An asynchronous signaling processing method and device based on an algorithm network fusion network and a medium

Abstract

The application provides an asynchronous signaling processing method, device and medium based on an algorithm network fusion network, the method comprising: receiving network element signaling sent by a first control network element; saving the network element signaling through a context queue according to an identifier preset by the first control network element, so that the first control network element can perform other service processing before receiving response signaling corresponding to the network element signaling; and sending the network element signaling to a second SCP network element corresponding to a preset destination identifier, so that a second control network element connected to the second SCP network element performs asynchronous processing on the network element signaling. The method, device and medium can solve the problem that the existing technology involves almost all network elements of 5GC in the synchronous-to-asynchronous evolution strategy of algorithm network fusion, and needs to decouple the coupling of signaling in the time, space and process dimensions, thereby increasing the cost and complexity of synchronous-to-asynchronous.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of Internet, and in particular to an asynchronous signaling processing method and device based on an algorithm network fusion network and a medium. BACKGROUND

[0002] At present, most of the signaling in the 5G core network (5GC) works in a synchronous mode, that is, a source network element (NF) sends a request signaling to a destination network element, and needs to wait for a response signaling of the destination network element before continuing to perform the next signaling related operation. During this period, the source network element is in a processing blocking state. This synchronous working mode causes slow signaling processing and waste of signaling processing resources.

[0003] The asynchronous mode refers to a signaling processing process that does not need to wait all the time, but can continue to perform other operations. When the response signaling of the opposite end is received, the signaling operation corresponding to the response signaling is performed. The asynchronous mode can improve the signaling processing capability of the network element and reduce the delay of signaling processing. Therefore, for the signaling architecture of algorithm network fusion, considering the influence on the existing 5G network, cost, performance and other dimensions, a 5GC signaling network with an asynchronous working mode is designed. The 5GC signaling network with the asynchronous working mode meets the signaling requirements of algorithm network fusion, improves the performance of the existing 5GC signaling network, and becomes an important direction of 5G network evolution.

[0004] However, the existing technology of algorithm network fusion involves almost all network elements of the 5GC in the synchronous to asynchronous evolution strategy, and needs to decouple the coupling of the signaling in the time, space and process dimensions, which increases the cost and complexity of the synchronous to asynchronous evolution. SUMMARY

[0005] The technical problem to be solved by the present application is to solve the problem that the existing technology of algorithm network fusion involves almost all network elements of the 5GC in the synchronous to asynchronous evolution strategy, and needs to decouple the coupling of the signaling in the time, space and process dimensions, which increases the cost and complexity of the synchronous to asynchronous evolution.

[0006] In a first aspect, the present application provides an asynchronous signaling processing method based on an algorithm network fusion network, applied to a first service communication proxy (SCP) network element, the method comprising:

[0007] receiving a network element signaling sent by a first control network element;

[0008] According to the identifier preset by the first control network element, the network element signaling is saved through a context queue, so that the first control network element can perform other service processing before receiving a response signaling corresponding to the network element signaling.

[0009] According to the preset destination identifier, the network element signaling is sent to a second SCP network element corresponding to the destination identifier, so that a second control network element connected to the second SCP network element performs asynchronous processing on the network element signaling.

[0010] Further, the preset identifier is a service identifier, and before the network element signaling sent by the first control network element is received, the method further comprises:

[0011] allocating a service identifier to the first control network element;

[0012] The service identifier comprises a service type of the first control network element.

[0013] Further, the network element signaling is saved through a context queue according to the preset identifier of the first control network element, and specifically comprises:

[0014] The network element signaling is saved in a context queue corresponding to the service identifier.

[0015] Further, the method further comprises:

[0016] receiving a retransmission signaling sent by the first control network element when the first control network element does not receive an acknowledgement signaling corresponding to the network element signaling within a preset time length;

[0017] The retransmission signaling is sent to a second SCP network element corresponding to the destination identifier, so that the second SCP network element reassigns a third control network element to perform asynchronous processing based on the retransmission signaling.

[0018] In a second aspect, the application provides an asynchronous signaling processing method based on an algorithm network fusion network, applied to a second service communication proxy SCP network element, and the method comprises:

[0019] receiving a network element signaling sent by a first SCP network element according to a preset destination identifier, wherein the network element signaling is sent after the network element signaling is saved through a context queue according to a preset identifier of a first control network element after the first SCP network element receives the network element signaling sent by the first control network element, and the first control network element can perform other service processing before receiving an acknowledgement signaling corresponding to the network element signaling;

[0020] The network element signaling is allocated to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling.

[0021] Further, the preset identifier is a service identifier, and before the network element signaling is allocated to the second control network element, the method further comprises:

[0022] Save the network element signaling to a context queue corresponding to the service identity.

[0023] Further, the type of the control network element is classified into a control network element deployed in a multi-access edge computing (MEC) and a control network element deployed independently.

[0024] Further, if the second control network element is deployed in the MEC, the method further comprises:

[0025] Receiving retransmission signaling sent by the first SCP network element according to a preset destination identity, the retransmission signaling being sent by the first SCP network element when the first SCP network element receives no response signaling corresponding to the network element signaling within a preset time length;

[0026] According to the retransmission signaling, obtaining network element signaling in a context queue corresponding to the service identity, and obtaining a context of the network element signaling;

[0027] Reallocating the context to a third control network element for asynchronous processing.

[0028] Further, the destination identity includes a region and a network element type, and the allocation of the network element signaling to the second control network element according to the destination identity specifically includes:

[0029] Allocating the network element signaling to a second control network element corresponding to the destination identity and deployed independently; or allocating the network element signaling to a second control network element corresponding to the destination identity and deployed in the MEC through an allocation algorithm.

