WO2020220856A1 - Method and apparatus for implementing service configuration, and device - Google Patents

Abstract

A method and an apparatus for implementing service configuration, a device and a computer readable storage medium. The method comprises: performing service configuration on a first node, wherein the service corresponds to one or more tags; and transmitting to one or more second nodes configuration information of the service according to association information of the tags, wherein the first node and the second node are at least one of a center node and an edge node.

Description

Method, device and equipment for realizing service configuration

Cross references to related applications

This application is filed based on a Chinese patent application with an application number of 201910364464.3 and an application date of April 30, 2019, and claims the priority of the Chinese patent application. The entire content of the Chinese patent application is hereby incorporated into this application by way of introduction.

Technical field

This article relates to, but is not limited to, a method, device, device, and computer-readable storage medium for implementing service configuration.

Background technique

With the development of the Internet, business scenarios have become more complex, innovative, and demand for rapid growth and extreme experience has brought requirements for architecture optimization and cost optimization. The previous simple center-terminal architecture cannot meet network performance and business traffic. Pressure requires a multi-level architecture of center-edge-terminal.

At the same time, with the development of new technologies represented by the Internet of Things and 4G/5G, more and more smart devices are connected to the Internet. The data generated by massive devices has begun to grow exponentially. If these data processing and device access are directly returned to the center, it will put a lot of pressure on the center and cause a series of problems such as network congestion.

Edge Computing (EC for short) refers to providing services at the edge of the network closer to the terminal. One level is to be close to the terminal in the network location, and the other level is to provide services that meet the needs of the edge at this network location. Complete service capabilities.

Edge computing can support the establishment of a large-scale distributed architecture, allowing a certain percentage of data processing within a certain range to be completed at the edge, and only a small amount of necessary data and access back to the center.

Due to the complexity and innovation of edge computing scenarios, in order to adapt to rapid and frequent business adjustments in related scenarios, the edge and the center need to modify related configuration fields and the values corresponding to the configuration fields in time.

Because some configurations and their fields only serve the edge itself or the center itself, and do not require peer awareness, and some configurations require peer awareness, the configurations in this article refer to configurations that require peer awareness.

The traditional way is to modify the value of the configuration field during service configuration, then modify the value of the configuration field in the center, and notify the edge to synchronize the modification by sending a message. If the configuration field needs to be modified, the involved edge will be offline, the original configuration will be deleted and a new configuration will be added, and the center will modify the configuration related to the offline edge. After the configuration modification of the center and the edge is completed, some nodes in the relevant edge will go online. This traditional method is cumbersome and inefficient.

Summary of the invention

The following is an overview of the topics detailed in this article. This summary is not intended to limit the scope of protection of the claims.

The embodiments of the present application provide a method, device, device, and computer-readable storage medium for implementing service configuration to improve the efficiency of service configuration.

The embodiment of the present application provides a method for implementing service configuration, including: performing service configuration on a first node, where one or more labels corresponding to the service; and according to the associated information of the labels, the service configuration The configuration information is transferred to one or more second nodes, where the first node and the second node are at least one of a center and an edge.

The embodiment of the present application also provides a device for realizing service configuration, including: a configuration unit for performing service configuration on a first node, wherein one or more tags corresponding to the service; and a delivery unit for performing service configuration according to the The associated information of the label transmits the configuration information of the service to one or more second nodes, where the first node and the second node are at least one of the center and the edge.

An embodiment of the present application also provides a device for implementing service configuration, including: a memory, a processor, and a computer program stored in the memory and running on the processor, and the processor implements the service configuration when the program is executed.的 implementation method.

The embodiment of the present application also provides a computer-readable storage medium storing computer-executable instructions, and the computer-executable instructions are used to execute the implementation method of the service configuration.

After reading and understanding the drawings and detailed description, other aspects can be understood.

Description of the drawings

FIG. 1 is a flowchart of a method for implementing service configuration according to an embodiment of the present application;

FIG. 2 is a schematic diagram of the composition of an apparatus for implementing service configuration according to an embodiment of the present application;

3 is a schematic diagram of the composition of an apparatus for implementing service configuration according to another embodiment of the present application;

Fig. 4 is a schematic diagram of the composition of a device for implementing service configuration in an embodiment of the present application.

Detailed ways

Hereinafter, the embodiments of the present application will be described in detail with reference to the drawings.

The steps shown in the flowchart of the drawings may be executed in a computer system such as a set of computer-executable instructions. And, although a logical sequence is shown in the flowchart, in some cases, the steps shown or described may be performed in a different order than here.

In view of the cumbersome and low efficiency of traditional service configuration methods, an embodiment of the present application proposes a service configuration implementation method. Only by modifying the configuration of one node, the configuration information can be automatically transferred to other nodes that need to be configured.

