Abstract: A method for manufacturing an electronic device is provided. The method for manufacturing the electronic device includes: providing a substrate with elements disposed thereon and transferring at least one of the elements from the substrate to a driving substrate, which includes illuminating a region of the substrate overlapped with the at least one of the elements by an energy beam, wherein the driving substrate includes a circuit board and a pixel defining layer disposed on the circuit board, and the pixel defining layer includes a hole for accommodating the at least one of the elements. A bottom surface of the at least one of the elements is higher than a top surface of the pixel definition layer when the region of the substrate is illuminated by the energy beam.

Abstract: Pixel circuit includes light emitting element, driving transistor, capacitor, writing circuit, first transistor and second transistor. Light emitting element is coupled to first system voltage source. Driving transistor is coupled to first node, second node and second system voltage source. Capacitor and writing circuit are coupled to second node and third node. Writing circuit writes a data voltage and an initial voltage to both terminals of capacitor according to a control signal. First transistor is coupled between driving transistor and light emitting element, and is conducted in response to a driving signal. Second transistor is coupled to first node and third node, and is conducted in response to driving signal to change data voltage and initial voltage at both terminals of capacitor to conduct driving transistor to generate a driving current between two system voltage sources, flowing through driving transistor and first transistor, to light up light emitting element.

Abstract: The invention provides combinations of materials and methods for disease treatment, such as CD47+ cancer treatment. The combinations include a CD47 blocking agent and a taxane.

Abstract: A capacitor structure and method of forming the capacitor structure is provided, including a providing a doped region of a substrate having a two-dimensional trench array with a plurality of segments defined therein. Each of the plurality of segments has an array of a plurality of recesses extending along the substrate, where the plurality of segments are rotationally symmetric about a center of the two-dimensional trench array. A first conducting layer is presented over the surface and a bottom and sidewalls of the recesses and is insulated from the substrate by a first dielectric layer. A second conducting layer is presented over the first conducting layer and is insulated by a second dielectric layer. First and second contacts respectively connect to an exposed top surface of the first conducting layer and second conducting layer. A third contact connects to the substrate within a local region to the capacitor structure.

Abstract: An electronic apparatus including a touch display panel and a driver circuit is provided. The touch display panel includes a plurality of first electrodes and at least one second electrode. The plurality of first electrodes are arranged in an active area of the touch display panel, and the at least one second electrode is arranged in a border area of the touch display panel. The driver circuit is coupled to the touch display panel. The driver circuit is configured to drive the plurality of first electrodes to perform a touch sensing operation in a first period. The driver circuit is configured to drive the plurality of first electrodes and the at least one second electrode to perform a gesture sensing operation in a second period.

Abstract: An integrated circuit is provided and includes first transistors of a first circuit arranged in a first cell row having a first number of fin structures and a second transistor of a second circuit. The second transistor is coupled in parallel with a first element in the first transistors between first and second terminals of the first circuit, and arranged in a second cell row having a second number, different from the first number, of fin structures. The first element and the second transistor share a first gate extending in a first direction to pass through the first and second cell rows in a layout view. The second transistor is a duplication of the first element.

Abstract: A tape laying device includes a tape transmission mechanism, a compaction head mechanism, a cutter mechanism, a heating mechanism and a motion mechanism. The tape transmission mechanism is configured to transmit the pre-impregnated tape. The compaction head mechanism, connected with the tape transmission mechanism, is configured to depress and drive the pre-impregnated tape transmitted by the tape transmission mechanism to follow a moving path so as to adhere the pre-impregnated tape onto the mould surface. The cutter mechanism is configured to cut the pre-impregnated tape. The heating mechanism, disposed downstream to the cutter mechanism, is configured to heat the pre-impregnated tape. The motion mechanism is used to have the cutter mechanism having an active path to move toward the moving path while the cutter mechanism cuts the pre-impregnated tape.

Abstract: A multi-band antenna includes a substrate with a first surface and a second surface, a first antenna structure with a first antenna coupling segment, a second antenna structure with a second antenna coupling segment, a first grounding section, a coupling section, a via hole, and a second grounding section. Both of the first antenna structure and the second antenna structure are disposed on the first surface. The first grounding section is connected to the first antenna coupling segment. The coupling section is disposed on the second surface and projected onto the first surface to form a coupling region. Both of the first antenna coupling segment and the second antenna coupling segment at least partially overlap the coupling region. The via hole penetrates through the substrate and is connected between the coupling section and the second antenna coupling segment. The second grounding section is connected to the coupling section.

Abstract: A display driving device comprises a signal supplier and a panel. The signal supplier is configured to output a first data signal, a second data signal, and a third data signal. The panel is coupled to the signal supplier. The panel includes a first region to a ninth region. During a first period, the first region, the second region, and the third region output a red signal based on the first data signal, the fourth region, the fifth region, and the sixth region output a green signal based on the second data signal, and the seventh region, the eighth region and the ninth region output a blue signal based on the third data signal. The red signal, the green signal, and the blue signal are different from each other.

Abstract: A device is disclosed that includes multiple channels and multiple processing nodes. Each processing node includes input/output (I/O) ports coupled to the channels and channel control modules coupled to the I/O ports. Each processing node is configured to select, by the channel control module in a first operation, a first I/O port of the I/O ports; communicate a first message, via the first I/O port, to a first processing node over a first channel or a second processing node over a second channel orthogonal to the first channel in a logic representation; select, by the channel control module in a second operation, a second I/O port of the I/O ports; and communicate a second message, via the second I/O port, to a third processing node over a third channel extending in a diagonal direction and non-orthogonal to the first and second channels in the logic representation.

