Abstract: A processing and testing equipment includes a carrier stage, a processing unit and a measuring unit. The carrier stage carries processing components. Processing unit provides a processing laser, and laser performs a manufacturing process on processing component on carrier stage. Measurement unit includes light source, vibration mirror, image sensing element and focusing module. Light source illuminates position of processing component on carrier stage, and processing component generates a light signal. Vibration mirror reflects light signal from processing component. The image sensing element has an image sensing area and receives the light signal reflected by the vibration mirror. The focusing module images light signal onto image sensing element. Light source activation time interval is synchronized with time interval when vibration mirror reflects light signal to image sensing area. Images recorded by image sensing element include images received at different time sequences.

Abstract: A component processing apparatus including a carrying unit, a control unit and a processing module is provided. The carrying unit is adapted to carry an object to be processed. The control unit is signally connected to the carrying unit and defines a surface of the object to be processed as a plurality of processing areas. The processing module is controlled by the control unit. The processing module includes a transfer unit and a repair unit. The transfer unit is adapted to configure a plurality of components to each processing area according to a set sequence between the plurality of processing areas. The repair unit and the transfer unit process the object to be processed synchronously. Additionally, the repair unit removes a part of the components configured by the transfer unit in each processing area, or configures another component to a vacant position in each processing area.

Abstract: A processing and detecting apparatus includes a stage, a processing unit, a processing scanner and at least one detection scanner. The stage is configured to place a sample to be processed. A surface of the sample to be processed has a plurality of processing positions. The processing unit is disposed relative to the stage to process the sample to be processed. The processing scanner is configured to scan the sample to be processed. The processing scanner controls the processing unit to process the processing positions sequentially at a scanning frequency. The detection scanner includes an information capturing unit and a scanning output unit. The information capturing unit synchronously receives a piece of detection information for each processing position through the processing scanner, the scanning output unit is signally connected to the information capturing unit, and outputs each piece of detection information at the scanning frequency.

Abstract: A laser processing equipment includes a laser unit and a carrier. The laser unit includes a pulsed laser light source, a vibration mirror, a mask, and a focusing module. The pulsed laser light source provides a pulsed laser beam. The vibration mirror turns the pulsed laser beam. The mask receives the pulsed laser beam. The mask has multiple openings distributed along a first direction. The openings are used to allow the pulsed laser beam to pass through. The focusing module respectively focuses the pulsed laser beam passing through the openings into multiple laser spots distributed along the first direction. The carrier carries multiple processing elements. The processing elements are disposed corresponding to distribution positions of the laser spots along the first direction. A laser processing method is also provided.

Abstract: Techniques for trace width modulation are disclosed. In an aspect, a method for trace width modulation may include determining that a region along a length of a trace has an impedance that is different from a target impedance for the trace, and altering a width of at least a portion of the trace within the region to cause the impedance of the trace to be substantially equal to the target impedance of the trace.

Abstract: A server and an assembly method thereof are disclosed. The server includes a chassis base, a first fan rack, a motherboard, a second fan rack, and a fan module. The first fan rack and the motherboard are both assembled on the chassis base, and the second fan rack is disposed on a side of the motherboard relatively close to the first fan rack, in which the first fan rack and the second fan rack form a receiving space, and the fan module is placed in the receiving space.

Abstract: Computer technology for combining an encryption/decryption (e/d) key with additional information to obtain a specialized e/d key. The additional information one or more of the following types of additional information: client UUID (universally unique identifier), FQDN (fully qualified domain name), database hardware information, data physical position on the hard disk and/or stored data creation date. By combining the basic key with these kind(s) of operational information and/or software/hardware identifier information, the security of the underlying encrypted data can be meaningfully enhanced.

Abstract: A laser processing apparatus provides a laser unit, a vibration mirror module, a focusing module, and a processing platform. The laser unit emits a laser pulse beam. The vibration mirror module, positioned on the path of the laser pulse beam, reflects the laser pulse beam and has a first mode and a second mode configured to reflect the laser pulse beam into a first beam while the module is in the first mode or alternatively, into a second beam while the module is in the second mode. The first beam and the second beam travel in different directions. The focusing module receives the second beam reflected by the vibration mirror module in the second mode and focuses the second beam onto a focus. The processing platform is positioned at the focus to bear a to-be-processed device, upon which the second beam is cast.

Abstract: A laser processing apparatus including a laser light source, a polarizing beam splitter, a first reflective mirror, a second reflective mirror, and a polarizing beam combiner is disclosed. The laser light source is configured to generate a laser light. The polarizing beam splitter is configured to divide the laser light into a first beam and a second beam. The first reflective mirror is configured to reflect the first beam. The second reflective mirror is configured to reflect the second beam. The polarizing beam combiner is disposed on a path of the first beam reflected by the first reflective mirror and on a path of the second beam reflected by the second reflective mirror. An optical axis of the polarizing beam combiner is not parallel to the first beam. The polarizing beam combiner is configured to guide the first beam and the second beam.

