Abstract: An immersion-type liquid cooling heat dissipation structure is provided. The immersion-type liquid cooling heat dissipation structure includes a metal heat dissipation substrate layer and a metal film layer. The metal film layer is formed on a surface of the metal heat dissipation substrate layer, and is configured to be immersed in an immersion-type coolant. An effective thickness of the metal film layer is less than 500 ?m. A surface of the metal film layer has a plurality of micropores that facilitate generation of vapor bubbles. An effective width of each of the plurality of micropores is between 1 ?m and 200 ?m, and a depth of each of the plurality of micropores is between 100 nm and 50 ?m.

Abstract: A dust collecting device includes a frame having a plurality of shielding sides surrounding a working space and an open side. A plurality of impact-resistant plates made of heat-resistant and anti-stick material is detachably disposed on at least one of the plurality of shielding sides facing the open side. A receiving plate is disposed on a bottom portion of the frame and includes at least one slope and a pipe intercommunicating with a storage box. The at least one slope is inclined toward the pipe and includes a bottom end contiguous to an upper opening of the pipe. An angle between a bottom edge of the at least one slope and an edge of the upper opening of the pipe is greater than 90 degrees. A vibration module drives the receiving plate to vibrate to move dusts on the at least one slope into the storage box through the pipe.

Abstract: A gas shield protection device for thermal spraying includes a spraying member and a gas shield generation device. The spraying member includes a nozzle and a shield body disposed on the nozzle. The nozzle is configured to align with one of a plurality of workpieces on a worktable. The gas shield generation device is configured to align with the worktable and includes a housing and a second gas ejection portion. The housing has a gas passageway therein. The second gas ejection portion has at least one gas ejection port intercommunicating with the gas passageway. The at least one gas ejection port is configured to face the plurality of workpieces, such that an area of a gas shield ejected from the at least one gas ejection port of the second gas ejection portion covers the plurality of workpieces. Thus, oxidation of the coating on the workpiece can be avoided.

Abstract: An immersion-type liquid cooling heat dissipation structure is provided. The immersion-type liquid cooling heat dissipation structure includes a metal heat dissipation substrate layer and a metal film layer. The metal film layer is formed on a surface of the metal heat dissipation substrate layer, and is configured to be immersed in an immersion-type coolant. An effective thickness of the metal film layer is less than 500 ?m. A surface of the metal film layer has a plurality of micropores that facilitate generation of vapor bubbles. An effective width of each of the plurality of micropores is between 1 ?m and 200 ?m, and a depth of each of the plurality of micropores is between 100 nm and 50 ?m.

Abstract: An immersion-type liquid cooling heat dissipation sink is provided. The immersion-type liquid cooling heat dissipation sink includes a heat dissipation substrate layer and a surface film layer. The surface film layer is formed on the heat dissipation substrate layer. The heat dissipation substrate layer is a porous substrate that is immersed in an immersion-type coolant. A contact angle between the surface film layer and the immersion-type coolant is less than a contact angle between the heat dissipation substrate layer and the immersion-type coolant. A thickness of the surface film layer is less than an effective thickness of 5 ?m.

Abstract: An immersion-type liquid cooling heat dissipation structure is provided. The immersion-type liquid cooling heat dissipation structure includes a metal heat dissipation substrate layer and a metal film layer. The metal film layer is formed on a surface of the metal heat dissipation substrate layer, and is configured to be immersed in an immersion-type coolant. An effective thickness of the metal film layer is less than 500 µm. A surface of the metal film layer has a plurality of micropores that facilitate generation of vapor bubbles. An effective width of each of the plurality of micropores is between 1 µm and 200 µm, and a depth of each of the plurality of micropores is between 100 nm and 50 µm.

Abstract: An immersion-type liquid cooling heat dissipation sink is provided. The immersion-type liquid cooling heat dissipation sink includes a heat dissipation substrate layer and a surface film layer. The surface film layer is formed on the heat dissipation substrate layer. The heat dissipation substrate layer is a porous substrate that is immersed in an immersion-type coolant. A contact angle between the surface film layer and the immersion-type coolant is less than a contact angle between the heat dissipation substrate layer and the immersion-type coolant. A thickness of the surface film layer is less than an effective thickness of 5 ?m.

Abstract: A pair of smart glasses including a headset, a frame, and an optical photoelectric conversion unit that can gather and utilize solar energy to supplement the electrical energy of a built-in battery. The smart glasses also include a display module comprising a plurality of display units arranged in a matrix. Each display unit comprises at least one micro LED unit and at least one first optical photoelectric conversion unit. A number of the micro LED units functions as a display, and also being controllable as an infrared light source for retinal scanning of the user.

Abstract: Smart glasses taking a proportion of power it requires from ambient light includes a plurality of lenses, a frame structure connected to the plurality of lenses, a display module disposed in at least one of the plurality of lenses, a battery disposed in the frame structure, and a processor electrically connected to the display module and the battery. The display module includes display units arranged in a matrix. Each display unit comprises at least one micro LED unit, and at least one first optical photoelectric conversion unit for converting solar energy into electrical power. The battery is electrically connected to the display module.

