Abstract: The present invention provides a control method of multiple memory devices, wherein the multiple devices comprise a first memory device and a second memory device, and the control method includes the steps of: determining a first operation timing and a second operation timing according to at least a first command signal that a first memory controller needs to send to the first memory device; controlling the first memory controller to send the first command signal to the first memory device at the first operation timing; and controlling the second memory controller to send the second command signal to the second memory device at the second operation timing.

Abstract: A method of memory time division control for a memory system comprising a plurality of memory controllers and memory devices is disclosed. The method comprises assigning a first operation timing to a first memory controller of the plurality of memory controllers and assigning a second operation timing to a second memory controller of the plurality of memory controllers, wherein the first operation timing is interleaved with the time of the second operation timing, transmitting a first chip select signal generated according to the first command signal, to a first memory device of the plurality of memory devices, and transmitting a second chip select signal generated according to the second command signal, to a second memory device of the plurality of memory devices.

Abstract: A control method of a memory system is disclosed. The memory system includes a controller, an interface and a memory. The interface is coupled to the controller, and the memory is coupled to the controller through the interface. The control method includes the controller sending a clock signal to the memory through the interface, and the controller sending an access command to the memory through the interface to access data at an access address of the memory. The clock signal has a clock period. A time span for the controller to send the access command to the memory is substantially 1.5 clock periods.

Abstract: A method of memory time division control for a memory system comprising a plurality of memory controllers and memory devices is disclosed. The method comprises assigning a first operation timing to a first memory controller of the plurality of memory controllers and assigning a second operation timing to a second memory controller of the plurality of memory controllers, wherein the first operation timing is interleaved with the time of the second operation timing, transmitting a first chip select signal generated according to the first command signal, to a first memory device of the plurality of memory devices, and transmitting a second chip select signal generated according to the second command signal, to a second memory device of the plurality of memory devices.

Abstract: The present disclosure is related to a memory circuit. The memory includes a memory controller and a memory interface coupled between the memory controller and a memory device. The memory controller is configured to generate an output signal that is transmitted to the memory device. The memory interface includes a feedback path configured to receive the output signal and generates a feedback signal in response to the output signal and a variable reference voltage. The memory controller further includes a data register so as to sample the feedback signal in response to a clock signal having a phase with an adjustable shift.

Abstract: A method for simultaneously accessing a first DRAM device and a second DRAM device includes the steps of: in an active phase, generating a first signal at a first pad, wherein the first signal is provided for the first DRAM device to select a first memory bank group, and the first signal is not for the second DRAM device to select any memory bank group; and generating a second signal at the first pad, wherein the second signal is provided for the first DRAM device to select the first bank group, and the second signal and the first signal correspond to a same digital value.

Abstract: A laser module, comprising: a loading board; an edge emitting laser component arranged on the loading board, and the edge emitting laser component emits a first laser beam; a reflecting component arranged in front of the edge emitting laser component on the loading board for the first laser beam to be reflected vertically, and the edge emitting laser component and reflecting component become a laser emitting module; and a laser receiving module arranged closed to the edge emitting laser component on the loading board to receive the first laser beam reflected from above.

Abstract: In certain aspects, the invention provides a novel crystalline form of olaparib (4-[(3-[(4-cyclopropylcarbonyl)piperazin-4-yl]carbonyl)-4-fluorophenyl]methyl(2H)phthalazin-1-one). In related aspects, the invention provides a processe for preparing the novel crystalline form of olaparib. The process includes forming a solution comprising crude olaparib and an organic solvent; adding the solution to an anti-solvent to form a slurry comprising a precipitate; isolating the precipitate; and drying the precipitate to obtain a crystalline form III of olaparib.

Abstract: The present disclosure is related to a memory circuit. The memory includes a memory controller and a memory interface coupled between the memory controller and a memory device. The memory controller is configured to generate an output signal that is transmitted to the memory device. The memory interface includes a feedback path configured to receive the output signal and generates a feedback signal in response to the output signal and a variable reference voltage. The memory controller further includes a data register so as to sample the feedback signal in response to a clock signal having a phase with an adjustable shift.

Abstract: An electrical connector, including an insulating body having a base and a tongue extending forward from the base. Multiple terminals are arranged on the tongue at intervals to form at least one row, each terminal having a contact portion exposed from a surface of the tongue. A middle shielding sheet is insert molded in the tongue, and located closer to a middle position of the tongue than the contact portion in a vertical direction. Two recesses are provided backward from a front edge of the middle shielding sheet. A spacer portion is formed between the two recesses of the middle shielding sheet and embedded into the tongue. In a transverse direction, the middle shielding sheet has a through-hole between at least one recess and a side edge of the middle shielding sheet. A front edge of the spacer portion extends forward beyond a front edge of the through-hole.

Abstract: An electrical connector configured for insertion with a mating connector, including an insulating body that has a base and a tongue extending forward from the base. The tongue has a middle portion and a mating portion. The middle portion is connected to the mating portion and the base, and the middle portion having a thickness greater than that of the mating portion. Multiple terminals are provided, and each terminal has a connection portion. The connection portions are divided into an upper row and a lower row and fixed to the middle portion. A middle shielding sheet is insert molded into the tongue and located between the connection portions in the upper low and the lower row. The middle shielding sheet has at least one first protruding portion that extends out a side edge of the middle portion.

