Abstract: A test fixture assembly is for performing a test of a DUT (Device under Test), the DUT includes a plurality of pins exposed on a surface of the DUT, and the test fixture assembly includes a circuit board and a socket unit. The circuit board includes a plurality of test pads, which are exposed on a surface of the circuit board. The socket unit includes a socket base and a plurality of socket probes, which are inserted through the socket base. A first end and a second end of each of the socket probes are respectively exposed on two opposite surfaces of the socket base. Each of the test pads, a corresponding one of the socket probes and a corresponding one of the pins are configured to be linearly arranged along a socket probe direction.

Abstract: An antenna test assembly includes a DUT (Device under Test). The DUT includes an antenna module and a circuit board. The antenna module includes a first antenna element, which includes a first antenna pin and a second antenna pin. The circuit board includes a first line and a second line, and two ends of each of the first line and the second line are electrically connected to two metal pads, respectively, exposed on the circuit board. When the antenna test assembly is in an equipment test mode, the first line, the first antenna pin, the second antenna pin and the second line are electrically connected in sequence.

Abstract: A physical layer collision avoidance (PLCA) device and a method for automatically determining a node identity for the PLCA device are provided. The method includes: generating a random number as identification information of the PLCA device, wherein the PLCA device maintains an identification information table and a device count; receiving a first synchronization packet, wherein the first synchronization packet includes first identification information of a first PLCA device; determining a first comparison result between the identification information of the PLCA device and the first identification information of the first PLCA device; updating the identification information table and the device count based on the first comparison result; sending a synchronization packet corresponding to the PLCA device based on the first comparison result; and determining the node identity of the PLCA device in a PLCA network based on the identification information table.

Abstract: Embodiments of the disclosure provide a physical layer collision avoidance (PLCA) device and a method for performing emergency transmission thereof. The method includes: in response to determining that the PLCA device enters an emergency transmission mode, finding a first PLCA device that is performing a corresponding first packet transmission; in response to determining that a first transmission priority of the first PLCA device is lower than a transmission priority of the PLCA device, suspending the first packet transmission of the first PLCA device; and in response to determining that it is the PLCA device's turn to perform a corresponding packet transmission, sending an emergency packet corresponding to the emergency transmission mode.

Abstract: A composition for treating Fabry disease, which includes a polynucleotide having gene editing function for correction of the specific mutation (IVS4+919 G>A) of GLA gene. A method for treating Fabry disease, which uses gene editing systems for correction of the specific mutation (IVS4+919 G>A) of GLA gene in Fabry disease.

Abstract: A use of an anthranilic acid derivative as a matrix for a MALDI Mass spectrometry, comprising: preparing a matrix compound represented by the following formula: wherein X is selected from hydrogen and a hydroxyl group, and Y is selected from hydrogen, a methyl group or an acetyl group, provided that when X is hydrogen, Y is hydrogen or an acetyl group, and when X is a hydroxyl group, Y is a methyl group; applying the matrix compound and an analyte onto a sample holder; and analyzing the analyte by the MALDI mass spectrometer.

Abstract: A use of an anthranilic acid derivative as a matrix for a MALDI Mass spectrometry, comprising: preparing a matrix compound represented by the following formula: wherein X is selected from hydrogen and a hydroxyl group, and Y is selected from hydrogen, a methyl group or an acetyl group, provided that when X is hydrogen, Y is hydrogen or an acetyl group, and when X is a hydroxyl group, Y is a methyl group; applying the matrix compound and an analyte onto a sample holder; and analyzing the analyte by the MALDI mass spectrometer.

Abstract: A semiconductor device package includes a substrate, a component on a surface of the substrate, a package body encapsulating the component, and an electromagnetic interference (EMI) shield conformally formed on the package body, where the EMI shield has a side portion defining an opening.

Abstract: A semiconductor device package includes a substrate, a component on a surface of the substrate, a package body encapsulating the component, and an electromagnetic interference (EMI) shield conformally formed on the package body, where the EMI shield has a side portion defining an opening.

Abstract: Provided are methods for forming antireflective layers on solar cells using wet chemical processes and solar cells with anti-reflective layers formed of ZnO based nanorods. Self-assembling ZnO nanorods are generated in the chemical solution without any catalysts. The nanorods are formed to different shapes such as hexagonal, cubic, and circular in cross-section. The refractive index of the ARC layer formed of the nanorods is modulated by controlling the diameter and length of the nanorods by controlling the Molarity of the solution used to form the nanorods. A correlation is established between the refractive index and solution Molarity and a solution is prepared with the desired Molarity. The nanorods are formed from HMT ([CH2]6NH4) and a dissociative Zn2+/OH? chemical such as Zn(NO3)2.