As shown in FIG. 1, the method for implementing service configuration in the embodiment of the present application includes: step 101, performing service configuration on a first node, where the service corresponds to one or more labels.

Wherein, the service configuration may include at least one of service online, service configuration modification, and service switching.

Step 102: Transfer the configuration information of the service to one or more second nodes according to the associated information of the label, where the first node and the second node are at least one of a center and an edge.

The association information is used to indicate the transfer direction of the configuration information.

In the embodiments of the present application, the center and each edge are collectively referred to as nodes.

In one embodiment, before step 101, the method may further include: classifying configuration fields of the service, and setting corresponding labels for the service according to the type of the configuration field.

That is, the label corresponds to the configuration field.

Among them, business configuration fields can be classified in a variety of ways, for example, microservice classification according to business splitting, and business deployment attributes, such as geographic attribute classification.

In this step, all configuration fields that need to run services in each node are classified, and each type of field is labeled with a corresponding label. These labels can come from microservices that split the business, or they can come from different geographical attributes divided during business deployment.

In an embodiment, before the step 101, the method may further include: determining the associated information, and linking the associated information with a corresponding label.

Wherein, the "hook" refers to association. The associated information of the tag may include the specific weight information of the node associated with the tag and decision information.

The node proportion information is related to the node, and can be configured and changed according to actual conditions, and is used to control the direction of transferring configuration information between nodes. The decision information refers to a strategy for transmitting configuration information.

Before the first service goes online, determine the corresponding one or more labels according to the service, select the nodes that need to go online, and plan the node weight information and decision information of these nodes. The node weight information may include the node weight value , The relationship between the specific gravity value and the equality relationship. Decision-making information may include the priority of information transmission, the method of information transmission, and the handling measures for information transmission failure. Link the node proportion information with the label, and link the decision information with the label.

Regarding the business configuration, it can be divided into three situations to elaborate separately:

1. The business goes online

When the network is Unicom and the service goes online for the first time, the step 101 may include: setting one or more tags corresponding to the service to an active state.

In an embodiment, the configuration information of the service includes configuration field information of the service, and the label corresponds to the configuration field. The configuration field information may include configuration field values.

There are many ways to set a label to active or inactive. For example, the configuration field information can include a separate identifier. Set the identifier to 1, indicating that the corresponding label is in the active state, and set the identifier to 0 to indicate the corresponding The label is in the inactive state; the label activation/deactivation state can also be set according to the configuration field value. For example, when the configuration field value is set to 0, the corresponding label is in the inactive state, and when the position field value is non-zero, then Indicates that the corresponding label is active, etc.

When the service is online, the step 102 may include: transmitting the configuration field information of the service to one or more second nodes according to the decision information and the node weight information associated with the label.

In an embodiment, when the node specific gravity value of the first node is greater than or equal to the node specific gravity value of the second node, the configuration field value of the first node is used to replace the configuration field value of the second node .

In this step, through the mapping relationship between the label and the configuration field, the configuration field and the configuration field value are covered according to the size relationship of the node proportion value, from the node with the higher proportion value to the node with the lower proportion value, and then cover in turn until all related nodes are configured carry out.

The configuration field information transmission method can take many forms. For example, a relay method can be used. The configuration field information is first transmitted from the first node to a part of the second node, and the second node is then transmitted to other second nodes. And so on, until all related nodes are configured; it is also possible to use the central sending method, that is, the first node sends the configuration field information to all the second nodes in turn.

Through the embodiments of this application, it is possible to respond to the online service in time.

Two, modify the business configuration

In the case of a need to modify the service configuration during the service operation, the step 101 may include: modifying the configuration field information of the service.

In an embodiment, the node specific gravity information includes a node specific gravity value, and the configuration field information includes a configuration field value. Step 102 may include: the node specific gravity value of the first node is greater than or equal to that of the second node. When the node proportion value is used, the configuration field value of the first node is used to replace the configuration field value of the second node.

That is to say, in the course of business operation, if the configuration field value is modified, the modified value will be overwritten from the node with a higher proportion to the node with the same or lower proportion.

Wherein, when the node proportion value of the first node is equal to the node proportion value of the second node, if both ends modify the configuration field value at the same time, conflicts may occur, and the decision information is handled in this case.

Three, business switching

In the business operation process, when you need to switch to another business, you can take the following steps.