[0030] Further, the allocation algorithm specifically includes:

[0031] According to the residence time of the network element signaling allocated to each control network element in the MEC, calculating the processing capacity of each control network element in the MEC, and taking the average of the processing capacities of all control network elements in the MEC as a horizontal line.

[0032] For each control network element in the MEC, the following steps are performed respectively:

[0033] Judging whether the processing capacity of the control network element is higher than the horizontal line;

[0034] If the processing capacity of the control network element is higher than the horizontal line, increasing the allocated service of the control network element so that the processing capacity of the control network element is equivalent to the horizontal line;

[0035] If the processing capacity of the control network element is not higher than the horizontal line, reducing the allocated service of the control network element so that the processing capacity of the control network element is equivalent to the horizontal line.

[0036] Further, while or after the network element signaling is allocated to the second control network element, the method further comprises:

[0037] allocating an identity to the network element signaling, so that the second control network element performs asynchronous processing based on the identity of the network element signaling.

[0038] Further, the allocating an identity to the network element signaling, so that the second control network element performs asynchronous processing based on the identity of the network element signaling, specifically comprises:

[0039] allocating a signaling identity to the network element signaling, the signaling identity being used to trigger the second control network element to identify a signaling flow of the network element signaling, to obtain a signaling flow identity;

[0040] adding a result of the second control network element processing the network element signaling to the signaling flow identity and saving the result in a context queue, so that the second control network element performs other service processing before receiving a new network element signaling under a service flow corresponding to the network element signaling;

[0041] when the new network element signaling is received, allocating the new network element signaling to the second control network element, so that the second control network element processes the new network element signaling based on the result corresponding to the signaling flow identity in the context queue;

[0042] updating a result of the second control network element processing the new network element signaling to the context queue corresponding to the result of the network element signaling, so that the second control network element processes a next network element signaling under a service flow corresponding to the new network element signaling based on the result of the new network element signaling.

[0043] In a third aspect, the present application provides an asynchronous signaling processing device based on an algorithm network fusion network, which is arranged in a first service communication proxy (SCP) network element, and the device comprises:

[0044] a first receiving module, configured to receive network element signaling sent by a first control network element;

[0045] a saving module, connected with the first receiving module, configured to save the network element signaling through a context queue according to an identity pre-set by the first control network element, so that the first control network element can perform other service processing before receiving a response signaling corresponding to the network element signaling;

[0046] a sending module, connected with the saving module, configured to send the network element signaling to a second SCP network element corresponding to a pre-set destination identity, so that a second control network element connected with the second SCP network element performs asynchronous processing on the network element signaling.

[0047] In a fourth aspect, the present application provides an asynchronous signaling processing device based on an algorithm network fusion network, which is arranged in a second service communication proxy (SCP) network element, and the device comprises:

[0048] A second receiving module is configured to receive a network element signaling sent by a first SCP network element according to a preset destination identifier, wherein the network element signaling is sent by the first SCP network element after the first SCP network element receives the network element signaling sent by a first control network element, saves the network element signaling through a context queue according to a preset identifier of the first control network element, and then sends the network element signaling, and wherein the first control network element can perform other service processing before receiving a response signaling corresponding to the network element signaling.

[0049] An allocation module is connected with the second receiving module and configured to allocate the network element signaling to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling.

[0050] In a fifth aspect, the present application provides an asynchronous signaling processing device based on an algorithm network fusion network, which comprises a memory and a processor, the memory stores a computer program, and the processor is configured to run the computer program to realize the asynchronous signaling processing method based on an algorithm network fusion network according to the first aspect or the second aspect.

[0051] In a sixth aspect, the present application provides a computer readable storage medium, which stores a computer program, and the computer program is executed by a processor to realize the asynchronous signaling processing method based on an algorithm network fusion network according to the first aspect or the second aspect.

[0052] The application provides an asynchronous signaling processing method and device based on an algorithm network fusion network and a medium. BRIEF DESCRIPTION OF DRAWINGS

[0053] Figure 1 A flowchart of an asynchronous signaling processing method based on an algorithm network fusion network of the application embodiment 1;

[0054] Figure 2 A structural schematic diagram of a signaling architecture based on SCP of the application embodiment of the algorithm network fusion;

[0055] Figure 3 A structural schematic diagram of signaling communication between algorithm network control network elements of the application embodiment;

[0056] Figure 4 A structural schematic diagram of queue deployment of the application embodiment;

[0057] Figure 5 A structural schematic diagram of an algorithm network control network element queue in SCP of the application embodiment;

[0058] Figure 6 A structural schematic diagram of an edge queue in SCP of the application embodiment;

[0059] Figure 7 A structural schematic diagram of an SCP queue in SCP of the application embodiment;

[0060] Figure 8 A schematic diagram of a network element signaling context saving queue of the application embodiment;

[0061] Figure 9A flow chart of an asynchronous signaling processing method based on an algorithm network fusion network according to Embodiment 2 of the present application;

[0062] Figure 10 A schematic diagram of an algorithm network control network element for allocating signaling of a network element according to an embodiment of the present application;

[0063] Figure 11 A structural schematic diagram of an asynchronous signaling processing device based on an algorithm network fusion network according to Embodiment 3 of the present application;

[0064] Figure 12 A structural schematic diagram of an asynchronous signaling processing device based on an algorithm network fusion network according to Embodiment 4 of the present application;

[0065] Figure 13 A structural schematic diagram of an asynchronous signaling processing device based on an algorithm network fusion network according to Embodiment 5 of the present application. DETAILED DESCRIPTION

[0066] In order to make the skilled in the art better understand the technical solutions of the present application, the embodiments of the present application will be further described in detail below with reference to the drawings.

