Abstract: A high-sensitivity hapten detection method capable of deriving a real time hapten concentration by using a SPR device, in which different concentrations of a hapten in a sample solution result in different reflected light intensities on the SPR device, and by mapping a reflected light intensity, via a lookup table, to a corresponding concentration, a detection result of the concentration of the hapten in the sample solution can be instantly provided.

Abstract: Disclosed herein is a server management apparatus, comprising: a server information acquisition unit configured to acquire, from a plurality of servers respectively, server information on a server and hardware component information on hardware components included in the server, using an identifier of a control board of the server as a key; an analysis unit configured to analyze the server information and the hardware component information, and acquire information indicating whether or not firmware of any of the server and the hardware components needs to be updated; and a structured file generation unit configured to generate a structured file that hierarchically stores, in a readable format, the server information and the hardware component information, the structured file including a header describing the information indicating whether or not the firmware of any of the server and the hardware components needs to be updated.

Abstract: The present disclosure provides a semiconductor device and a fabricating method thereof, and which includes a substrate, bit lines, bit line contacts, a gate structure, a first oxidized interface layer, and a second oxidized interface layer. The bit lines are disposed on the substrate, and the bit line contacts are disposed below the bit lines. The gate structure is disposed on the substrate, wherein each bit line and the gate structure respectively include a semiconductor layer, a conductive layer, and a covering layer stacked from bottom to top. The first oxidized interface layer is disposed between each bit line contact and the semiconductor layer of each bit line. The second oxidized interface layer is disposed within the semiconductor layer of the gate structure, wherein a topmost surface of the first oxidized interface layer is higher than a topmost surface of the second oxidized interface layer.

Abstract: Disclosed herein is a server management apparatus, comprising: a server information acquisition unit configured to acquire, from a plurality of servers respectively, server information on a server and hardware component information on hardware components included in the server, using an identifier of a control board of the server as a key; an analysis unit configured to analyze the server information and the hardware component information acquired by the server information acquisition unit, and generate a server status flag indicating whether or not any of the server and the hardware components has an abnormality; and a structured file generation unit configured to generate a structured file that hierarchically stores, in a human-readable format, the server information and the hardware component information acquired by the server information acquisition unit, the structured file including a header describing the server status flag generated by the analysis unit.

Abstract: The invention discloses a semiconductor device including a substrate, a stacked structure, a trench, a channel structure, and a barrier layer. The stacked structure is disposed on the substrate, wherein the stacked structure includes a first metal layer, at least one stacked layer and a second metal layer from bottom to top. The trench is disposed in the stacked structure. The channel structure is disposed in the trench, wherein the channel structure fills up the trench. The barrier layer is disposed in the second metal layer, wherein the trench penetrates through the barrier layer. Therefore, the barrier layer can effectively prevent the diffusion of metal ions in the second metal layer from polluting the channel structure in the trench, and the structural reliability and performance of the semiconductor device can be improved.

Abstract: Disclosed herein is a server management apparatus, comprising: a server information acquisition unit configured to acquire, from a plurality of servers respectively, server information on a server and hardware component information on hardware components included in the server, using an identifier of a control board of the server as a key; an analysis unit configured to analyze the server information and the hardware component information acquired by the server information acquisition unit, and generate a server status flag indicating whether or not any of the server and the hardware components has an abnormality; and a structured file generation unit configured to generate a structured file that hierarchically stores, in a human-readable format, the server information and the hardware component information acquired by the server information acquisition unit, the structured file including a header describing the server status flag generated by the analysis unit.

Abstract: Disclosed herein is a server management apparatus, comprising: a server information acquisition unit configured to acquire, from a plurality of servers respectively, server information on a server and hardware component information on hardware components included in the server, using an identifier of a control board of the server as a key; an analysis unit configured to analyze the server information and the hardware component information, and acquire information indicating whether or not firmware of any of the server and the hardware components needs to be updated; and a structured file generation unit configured to generate a structured file that hierarchically stores, in a readable format, the server information and the hardware component information, the structured file including a header describing the information indicating whether or not the firmware of any of the server and the hardware components needs to be updated.

Abstract: The present disclosure provides a semiconductor device and a fabricating method thereof, and which includes a substrate, bit lines, bit line contacts, a gate structure, a first oxidized interface layer, and a second oxidized interface layer. The bit lines are disposed on the substrate, and the bit line contacts are disposed below the bit lines. The gate structure is disposed on the substrate, wherein each bit line and the gate structure respectively include a semiconductor layer, a conductive layer, and a covering layer stacked from bottom to top. The first oxidized interface layer is disposed between each bit line contact and the semiconductor layer of each bit line. The second oxidized interface layer is disposed within the semiconductor layer of the gate structure, wherein a topmost surface of the first oxidized interface layer is higher than a topmost surface of the second oxidized interface layer.

Abstract: The present disclosure provides a method and a platform for disrupting intracellular microtubules. The method and the platform of the present disclosure can accurately and quickly disrupt the microtubule structure in a specific area of a cell by adding a specific chemical small molecule or a specific wavelength of light. In addition to providing important reagents for microtubule-related research in basic science, it may even be developed into a new technology for precise chemotherapy.

Abstract: A display system includes a host and a display. The host executes a first application and a program. The program sets a first display parameter corresponding to the first application. The display receives a signal provided by the host. The signal includes a desktop image. The first application is operated at a first window on the desktop image. The program outputs the first display parameter to the display. The display sets the first window with the first display parameter and displays, and displays the non-first window area of the desktop image with a preset display parameter.

