Abstract: A system for controlling an amount of primer in a primer application gas, includes a first sensor for detecting a first content in the primer application gas that is fed into a chamber containing a semiconductor wafer, a second sensor for detecting a second content in an exhaust gas that is exhausted from the chamber, and a flow control device that controls the amount of primer in the primer application gas based on a first sensor signal from the first sensor and a second sensor signal from the second sensor.

Abstract: An adjustable aperture module includes a blade assembly, a fixed component connected to the blade assembly, a movable component connected to the blade assembly, and a driving mechanism. The blade assembly includes light-blocking blades overlapping one another in a circumferential direction surrounding a central axis and together forming a light pass aperture. The movable component is disposed corresponding to the fixed component. The driving mechanism is configured to rotate the movable component in the circumferential direction relative to the fixed component. The driving mechanism includes at least one coil assembly and at least one magnet arranged along the circumferential direction. The coil assembly includes at least two coils. The magnet is disposed on the movable component and includes at least one magnetic pole. The magnetic pole is disposed corresponding to the coil assembly and facing at least two coils of the coil assembly.

Abstract: The present disclosure provides a semiconductor structure. The semiconductor structure includes a gallium nitride (GaN) layer on a substrate; an aluminum gallium nitride (AlGaN) layer disposed on the GaN layer; a gate stack disposed on the AlGaN layer; a source feature and a drain feature disposed on the AlGaN layer and interposed by the gate stack; a dielectric material layer is disposed on the gate stack; and a field plate disposed on the dielectric material layer and electrically connected to the source feature, wherein the field plate includes a step-wise structure.

Abstract: A method applied to a signal synchronization system, a system, a stylus, and an electronic device. The system includes a stylus and an electronic device. The electronic device supports a first refresh rate and a second refresh rate. The method includes: after an electronic device is wirelessly connected to a stylus, the electronic device samples a downlink signal from the stylus based on a third refresh rate, where the third refresh rate is equal to a first refresh rate or a second refresh rate; and the stylus sends the downlink signal to the electronic device based on the third refresh rate, and samples an uplink signal from the electronic device at a fourth refresh rate, where the fourth refresh rate is the least common multiple of the first refresh rate and the second refresh rate.

Abstract: An imaging lens system includes a plastic lens element. The plastic lens element includes an optical effective portion and an outer ring portion. The optical axis passes through the optical effective portion. The outer ring portion surrounds the optical effective portion and includes an annular groove structure, a conical surface, a flat abutting portion and a full-circle connecting portion. The annular groove structure is tapered off. Each of the conical surface and the flat abutting portion is located closer to the optical effective portion than the annular groove structure. The flat abutting portion is in physical contact with an optical element. The full-circle connecting portion is connected to the annular groove structure and located farther away from the optical effective portion than the annular groove structure. The annular groove structure has an annular bottom end surface extending in a direction substantially perpendicular to the optical axis.

Abstract: A process-management system and a process-management method are provided. The process-management system includes a process-planning module, a process-management module, and a process-executing module. The process-planning module stores a preset workflow and is configured to receive a first input instruction and a second input instruction. The process-planning module provides the preset workflow according to the first input instruction, and adjusts the preset workflow according to the second input instruction to generate a customized workflow. The process-management module is electrically connected to the process-planning module and is configured to generate a work instruction according to the preset workflow or the customized workflow. The process-executing module is electrically connected to the process-management module and configured to process a workpiece according to the work instruction.

Abstract: An imaging lens driving module includes a lens carrier, a molded receiving base, a rolling element, a molded frame element and a driving mechanism. The lens carrier defines an optical axis. The molded receiving base is configured to receive the lens carrier. The rolling element is disposed between the lens carrier and the molded receiving base, and the lens carrier is allowed to be displaceable along the optical axis and relatively to the molded receiving base. The molded frame element is coupled with the molded receiving base for defining an inner space to receive the lens carrier. The driving mechanism drives the lens carrier displaceable along the optical axis, and includes a driving magnet and a driving coil, wherein the driving magnet is disposed on the lens carrier, the driving coil is corresponding to and faces towards the driving magnet.

Abstract: Embodiments of this application provide a display panel and a terminal device, and are applied to the field of terminal technologies. The display panel is provided with a connection line, a signal line in an edge display area is extended to a center display area through the connection line and connected to a fan-out lead, and a sequence of input first display data is changed by using a drive chip, so that when an arrangement number of each fan-out lead is different from an arrangement number of a signal line connected to the fan-out lead, second display data output by the drive chip can be transmitted to a correct signal line. In addition, a same drive chip can be applied to different terminal devices, to improve utilization of the drive chip and reduce design costs of the drive chip.

Abstract: An imaging lens assembly has an optical axis, and includes a plurality of optical elements. The optical axis passes through the optical elements, and the optical elements include a radial reduction lens element and a radial reduction light blocking element. The radial reduction lens element includes an optical effective portion and a peripheral portion. The peripheral portion is disposed around the optical effective portion along a circumferential direction of the optical axis. The radial reduction light blocking element includes a central opening and a radial reduction part. The optical axis passes through the central opening. The radial reduction part is reduced towards the optical axis along a direction vertical to the optical axis, so that the central opening is non-circular. The radial reduction part includes a plurality of light blocking structures. The light blocking structures are arranged along the direction vertical to the optical axis.

Abstract: An antimicrobial peptide, the peptide comprising 2 to 20 variable domains, each variable domain is a sequence of 2 to 20 consecutive basic amino acids, wherein (a) the variable domains are separated from each other by a variable linker, (b) the variable linker can have 1 to 20 any amino acids other than two or more consecutive basic amino acids, and (c) the peptide has no more than 100 amino acids.