[0067] It can be understood that the specific embodiments and drawings described herein are merely used to explain the present application, but not to limit the present application.

[0068] It can be understood that the embodiments in the present application and the features in the embodiments can be combined with each other without conflict.

[0069] It can be understood that, for the convenience of description, only the parts related to the present application are shown in the drawings of the present application, and the parts irrelevant to the present application are not shown in the drawings.

[0070] It can be understood that each unit and module involved in the embodiments of the present application can correspond to only one entity structure, or can be composed of multiple entity structures, or multiple units and modules can be integrated into one entity structure.

[0071] It can be understood that the functions and steps marked in the flow charts and block diagrams of the present application can occur in an order different from that marked in the drawings without conflict.

[0072] It can be understood that in the flow charts and block diagrams of the present application, the system, device, equipment, method according to the embodiments of the present application are shown as the possible implementation architecture, function and operation. Each block in the flow chart or block diagram can represent a unit, module, program segment, code, which contains executable instructions for realizing the specified function. Moreover, each block or combination of blocks in the block diagram and flow chart can be realized by a hardware-based system for realizing the specified function, or by a combination of hardware and computer instructions.

[0073] It can be understood that the units and modules involved in the embodiments of the present application can be implemented in software or hardware, for example, the units and modules can be located in a processor.

[0074] Embodiment 1:

[0075] The embodiment provides an asynchronous signaling processing method based on an algorithm network fusion network, which is applied to a first service communication proxy SCP network element, as shown in the following Figure 1 The method comprises the following steps.

[0076] Step S101: receiving network element signaling sent by a first control network element.

[0077] It should be noted that the efficient computing power needs a new network architecture of deep fusion of "computing + network" to realize high throughput, agile connection and balanced selection of computing power network and communication network. Specifically, the asynchronous signaling processing method based on the algorithm network fusion network provided in the embodiment is applied to the signaling architecture based on SCP algorithm network fusion provided in the embodiment.

[0078] Specifically, as shown in the following Figure 2 The signaling architecture based on SCP algorithm network fusion realizes asynchronous communication of the control network element in the computing power network through the queue mode by using the signaling proxy role of the SCP network element in the 5G signaling network.

[0079] It should be noted that due to the demand of computing power network for high throughput, low latency and rich computing power, MEC (Multi-access Edge Computing) becomes the main deployment environment of computing power network. MEC provides a business environment with ultra-low latency, high bandwidth and real-time access to wireless network information. MEC is deployed at edge locations such as access ring and access aggregation ring close to the base station, so that the computing power resources in MEC are closest to the end users, reducing the end-to-end service response delay. At the same time, MEC has open wireless network capabilities and operation capabilities, meeting the needs of computing power management, scheduling and operation.

[0080] Specifically, the control network element of the computing power network is divided into two categories, one is independently deployed, and the other is deployed in MEC, and both are connected through the SCP of 5GC to enter 5GC. The signaling between the control network elements of the computing power network in different regions is transferred by the SCP proxy in each region, and the sharing, cooperation, scheduling and coordination of the computing power in different regions of MEC are completed, as shown in the following Figure 3 .

[0081] It should be noted that, since the signaling of the 5GC adopts the HTTP (Hyper Text Transfer Protocol) mode, the HTTP SQS (HTTP Simple Queue Service) is selected as an example to construct the queue. Specifically, the HTTP SQS (HTTP Simple Queue Service) is a lightweight open source simple message queue service based on the HTTP GET / POST protocol, which is simple, fast (the speed of entering and exiting the queue is more than 10,000 times per second), high concurrency, supports multiple queues, the maximum queue number supported by a single queue is up to 1 billion, low memory consumption (storing tens of GB of data occupies no more than 100 MB of physical memory buffer), can view the queue state in real time (entering the queue position, exiting the queue position, the number of unread queues, the maximum queue number), can view the content of the specified queue ID (queue point) (including the content of the queue that has not been exited and the content of the exited queue), and is suitable for secondary development (the source code is relatively simple). The basic operations of the HTTP SQS include entering the queue (GET method and POST method), exiting the queue (GET method and POST method), obtaining the state (GET method), and changing the parameters (such as setting the maximum queue number).

[0082] It should be noted that the overall goal of the embodiment is to realize time decoupling, space decoupling and process decoupling between the computing power control network elements through the queue mode, so as to realize asynchronous signaling processing between the computing power control network elements, effectively improve the processing capability of the 5GC signaling network processing computing power network control signaling, simplify the signaling networking mode and operation and maintenance of the computing network fusion network, reduce the delay of signaling processing, reduce the influence of network element failure on signaling, and meet the performance requirements of the control signaling network of the computing network fusion.

[0083] Specifically, the embodiment decouples the existing 5GC signaling processing synchronization mode in time, space and process, and the purposes of decoupling in three dimensions are respectively:

[0084] Time decoupling: after the computing network control network element sends data, it does not need to wait for the response of the other party all the time, and can perform other operations, and then processes the response data after receiving the response data of the other party;

[0085] Space decoupling: the computing network control network elements of the receiving and transmitting parties do not need to know the network address and port of the other party, and the initial signaling of the business processing sent by the sender only needs to send the signaling according to the identifier (region-network element type) of the target network element set by the system, and the signaling can reach the specified target network element correctly, and the subsequent communication is carried out by connecting the context information;

[0086] Flow decoupling: the sending and receiving parties realize that the algorithm network control network element processes signaling and the flow of signaling is irrelevant. When interacting, the control flow of each party is not blocked, and it is not necessary to process in strict flow order.