Abstract: A color temperature adjustable and dimmable magnifier comprises: a housing, a magnifying lens, a plural set of light emitting members and a control member, the housing comprises a lens carrier and a grip connecting the lens carrier; the magnifying lens is set in the lens carrier; the plural set of light emitting members are set around the lens carrier, each set of the light emitting member includes a cold light source and a warm light source; and the control member connects each cold light source and each warm light source, the control member controls turning on and off cold light sources and warm light sources according to the external instructions received, and adjusts the brightness of cold light sources and warm light sources to combine into a plural color temperature. The color temperature adjustable and dimmable magnifier can meet the various needs of users for color temperature and brightness.

Abstract: Enhancing a data query is provided. A knowledge base is searched for information corresponding to the data query. It is determined whether a query result is greater than a query result threshold level of information for the data query based on an identified query intent and keywords of the data query. In response to determining that the query result is not greater than the query result threshold level of information for the data query, a set of questions is sent to a personal digital agent of a client device that sent the data query for additional information based on the identified query intent and keywords. Analytic concepts answering the set of questions are received from analytic modules of the personal digital agent that are based on IoT-based personal data corresponding to a user of the client device. The data query is enhanced using the analytic concepts.

Abstract: A level shifter circuit includes an input terminal, a first output terminal, a second output terminal, an output stage, a first control bias unit, a second control bias unit, and an output stage. The input stage includes a first transistor and a second transistor, and their gates are coupled to the input terminal. The first control bias unit includes a third transistor and a fourth transistor coupled to the first transistor and second transistor respectively and their gates are controlled by a first bias. The output stage includes a fifth transistor and a sixth transistor coupled to the third transistor and fourth transistor respectively and their gates are coupled to the first output terminal and second output terminal. The second control bias unit includes a seventh transistor and an eighth transistor coupled to the fifth transistor and sixth transistor respectively and their gates are controlled by a second bias.

Abstract: A touch sensing circuit for use in a touch sensitive device includes: an integrator, a first switching unit and a control signal generator. The integrator, coupled to at least one sensing electrode of a touch panel in the touch sensitive device, and arranged to collect charges on the at least one sensing electrode and accordingly generate an output sensed signal. The first switching unit is arranged to selectively couple a first end of the at least one sensing electrode to a reference voltage level according to a first mask signal. The control signal generator is arranged to generate the first mask signal according to a synchronization signal of a display panel in the touch sensitive device, wherein the first switching unit couples the first end of the at least one sensing electrode to the reference voltage level when the synchronization signal is asserted.

Abstract: A display system includes a host and a display. The host executes a first application and a program. The program sets a first display parameter corresponding to the first application. The display receives a signal provided by the host. The signal includes a desktop. The first application is operated at a first window on the desktop. The program outputs the first display parameter to the display. The display sets the first window with the first display parameter and displays, and displays the non-first window area of the desktop with a preset display parameter.

Abstract: A touch sensing circuit for use in a touch sensitive device includes: an integrator, a first switching unit and a control signal generator. The integrator, coupled to at least one sensing electrode of a touch panel in the touch sensitive device, and arranged to collect charges on the at least one sensing electrode and accordingly generate an output sensed signal. The first switching unit is arranged to selectively couple a first end of the at least one sensing electrode to a reference voltage level according to a first mask signal. The control signal generator is arranged to generate the first mask signal according to a synchronization signal of a display panel in the touch sensitive device, wherein the first switching unit couples the first end of the at least one sensing electrode to the reference voltage level when the synchronization signal is asserted.

Abstract: A method of display user movement in a computing device of a virtual reality system is disclosed. The method comprises generating a first image in a first-person perspective with a first-person control, simulating an avatar according to a first control signal received from a controller of the virtual reality system, and generating a second image including the avatar in the first-person perspective with a third-person control, wherein the first-person perspective indicates that a user sees images as if seen through the avatar's eyes, and a field of view of the avatar is controlled by the user, the first-person control indicates that a user's movement is displayed by a relative position between the avatar and a scene of the images, and the third-person control indicates that the user's movement is displayed by different locations of the avatar in the images.

Abstract: A source driver includes a phase generator, a control circuit, and an output circuit. The phase generator is configured to generate a plurality of output clock signals according to an input clock signal, in which the phases of the output clock signals are different from each other. The control circuit is configured to sequentially generate a plurality of control signals according to the output clock signals and a latch signal. The output circuit is configured to sequentially output a plurality of data voltages separately according to the control signals.

Abstract: A system that combines augmented reality (AR) technology with self-created elements to produce video works and a media storing the same are revealed. The system includes a data module used for storing software drawing templates and software scenes, an image input module that reads a physical image of a physical picture book and defines a software image border, a recognition and analysis module that compares the software drawing template with the software image border to get software drawn content, and an integration module that integrates the software drawn content and the software scene for generating a self-created AR work. Thereby users can use the system to create AR video works with self-created elements in a real-time manner.

Abstract: A computer-implemented method for processing objects on touch screen devices is proposed. According to the method, one or more grid sizes is determined, wherein the one or more grid sizes comprise one or more text grid sizes. The one or more text grid sizes are determined by at least one of character, word, sentence, and section. Based on the one or more grid sizes, the one or more objects on the touch screen could be divided into one or more grids. The objects on the screen could be selected discontinuously by selecting grids on the screen.