Abstract: Disclosed herein are a light-emitting diode (LED) package structure and a method producing the same. The LED package structure includes a substrate; and a light-emitting unit disposed on the substrate. The light-emitting unit comprises a gallium nitride-based semiconductor, and a polymeric layer encapsulating the gallium nitride-based semiconductor. Also disclosed herein is a method of producing the LED package structure. The method comprises: providing a substrate; electrically connecting a gallium nitride-based semiconductor onto the substrate; overlaying the gallium nitride-based semiconductor with a slurry comprising a resin and a plurality of composite fluorescent gold nanocluster; and curing the slurry overlaid on the gallium nitride-based semiconductor to form a solidified polymeric layer.

Abstract: Disclosed herein are a light-emitting diode (LED) package structure and a method producing the same. The LED package structure includes a substrate; and a light-emitting unit disposed on the substrate. The light-emitting unit comprises a gallium nitride-based semiconductor, and a polymeric layer encapsulating the gallium nitride-based semiconductor. Also disclosed herein is a method of producing the LED package structure. The method comprises: providing a substrate; electrically connecting a gallium nitride-based semiconductor onto the substrate; overlaying the gallium nitride-based semiconductor with a slurry comprising a resin and a plurality of composite fluorescent gold nanocluster; and curing the slurry overlaid on the gallium nitride-based semiconductor to form a solidified polymeric layer.

Abstract: A pair of smart glasses including a headset, a frame, and an optical photoelectric conversion unit that can gather and utilize solar energy to supplement the electrical energy of a built-in battery. The smart glasses also include a display module comprising a plurality of display units arranged in a matrix. Each display unit comprises at least one micro LED unit and at least one first optical photoelectric conversion unit. A number of the micro LED units functions as a display, and also being controllable as an infrared light source for retinal scanning of the user.

Abstract: Smart glasses taking a proportion of power it requires from ambient light includes a plurality of lenses, a frame structure connected to the plurality of lenses, a display module disposed in at least one of the plurality of lenses, a battery disposed in the frame structure, and a processor electrically connected to the display module and the battery. The display module includes display units arranged in a matrix. Each display unit comprises at least one micro LED unit, and at least one first optical photoelectric conversion unit for converting solar energy into electrical power. The battery is electrically connected to the display module.

Abstract: A touch display includes a display module and a touch module. The touch module includes a first three-layer electrode structure and a transparent cover substrate, wherein the first three-layer electrode structure is disposed above a polarizer, and the transparent cover substrate is disposed above the first three-layer electrode structure. The first three-layer electrode structure includes a bottom index matching layer, a mesh electrode layer and a top index matching layer, wherein the mesh electrode layer is sandwiched between the bottom index matching layer and the top index matching layer.

Abstract: A touch panel includes dummy electrodes, disposed in a transmit electrode layer or a receive electrode layer whichever is below an isolation layer. In one embodiment, an anti-reflective layer includes at least one composite refractive-index three-layer structure. In another embodiment, the receive electrode layer is disposed below the isolation layer, and the receive electrode layer and the dummy electrodes are electrically coupled to a same electric potential.

Abstract: A touch display includes a display module and a touch module. The touch module includes a first three-layer electrode structure and a transparent cover substrate, wherein the first three-layer electrode structure is disposed above a polarizer, and the transparent cover substrate is disposed above the first three-layer electrode structure. The first three-layer electrode structure includes a bottom index matching layer, a mesh electrode layer and a top index matching layer, wherein the mesh electrode layer is sandwiched between the bottom index matching layer and the top index matching layer.

Abstract: A touch panel includes a first electrode layer and a second electrode layer disposed above a transparent substrate. At least one transparent insulating layer is disposed between the first electrode layer and the second electrode layer. The electrode pattern of the first electrode layer has more than four sides, and the electrode pattern of the second electrode layer substantially complements the electrode pattern of the first electrode layer. A gap between the first electrodes and the second electrodes is between 30 and 300 micrometers. A cover layer is formed above the second electrode layer, and magnetic force lines, generated from the first electrode and the second electrode, exist in the cover layer or pass through the cover layer.

Abstract: A touch panel with mesh alloy electrodes including first and second electrodes each having an alloy layer sandwiched between two transparent conductive layers. The second electrode is disposed in parallel with or stacked on the first electrode. Either one or both of the first and the second electrodes may include meshes.

Abstract: A touch panel includes dummy electrodes, disposed in a transmit electrode layer or a receive electrode layer whichever is below an isolation layer. In one embodiment, an anti-reflective layer includes at least one composite refractive-index three-layer structure. In another embodiment, the receive electrode layer is disposed below the isolation layer, and the receive electrode layer and the dummy electrodes are electrically coupled to a same electric potential.

Abstract: A touch panel includes a first electrode layer and a second electrode layer disposed above a transparent substrate. At least one transparent insulating layer is disposed between the first electrode layer and the second electrode layer. The electrode pattern of the first electrode layer has more than four sides, and the electrode pattern of the second electrode layer substantially complements the electrode pattern of the first electrode layer. A gap between the first electrodes and the second electrodes is between 30 and 300 micrometers. A cover layer is formed above the second electrode layer, and magnetic force lines, generated from the first electrode and the second electrode, exist in the cover layer or pass through the cover layer.