1. Determine the first label group and the second label group, wherein the first label group includes one or more labels corresponding to the replaced service, and the second label group includes one or more labels corresponding to the replaced service. Labels;

2. Determine the coincidence label, determine the configuration field corresponding to the coincidence label according to the coincidence label, determine the configuration field information corresponding to the coincidence label according to the configuration information of the replaced service, and determine the configuration field information corresponding to the coincidence label according to the decision information and the coincidence The specific gravity information of the node associated with the label, and the configuration field information corresponding to the overlapping label is transferred to one or more second nodes, where the overlapping label is a label in which the first label group and the second label group overlap;

3. Determine the deactivated tag, set the deactivated tag to the deactivated state, and transmit the configuration field information corresponding to the deactivated tag to the decision information and the node proportion information associated with the deactivated tag. One or more second nodes, wherein the deactivated label is a label in the first label group that is not overlapped with the second label group;

4. Determine the activation tag, set the activation tag to the activated state, and transfer the configuration field information corresponding to the activation tag to one or more first according to the decision information and the node proportion information associated with the activation tag. A two-node, wherein the activation label is a label in the second label group that is not overlapped with the first label group.

Setting the label to active or inactive has been explained before, so I won’t repeat it here.

It can be seen from the above steps that during service switching, steps 101 and 102 are performed three times. The first time is to process the configuration field information corresponding to the coincident label, and the second time is to process the configuration field information corresponding to the inactive label. The third time is to process the configuration field information corresponding to the activation tag.

In an embodiment, the node specific gravity information includes a node specific gravity value, and the configuration field information includes a configuration field value. Step 102 may include: the node specific gravity value of the first node is greater than or equal to that of the second node. When the node proportion value is used, the configuration field value of the first node is used to replace the configuration field value of the second node.

Wherein, when the node proportion value of the first node is equal to the node proportion value of the second node, if both ends modify the configuration field value at the same time, conflicts may occur, and the decision information is handled in this case.

The node specific gravity value can be a numerical value, or it can be in a form similar to aaa.bbb.ccc.ddd.eee.fff..., each dot serves as a separator, and each field separated by the separator can be Express a certain meaning, for example, the first field indicates the relative weight value of the nearest east node. If this value is higher than the first node on the east side, the configuration field value of this node will not be replaced with the east side node. The configuration field value of a node (that is, the configuration field information of the first node in the east will not be passed to this node), otherwise the configuration field value of this node will be replaced with the configuration field value of the first node in the east (also That is, the configuration field information of the first node in the east will be passed to this node); the second field indicates the value of the west, and so on. Of course, other meanings can also be expressed, such as equipment manufacturer model, batch, etc.

It should be noted that the node proportion information can also be expressed in other forms, for example, the priority of the node is used to control the direction of transferring configuration information between nodes, where it can be when the priority of the first node is higher than or equal to the first node. In the case of two nodes, the configuration information of the first node is transferred to the second node.

The following is an example of the service switching process:

In the process of business operation, if you want to switch to another business, you need to modify the configuration field, find one or more tags based on the specific business being replaced, called the first tag group, and find one or more based on the specific business replaced Labels, called the second label group. Find the relationship between the specific gravity value of the node linked to the label and the decision-making information related to the label. When the first label group and the second label group have overlapping parts, find the labels of the overlapping parts, and modify the corresponding label configuration according to the new business The value of the field is then configured according to the relationship between the node proportion value and the field value, from the node with the higher proportion value to the node with the lower proportion value, and then covering in turn, until all related node configuration field values are modified. Inactivate the non-overlapping labels in the first label group according to the relationship between the specific gravity value of the node: reset the configuration field value through the mapping relationship between the label and the configuration field, and sequentially cover the first label group according to the relationship between the specific gravity value of the node The configuration field value corresponding to the non-overlapping label. Activate the non-overlapping labels in the second label group according to the relationship between the specific gravity value of the node: through the mapping relationship between the label and the configuration field, the configuration field and the configuration field value are covered from the node with the higher specific gravity value in accordance with the relationship between the specific gravity value of the node Go to the node with the lower proportion and cover in turn until all related nodes are configured.

It can be seen from the above description that when the service is switched, there is no need to go offline at the edge, only the label needs to be adjusted, which is simple to implement and improves the efficiency of service configuration.

In addition, in the above three service configuration processes, when the transfer direction of configuration information needs to be adjusted, before step 102, the method may further include: adjusting the node proportion information corresponding to at least one of the first node and the second node , So that the configuration information of the service is transferred according to the specified transfer direction.

For example, you can adjust the proportion value relationship according to actual needs. When the configuration field value of the local end changes and needs to cover the opposite end, increase the proportion value of the local end to make it higher than the opposite end; when the opposite end needs to override the local configuration When setting the value of the field, lower the proportion value of the local end to make it lower than the opposite end; when the configuration field value of either end of each node changes and needs to cover the opposite end, adjust the proportion value of both ends to be equal. Modifying the value of the configuration field may cause conflicts. In this case, the decision-making information will be used.

In an embodiment, the adjustment of the node specific gravity information can be configured through a network management, and it can also be adjusted automatically by means of artificial intelligence (AI).

By adjusting the proportion of nodes, the nodes that need to be adjusted can be flexibly adjusted when the business changes.