[0087] It should be noted that the above-mentioned target of three-dimensional decoupling is achieved by the queue mode in the SCP network element in the embodiment.

[0088] Specifically, the first SCP network element receives the network element signaling sent by the first control network element.

[0089] Step S102: according to the identifier preset by the first control network element, the network element signaling is saved through the context queue, so that the first control network element can perform other business processing before receiving the response signaling corresponding to the network element signaling.

[0090] It should be noted that the queue deployment mode for decoupling is as shown in Figure 4 The SCP is deployed in the SCP, which is divided into three types of algorithm network control network element queue, MEC queue and SCP queue:

[0091] For the separately deployed algorithm network control network element, the SCP sets an algorithm network control network element queue corresponding to each type of network element in the SCP. The control network element reads the signaling in the signaling receiving queue in the algorithm network control network element queue corresponding to the network element category in the HTTPSQS queue of the SCP, and writes the signaling in the signaling sending queue;

[0092] The control network element of the algorithm network deployed in the MEC is separately deployed in the SCP. The edge queue (i.e. MEC queue) corresponding to the MEC is deployed in the SCP. The queue corresponding to the control network element category in the MEC in the SCP is connected to the edge queue through a network element allocation module, and the edge queue is connected to the SCP through a TCP connection;

[0093] The SCP deploys the SCP queue corresponding to the control signaling for proxy receiving and sending in the SCP.

[0094] Specifically, the algorithm network control network element queue structure in the SCP is as shown in Figure 5 , which includes:

[0095] Asynchronous signaling sending queue: the algorithm network control network element adds asynchronous signaling to the network element sending queue. Since different signaling has different requirements for delay and other quality indicators, the asynchronous signaling sending queue is configured with queues corresponding to different quality levels. The QoS (Quality of Service) control unit sends the signaling according to the algorithm network control network element signaling processing identifier, and adds it to the queue corresponding to the QoS level. The high-level QoS queue is sent with high priority;

[0096] Asynchronous signaling receiving queue: asynchronous signaling sent to the algorithm network control network element joins the network element receiving queue. Since the network element process can select signaling with different priority identifiers to exit the queue, the network element receiving queue has only one level of queue, and the tasks in the queue have different levels of identification. After the new asynchronous signaling joins the queue, the message notification module notifies the corresponding callback function processing to the callback function mapping unit.

[0097] Specifically, the edge queue structure in the SCP is as shown in Figure 6 The signaling sent by the algorithm network control network element in the MEC is first added to the edge queue of the MEC through the enqueue operation, and after the processing of the edge queue, it is sent to the signaling sending queue of the SCP. The signaling received by the SCP is first sent to the edge queue of the MEC, and after distribution and identification, it is read and processed in the edge queue by each network element in the MEC through the dequeue operation. The edge queue includes:

[0098] Asynchronous signaling network element collection sending queue: the sending queue of each type of algorithm network control network element in the MEC is added with a network element identifier and sent to the edge queue. The network element collection module of the edge queue collects the signaling of each network element to form an asynchronous signaling network element collection sending queue, and then sends it to the corresponding QoS signaling sending queue in the SCP queue according to the QoS identifier in the signaling;

[0099] First network element identifier asynchronous signaling receiving queue: the signaling sent by the SCP to the MEC is divided into two categories. The first category is the first signaling of a certain service processing, and the network element identifier of this type of signaling is empty. The second category is the intermediate and end signaling of service processing, and the network element identifier of this type of signaling is set to the ID number of the network element of the last signaling processing. For the first type of signaling, the signaling distribution module distributes it to the same type of network element in the MEC according to the optimization algorithm and dynamically adjusts it according to the actual burden capacity of each network element to balance the processing burden of each same type of algorithm network element in the MEC. For the second type of signaling, the algorithm network control network element with the same network element identifier ID extracts the signaling for processing to maintain the continuity of the context of the last signaling processing.

[0100] It should be noted that since the processing process of the algorithm network control network element can select signaling with different priority identifiers to exit the queue, the network element receiving queue has only one level of queue, and the tasks in the queue have different levels of identification. After the new asynchronous signaling joins the queue, the message notification module notifies the corresponding callback function processing to the callback function mapping unit.

[0101] Specifically, the SCP queue in the SCP is composed of an asynchronous signaling SCP collection sending queue and a second network element identifier asynchronous signaling receiving queue, as shown in Figure 7

[0102] ​Asynchronous signaling SCP collection sending queue: the sending queue of each algorithm network control network element (independent deployment) or the edge sending queue of MEC deployment sends to the asynchronous signaling SCP collection sending queue of the SCP through the entry operation, and the sending queue is composed of queues of different levels, and the signaling of the corresponding level is sent to the SCP sending queue identified by the corresponding level, and the sending module sends the signaling to the corresponding area SCP according to the destination area of the signaling;

[0103] Second network element identification asynchronous signaling receiving queue: after the SCP receives the signaling, the signaling is added to the queue. Since the SCP does not process specific signaling services, the processing speed is fast, and therefore there is no need to set queues of different levels. The network element allocation module identifies the quality of the signaling according to the destination algorithm network control network element and the QoS requirement of the signaling, and sends the signaling to the corresponding edge queue or the receiving queue corresponding to the algorithm network control network element.

