes a worm rod and a worm gear meshed with the worm rod. The gear set is connected to the worm rod. The driving motor has a driving shaft connected to the gear set.

Abstract: A modular AC/DC power conversion module for power sources and loads and a method of driving the same is provided. When an AC/DC converter is electrically coupled to an external power source, a microprocessor is electrically energized by a buck auxiliary circuit, under control of the microprocessor, a DC/DC converter is activated for a certain time period, and then, the AC/DC converter is activated. Thereafter, an output voltage of the AC/DC converter is boosted, and an output voltage of the DC/DC converter is boosted accordingly. Power elements in the downstream side DC/DC converter are activated first, and then power elements in the upstream side AC/DC converter are activated, thereby an inrush current is suppressed. Once the external power source is connected, the buck auxiliary circuit will automatically reduce a voltage of the power input to activate the module. It realizes that the module will autonomously operate after being electrically energized.

Abstract: A transmission device includes a base body and a plurality of driving modules disposed in the base body. Each driving module includes a first transmission set, a linking member, a second transmission set, a third transmission set, a gear set, and a driving motor. The first transmission set includes a slide rail and a slide block. The slide block is fixed on the base body. The linking member is fixed on the slide rail and has a slide shaft. The second transmission set includes a screw rod and a nut, and the nut is fixed on the slide rail. The third transmission set includes a worm rod and a worm gear meshed with the worm rod. The gear set is connected to the worm rod. The driving motor has a driving shaft connected to the gear set.

Abstract: An inflatable product includes an external wall. The external wall includes a plurality of parts. The parts include a plurality of edges. The plurality of edges are connected to each other. At least one of the edges is not straight wherein the edge includes a concave portion, a convex portion and/or a flat portion.

Abstract: A foldable supporting device includes first and second supporting frames, first and second movable elements, a first foldable structure, and first and second rotatable elements. The first supporting frame includes a first upper part and a first lower part. The second supporting frame includes a second upper part and a second lower part. The first movable element and the second movable elements are respectively movable along the first lower part and the second lower part. The first foldable structure connects to the first movable element and the second movable element. The first rotatable element is connected to the first supporting frame and the first foldable structure. The second rotatable element is connected to the second supporting frame and the first foldable structure. The first rotatable element and the second rotatable element are respectively rotatable with respect to the first supporting frame and the second supporting frame.

Abstract: A benzoxazine resin, including a compound of the following Formula 1-1: where R1, R2, and R3 are as defined herein.

Abstract: A heating device includes a first capacitor, a first switch, a second switch, a second capacitor, a third capacitor, a coil and a controller. The first and second switch are coupled in series at a first node, and are coupled with the first capacitor in parallel. The second capacitor is coupled to the first switch. The third capacitor is coupled to the second switch, and is coupled to the second capacitor at a second node. The coil is coupled between the first and the second node. The controller outputs a first and a second control signal to the first switch and the second switch, respectively. After the heating device received a voltage and a starting command, the controller outputs the first and the second control signal to turn on or off the first and the second switch respectively. The duty cycle of the first signal is lower than 50%.

Abstract: A heating device includes a first capacitor, a first switch, a second switch, a second capacitor, a third capacitor, a coil and a controller. The first and second switch are coupled in series at a first node, and are coupled with the first capacitor in parallel. The second capacitor is coupled to the first switch. The third capacitor is coupled to the second switch, and is coupled to the second capacitor at a second node. The coil is coupled between the first and the second node. The controller outputs a first and a second control signal to the first switch and the second switch, respectively. After the heating device received a voltage and a starting command, the controller outputs the first and the second control signal to turn on or off the first and the second switch respectively. The duty cycle of the first signal is lower than 50%.

Abstract: A resin, including a compound having the following Formula 1-1: wherein n ranges from 1 to 5, and R1, R2, R3 and R4 are as defined herein.

Abstract: A heating device includes a first capacitor, a first switch, a second switch, a second capacitor, a third capacitor, a coil and a controller. The first and second switch are coupled in series at a first node, and are coupled with the first capacitor in parallel. The second capacitor is coupled to the first switch. The third capacitor is coupled to the second switch, and is coupled to the second capacitor at a second node. The coil is coupled between the first and the second node. The controller outputs a first and a second control signal to the first switch and the second switch, respectively. After the heating device received a voltage and a starting command, the controller outputs the first and the second control signal to turn on or off the first and the second switch respectively. The duty cycle of the first signal is lower than 50%.