In summary, the embodiment of the present application transmits service configuration information based on the associated information of the label, so that only one node can be configured, and the configuration information can be automatically transferred to other nodes that need to be configured, so that node services can be configured flexibly, without the need for edge download. Lines and other operations have improved the efficiency of business configuration.

As shown in FIG. 2, an embodiment of the present application also provides a device for implementing service configuration, including: a configuration unit 21, configured to perform service configuration on a first node, where one or more labels corresponding to the service are transmitted; The unit 22 is configured to transfer the configuration information of the service to one or more second nodes according to the associated information of the label, where the first node and the second node are at least one of the center and the edge .

As shown in FIG. 3, the configuration unit 21 and the transfer unit 22 described above can form a configuration transfer module 301, which can be set in the center, one or more edges, or exist separately as entities.

In an embodiment, the apparatus may further include: a classification module 302, configured to classify configuration fields of the service, and set corresponding labels for the service according to the type of the configuration field.

That is, the label corresponds to the configuration field.

Among them, business configuration fields can be classified in a variety of ways, for example, microservice classification according to business splitting, and business deployment attributes, such as geographic attribute classification.

The classification module 302 classifies all configuration fields that need to run services in each node, and each type of field is labeled with a corresponding label. These labels can come from microservices that split the business, or they can come from different geographical attributes divided during business deployment.

In an embodiment, the device may further include: a hook tag module 303, configured to determine the associated information, and hook the associated information with a corresponding tag.

Wherein, the "hook" refers to association. The associated information of the tag includes the specific weight information of the node associated with the tag and decision information.

The hook label module 303 can determine the corresponding one or more labels according to the business before the first service goes online, select the nodes that need to go online, and plan the node proportion information and decision information of these nodes. The node proportion information can be Including node proportion value, proportion value relationship, equal relationship, etc. Decision-making information may include the priority of information transmission, the method of information transmission, and the handling measures for information transmission failure. Link the node proportion information with the label, and link the decision information with the label.

Regarding the business configuration, it can be divided into three situations to elaborate separately:

1. The business goes online

When the network is connected and the service goes online for the first time, the configuration unit 21 may be used to set one or more tags corresponding to the service to an active state.

In an embodiment, the configuration information of the service includes configuration field information of the service, and the label corresponds to the configuration field. The configuration field information may include configuration field values.

There are many ways to set a label to active or inactive. For example, the configuration field information can include a separate identifier. Set the identifier to 1, indicating that the corresponding label is in the active state, and set the identifier to 0 to indicate the corresponding The label is in the inactive state; the label activation/deactivation state can also be set according to the configuration field value. For example, when the configuration field value is set to 0, the corresponding label is in the inactive state, and when the position field value is non-zero, then Indicates that the corresponding label is active, etc.

When the service is online, the transfer unit 22 may be configured to transfer the configuration field information of the service to one or more second nodes according to the decision information and the node proportion information associated with the label.

In an embodiment, when the node specific gravity value of the first node is greater than or equal to the node specific gravity value of the second node, the transfer unit 22 uses the configuration field value of the first node to replace the second node. The configuration field value of the node.

In this step, through the mapping relationship between the label and the configuration field, the configuration field and the configuration field value are covered according to the size relationship of the node proportion value, from the node with the higher proportion value to the node with the lower proportion value, and then cover in turn until all related nodes are configured carry out.

The configuration field information transmission method can take many forms. For example, a relay method can be used. The configuration field information is first transmitted from the first node to a part of the second node, and the second node is then transmitted to other second nodes. And so on, until all related nodes are configured; it is also possible to use the central sending method, that is, the first node sends the configuration field information to all the second nodes in turn.

Two, modify the business configuration

In the service operation process, when the service configuration needs to be modified, the configuration unit 21 may be used to modify the configuration field information of the service.

In an embodiment, the node specific gravity information includes a node specific gravity value, the configuration field information includes a configuration field value, and the transmission unit 22 may be configured to: the node specific gravity value at the first node is greater than or equal to the When the node proportion value of the second node is used, the configuration field value of the first node is used to replace the configuration field value of the second node.

That is to say, in the course of business operation, if the configuration field value is modified, the modified value will be overwritten from the node with a higher proportion to the node with the same or lower proportion.

Wherein, when the node proportion value of the first node is equal to the node proportion value of the second node, if both ends modify the configuration field value at the same time, conflicts may occur, and the decision information is handled in this case.