[0104] Specifically, the first SCP network element allocates a unique service identifier to the first control network element (service-control network element), and the service identifier includes the service type of the first control network element, and marks the signaling service processed by the first algorithm network control network element device. As shown in Figure 8 When the starting signaling of a new service processing arrives at the sending or receiving signaling queue in the SCP queue, the SCP saves the network element signaling to the context queue corresponding to the service identifier for buffering, and stores the subsequent signaling in the buffer space to the queue corresponding to the service identifier. When the service signaling ends, the SCP clears the buffer queue corresponding to the service identifier.

[0105] It should be noted that the decoupling of the algorithm network control network element signaling time in the SCP is mainly in two aspects:

[0106] 1. Decoupling of the time coupling of the "sending-waiting receiving" mode of the control signaling transceiving parties:

[0107] A large number of signaling work between algorithm network control network elements is in an end-to-end mode, that is, "(A) processing signaling-sending request-waiting response-(B) processing signaling-returning response" such an answer mode with time coupling relationship. Decoupling of the time coupling makes it possible for AB to process the signaling and send data to the opposite end without waiting for the response of the opposite end, and to perform other processing, and to process the response data after the response data of the opposite party is received. In this way, the synchronous mode of the algorithm network control signaling can be converted into an asynchronous mode, and the algorithm network resources do not have to be blocked and can be continuously operated, thereby improving the processing capacity of the algorithm network;

[0108] 2. Decoupling of the time coupling of the simultaneous activation of the signaling transceiving parties:

[0109] The signaling transceiving requires that both parties must be in the active and normal working state, otherwise the signaling retransmission of one party will cause alarm after reaching the system set number of times. The SCP decouples the time activation of the transceiving parties of the algorithm network control network element through the signaling context queue.

[0110] In an optional embodiment, the method further comprises:

[0111] receiving the retransmission signaling sent by the first control network element when the first control network element does not receive the response signaling corresponding to the network element signaling within a preset time length;

[0112] sending the retransmission signaling to the second SCP network element corresponding to the destination identifier, so that the second SCP network element reassigns a third control network element for asynchronous processing based on the retransmission signaling.

[0113] Specifically, when a certain algorithm network control network element of the signaling receiving processing end fails or is too heavy to meet the signaling processing requirement, the algorithm network control network element (i.e., the first control network element) of the sending end sends the signaling and does not receive the response signaling within the system set time, the signaling is retransmitted, and a retransmission mark is added in the signaling. The retransmission signaling is transferred by the SCP proxy and reaches the second SCP in the area where the receiving algorithm network control network element is located. After detecting the retransmission mark in the signaling, the second SCP packs the signaling context of the service identifier in the context queue and sends it to the first network element identifier asynchronous signaling receiving queue, and adds the service reset signaling identifier. The signaling distribution module of the first network element identifier asynchronous signaling receiving queue will reassign a new algorithm network control network element (i.e., the third control network element) for processing, and use the received context signaling to reset the signaling service. After the reset, the new algorithm network control network element will continue to send the response signaling at the signaling retransmission position, thereby realizing the non-perception switching of the opposite network element, and thus eliminating the time coupling of the transceiving parties of the algorithm network control network element.

[0114] Step S103: According to the preset destination identifier, the network element signaling is sent to the second SCP network element corresponding to the destination identifier, so that the second control network element connected to the second SCP network element performs asynchronous processing on the network element signaling.

[0115] Specifically, the asynchronous signaling SCP collection sending queue in the SCP queue in the first SCP network element sends the network element signaling to the corresponding area SCP network element (i.e., the second SCP network element) according to the destination identifier of the network element signaling. After receiving the network element signaling sent by the first SCP network element according to the preset destination identifier, the second SCP network element distributes the network element signaling to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling.

[0116] It should be noted that the spatial decoupling realizes that the network element of the algorithm network control party does not need to know the network address and port of the other party, and the sender only needs to send signaling according to the system set destination identifier (for example, network element type, area), and the signaling can reach the specified target algorithm network control network element correctly.

[0117] The asynchronous signaling processing method based on the algorithm network fusion network provided by the embodiment of the application realizes time decoupling, space decoupling and process decoupling between the algorithm network control network elements by sending the signaling of the control network element of the algorithm network to the algorithm network control network element connected to the SCP (Service Communication Proxy) network element in the corresponding area through the SCP network element proxy in each area, thereby realizing asynchronous signaling processing between the algorithm network control network elements, reducing the cost and difficulty of synchronization to asynchronization, and meeting the requirements of the algorithm power network on algorithm power coordination, scheduling and operation control signaling. The application only needs to upgrade and evolve in the SCP network element, simplifies the networking mode and operation and maintenance management of the algorithm network and the 5G network fusion, reduces the influence on the existing 5G network, and has a positive significance for the evolution of the existing 5G network to the algorithm network fusion network. The evolution strategy of the algorithm network fusion from synchronization to asynchronization in the prior art involves almost all network elements of the 5GC and needs to decouple the coupling of the signaling in the time, space and process dimensions, which increases the cost and complexity of synchronization to asynchronization.

[0118] Embodiment 2

[0119] As shown in Figure 9 The embodiment provides an asynchronous signaling processing method based on an algorithm network fusion network, applied to a second service communication proxy SCP network element, and the method comprises the following steps:

[0120] Step S201: receiving a network element signaling sent by a first SCP network element according to a preset destination identifier, wherein the network element signaling is sent by the first SCP network element after saving the network element signaling sent by a first control network element through a context queue according to a preset identifier of the first control network element, and wherein the first control network element can perform other business processing before receiving a response signaling corresponding to the network element signaling.

[0121] Step S202: distributing the network element signaling to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling.

