Abstract: Provided is a metal complex as represented by formula I. The metal complex may be used as a catalyst for asymmetric catalytic hydrogenation, is capable of efficiently catalyzing and synthesizing a series of chiral p-aryl amides having high optical purity, and is especially capable of asymmetrically catalyzing and hydrogenating a tetra-substituted enamide compound, chiral amides having high optical purity are synthesized, and the carrying amount of ligand may reach 100,000.

Abstract: A computing-in-memory array, chip and electronic device includes a computing-in-memory array including at least one computing-in-memory cell having a first switch, a second switch, a third switch, a fourth switch, a coupling capacitor, a first bitline, a second bitline, a third bitline, a first wordline, a second wordline and a third wordline; a control module connected to the computing-in-memory array, which controls the voltages of each wordline and bitline to read and write data through the computing-in-memory array, or to perform computing-in-memory operations. By arranging the first switch, the second switch, the third switch, and the fourth switch in a differential form, and determining the stored value by the difference of the voltage between the two ports of the second switch and the third switch, the present embodiment of the disclosure can implement computing-in-memory operations with high accuracy, low circuit complexity, high reliability, and high energy efficiency.

Abstract: The present disclosure relates to a sensing-memory-computing synergy device, chip and electronic device. The said device comprises: at least one sensing-memory-computing synergy cell, wherein each sensing-memory-computing synergy cell comprises K sensing elements, where the first end of each sensing element is connected to wordline, the second end of each sensing element is connected to bitline, the sensing element can sense changes in external inputs, and K is an integer greater than or equal to zero; a control module which controls the voltages of each wordline and bitline so that the sensing-memory-computing synergy cell can perform desired operations, and sense the voltage or current on bitlines to obtain the operation results. The present embodiment of the disclosure implements the sensing-memory-computing synergy cell by sensing elements, which combines sensing and in-memory computing.

Abstract: A multifunctional single-interface electronic expansion device, comprising an external electronic expansion device and a power transmitting cable. The external electronic expansion device comprises a device body, an electrical connecting module, a data signal processing module, a power transmitting module, and a first assembling member. The device body comprises a first wall surface and a second wall surface. The electrical connecting module is disposed at the device body and is exposed from the first wall surface to be electrically connected with or detached from an interface of a first electronic device. The data signal processing module is electrically connected with the electrical connecting module. The power transmitting module is electrically connected with the electrical connecting module. The power transmitting module comprises a power transmitting interface exposed from the second wall surface.

Abstract: The disclosed apparatus comprises a computing array comprising a plurality of computing modules, wherein each computing module comprises at least one storage cell, a reset switch, and a capacitor; the storage cell comprises at least one storage switch, and the storage switch comprises a storage control terminal, a storage detection terminal, and a storage terminal, the storage control terminal to receive a storage state voltage to adjust the impedance characteristic between the storage detection terminal and the storage terminal; the reset switch comprises a reset control terminal, a reset detection terminal, and a reset terminal, the reset control terminal to receive a reset voltage and the reset terminal is used to receive a reset state voltage. The disclosed apparatus also comprises a control module, which is used to control the computing array to perform at least one of a store operation, a read operation, and a compute operation.

Abstract: An integrated device includes a power adapter and a wireless module. The power adapter includes a charging plug and a first connector. The wireless module includes a second connector mateable with the first connector. Each of the power adapter and the wireless module is an independent device. In addition, the power adapter and the wireless module can be detachably combined together through the first connector and the second connector. With this arrangement, when the power adapter and the wireless module are used separately, their respective functions can be achieved. When the power adapter and the wireless module are used in combination, the wireless module can be powered by the power adapter, thereby improving the convenience of using the integrated device.

Abstract: The present disclosure relates to a computing-in-memory array, chip and electronic device. The said device comprises: a computing-in-memory array comprising at least one computing-in-memory cell, where said computing-in-memory cell comprises the first switch, the second switch, the third switch, the fourth switch, the coupling capacitor, the first bitline, the second bitline, the third bitline, the first wordline, the second wordline and the third wordline; a control module connected to said computing-in-memory array, which controls the voltages of each wordline and bitline to read and write data through said computing-in-memory array, or to perform computing-in-memory operations.

Abstract: Provided is a metal complex as represented by formula I. The metal complex may be used as a catalyst for asymmetric catalytic hydrogenation, is capable of efficiently catalyzing and synthesizing a series of chiral p-aryl amides having high optical purity, and is especially capable of asymmetrically catalyzing and hydrogenating a tetra-substituted enamide compound, chiral amides having high optical purity are synthesized, and the carrying amount of ligand may reach 100,000.

