Abstract: A cockpit display system includes a cockpit, a first display apparatus, a second display apparatus, a first light sensor, a second light sensor and a brightness distribution calculation module. The first light sensor is suitable for detecting a first ambient light brightness. The second light sensor is suitable for detecting a second ambient light brightness. The brightness distribution calculation module is suitable for respectively calculating a first brightness, a second brightness, a third brightness and a fourth brightness of the first display area and the second display area of the first display apparatus and the third display area and the fourth display area of the second display apparatus under a same display gray level according to the first ambient light brightness and the second ambient light brightness. The first brightness, the second brightness, the third brightness and the fourth brightness are different from each other.

Abstract: A narrow bandpass filtering element includes a substrate, a bandpass filtering structure and an anti-reflection structure, and the bandpass filtering structure and anti-reflection structure are formed on two opposite surfaces of the substrate respectively. The bandpass filtering structure includes NbTiOx layers, first material layers with a higher refractive index than the NbTiOx layer, and second material layers with a lower refractive index than the NbTiOx layer, and the NbTiOx layers, first material layers and second material layers are stacked along a normal line of the substrate. Therefore, light in a specific wave band fitting a narrow passband can pass through the narrow bandpass filtering element.

Abstract: In a method of manufacturing chip structures, an active surface of a chip is adhered to a carrier and a heat-dissipation layer is formed on a back surface of the chip. Because of a semi-circular groove surrounding the active surface of the chip, metal residues will not accumulate in a gap between the active surface and the carrier to contaminate the chip during formation of the heat-dissipation layer.

Abstract: A data processing device includes a base plate and an electronic module. The base plate includes N driving portions. The electronic module includes an electronic component, a tray and a recognition mechanism. The tray is configured to support the electronic component and includes N slots. The tray is disposed on the base plate, such that an i-th driving portion of the N driving portions is disposed in an i-th slot of the N slots. The recognition mechanism is disposed on the tray. The recognition mechanism includes N interfering portions and N receiving recesses. When the tray moves with respect to the base plate toward a first direction, the i-th driving portion moves within the i-th slot toward a second direction to push an i-th interfering portion of the N interfering portions to move, such that the i-th interfering portion extends into an i-th receiving recess of the N receiving recesses.

Abstract: A display apparatus includes a first pad group, a first light-emitting element, a pixel driving structure, a first conductive layer and a second conductive layer. The first conductive layer is disposed between the first pad group and the pixel driving structure. The first conductive layer includes a first conductive pattern and a second conductive pattern. The first conductive pattern is electrically connected to one of the plurality of first pads and the pixel driving structure. The second conductive pattern is electrically connected to another one of the plurality of first pads. The first conductive pattern and the second conductive pattern have a first light-transmitting gap. The first light-transmitting gap is located below the first light-emitting element. The second conductive layer is disposed between the first conductive layer and the pixel driving structure. The second conductive layer includes a third conductive pattern shielding the first light-transmitting gap.

Abstract: A multi-screen cockpit display system is suitable for being installed in a cockpit, and includes a first display device, at least two head-up display devices and a control unit. The first display device is disposed in front of a driver's seat in the cockpit, and is suitable for displaying a first dynamic information. The at least two head-up display devices are disposed above the first display device, and are suitable for displaying a second dynamic information on a see-through window of the cockpit. The control unit is electrically connected to the first display device and the at least two head-up display devices. The control unit is suitable for providing the first and second dynamic information to the first display device and the at least two head-up display devices according to an operating state of the cockpit. Another multi-screen cockpit display system with an eye tracking module is also provided.

Abstract: A glass fiber and method for producing the same are provided. The method includes a covering process, a sintering process, a mixing process, and drawing process. The covering process is implemented by covering a tungsten compound onto a plurality of surfaces of a plurality of inorganic particles to form a plurality of modified inorganic particles. The sintering process is implemented by sintering the modified inorganic particles in a nitrogen atmosphere having a temperature of between 400° C. and 1,000° C. The mixing process is implemented by mixing the modified inorganic particles into a glass raw material that is in a molten state. The drawing process is implemented by drawing the glass raw material mixed with the modified inorganic particles to form a plurality of glass fibers.

Abstract: A glass fiber and method for producing the same are provided. The method includes a covering process, a sintering process, a mixing process, and a drawing process. The covering process is implemented by covering a molybdenum compound onto a plurality of surfaces of a plurality of inorganic particles to form a plurality of modified inorganic particles. The sintering process is implemented by sintering the modified inorganic particles in a nitrogen atmosphere having a temperature of between 400° C. and 1,000° C. The mixing process is implemented by mixing the modified inorganic particles in a glass raw material that is in a molten state. The drawing process is implemented by drawing the glass raw material mixed with the modified inorganic particles to form a plurality of glass fibers.

Abstract: A glass fiber and a method for producing the same are provided. The method includes: dissolving a tungsten compound into a first organic solution to form a tungsten compound sol; adding a sulfur source into the tungsten compound sol and stirring the sulfur source and the tungsten compound sol to form a tungsten sulfide gel; placing the tungsten sulfide gel in an environment having a temperature of between 600° C. and 1,200° C. for 4 hours to 6 hours to form tungsten sulfide powder; covering the tungsten sulfide powder on a plurality of surfaces of inorganic powder to form modified inorganic powder, mixing the modified inorganic powder into a glass raw material that is in a molten state; and drawing the glass raw material mixed with the modified inorganic particles to form into a plurality of glass fibers.