[0122] In an optional embodiment, the preset identifier is a business identifier, and before the network element signaling is distributed to the second control network element, the method further comprises:

[0123] The network element signaling is stored into the context queue corresponding to the service identity.

[0124] In an optional embodiment, the type of the control network element is classified into a control network element deployed in the MEC and a control network element independently deployed.

[0125] In an optional embodiment, if the second control network element is deployed in the MEC, the method further comprises:

[0126] The retransmission signaling sent by the first SCP network element according to the preset destination identity is received, the retransmission signaling being sent by the first SCP network element when the first SCP network element receives that the first control network element does not receive the response signaling corresponding to the network element signaling within a preset time length;

[0127] According to the retransmission signaling, the network element signaling in the context queue corresponding to the service identity is obtained, and the context of the network element signaling is obtained.

[0128] The context is re-allocated to a third control network element for asynchronous processing.

[0129] In an optional embodiment, the destination identity comprises a region and a network element type, and the allocation of the network element signaling to the second control network element according to the destination identity specifically comprises:

[0130] The network element signaling is allocated to the second control network element independently deployed corresponding to the destination identity, or the network element signaling is allocated to the second control network element deployed in the MEC corresponding to the destination identity through an allocation algorithm.

[0131] Specifically, the embodiment performs spatial decoupling between the calculation network control elements based on the queue mode. After the SCP (i.e., the second SCP network element) to which the target region belongs receives the signaling forwarded by the source calculation network control element (i.e., the first control network element) through the SCP (i.e., the first SCP network element) to which the source belongs, the SCP is added to the second network element identity asynchronous signaling receiving queue through an entry operation and queued, as shown in Figure 10 If the network element type corresponding to the destination identity is a control network element independently deployed, the signaling is allocated to the asynchronous signaling receiving queue of the corresponding calculation network control element by the network element allocation module according to the name of the target calculation network control element (without the address of the target calculation network control element). If the network element type corresponding to the destination identity is a control network element deployed in the MEC, the signaling is sent to the first network element identity asynchronous signaling receiving queue corresponding to the destination identity, and is allocated to the corresponding calculation network control element by the signaling allocation module according to the optimization algorithm (i.e., the allocation algorithm).

[0132] It should be noted that the target of the optimization algorithm is to balance the burden of each algorithm network processing network element in the MEC, and the network element failure can be recovered in time, while considering the optimization of energy consumption. The optimization algorithm of the embodiment uses the water injection algorithm for optimization, and the target is to keep the balance of the processing of each algorithm network processing network element in the MEC. The specific allocation method is as follows:

[0133] According to the time of the signaling staying in the asynchronous signaling receiving queue corresponding to each algorithm network control network element, the processing capacity of the algorithm network service processing unit managed by each algorithm network control network element is calculated;

[0134] The average processing capacity of all algorithm network service processing network elements in the MEC is calculated as a horizontal line μ;

[0135] The algorithm network service processing network element below the horizontal line μ is allocated more tasks to pull its value to μ, so that the service processing network element with stronger processing capacity is allocated more tasks until the service processing network element reaches the average capacity. The service processing network element with weaker processing capacity reduces the allocation of processing tasks until the service processing network element recovers to the average capacity.

[0136] In an optional embodiment, the method further comprises:

[0137] Allocating an identifier for the network element signaling, so that the second control network element performs asynchronous processing based on the identifier of the network element signaling.

[0138] In an optional embodiment, the method further comprises:

[0139] Allocating a signaling identifier for the network element signaling, the signaling identifier being used to trigger the second control network element to identify the flow of the service corresponding to the network element signaling to obtain a signaling flow identifier;

[0140] Adding the result of the second control network element processing the network element signaling to the signaling flow identifier and saving the result in a context queue, so that the second control network element performs other service processing before receiving a new network element signaling under the service flow corresponding to the network element signaling;

[0141] When the new network element signaling is received, the new network element signaling is allocated to the second control network element, so that the second control network element processes the new network element signaling based on the corresponding result of the signaling flow identifier in the context queue;

[0142] updating the result of the second control network element processing the new network element signaling to the context queue corresponding to the result of the network element signaling, so that the second control network element processes the next network element signaling under the service flow corresponding to the new network element signaling based on the result of the new network element signaling.

[0143] It should be noted that the control signaling is generally coupled with the flow, and after the signaling request is sent between the algorithm network control network elements, the response of the opposite end needs to be received before the next task is decided according to the response. The goal of flow decoupling is that the algorithm network control network element does not need to block the local algorithm network service processing process because of the flow.

[0144] Specifically, the flow decoupling of the embodiment adopts the flow identification + context cache mode to realize the flow decoupling of the algorithm network control signaling, and the specific implementation method is as follows:

[0145] Step 1, the second SCP network element allocates a unique identification (that is, a signaling identification) to each algorithm network control network element service processing signaling, and the format is service type + code number + region identification + network element type identification + serial number;

[0146] Step 2, the second control network element identifies the signaling flow in the algorithm network service processing to obtain a signaling flow identification, and the format is processing signaling identification code + signaling internal serial number;

[0147] Step 3, the second control network element extracts a signaling from the network element queue by de-queueing and processing, and after processing, the processing result and the environment parameter are added to the signaling flow identification corresponding to this signaling and saved to the context queue;

[0148] Step 4, when the second control network element reads a new signaling from the network element queue, the context corresponding to the current signaling flow identification is first read from the context queue, that is, the last serial number is obtained by subtracting 1 from the serial number in the current signaling flow identification, and then the current signaling is processed in the read context environment;

[0149] Step 5, after the processing result of the current signaling is sent, the context information of the current signaling is updated to the context queue corresponding to the context read for processing the current signaling, to provide the signaling processing of the next flow;

[0150] Step 6, loop step 3 until the current service signaling processing is completed.