Abstract: A method for producing a light-emitting diode is provided, including the following steps. First, a carrier is provided, wherein the carrier comprises a die bonding surface. Then, a die bonding adhesive layer is formed on the die bonding surface, wherein the die bonding adhesive layer has a photoresist property. Next, at least one lighting chip is disposed on the die bonding adhesive layer, and an uncovered portion of the die bonding adhesive layer is not covered by the lighting chip. Finally, the uncovered portion of the die bonding adhesive layer is removed.

Abstract: A preparation of aryl carbamates can be achieved readily by carbonylation of an aromatic polyamine compound with diphenyl carbonate (DPC) using a combination of an organic acid and a tertiary amine as a catalyst. Aryl carbamate can be converted into 4,4?-diphenylmethane diisocyanate (MDI) by heating it at about 200 to about 230° C. in a non-polar solvent containing inhibitor such as benzoyl chloride. In another application, trans-ureation of biscarbamates with an amine or mixed amines is found to be extremely facile in a polar solvent such as dimethyl sulfoxide (DMSO) and tetramethylene sulfone (TMS) in absence of any catalyst to make polyurea polymers of high molecular weights. Thus, efficient green-chemistry processes based on biscarbamates in making isocyanate products as well as urea prepolymers, urea elastomers and urea plastics have been developed in all in excellent yields without using reactive phosgene or 4,4?-diphenylmethane diisocyanate separately in the trans-ureation polymerizations.

Abstract: A method and apparatus for forming a solar cell can include a heater apparatus having one or more heater elements in a deposition processing system, a front cover covering the one or more heater elements from a front side, and a back metal reflector mating with the front cover on a back side and enclosing the one or more heater elements. The method can include disposing a plurality of substrates about a plurality of surfaces of a substrate apparatus that is operatively coupled to sequentially feed a substrate within a vacuum chamber, forming an absorber layer over a surface of each one of the plurality of substrates and heating the surface of each one of the plurality of substrates with the heater apparatus as described above.

Abstract: A FCB stack assembly includes a PCB, a shield can, and a FCB. The shield can is fixed on the PCB for receiving and shielding electronic components on the PCB. The FCB is fixed onto and directly supported by the shield can.

Abstract: A preparation of aryl carbamates can be achieved readily by carbonylation of an aromatic polyamine compound with diphenyl carbonate (DPC) using a combination of an organic acid and a tertiary amine as a catalyst. Aryl carbamate can be converted into 4,4?-diphenylmethane diisocyanate (MDI) by heating it at about 200 to about 230° C. in a non-polar solvent containing inhibitor such as benzoyl chloride. In another application, trans-ureation of biscarbamates with an amine or mixed amines is found to be extremely facile in a polar solvent such as dimethyl sulfoxide (DMSO) and tetramethylene sulfone (TMS) in absence of any catalyst to make polyurea polymers of high molecular weights. Thus, efficient green-chemistry processes based on biscarbamates in making isocyanate products as well as urea prepolymers, urea elastomers and urea plastics have been developed in all in excellent yields without using reactive phosgene or 4,4?-diphenylmethane diisocyanate separately in the trans-ureation polymerizations.

Abstract: An active device array mother substrate including a substrate, a plurality of active device arrays, a plurality of common bus lines, at least one first transparent conductive pattern layer, and at least one second transparent conductive pattern layer is provided. The substrate has a plurality of predetermined areas, and the active device arrays are respectively disposed in the predetermined areas. The common bus lines are respectively disposed in the predetermined areas to surround the active device arrays. The first transparent conductive pattern layer is connected or coupled between adjacent two common bus lines. The second transparent conductive pattern layer is extended to the adjacent predetermined area to be connected or coupled to the adjacent common bus line.

Abstract: This invention provides a process for producing a radioactive arsenic-containing compound, comprising the steps of: (i) subjecting an arsenic-containing compound to a neutron irradiation treatment, said arsenic-containing compound being selected from a group consisting of As2O3, As2S3, As2S2, and a combination thereof, such that the arsenic element contained in the arsenic-containing compound is converted to a radioactive arsenic isotope; and (ii) recovering the resultant product from step (i). This invention also provides a pharmaceutical composition comprising a therapeutically effective amount of the radioactive arsenic-containing compound and a pharmaceutically acceptable carrier. The pharmaceutical composition can be used in the treatment of tumors/cancers such as hematological malignancies and solid tumors.

Abstract: An active device array mother substrate including a substrate, a plurality of active device arrays, a plurality of common bus lines, at least one first transparent conductive pattern layer, and at least one second transparent conductive pattern layer is provided. The substrate has a plurality of predetermined areas, and the active device arrays are respectively disposed in the predetermined areas. The common bus lines are respectively disposed in the predetermined areas to surround the active device arrays. The first transparent conductive pattern layer is connected or coupled between adjacent two common bus lines. The second transparent conductive pattern layer is extended to the adjacent predetermined area to be connected or coupled to the adjacent common bus line.