Abstract: A computed tomography (CT) device with an energy storage system includes an energy storage system, a scanning gantry, a diagnostic couch and a console. The energy storage system is respectively connected to the scanning gantry, the diagnostic couch and the console, and can supply power for the scanning gantry, the diagnostic couch and the console. The energy storage system comprises a charging part, an energy storage module and an output part. The scanning gantry comprises a rotor portion and a stator portion. The CT device uses the energy storage system to supply power to the whole CT device, uses a direct current (DC)-alternating current (AC) inverter to convert a DC of the energy storage system into an AC for power supply, and uses a DC-DC converter to convert a voltage of the energy storage system into different voltages for power supply.

Abstract: A processing and detecting apparatus configured to process and detect an object is provided and includes a carrying platform, a laser unit, a wavelength measuring unit, and a computing unit. The carrying platform is configured to carry the object, and the object includes a substrate and a plurality of micro light emitting diodes (LEDs) disposed on the substrate. The laser unit is configured to perform a working procedure on the object on the carrying platform and excite each of the micro LEDs to radiate a light signal. The wavelength measuring unit is configured to measure the light signal radiated by exciting each of the micro LEDs in real time to obtain a spectrum of each of the micro LEDs. The computing unit is configured to analyze the spectra of the micro LEDs to determine whether the working procedure is abnormal.

Abstract: An expansion card module includes a carrier, an expansion card disposed on the carrier, a heat-dissipation member disposed on the expansion card, and a latch assembly that is assembled to the carrier. The carrier includes a first end and a second end that is opposite to the first end. The second end has a pivotal portion. The expansion card has an electrical connection end that is arranged adjacent to the first end of the carrier. The expansion card is disposed between the carrier and the heat-dissipation member. The latch assembly is pivotally connected to the pivotal portion of the carrier.

Abstract: A transmission system of an all-terrain vehicle (ATV) includes a transmission unit including a driving module that includes two axles and a differential connected to the axles, and a switching unit including a differential switching mechanism that includes a bifurcate fork connected to the differential and that has an elongated groove being elongated in a front-rear direction, a connecting pin parallel to the axles, extending through the bifurcate fork, and connected fixedly to the differential, an actuating shaft extending into the elongated groove, and an actuating motor driving the actuating shaft to rotate, thereby driving the bifurcate fork to move along the connecting pin via connection between the elongated groove and the actuating shaft and switching the differential between lock and unlock states.

Abstract: An all-terrain vehicle includes a frame unit including a chassis. Disposed on the frame unit are an engine and a transmission assembly connected to the engine. An air filter is connected to the engine. A steering assembly is disposed on the frame unit and distal from the air filter and the transmission assembly. A first air intake pipe is connected to the air filter, and has a first air inlet that is proximate to the steering assembly and that is above the chassis. A second air intake pipe is connected to the transmission assembly, and has a second air inlet that is proximate to the steering assembly and that is above the chassis.

Abstract: A method for trimming a micro electronic element includes: providing a substrate, wherein at least one micro electronic element is disposed on the substrate, heating an interface of the substrate and the micro electronic element by a first pulse laser beam to reduce a bonding force between the micro electronic element and the substrate, and irradiating a surface layer of the micro electronic element by a second pulse laser beam to generate a shock wave due to plasma on the surface layer of the micro electronic element. The shock wave removes the micro electronic element away from the substrate. An apparatus for trimming a micro electronic element is also provided.

Abstract: The invention discloses that a kefir peptide with an amino acid sequence of SEQ ID No: 2 or a fermentation product comprising the kefir peptide has an antidepressant activity, which means that by administering an effective amount of the kefir peptide or a composition comprising an effective amount of the kefir peptide to an individual with depressive behaviors is capable of effectively improving or alleviating the individual's depressive behaviors. Since the kefir peptide disclosed in the invention is not a chemical compound, the kefir peptide will not have side effects on the human body even taking it on a long-term basis.

Abstract: A method, computer system, and a computer program for monitoring synchronization and aggregation are provided. The method may include receiving a plurality of metrics and identifying a plurality of metadata associated with the plurality of metrics. The method may further include calculating a hash value of the plurality of metadata based on the plurality of metrics. The method may further include detecting at least one modification to the plurality of metadata based on the hash value and updating the plurality of metrics based on the at least one modification in which the plurality of metrics are displayed in a self-adapting metric diagram.