[0151] Embodiment 3:

[0152] As shown in Figure 11 , the embodiment provides an asynchronous signaling processing device based on an algorithm network fusion network, which is arranged in a first service communication proxy (SCP) network element, and includes:

[0153] The first receiving module 111 is configured to receive network element signaling sent by a first control network element;

[0154] The saving module 112 is connected with the first receiving module 111 and is configured to save the network element signaling through a context queue according to an identifier preset by the first control network element, so that the first control network element can perform other service processing before receiving response signaling corresponding to the network element signaling.

[0155] The sending module 113 is connected with the saving module 112 and is configured to send the network element signaling to a second SCP network element corresponding to a destination identifier according to a preset destination identifier, so that a second control network element connected with the second SCP network element performs asynchronous processing on the network element signaling.

[0156] Further, the preset identifier is a service identifier, and the apparatus further includes:

[0157] The first allocation identifier module is connected with the first receiving module 111 and is configured to allocate a service identifier to the first control network element.

[0158] The service identifier includes a service type of the first control network element.

[0159] Further, the saving module 112 specifically includes:

[0160] The saving unit is configured to save the network element signaling into a context queue corresponding to the service identifier.

[0161] Further, the apparatus further includes:

[0162] The first receiving retransmission signaling module is connected with the sending module 113 and is configured to receive retransmission signaling sent by the first control network element when the first control network element does not receive response signaling corresponding to the network element signaling within a preset time length.

[0163] The sending retransmission signaling module is connected with the first receiving retransmission signaling module and is configured to send the retransmission signaling to the second SCP network element corresponding to the destination identifier, so that the second SCP network element re-allocates a third control network element to perform asynchronous processing based on the retransmission signaling.

[0164] Embodiment 4:

[0165] As shown in Figure 12 The embodiment provides an asynchronous signaling processing apparatus based on an algorithm network fusion network, which is arranged in a second service communication proxy SCP network element and includes:

[0166] The second receiving module 121 is configured to receive a network element signaling sent by a first SCP network element according to a preset destination identifier, wherein the network element signaling is sent by the first SCP network element after the first SCP network element receives the network element signaling sent by a first control network element, saves the network element signaling through a context queue according to an identifier preset by the first control network element, and before the first control network element receives a response signaling corresponding to the network element signaling, the first control network element can perform other service processing.

[0167] The distribution module 122 is connected with the second receiving module 121 and is configured to distribute the network element signaling to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling.

[0168] Further, the preset identifier is a service identifier, and the apparatus further includes:

[0169] The saving identifier module is connected with the distribution module 122 and is configured to save the network element signaling in a context queue corresponding to the service identifier.

[0170] Further, the type of the control network element includes a control network element deployed in a multi-access edge computing (MEC) and a control network element independently deployed.

[0171] Further, if the second control network element is deployed in the MEC, the apparatus further includes:

[0172] The second receiving retransmission signaling module is connected with the saving identifier module and is configured to receive a retransmission signaling sent by the first SCP network element according to a preset destination identifier, wherein the retransmission signaling is sent by the first SCP network element when the first SCP network element does not receive a response signaling corresponding to the network element signaling within a preset time length.

[0173] The context acquisition module is connected with the second receiving retransmission signaling module and is configured to acquire the network element signaling in the context queue corresponding to the service identifier according to the retransmission signaling, to obtain a context of the network element signaling.

[0174] The context distribution module is connected with the context acquisition module and is configured to re-distribute the context to a third control network element for asynchronous processing.

[0175] Further, the destination identifier includes a region and a network element type, and the distribution module 122 specifically includes:

[0176] The distribution unit is configured to distribute the network element signaling to a second control network element independently deployed corresponding to the destination identifier, or distribute the network element signaling to a second control network element deployed in the MEC corresponding to the destination identifier through a distribution algorithm.

[0177] Further, the distribution algorithm specifically includes:

[0178] According to the residence time of the network element signaling distributed to each control network element in the MEC, the processing capacity of each control network element in the MEC is calculated, and the average value of the processing capacity of all control network elements in the MEC is taken as a horizontal line;

[0179] For each control network element in the MEC, the following steps are respectively performed:

[0180] determining whether the processing capacity of the control network element is higher than the horizontal line;

[0181] If the processing capacity of the control network element is higher than the horizontal line, the distributed service of the control network element is increased so that the processing capacity of the control network element is equivalent to the horizontal line;

[0182] If the processing capacity of the control network element is not higher than the horizontal line, the distributed service of the control network element is reduced so that the processing capacity of the control network element is equivalent to the horizontal line.

[0183] Further, the apparatus further includes:

[0184] A second distribution identification module connected with the distribution module 122, configured to distribute an identification to the network element signaling, so that the second control network element performs asynchronous processing based on the identification of the network element signaling.

[0185] Further, the second distribution identification module specifically includes:

[0186] A distribution identification unit configured to distribute a signaling identification to the network element signaling, the signaling identification being used to trigger the second control network element to identify the flow of the service corresponding to the network element signaling to obtain a signaling flow identification;

[0187] An adding and saving unit configured to add the result of the second control network element processing the network element signaling to the signaling flow identification and save the result in a context queue, so that the second control network element performs other service processing before receiving a new network element signaling under the service flow corresponding to the network element signaling;

[0188] A distribution processing unit configured to, when the new network element signaling is received, distribute the new network element signaling to the second control network element, so that the second control network element processes the new network element signaling based on the result corresponding to the signaling flow identification in the context queue;

[0189] The result updating unit is configured to update the result of the second control network element processing the new network element signaling to a context queue corresponding to the result of the network element signaling, so that the second control network element processes the next network element signaling under the service flow corresponding to the new network element signaling based on the result of the new network element signaling.