Three, business switching

In the service running process, when it is necessary to switch to another service, the configuration transfer module 301 can be used to:

Determine a first label group and a second label group, wherein the first label group includes one or more labels corresponding to the replaced service, and the second label group includes one or more labels corresponding to the replaced service ；

Determine the coincidence label, determine the configuration field corresponding to the coincidence label according to the coincidence label, determine the configuration field information corresponding to the coincidence label according to the configuration information of the replacement service, and associate with the coincidence label according to the decision information Transmitting the configuration field information corresponding to the overlapping label to one or more second nodes, where the overlapping label is a label in which the first label group and the second label group overlap;

Determine the deactivated tag, set the deactivated tag to the deactivated state, and transfer the configuration field information corresponding to the deactivated tag to one or the other according to the decision information and the node proportion information associated with the deactivated tag. A plurality of second nodes, wherein the inactive label is a label in the first label group that is not overlapped with the second label group;

Determine the activation tag, set the activation tag to the activated state, and transfer the configuration field information corresponding to the activation tag to one or more second nodes according to the decision information and the node proportion information associated with the activation tag , Wherein the activation tag is a non-overlapping tag in the second tag group and the first tag group.

Setting the label to active or inactive has been explained before, so I won’t repeat it here.

It can be seen from the above description that during service switching, the configuration unit 21 and the transfer unit 22 in the configuration transfer module 301 run alternately three times. The first time is to process the configuration field information corresponding to the coincident label, and the second time is to process the deactivation. The configuration field information corresponding to the label, the third time is to process the configuration field information corresponding to the activation label.

In an embodiment, the node specific gravity information includes a node specific gravity value, the configuration field information includes a configuration field value, and the transmission unit 22 may be configured to: the node specific gravity value at the first node is greater than or equal to the second node. When the node proportion value of the node is used, the configuration field value of the first node is used to replace the configuration field value of the second node.

Wherein, when the node proportion value of the first node is equal to the node proportion value of the second node, if both ends modify the configuration field value at the same time, a conflict may occur, and the transmission unit 22 handles it according to the decision information.

The following is an example of the service switching process:

In the process of business operation, if you want to switch to another business, you need to modify the configuration field, find one or more tags based on the specific business being replaced, called the first tag group, and find one or more based on the specific business replaced Labels, called the second label group. Find the relationship between the specific gravity value of the node linked to the label and the decision-making information related to the label. When the first label group and the second label group have overlapping parts, find the labels of the overlapping parts, and modify the corresponding label configuration according to the new business The value of the field is then configured according to the relationship between the node proportion value and the field value, from the node with the higher proportion value to the node with the lower proportion value, and then covering in turn, until all related node configuration field values are modified. Inactivate the non-overlapping labels in the first label group according to the relationship between the specific gravity value of the node: reset the configuration field value through the mapping relationship between the label and the configuration field, and sequentially cover the first label group according to the relationship between the specific gravity value of the node The configuration field value corresponding to the non-overlapping label. Activate the non-overlapping labels in the second label group according to the relationship between the specific gravity value of the node: through the mapping relationship between the label and the configuration field, the configuration field and the configuration field value are covered from the node with the higher specific gravity value in accordance with the relationship between the specific gravity value of the node Go to the nodes with lower proportions and cover them in turn until all related nodes are configured.

In addition, the device may further include: a proportion adjustment module 304, configured to adjust the node proportion information corresponding to at least one of the first node and the second node, so that the configuration information of the service is transmitted in a specified transmission direction .

For example, the proportion adjustment module 304 can adjust the proportion value relationship according to actual needs. When the configuration field value of the local end changes and needs to cover the opposite end, the proportion value of the local end is increased to be higher than that of the opposite end; When overriding the value of the configuration field on the local end, lower the proportion value of the local end to make it lower than that of the opposite end; when the configuration field value of either end of each node changes and needs to cover the opposite end, adjust the proportion value of both ends to be equal. If both ends modify the value of the configuration field at the same time, a conflict may occur, and the decision-making information is used in this case.

It should be noted that the configuration transfer module 301, the classification module 302, the hook label module 303, and the specific gravity adjustment module 304 may be located in the same entity, for example, they are all located in the center, or they may be located in different entities. For example, some modules are located on the edges, The modules of are located in the center, and some modules can be located on multiple edges; these modules can also be located on entities that are neither the center nor the edges.

In summary, the embodiment of the present application transmits service configuration information based on the associated information of the label, so that only one node can be configured, and the configuration information can be automatically transferred to other nodes that need to be configured, so that node services can be configured flexibly, without the need for edge download. Lines and other operations have improved the efficiency of business configuration.

Some application examples are described below.

Application example 1

The first step: create a label.

All configuration fields that need to run the business are classified according to the microservices that make up the business, and each type of field is labeled with a corresponding label.

Step 2: Deploy the hook tag module.

Before the business goes online for the first time, one or more labels are found according to the specific business, and the edges a, b, c and the center that need to go online are selected, which are collectively referred to as nodes. The relationship between the specific gravity values is that the center is higher than the edge a, the center is higher than the edge b, and the center is higher than the edge c. Link the relationship between the specific gravity value of the node and the label. The hook label module contains the label, configuration, the mapping relationship between the label and the configuration, the size relationship of the specific gravity value, the mapping of the size relationship between the label and the specific gravity value, and the specific gravity value is equal. When a conflict occurs, the conflict resolution decision information, the decision information contains the processing Priority, processing method, measures after processing failure, etc.