Abstract: A method for preparing a lithium-ion battery cathode material includes implementing a Couette-Taylor reaction operation and a calcining operation. The Couette-Taylor reaction operation includes feeding a first reaction liquid and a second reaction liquid into a Couette-Taylor reactor to form a product stream including a cathode material precursor. The first reaction liquid is a multi-metal solution containing a nickel compound, a cobalt compound, and a manganese compound. The second reaction liquid is a lithium source metal solution containing a lithium compound. The cathode material precursor contains lithium elements. The calcining operation includes using a high-temperature tubular furnace to calcine the cathode material precursor to obtain the lithium-ion battery cathode material.

Abstract: A method for manufacturing an integrated circuit device includes the following steps. A first gate structure of a medium voltage device (MVP) having a first conductivity type and a second gate structure of a high voltage device (HVP) having the first conductivity type, a third gate structure of a medium voltage device (MVN) having a second conductivity type, and a fourth gate structure of a high voltage device (HVN) having the second conductivity type are respectively formed in first to fourth regions of a substrate. First lightly doped drain regions (PLDD) having the first conductivity type are formed in the substrate respectively in the first, second and fourth regions aside the first, second and fourth gate structures. Second lightly doped drain regions (NLDD) having the second conductivity type are formed in the substrate respectively in the third and fourth regions aside the third and fourth gate structures.

Abstract: A side window display system on vehicles is provided. The side window display system on vehicles includes a transparent display, at least one external sensor, at least one internal sensor and a controller. The transparent display is provided on a side window of a vehicle. The external sensor is used to detect an external environment of the vehicle to provide external environment information. The internal sensor is used to detect an internal environment of the vehicle to provide internal environment information. The controller is coupled to the transparent display, the external sensor, and the internal sensor to select an operation mode based on the internal environment information, and controls the transparency distribution and brightness distribution of the transparent display based on the operation mode and the external environment information.

Abstract: The present invention provides a wearable device and an operating method thereof. A power circuit provides an analog voltage source to a touch display driver integrated circuit through a first pin; the power circuit provides a digital voltage source to the touch display driver integrated circuit and a fingerprint on display (FOD) recognition circuit through a second pin; and the power circuit provides a first OLED voltage to an organic light-emitting diode (OLED) and the FOD recognition circuit through a third pin, wherein the FOD recognition circuit uses the first OLED voltage as an analog voltage source.

Abstract: A method for smoothing surfaces of a copper foil and the copper foil obtained are provided, wherein the method for smoothing surfaces of the copper foil includes the following steps. Supplied with a copper foil. A first electropolishing process is performed on the copper foil. The copper foil is subjected to a pickling process. A second electropolishing process is performed on the copper foil.

Abstract: A method of preparing cathode active material precursors includes feeding a first reaction liquid into a first Couette-Taylor reactor and performing a co-precipitation reaction to continuously form and output a first product liquid stream containing a plurality of core particles; feeding the first product liquid stream into a second Couette-Taylor reactor that is connected in series after the first Couette-Taylor reactor; and feeding a second reaction liquid into the second Couette-Taylor reactor to react with the core particles, so as to form the cathode active material precursors. The first reaction liquid is a multi-element metal solution, the second reaction liquid is a transition metal aqueous solution, and each of the cathode active material precursors has a core-shell structure.

Abstract: In a method of manufacturing an electronic package, first grooves are formed on a circuit structure and a second groove is formed in each of the first grooves to allow the circuit structure to become circuit layers. Owing to the second groove is narrower than the first groove, each of the circuit layers has an encircled surface and a notch located on the encircled surface. When a shielding layer is provided to cover an encapsulating body located on the circuit layer, a space of the notch is not covered by the shielding layer such that a portion to be removed of the shielding layer will not remain on the electronic package to become burr after removing the portion to be removed.

Abstract: Methods and devices are provided in which a user equipment (UE) receives configuration information from a base station (BS). The configuration information includes an indication enabling artificial intelligence (AI)-based handover. The UE determines that an event triggers transmission of a measurement report based on UE measurements and AI inference by the UE. The UE transmits the measurement report to the BS, and performs the AI-based handover to a target BS. The AI-based handover is initiated based on the measurement report.

Abstract: A system and a method are disclosed for performing a UE-initiated beam-management procedure, the method includes receiving, by a user equipment (UE), configuration information including beam-quality-assessment data, for the UE to determine a quality of a current beam and/or a quality of a new beam, and triggering-event data, for the UE to determine that a condition is satisfied for performing a UE-initiated (UEI) beam-management (BM) procedure, and based on determining, by the UE, that the condition is satisfied, sending a beam report.

Abstract: A system and a method are disclosed for AI/ML model LCM. A method performed by a UE includes transmitting, to a base station, a first signal including an indication of AI/ML use cases supported by the UE, and an indication of properties for the supported AI/ML use cases, receiving, from the base station, a second signal including at least one of a configuration, an activate command, or a trigger command of a CSI report to deploy at least one of a plurality of AI/ML functionalities based on the first signal, performing an inference operation for the CSI report based on the second signal, and transmitting, to the base station, a report based on the CSI report and the at least one of the plurality of AI/ML functionalities.

Abstract: A system and a method are disclosed for performing a UE-initiated beam-management procedure, the method includes receiving, by a user equipment (UE), configuration information including reporting data, for the UE to report information about a quality of a current beam and/or a quality of a new beam, and triggering-event data, for the UE to determine that a condition is satisfied for performing a UE-initiated (UEI) beam-management (BM) procedure, and based on determining, by the UE, that the condition is satisfied, sending a beam report including information regarding the quality of the current beam and/or the quality of the new beam.