Abstract: Provided is an adapter. The adapter includes a housing component, an adapter assembly, a first connector, a second connector, and a charging cable assembly. The housing component is provided with an accommodation space. The adapter assembly is disposed in the accommodation space. The first connector is electrically connected to the adapter assembly and is able to be accommodated in the accommodation space. The charging cable assembly includes a charging cable body and an auto-retractable cable box disposed in the accommodation space. A first end of the charging cable body is secured to the auto-retractable cable box. A second end of the charging cable body is able to be accommodated in the auto-retractable cable box or is extendable out of the auto-retractable cable box. The auto-retractable cable box is electrically connected to the adapter assembly. The second connector is connected to the second end of the charging cable body.

Abstract: A multifunctional single-interface electronic expansion device, comprising an external electronic expansion device and a power transmitting cable. The external electronic expansion device comprises a device body, an electrical connecting module, a data signal processing module, a power transmitting module, and a first assembling member. The device body comprises a first wall surface and a second wall surface. The electrical connecting module is disposed at the device body and is exposed from the first wall surface to be electrically connected with or detached from an interface of a first electronic device. The data signal processing module is electrically connected with the electrical connecting module. The power transmitting module is electrically connected with the electrical connecting module. The power transmitting module comprises a power transmitting interface exposed from the second wall surface. The first assembling member is disposed at the power transmitting interface.

Abstract: Provided is an adapter. The adapter includes a housing component, an adapter assembly, a first connector, a second connector, and a charging cable assembly. The housing component is provided with an accommodation space. The adapter assembly is disposed in the accommodation space. The first connector is electrically connected to the adapter assembly and is able to be accommodated in the accommodation space. The charging cable assembly includes a charging cable body and an auto-retractable cable box disposed in the accommodation space. A first end of the charging cable body is secured to the auto-retractable cable box. A second end of the charging cable body is able to be accommodated in the auto-retractable cable box or is extendable out of the auto-retractable cable box. The auto-retractable cable box is electrically connected to the adapter assembly. The second connector is connected to the second end of the charging cable body.

Abstract: An integrated device includes a power adapter and a wireless module. The power adapter includes a charging plug and a first connector. The wireless module includes a second connector mateable with the first connector. Each of the power adapter and the wireless module is an independent device. In addition, the power adapter and the wireless module can be detachably combined together through the first connector and the second connector. With this arrangement, when the power adapter and the wireless module are used separately, their respective functions can be achieved. When the power adapter and the wireless module are used in combination, the wireless module can be powered by the power adapter, thereby improving the convenience of using the integrated device.

Abstract: The present disclosure discloses a pad-steam bleaching method based on a TBLC-activated hydrogen peroxide system, and belongs to the field of pretreatment processing of textiles. According to the pad-steam bleaching method based on the TBLC-activated hydrogen peroxide system, TBCC and H2O2 are compounded with a weak base to prepare a TBCC/H2O2/weak base system for performing near-neutral bleaching on cotton fabrics; the fabrics are padded and then steamed to be bleached. By the method disclosed by the present disclosure, the whiteness of fabric treated for 2 minutes by a TBCC/H2O2/sodium citrate padding and steaming system is significantly superior to that of fabric treated for 60 minutes by an H2O2/NaOH dip bleaching system. The CIE whiteness of the fabric reaches 77 and above, the fabric wettability after treatment is also improved, the damage of the fabric is smaller, and the amount of water used by the method is small.

Abstract: The present invention relates to processes for preparing the compounds of general formula I, wherein the groups R1 and R3 are defined according to claim 1. Furthermore this inventions relates to intermediates obtained in these processes.

Abstract: The present disclosure discloses a pad-steam bleaching method based on a TBLC-activated hydrogen peroxide system, and belongs to the field of pretreatment processing of textiles. According to the pad-steam bleaching method based on the TBLC-activated hydrogen peroxide system, TBCC and H2O2 are compounded with a weak base to prepare a TBCC/H2O2/weak base system for performing near-neutral bleaching on cotton fabrics; the fabrics are padded and then steamed to be bleached. By the method disclosed by the present disclosure, the whiteness of fabric treated for 2 minutes by a TBCC/H2O2/sodium citrate padding and steaming system is significantly superior to that of fabric treated for 60 minutes by an H2O2/NaOH dip bleaching system. The CIE whiteness of the fabric reaches 77 and above, the fabric wettability after treatment is also improved, the damage of the fabric is smaller, and the amount of water used by the method is small.

Abstract: The present invention relates to processes for preparing the compounds of general formula I, wherein the groups R1 and R3 are defined according to claim 1. Furthermore this inventions relates to intermediates obtained in these processes.

Abstract: The present invention relates to processes for preparing the compounds of general formula I, wherein the groups R1 and R3 are defined according to claim 1. Furthermore this inventions relates to intermediates obtained in these processes.