The hook tag module is deployed in the center.

The third step: label activation.

When the cloud center is connected to each edge network and the business goes online for the first time, the label is activated: the cloud center finds the business-related label and the mapping relationship between the label and the configuration from the hook label module, and takes out the configuration fields and configuration field values. Modify the value of the configuration field according to the actual business situation. Cover the configuration field and the modified configuration field values from the cloud center to edge a, from cloud center to edge b, and from cloud center to edge c.

Step 4: Modify the configuration field value.

In the process of business operation, modify the value of the configuration field in the center, and the modified value will cover edge a, edge b, and edge c.

Modify the value of the configuration field at edge b, and the value of the modified configuration field does not cover other nodes.

Modify the value of the configuration field at the edge c, and adjust the proportion value relationship to the edge c higher than the center. At this time, the modified configuration field value of the edge c covers the center, the center covers the edge a, and the center covers the edge b.

Increase the specific gravity of the edge b to make it equal to the specific gravity of the center. In the same time, adjust the value of the same configuration field of the edge b and the center. At this time, the transmission conflict is handled according to the configuration processing decision information in the second step.

Step 5: Business switching.

The relationship between the specific gravity values is adjusted so that the center is higher than edge a, the center is higher than edge b, and the center is higher than edge c. To switch to another service, you need to modify the configuration fields, find one or more tags based on the specific service being replaced, called the first tag group, and find one or more tags based on the specific service replaced, called the second tag group . Find the relationship between the specific weight value of the node linked to the label in the second step and the decision-making information related to the label. When there is an overlap in the first label group and the second label group, find the label of the overlap part, and modify the value of the configuration field corresponding to the label in the center according to the new business. The value of the modified configuration field will cover from the center to Edge a, from the center to the edge b, from the center to the edge c. Inactivate the non-coincident labels in the first label group: in the center, reset the configuration field value through the mapping relationship between the label and the configuration field. The reset value covers from the center to the edge a, from the center to the edge b, cover from the center to the edge c. Activate the non-coincident labels in the second label group: in the center, through the mapping relationship between the label and the configuration, the configuration field and the value of the configuration field are covered from the center to the edge a, from the center to the edge b, and from the center to the edge. c.

Application example 2

The first step: create a label.

All configuration fields that need to run a business are classified according to the microservices that make up the business, and each type of field is labeled with a corresponding label.

Step 2: Deploy the hook tag module.

Before launching the business for the first time, find one or more labels based on the specific business, and select the first-tier city edge node cluster a, the second-tier city edge node cluster b, the third-tier city edge node cluster c, and the fourth-tier city edge node cluster that require online services. d, they are collectively referred to as nodes. The relationship of the proportion value is that the proportion value of the edge node clusters in each city is the same. Between the edge node clusters, a is higher than b, b is higher than c, and c is higher than d. Link this size relationship with the label. The hook label module contains the label, configuration, the mapping relationship between the label and the configuration, the size relationship of the specific gravity value, the mapping of the size relationship between the label and the specific gravity value, and the specific gravity value is equal. When a conflict occurs, the conflict resolution decision information, the decision information contains the processing Priority, processing method, measures after processing failure, etc., decision-making information is connected to the artificial intelligence system, and the optimal solution is provided through analysis and learning.

A hook label module is deployed in each city edge cluster.

The third step: label activation.

When the network of the edge node clusters of each tier city is connected, and the network between the edge node clusters of each tier city is connected, and the business goes online for the first time, the label is activated: the first-tier city edge node cluster a finds business-related information from the hook label module The label and the mapping relationship between the label and the configuration, take out the configuration field and the configuration field value, and modify the configuration field value according to the actual business situation. The value of the configuration field and the modified configuration field are spread to each node in the first-tier city edge node cluster a. When the first-tier city edge node cluster a completes diffusion, it will cover a certain node in the second-tier city edge node cluster b, and then spread from this node to the second-tier city edge node cluster b. Cover the third-tier city edge node cluster c and the fourth-tier city edge node cluster d in turn.

Step 4: Modify the value of the configuration field.

In the course of business operation, a node in the first-tier city edge node cluster a modifies the value of the configuration field, and the modified value spreads in the first-tier city edge node cluster a. When the first-tier city edge node cluster a completes diffusion, it will cover a certain node in the second-tier city edge node cluster b, and then spread from this node to all nodes in the second-tier city edge node cluster b. Cover the third-tier city edge node cluster c and the fourth-tier city edge node cluster d in turn.

Modify the configuration field value of a node in the second-tier city edge node cluster b. The modified configuration field value does not cover the first-tier city edge node cluster a, but covers the third-tier city edge node cluster c and the fourth-tier city edge node cluster d.

