Abstract: A scheduler obtains a to-be-processed job; and controls at least one super node based on a resource requirement of the to-be-processed job to process the to-be-processed job based on a global memory pool of the super node, where the to-be-processed job is a processing request related to a distributed application. In this way, because the global memory pool is a resource that is constructed through unified addressing on storage media of nodes in the super node and that is shared by the nodes in the super node, the nodes in the super node that are coupled using a high-speed interconnection technology share and access the global memory pool to process the to-be-processed job.

Abstract: A converged system includes a computing node and a storage node. The computing node is connected to the storage node through a network to build a storage-computing decoupled architecture. A storage medium of the computing node and a storage medium of the storage node form a global memory pool through unified addressing, namely, a global storage medium shared by the computing node and the storage node. When a read/write operation is performed in the system, processing request data is obtained, and a memory operation of the processing request data is performed on the global memory pool based on a memory operation instruction.

Abstract: The present invention provides a container lid. The container lid includes a lid main body. The lid main body includes a top wall, a first elastic side wall extending from the top wall, and a second elastic side wall extending from the top wall. The first elastic side wall and the second elastic side wall are encircled to form a sealing groove. The sealing groove is provided with a groove opening. The sealing groove is configured to press and seal a container opening. Through the above structure, the container opening can be sealed through the sealing groove. Specifically, the first elastic side wall presses and seals an inner side wall of the container opening, and the second elastic side wall presses and seals an outer side wall of the container opening.

Abstract: A control device is configured to control a computing device to perform big data distributed processing. The computing device is equipped with storage media in a plurality of deployment modes. The storage media include at least two of a local storage medium in the computing device, a global storage medium formed based on the local storage medium, an extended global storage medium, and an extended local storage medium. The control device obtains a service request for a big data service, determines storage media in at least one deployment mode from the storage media in the plurality of deployment modes, sends a control indication to the computing device, to indicate the computing device to execute a map (map) task in big data distributed processing on service data included in the service request, and stores obtained intermediate data in the storage media in the at least one deployment mode.

Abstract: The present invention provides a container lid. The container lid includes a lid main body. The lid main body includes a top wall, a first elastic side wall extending from the top wall, and a second elastic side wall extending from the top wall. The first elastic side wall and the second elastic side wall are encircled to form a sealing groove. The sealing groove is provided with a groove opening. The sealing groove is configured to press and seal a container opening. Through the above structure, the container opening can be sealed through the sealing groove. Specifically, the first elastic side wall presses and seals an inner side wall of the container opening, and the second elastic side wall presses and seals an outer side wall of the container opening.

Abstract: A server cluster determines a first memory requirement of a first distributed application, where the first memory requirement indicates a memory size. The server cluster determines N first server nodes in the server cluster based on the first memory requirement and an available memory resource of each server node in the server cluster, and constructs a first memory pool based on the N first server nodes. The server cluster provides a service for the first distributed application based on the first memory pool.

Abstract: A fluid-assisted minimally-invasive surgery visualization device includes an outer sleeve assembly, an imaging module, an imaging module support body and a water delivery pipe. The outer sleeve assembly includes an outer sleeve and a sleeve seat. A water supply cavity in communication with a rear end of the outer sleeve is inside the sleeve seat, and the water supply cavity is in communication with the water delivery pipe. The imaging module is on the outer sleeve assembly, the imaging module is in the outer sleeve, and one segment of clear water cavity is between a front end surface of the outer sleeve and a lens of the imaging module. A clear water region is present between the lens and the front end surface of the outer sleeve, and the clear water flowing forward inside the outer sleeve flushes away bloody water to form a clear visual region.

Abstract: In a memory expansion method, a first network device generates a memory topology based on memory requirement information of a target application and usage of a memory resource in a first memory pool, wherein the first memory pool is a logical memory comprising memory resources provided by a plurality of network devices, and the memory topology indicates capacities of different types of memory resources in one or more network devices that need to be occupied by the target application. The network device then establishes a second memory pool in the first memory pool based on the memory topology, wherein the second memory pool comprises a memory resource that is allowed to be used by the target application.