Abstract: An imaging lens assembly module includes an imaging lens assembly, a light path folding element, a first lens barrel, a second lens barrel, a base and a plurality of rolling bearings. The imaging lens assembly includes a plurality of plastic lens elements, and defines a first optical axis passing through the plastic lens elements. The first lens barrel contains one or more of the plastic lens elements. The second lens barrel contains another one or more of the plastic lens elements. The base includes a guiding groove structure, and the guiding groove structure extends continuously along a direction parallel to the first optical axis. The rolling bearings interposed between the first lens barrel and the base and the rolling bearings interposed between the second lens barrel and the base are interposed in the guiding groove structure.

Abstract: An imaging lens driving module includes a base, a casing, a driving mechanism and a damping element. The base has an opening, and the casing has a central aperture corresponding to the opening. The casing includes a plastic frame portion and a metal structure portion. The plastic frame portion is coupled to the base. The metal structure portion has a plurality of pins extending towards the base. The driving mechanism is disposed in the casing. The driving mechanism is configured to drive the lens unit to move in a direction parallel to an optical axis. The damping element is connected to the pins and the lens unit. The metal structure portion is insert-molded with the plastic frame portion to form the casing. The pins are located closer to the optical axis than the other part of the metal structure portion to the optical axis.

Abstract: A lens driving module includes a base, a shield can, a driving mechanism, a space maintaining element and a damping element. The base has an opening. The shield can is coupled to the base and has a central aperture corresponding to the opening. The driving mechanism is disposed in the shield and configured to drive a lens unit to move. The space maintaining element is in physical contact with the shield can. The space maintaining element includes a plastic frame portion and a metal structure portion. The metal structure portion includes pins extending toward the base. The metal structure portion is insert-molded with the plastic frame portion to form the space maintaining element. The damping element is connected to the pins and the lens unit. The pins of the metal structure portion are located closer to the optical axis than part of the metal structure portion without the pins.

Abstract: Using deep learning, imaging harmonization among images produced with differing PET tracers is achieved. A method may include providing an original PET image of the brain using an original PET tracer, providing a target PET tracer, and converting, using a deep learning neural network, the original PET image into a target PET image simulating the image that would be obtained had the target PET tracer been used.

Abstract: A method includes performing a cleaning operation on a supporting surface of a wafer table by using a cleaning scrubber having a plurality of microstructures, the plurality of microstructures being spaced apart from each other and having a tapered width; placing a semiconductor wafer on the supporting surface of the wafer table; and performing a photolithography process on the semiconductor wafer.

Abstract: Assay and systems are provided that include use of cells and/or organoid for patient diagnosis, drug development, and personalized medicine, including for diagnosis and treatment of cancer and associated diseases and disorders. In one aspect, systems and methods include applying a phase-specific and force-guided polymerization of a biomaterial, wherein the polymerization comprises a nucleation phase and an elongation phase; thereby, producing a model.

Abstract: An imaging lens system includes a plastic lens element. The plastic lens element includes an optical effective portion and an outer ring portion. The optical axis passes through the optical effective portion. The outer ring portion surrounds the optical effective portion and includes an annular groove structure, a conical surface, a flat abutting portion and a full-circle connecting portion. The annular groove structure is tapered off. Each of the conical surface and the flat abutting portion is located closer to the optical effective portion than the annular groove structure. The flat abutting portion is in physical contact with an optical element. The full-circle connecting portion is connected to the annular groove structure and located farther away from the optical effective portion than the annular groove structure. The annular groove structure has an annular bottom end surface extending in a direction substantially perpendicular to the optical axis.

Abstract: A deep-sea water concentrate skin application kit of deep-sea active concentrate and skincare formula is provided. The deep-sea water concentrate skin application kit has the following properties of micronizing the skincare formulas immediately, and decreasing the surface tension of the deep-sea active concentrate immediately; furthermore, the deep-sea active concentrate can become a driving force for the permeability of the micronized skincare formulas. Therefore, the deep-sea water concentrate skin application kit can be more easily absorbed into the skin (dermis). A manufacturing method of the deep-sea water concentrate skin application kit is also provided to improve skin appearance.

Abstract: A camera module includes a casing, a base, an imaging lens module, a driving module, an image stabilization module and an image sensor. The base is coupled to the casing, forming an accommodation space. The imaging lens module is disposed in the accommodation space and includes an imaging lens and a plastic light-folding element. The driving module includes a first holder, a fixed frame, a first rollable support and a first driving mechanism. The first holder holds the plastic light-folding element. The fixed frame is disposed corresponding to the first holder. The first rollable support is disposed between the first holder and the fixed frame. The first driving mechanism is configured to drive the first holder to move relative to the fixed frame. The image stabilization module is configured to drive the imaging lens or the image sensor to move in a direction perpendicular to the optical axis.

Abstract: A source measure device includes a current sampling circuit, a voltage sampling circuit, an overvoltage detecting circuit, and a comparing circuit. The current sampling circuit is configured to sample a current of a device under test. The voltage sampling circuit is configured to sample a voltage of the device under test. The overvoltage detecting circuit is coupled to the current sampling circuit and the voltage sampling circuit, and receives a first operation voltage of the current sampling circuit and a second operation voltage of the voltage sampling circuit so as to generate a detection voltage. The comparing circuit is coupled to the overvoltage detecting circuit, and determines whether the detection voltage is within a voltage range. If the detection voltage is not within the voltage range, the comparing circuit generates an abnormal signal.