In the city edge node cluster, adjust the value of the same configuration field of different nodes at the same time. At this time, the conflict is sent, and the decision information is handled according to the configuration in the second step.

Step 5: Business switching.

To switch to another service in a third-tier city, you need to modify the configuration fields, find one or more tags based on the specific service to be replaced, called the first tag group, and find one or more tags based on the specific service replaced, called the first Two label groups. Find the relationship between the specific weight value of the node linked to the label in the second step and the decision-making information related to the label. When there is an overlap in the first label group and the second label group, find the label of the overlap part, and according to the new service, modify the value of the configuration field corresponding to the label on a certain node in the third-tier city edge node cluster c. The modified The value of the configuration field is diffused in the third-tier city edge node cluster c. When the third-tier city edge node cluster c is completed, it will be covered by a node in the fourth-tier city edge node cluster d, and then spread from this node to the fourth-tier city All nodes in the edge node cluster d. Inactivate the non-coincident labels in the first label group: at a certain node in the third-tier city edge node cluster c, reset the configuration field value through the mapping relationship between the label and the configuration field, and the reset value is in the third-tier city The edge node cluster c spreads, when the third-tier city edge node cluster c is completed, it will cover a certain node in the fourth-tier city edge node cluster d, and then spread from this node to all the nodes in the fourth-tier city edge node cluster d . Activate the non-overlapping labels in the second label group: at a certain node in the third-tier city edge node cluster c, through the mapping relationship between the label and the configuration, the configuration field and the value of the configuration field are diffused in the third-tier city edge node cluster c, When the diffusion in the third-tier city edge node cluster c is completed, it will cover a certain node in the fourth-tier city edge node cluster d, and then spread from this node to all the nodes in the fourth-tier city edge node cluster d.

Application example 3

The first step: create a label.

All configuration fields that need to run a business are classified according to the microservices that make up the business, and each type of field is labeled with a corresponding label.

Step 2: Deploy the hook tag module.

Before the business goes online for the first time, find one or more labels based on the specific business, and select the edge node cluster of section a, the edge node cluster of section b, the edge node cluster of section c, and the edge node cluster of section d that require online services. Collectively referred to as nodes. The relationship of the proportion value is that the proportion value of each edge node cluster is the same. Between the edge node clusters, a is higher than b, b is higher than c, and c is higher than d. Link this size relationship with the label. The hook label module contains the label, configuration, the mapping relationship between the label and the configuration, the size relationship of the specific gravity value, the mapping of the size relationship between the label and the specific gravity value, and the specific gravity value is equal. When a conflict occurs, the conflict resolution decision information, the decision information contains the processing Priority, processing method, measures after processing failure, etc., decision-making information is connected to the artificial intelligence system, and the optimal solution is provided through analysis and learning.

Independently cluster with each edge node, deploy a hook label module in a car running on a highway, and the hook label module is connected to an artificial intelligence system to collect, analyze, and provide a better relationship between the proportion of nodes.

The third step: label activation.

When the edge node clusters of each section of the expressway are connected to each other, the network is connected to the edge node clusters of each section, and the first time the business goes online, the label is activated: when the car is running on the expressway, a certain section of the edge node cluster is Each node finds the label related to the business and the mapping relationship between the label and the configuration from the hook label module, takes out the configuration field and the value of the configuration field, and modifies the value of the configuration field according to the actual business situation. The value of the configuration field and the modified configuration field are spread across the nodes in the edge node cluster. When the diffusion in the edge node cluster of segment a is completed, it will cover a certain node in the edge node cluster of segment b, and then spread from this node to the edge node cluster of b end. Cover the edge node clusters at end c and segment d in turn.

When the car returns from section d to section a, the artificial intelligence system can adjust the proportion of the nodes deployed in the hook label module in the car as needed.

Step 4: Modify the value of the configuration field.

During business operation, a node in the edge node cluster of segment a modifies the value of the configuration field, and the modified value spreads to other nodes in the edge node cluster of segment a. When the car drives into the edge node cluster of segment b, The first node is covered, and then spread from this node to the b-end edge node cluster. Cover the edge node clusters of segment c and segment d in sequence.

As shown in FIG. 4, an embodiment of the present application also provides a device for implementing service configuration, including: a memory 41, a processor 42, and a computer program 43 stored on the memory 41 and running on the processor 42. The processing The implementation method of the service configuration is realized when the device 42 executes the program.

The embodiment of the present application also provides a computer-readable storage medium storing computer-executable instructions, and the computer-executable instructions are used to execute the implementation method of the service configuration.

In this embodiment, the foregoing storage medium may include, but is not limited to: U disk, Read-Only Memory (ROM), Random Access Memory (RAM, Random Access Memory), mobile hard disk, magnetic disk or optical disk, etc. Various media that can store program codes.