Abstract: Example capacity adjustment methods, computing devices, and computer storage media are provided. One example capacity adjustment method includes creating a scaling group. A first instance is created on a first server set for the scaling group. A second instance is created on a second server set for the scaling group. A quantity of instances deployed on the first server set for the scaling group is limited by an upper limit value.

Abstract: A fluid-storing, filtering, and gas-discharging apparatus (2) comprising a fluid holder (21), a gas detector (23), and a filter (22). The fluid holder (21) has a protruding apex structure and comprises a fluid inlet and a fluid outlet. A gas-discharging pipe in communication with the outside is arranged on the protruding apex of the fluid holder (21). The gas detector (23) is arranged on the gas-discharging pipe. The filter (22) is fixed within the fluid holder (21) and is connected to the fluid outlet. The fluid-storing, filtering, and gas-discharging apparatus (2) uses the fluid holder (21) and the filter (22) to implement the storage and filtration of a working fluid, while at the same time, the fluid holder (21) having the protruding apex structure ensures complete discharging of gases mixed in the working fluid, thus achieves the goals of fluid storage, filtration, and gas discharge, and provides great reliability.

Abstract: The present invention provides a doripenem intermediate compound shown by formula (XIV), wherein PNB is p-nitrobenzyl, and HX is an acid; and when HX is a monobasic acid, n=1; and when HX is a polybasic acid, n=2. The present invention also provides a process for preparing the doripenem intermediate compound (XIV). In addition, the present invention provides a process for preparing doripenem (I) from the doripenem intermediate compound (XIV) in a simple manner, with a high yield and low production costs. The new mono-protected doripenem intermediate compound provided in the present invention contains only one protecting group, reducing the difficulty and complexity in the subsequent de-protection step by catalytic hydrogenation, increasing the yield of the catalytic hydrogenation reaction, and thus reducing the production cost of the final product. The process is easy to operate and suitable for industrialized production.

Abstract: A dual container-type balanced lavage apparatus of a thrombus remover. The apparatus comprises a liquid inlet pipe (1), a liquid outlet pipe (2), pump number one (3), pump number two (4), container number one (5), and container number two (6). Container number one (5) is connected to a high-pressure cavity (7) of a debris aspiration apparatus in the thrombus remover via the liquid inlet pipe (1) and pump number one (3), while a low-pressure cavity (8) of the debris aspiration apparatus is connected to container number two (6) via the liquid outlet pipe (2) and pump number two (4). Arranged on the liquid inlet pipe (1) between pump number one (3) and the high-pressure cavity (7) of the debris aspiration apparatus is flexible pipe section number one (101) for use in cushioning pressure waves generated by pump number one (3).

Abstract: The present invention provides a doripenem intermediate compound shown by formula (XIV), wherein PNB is p-nitrobenzyl, and HX is an acid; and when HX is a monobasic acid, n=1; and when HX is a polybasic acid, n=2. The present invention also provides a process for preparing the doripenem intermediate compound (XIV). In addition, the present invention provides a process for preparing doripenem (I) from the doripenem intermediate compound (XIV) in a simple manner, with a high yield and low production costs. The new mono-protected doripenem intermediate compound provided in the present invention contains only one protecting group, reducing the difficulty and complexity in the subsequent de-protection step by catalytic hydrogenation, increasing the yield of the catalytic hydrogenation reaction, and thus reducing the production cost of the final product. The process is easy to operate and suitable for industrialized production.

Abstract: A fluid-storing, filtering, and gas-discharging apparatus (2) comprising a fluid holder (21), a gas detector (23), and a filter (22). The fluid holder (21) has a protruding apex structure and comprises a fluid inlet and a fluid outlet. A gas-discharging pipe in communication with the outside is arranged on the protruding apex of the fluid holder (21). The gas detector (23) is arranged on the gas-discharging pipe. The filter (22) is fixed within the fluid holder (21) and is connected to the fluid outlet. The fluid-storing, filtering, and gas-discharging apparatus (2) uses the fluid holder (21) and the filter (22) to implement the storage and filtration of a working fluid, while at the same time, the fluid holder (21) having the protruding apex structure ensures complete discharging of gases mixed in the working fluid, thus achieves the goals of fluid storage, filtration, and gas discharge, and provides great reliability.