Abstract: Crystalline form S1 of lifitegrast characterized by a powder X-ray diffraction pattern with peaks at about 10.7±0.2, 16.2±0.2, 19.9±0.2, 22.1±0.2, 24.7±0.2, and 25.9±0.2 degrees two-theta, crystalline form S2 of lifitegrast characterized by a powder X-ray diffraction pattern with peaks at about 16.4±0.2, 24.9±0.2, and 26.2±0.2 degrees two-theta, and processes of making thereof are provided.

Abstract: Crystalline form S1 of lifitegrast characterized by a powder X-ray diffraction pattern with peaks at about 10.7±0.2, 16.2±0.2, 19.9±0.2, 22.1±0.2, 24.7±0.2, and 25.9±0.2 degrees two-theta, crystalline form S2 of lifitegrast characterized by a powder X-ray diffraction pattern with peaks at about 16.4±0.2, 24.9±0.2, and 26.2±0.2 degrees two-theta, and processes of making thereof are provided.

Abstract: An electrical connector, including an insulating body; multiple first terminals, insert molded into the insulating body and having at least one grounding terminal, at least one power supply terminal and a pair of differential signal terminals located between the grounding terminal and the power supply terminal adjacent to each other; and a middle shielding sheet, insert molded into the insulating body, and located above or below the first terminals. The middle shielding sheet has, on at least one side of a central line of the middle shielding sheet, a notch and a first protruding portion away from the central line as compared to the notch. The central line extends in a front-rear direction. The notch is concavely provided backward from a front end edge of the middle shielding sheet, and vertically corresponds to the power supply terminal. The first protruding portion has a through-hole vertically corresponding to the grounding terminal.

Abstract: The present invention is related to a method for detecting a protein comprising: (1) providing a fusion protein, wherein the fusion protein comprises the protein which is fused with a secondary antibody detected protein tag, wherein the secondary antibody detected protein tag comprises at least one epitope selected from the Fc region of at least one primary antibody which is capable of being detected by a corresponding secondary antibody; (2) contacting the fusion protein with a secondary antibody which binds to the secondary antibody detected protein tag to form a protein/antibody complex; and (3) detecting the protein/antibody complex.

Abstract: In certain aspects, the invention provides crystalline forms of olaparib (4-[(3-[(4-cyclopropylcarbonyl)piperazin-4-yl]carbonyl)-4-fluorophenyl]methyl(2H)phthalazin-1-one). In related aspects, the invention provides processes for preparing the crystalline forms of olaparib. The processes include: forming a solution comprising crude olaparib and an organic solvent; adding an anti-solvent to the solution to form a slurry comprising a precipitate; isolating the precipitate; and drying the precipitate to obtain a crystalline form I of olaparib or a crystalline form II of olaparib.

Abstract: An electrical connector. Multiple first and second terminals are arranged respectively on upper and lower surfaces of a tongue to form upper and lower rows. A middle shielding sheet is insert molded in the tongue and located between the first and second terminals, and has a first middle hole across a central line thereof along a front-rear direction. A width of the first middle hole along a transverse direction is greater than that of at least one USB 2.0 terminal. The first middle hole is located between the USB 2.0 terminals in the upper and lower rows. The middle shielding sheet has first holes respectively at two transverse sides of the central line. A front edge of the first middle hole extends forward beyond a rear edge of the first holes. The length of the first middle hole along the front-rear direction is shorter than that of each first hole.

Abstract: A method for molding an electrical connector, includes: S1: providing a row of first terminals, and integrally wrapping an insulating block on the first terminals by insert molding, wherein the insulating block wraps a part of each first terminal, and the insulating block and the row of first terminals together form a first terminal module; S2: providing a middle shielding sheet; and S3: integrally wrapping an insulating body around the middle shielding sheet and the first terminal module by insert molding.

Abstract: In certain aspects, the invention provides crystalline forms of olaparib (4-[(3-[(4-cyclopropylcarbonyl)piperazin-4-yl]carbonyl)-4-fluorophenyl]methyl(2H)phthalazin-1-one). In related aspects, the invention provides processes for preparing the crystalline forms of olaparib. The processes include: forming a solution comprising crude olaparib and an organic solvent; adding an anti-solvent to the solution to form a slurry comprising a precipitate; isolating the precipitate; and drying the precipitate to obtain a crystalline form I of olaparib or a crystalline form II of olaparib.

Abstract: An electrical connector, including an insulating body; multiple first terminals, insert molded into the insulating body and having at least one grounding terminal, at least one power supply terminal and a pair of differential signal terminals located between the grounding terminal and the power supply terminal adjacent to each other; and a middle shielding sheet, insert molded into the insulating body, and located above or below the first terminals. The middle shielding sheet has, on at least one side of a central line of the middle shielding sheet, a notch and a first protruding portion away from the central line as compared to the notch. The central line extends in a front-rear direction. The notch is concavely provided backward from a front end edge of the middle shielding sheet, and vertically corresponds to the power supply terminal. The first protruding portion has a through-hole vertically corresponding to the grounding terminal.