Abstract: A memory swapping method and apparatus are provided. The method includes: selecting n to-be-swapped-out pages; compressing the n to-be-swapped-out pages into n compressed blocks, and buffering the n compressed blocks in a compressed data buffer area; organizing at least one of the n compressed blocks into m to-be-written units; and writing the m to-be-written units into a swap area of a non-volatile storage device in a maximum of m batches, where at least one of the m to-be-written units is stored in a segment of continuous space in the swap area. The method reduces a quantity of write times during memory swapping, thereby prolonging a service life of the non-volatile storage device.

Abstract: The present invention relates to a group of glycosyltransferase, and an application thereof.

Abstract: The present invention relates to a group of glycosyltransferase, and an application thereof.

Abstract: Disclosed are a light fixture control system and an illumination system. The light fixture control system includes a control box (100) and at least one wireless switch (200), and the wireless switch (200) is wirelessly and communicatively connected to the control box (100); an output end of the control box (100) is connected to an LED lamp, the control box (100) includes a main controller (110), a code matching control circuit (140), a first wireless communication circuit (130) and a multiple-independent-output control interface circuit (150), the main controller (110) is connected to the code matching control circuit (150) and the first wireless communication circuit (130), respectively and an output end of the main controller (110) is connected to the multiple-independent-output control interface circuit (150); output ends of the multiple-independent-output control interface circuit (150) are connected to a plurality of LED lamps in a one-to-one correspondence.

Abstract: A memory swapping method and apparatus are provided. The method includes: selecting n to-be-swapped-out pages; compressing the n to-be-swapped-out pages into n compressed blocks, and buffering the n compressed blocks in a compressed data buffer area; organizing at least one of the n compressed blocks into m to-be-written units; and writing the m to-be-written units into a swap area of a non-volatile storage device in a maximum of m batches, where at least one to-be-written unit is stored in a segment of continuous space in the swap area. The method reduces a quantity of write times during memory swapping, thereby prolonging a service life of the non-volatile storage device.

Abstract: Disclosed are a light fixture control system and an illumination system. The light fixture control system includes a control box (100) and at least one wireless switch (200), and the wireless switch (200) is wirelessly and communicatively connected to the control box (100); an output end of the control box (100) is connected to an LED lamp, the control box (100) includes a main controller (110), a code matching control circuit (140), a first wireless communication circuit (130) and a multiple-independent-output control interface circuit (150), the main controller (110) is connected to the code matching control circuit (150) and the first wireless communication circuit (130), respectively and an output end of the main controller (110) is connected to the multiple-independent-output control interface circuit (150); output ends of the multiple-independent-output control interface circuit (150) are connected to a plurality of LED lamps in a one-to-one correspondence.

Abstract: The present invention relates to a group of glycosyltransferase, and an application thereof.

Abstract: Provided are the use of glycosyltransferases gGT25, gGT13, gGT30, gGT25-1, gGT25-3, gGT25-5, gGT29, gGT29-3, gGT29-4, gGT29-5, gGT29-6, gGT29-7, 3GT1, 3GT2, 3GT3, 3GT4 and derived polypeptides therefrom in the catalyzed glycosylation of terpenoid compounds and the synthesis of new saponins, wherein the glycosyltransferases can specifically and efficiently catalyze tetracyclic triterpenoid compound substrates at positions C-20 and/or C-6 and/or C-3 during hydroxyl glycosylation, and/or transfer the glycosyl from a glycosyl donor to the first glycosyl of the tetracyclic triterpenoid compounds at position C-3, so as to extend the sugar chain. The glycosyltransferases can also be used for constructing man-made synthetic rare ginsenosides and a variety of new ginsenosides and derivatives thereof.

Abstract: Provided are the use of glycosyltransferases gGT25, gGT13, gGT30, gGT25-1, gGT25-3, gGT25-5, gGT29, gGT29-3, gGT29-4, gGT29-5, gGT29-6, gGT29-7, 3GT1, 3GT2, 3GT3, 3GT4 and derived polypeptides therefrom in the catalyzed glycosylation of terpenoid compounds and the synthesis of new saponins, wherein the glycosyltransferases can specifically and efficiently catalyze tetracyclic triterpenoid compound substrates at positions C-20 and/or C-6 and/or C-3 during hydroxyl glycosylation, and/or transfer the glycosyl from a glycosyl donor to the first glycosyl of the tetracyclic triterpenoid compounds at position C-3, so as to extend the sugar chain. The glycosyltransferases can also be used for constructing man-made synthetic rare ginsenosides and a variety of new ginsenosides and derivatives thereof.

Abstract: An on-premise computer in the form of an on-premise gateway receives data transmitted by a client to an intended destination server. The on-premise gateway and the client are on-premise within the same private computer network. The on-premise gateway determines whether or not the data is to be scanned for security checks by a cloud scanning service provided by a cloud scanner on the Internet. The on-premise gateway redirects the data to the cloud scanner when the data is to be scanned in the cloud. Otherwise, when the data is not to be scanned in the cloud, the on-premise gateway forwards the data to the destination server without having the data scanned by the cloud scanner.