Abstract: Provided are a gene sequencing method, apparatus and device, and a medium. The method includes: acquiring a gene sample to be detected and a preset read length; determining a sample type of each sample included in the gene sample; sequencing, for each sample in the gene sample, each short sequence of the sample based on a sequencing sequence corresponding to the sample type of the sample, until the gene sequence in each short sequence of the sample is sequenced to the preset read length, to obtain intermediate stage sequencing result data of each short sequence in the sample; and sending the intermediate stage sequencing result data of each short sequence in each sample to a target server, enabling the target server to perform data analysis on the intermediate stage sequencing result data of each short sequence in each sample, to obtain an intermediate stage detection report.

Abstract: An alditol oxidase and application thereof. The method uses D-glucose as a substrate to dock the alditol oxidase derived from Streptomyces coelicolor A3, and selects amino acid residues around an active center for saturation mutagenesis, and screens for alditol oxidase with D-glucose oxidizing activity by plate color development. An amino acid sequence of the alditol oxidase is shown in SEQ ID NO: 2 or SEQ ID NO: 4. The alditol oxidase has the activity of converting D-glucose to D-gluconic acid and D-glyceraldehyde to D-glyceric acid. By using the alditol oxidase, the conversion of D-glucose to pyruvic acid is realized by only three enzymes for the first time and does not depend on any coenzyme.

Abstract: Pixel circuit includes light emitting element, driving transistor, capacitor, writing circuit, first transistor and second transistor. Light emitting element is coupled to first system voltage source. Driving transistor is coupled to first node, second node and second system voltage source. Capacitor and writing circuit are coupled to second node and third node. Writing circuit writes a data voltage and an initial voltage to both terminals of capacitor according to a control signal. First transistor is coupled between driving transistor and light emitting element, and is conducted in response to a driving signal. Second transistor is coupled to first node and third node, and is conducted in response to driving signal to change data voltage and initial voltage at both terminals of capacitor to conduct driving transistor to generate a driving current between two system voltage sources, flowing through driving transistor and first transistor, to light up light emitting element.

Abstract: A display driving device includes a panel. The panel includes an output region, a first region, a second region, and a third region. The output region is configured to output a detection signal. The first region overlaps the output region, the second region overlaps the output region, and the third region overlaps the output region. During a first period, the second region and the third region output a point report signal according to the detection signal. During a second period, the first region and the third region output the point report signal according to the detection signal. During a third period, the first region and the second region output the point report signal according to the detection signal. The second period is later than the first period and the third period is later than the second period.

Abstract: A display panel includes a pixel circuit. The pixel circuit includes a first sub-pixel circuit and a second sub-pixel circuit. The first sub-pixel circuit includes a first light emitting element and a first driving circuit. The first driving circuit is coupled to the first light emitting element, and is configured to conduct according to a first driving signal and a second driving signal to drive the first light emitting element. The second sub-pixel circuit includes a second light emitting element, a third light emitting element and a second driving circuit. The second driving circuit is coupled to the second light emitting element and the third light emitting element, is configured to conduct according to the first driving signal to drive the second light emitting element, and is configured to conduct according to the second driving signal to drive the third light emitting element.

Abstract: An integrated circuit includes a first clocked forwarding-switch and a second clocked forwarding-switch each implemented with strong transistors. The integrated circuit also includes a first clocked inverter and a second clocked inverter each implemented with weak transistors. The integrated circuit further includes a first inverter cross coupled with the first clocked inverter and a second inverter cross coupled with the second clocked inverter. An output of the first clocked forwarding-switch is conductively connected with an output of the first clocked inverter, and an output of the second clocked forwarding-switch is conductively connected with an output of the second clocked inverter.

Abstract: A method is provided for evaluating a maintenance requirement of a linear transmission device that is driven by a driving device. A control unit receives, from a sensing unit, a plurality of electric sensor signals that respectively correspond to multiple physical quantities of the linear transmission device or the driving device. The control unit calculates at least four correction factors based on the electric sensor signals, and calculates a service life of the linear transmission device based on the electric sensor signals and the at least four correction factors for scheduling maintenance of the linear transmission device.

Abstract: A pixel structure includes a first conductive pattern layer, a voltage line bridge structure, and a second conductive pattern layer. The first conductive pattern layer includes a first light-emitting signal line and a voltage line. The first light-emitting signal line extends in a first direction. The voltage line includes a first voltage line segment and a second voltage line segment located on both sides of the first light-emitting signal line and separated from each other. The first voltage line segment and the second voltage line segment extend in a second direction. The voltage line bridge structure electrically connects the first voltage line segment to the second voltage line segment. The second conductive pattern layer includes a scan line and a first data line. The scan line extends in the first direction. The first data line extends in the second direction and at least partially overlaps the voltage line.

Abstract: The present disclosure provides a method for treating arthritis by using a stem cell preparation. The stem cell preparation of the present disclosure can effectively delay cartilage degeneration caused by arthritis, and it is confirmed by whole blood analysis and blood biochemical analysis that the stem cell preparation in the form of three-dimensional stem cell spheres provides a safe treatment for arthritis. The present disclosure also provides a method for preparing the stem cell preparation.

Abstract: A memory management circuit, an electronic device and a memory management method are provided. The memory management circuit includes a controller and an address mapping logic. The controller records addresses of available storage spaces within a memory device, wherein a searching logic of the controller stores the addresses in a storage device, and the addresses are queued with a specific order in the storage device. When a computing circuit send a storage request to request for a storage resource, the searching logic obtains at least one address queued in the storage device according to the specific order of the addresses queued in the storage device, to accordingly generate a mapping table, and the address mapping logic performs an address mapping operation upon the storage request according to the mapping table, to allow the computing circuit to utilize the available storage spaces according to the mapping table.