Abstract: An operation method of touch system with handwriting function which comprises a stylus device and a touchpad, wherein a surface of the touchpad is divided into a function area and a writing area, and the operation method comprises: sending a beacon signal by the stylus device, receiving the beacon signal by touchpad, emitting a first light toward a pattern locating in the functional area of the surface of the touchpad by a light emitting element of a light emitting layer of the touchpad when signal strength of the beacon signal is bigger than a threshold, identifying, by the touchpad, a touched position on the surface when the touchpad is touched, changing the first light emitted to the pattern to a second light by the light emitting element and generating and outputting a control signal by the touchpad when the touched position falls in the pattern.

Abstract: An operation method of touch system with handwriting function which comprises a stylus device and a touchpad, wherein a surface of the touchpad is divided into a function area and a writing area, and the operation method comprises: sending a beacon signal by the stylus device, receiving the beacon signal by touchpad, emitting a first light toward a pattern locating in the functional area of the surface of the touchpad by a light emitting element of a light emitting layer of the touchpad when signal strength of the beacon signal is bigger than a threshold, identifying, by the touchpad, a touched position on the surface when the touchpad is touched, changing the first light emitted to the pattern to a second light by the light emitting element and generating and outputting a control signal by the touchpad when the touched position falls in the pattern.

Abstract: A lightning protection structure is provided, which includes an insulation bottom layer, a graphite layer on the insulation bottom layer, an insulation shell on the graphite layer, and an electrically conductive component. A part of the electrically conductive component is disposed on the insulation shell, and another part of the electrically conductive component is in contact with the graphite layer.

Abstract: A lightning protection structure is provided, which includes an insulation bottom layer, a graphite layer on the insulation bottom layer, an insulation shell on the graphite layer, and an electrically conductive component. A part of the electrically conductive component is disposed on the insulation shell, and another part of the electrically conductive component is in contact with the graphite layer.

Abstract: A heat dissipation module adapted to perform heat dissipation on a heat generating component is provided. The heat dissipation module includes a graphite sheet and an insulating and heat conducting layer. The graphite sheet includes a plurality of through holes, an attaching surface and a heat dissipating surface opposite to the attaching surface, wherein the attaching surface is configured to be attached to the heat generating component. Each of the through holes penetrates the graphite sheet, so the attaching surface and the heat dissipating surface are connected via the through holes. The insulating and heat conducting layer covers the graphite sheet. The insulating and heat conducting layer least covers the attaching surface, the heat dissipating surface and inner walls of the through holes.

Abstract: A polyamide-imide represented by the following formula is provided. A graphite film prepared by performing a thermal treatment process on the polyamide-imide represented by the above-mentioned formula is also provided. In the thermal treatment process, the temperature range of the thermal treatment process ranges from 25° C. to 2,900° C.

Abstract: A polyamide-imide represented by the following formula is provided. A graphite film prepared by performing a thermal treatment process on the polyamide-imide represented by the above-mentioned formula is also provided. In the thermal treatment process, the temperature range of the thermal treatment process ranges from 25° C. to 2,900° C.

Abstract: A protection structure for preventing thermal dissipation and thermal runaway diffusion in battery system is provided. The protection structure includes a battery module casing and at least one composite heat conduction plate. There is a plurality of unit cells disposed in the battery module casing. The composite heat conduction plate is located within the battery module casing, contacted with the battery module casing, and sandwiched between at least two of the unit cells as a heat transmission medium between the cells and the casing to control heat transmission among the cells. The composite heat conduction plate is a multilayer anisotropic heat conduction structure constituted by at least one heat conduction layer and at least one heat insulation layer.

Abstract: A protection structure for preventing thermal dissipation and thermal runaway diffusion in battery system is provided. The protection structure includes a battery module casing and at least one composite heat conduction plate. There is a plurality of unit cells disposed in the battery module casing. The composite heat conduction plate is located within the battery module casing, contacted with the battery module casing, and sandwiched between at least two of the unit cells as a heat transmission medium between the cells and the casing to control heat transmission among the cells. The composite heat conduction plate is a multilayer anisotropic heat conduction structure constituted by at least one heat conduction layer and at least one heat insulation layer.

Abstract: A carbon-containing metal-based composite material and a manufacturing method thereof are provided. The carbon-containing metal-based composite material includes a plurality of graphites, a plurality of heat-conducting reinforcements and a metal matrix. The graphites occupy 35%˜90% in volume. The heat-conducting reinforcements are distributed between the graphites. The heat-conducting reinforcements and the graphites are self-bonded. The heat-conducting reinforcements occupy 5%˜30% in volume and have a thermal conductivity larger than 200 W/mK. The metal matrix is filled between the heat-conducting reinforcements and the graphites, and the metal matrix occupies 5%˜35% in volume.