A person of ordinary skill in the art can understand that all or some of the steps, functional modules/units in the system, and apparatus in the methods disclosed above can be implemented as software, firmware, hardware, and appropriate combinations thereof. In hardware implementations, the division between functional modules/units mentioned in the above description does not necessarily correspond to the division of physical components; for example, one physical component may have multiple functions, or one function or step may consist of several physical components. The components are executed cooperatively. Some or all components may be implemented as software executed by a processor, such as a digital signal processor or a microprocessor, or as hardware, or as an integrated circuit, such as an application specific integrated circuit. Such software may be distributed on a computer-readable medium, and the computer-readable medium may include a computer storage medium (or a non-transitory medium) and a communication medium (or a transitory medium). As is well known to those of ordinary skill in the art, the term computer storage medium includes volatile and non-volatile memory implemented in any method or technology for storing information (such as computer-readable instructions, data structures, program modules, or other data). Sexual, removable and non-removable media. Computer storage media include but are not limited to RAM, ROM, EEPROM, flash memory or other memory technology, CD-ROM, digital versatile disk (DVD) or other optical disk storage, magnetic cassette, tape, magnetic disk storage or other magnetic storage device, or Any other medium used to store desired information and that can be accessed by a computer. In addition, as is well known to those of ordinary skill in the art, communication media usually contain computer-readable instructions, data structures, program modules, or other data in a modulated data signal such as carrier waves or other transmission mechanisms, and may include any information delivery media .

Claims (12)

A method for implementing business configuration includes: Perform service configuration on the first node, where one or more labels corresponding to the service; According to the associated information of the label, the configuration information of the service is transferred to one or more second nodes, wherein the first node and the second node are at least one of a center and an edge. The method according to claim 1, wherein, before the performing service configuration on the first node, the method further comprises: Classify the configuration fields of the service, and set corresponding labels for the service according to the type of the configuration field. The method of claim 1 or 2, wherein: The association information of the label includes the node weight information associated with the label and decision information, the configuration information of the service includes configuration field information of the service, and the label corresponds to the configuration field. The method according to claim 3, wherein the decision information includes at least one of the following information: The priority of information transmission, the method of information transmission, and the handling measures for information transmission failure. The method according to claim 3, wherein before said transmitting the configuration information of the service to one or more second nodes according to the associated information of the label, the method further comprises: Adjusting the node proportion information corresponding to at least one of the first node and the second node, so that the configuration information of the service is transmitted in a specified transmission direction. The method according to claim 3, wherein the service configuration includes service online, and the performing service configuration on the first node includes: Set one or more tags corresponding to the service to an active state. The method according to claim 3, wherein the service configuration includes modifying the service configuration, and the performing the service configuration on the first node includes: Modify the configuration field information of the service. The method of claim 3, wherein the service configuration includes service switching, the service configuration is performed on the first node, and the service configuration information is transferred to one or more The second node includes: Determine a first label group and a second label group, wherein the first label group includes one or more labels corresponding to the replaced service, and the second label group includes one or more labels corresponding to the replaced service ； Determine the coincidence label, determine the configuration field corresponding to the coincidence label according to the coincidence label, determine the configuration field information corresponding to the coincidence label according to the configuration information of the replacement service, and associate with the coincidence label according to the decision information Transmitting the configuration field information corresponding to the overlapping label to one or more second nodes, where the overlapping label is a label in which the first label group and the second label group overlap; Determine the deactivated tag, set the deactivated tag to the deactivated state, and transfer the configuration field information corresponding to the deactivated tag to one or the other according to the decision information and the node proportion information associated with the deactivated tag. A plurality of second nodes, wherein the inactive label is a label in the first label group that is not overlapped with the second label group; Determine the activation tag, set the activation tag to the activated state, and transfer the configuration field information corresponding to the activation tag to one or more second nodes according to the decision information and the node proportion information associated with the activation tag , Wherein the activation tag is a non-overlapping tag in the second tag group and the first tag group. The method according to claim 3, wherein the node proportion information includes a node proportion value, the configuration field information includes a configuration field value, and the configuration information of the service is delivered to one or Multiple second nodes, including: When the node proportion value of the first node is greater than or equal to the node proportion value of the second node, the configuration field value of the first node is used to replace the configuration field value of the second node. A device for realizing service configuration includes: The configuration unit is configured to perform service configuration on the first node, where one or more labels corresponding to the service; The transfer unit is configured to transfer the configuration information of the service to one or more second nodes according to the associated information of the label, where the first node and the second node are at least one of a center and an edge . A device for realizing service configuration, comprising: a memory, a processor, and a computer program stored in the memory and running on the processor, wherein the processor executes the program when the program is executed as claimed in claims 1-9 The implementation method of the service configuration described in any one of. A computer-readable storage medium stores computer-executable instructions, and the computer-executable instructions are used to implement the method for implementing the service configuration described in any one of claims 1-9.

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