[0190] Embodiment 5:

[0191] Reference Figure 13 The embodiment provides an asynchronous signaling processing device based on an algorithm network fusion network, including a memory 21 and a processor 22, the memory 21 stores a computer program, and the processor 22 is configured to run the computer program to execute the asynchronous signaling processing method based on the algorithm network fusion network in the embodiment 1 or execute the asynchronous signaling processing method based on the algorithm network fusion network in the embodiment 2.

[0192] The memory 21 is connected with the processor 22, the memory 21 can adopt a flash memory or a read-only memory or other memories, and the processor 22 can adopt a central processing unit or a single-chip microcomputer.

[0193] Embodiment 6:

[0194] The embodiment provides a computer readable storage medium, and the computer readable storage medium stores a computer program, and the computer program is executed by a processor to realize the asynchronous signaling processing method based on the algorithm network fusion network in the embodiment 1 or the embodiment 2.

[0195] The computer readable storage medium includes volatile or non-volatile, removable or non-removable media implemented in any method or technology for storing information such as computer readable instructions, data structures, computer program modules or other data. The computer readable storage medium includes but is not limited to RAM (Random Access Memory), ROM (Read-Only Memory), EEPROM (Electrically Erasable Programmable read only memory), flash memory or other memory technologies, CD-ROM (Compact Disc Read-Only Memory), digital versatile disc (DVD) or other optical disc storage, magnetic cassette, magnetic tape, magnetic disk storage or other magnetic storage devices, or any other medium that can be used to store desired information and can be accessed by a computer.

[0196] The asynchronous signaling processing method, device and medium based on the algorithm network fusion network provided by embodiments 2 to 6 utilize the signaling proxy role of the SCP network element in the 5G signaling network to send the signaling of the control network element of the algorithm network to the algorithm network control network element connected with the SCP network element in the corresponding region in a manner of being proxied by the SCP network element in each region, realize time decoupling, space decoupling and process decoupling among the algorithm network control network elements, and thus realize asynchronous signaling processing among the algorithm network control network elements, reduce the cost and difficulty of synchronization to asynchrony, and meet the requirements of the algorithm network on algorithm coordination, scheduling and operation on control signaling. The application simplifies the networking mode and operation and maintenance of the fusion of the algorithm network and the 5G network because of upgrading and evolution only in the SCP network element, reduces the influence on the existing 5G network, and has a positive significance for the evolution of the existing 5G network to the algorithm network fusion network. The application solves the problem that the existing technology involves almost all network elements of the 5GC in the evolution strategy from synchronization to asynchrony of the algorithm network fusion and needs to decouple the coupling of the signaling in the time, space and process dimensions, and increases the cost and complexity of synchronization to asynchrony.

[0197] It can be understood that the above embodiments are only exemplary embodiments for illustrating the principles of the present application, and the present application is not limited thereto. Various modifications and improvements can be made by those skilled in the art without departing from the spirit and essence of the present application, and these modifications and improvements are also considered to be within the protection scope of the present application.

Claims

1. A method for processing asynchronous signaling based on a converged network, characterized in that, The method applied to a first service communication proxy (SCP) network element of a signaling architecture of algorithm-network convergence based on SCP comprises the following steps: receiving network element signaling sent by a first control network element; storing the network element signaling in a context queue according to a preset identifier of the first control network element, so that the first control network element can perform other service processing before receiving response signaling corresponding to the network element signaling; sending the network element signaling to a second SCP network element corresponding to a preset destination identifier, so that a second control network element connected to the second SCP network element performs asynchronous processing on the network element signaling; the destination identifier comprises a region and a network element type; In the signaling architecture of algorithm-network convergence based on SCP, signaling of an algorithm-network control network element is sent to an algorithm-network control network element connected to a corresponding SCP network element in a corresponding region through an SCP network element proxy in the corresponding region; the type of the control network element comprises a control network element deployed in a multi-access edge computing (MEC) and a control network element independently deployed; both types of control network elements access a core network through a respective SCP network element in a respective region; after receiving network element signaling forwarded by a first SCP network element in a region to which a first control network element belongs, if a network element type corresponding to a destination identifier is a control network element independently deployed, the second SCP network element is distributed to a corresponding second control network element according to a name of a target algorithm-network control network element; if the network element type corresponding to the destination identifier is a control network element deployed in the MEC, the second SCP network element is distributed to the corresponding second control network element through a distribution algorithm.

2. The method of claim 1, wherein, The preset identifier is a service identifier, and before receiving the network element signaling sent by the first control network element, the method further comprises the following steps: allocating a service identifier to the first control network element; the service identifier comprises a service type of the first control network element.

3. The method of claim 2, wherein, The network element signaling is stored in a context queue corresponding to the service identifier. The method further comprises the following steps:

4. The method of claim 1, wherein, receiving retransmission signaling sent by the first control network element when the first control network element does not receive response signaling corresponding to the network element signaling within a preset time length; sending the retransmission signaling to a second SCP network element corresponding to the destination identifier, so that the second SCP network element re-allocates a third control network element to perform asynchronous processing based on the retransmission signaling. The method applied to a second SCP network element of a signaling architecture of algorithm-network convergence based on SCP comprises the following steps:

5. A method for processing asynchronous signaling based on a converged network, characterized in that, receiving network element signaling sent by a first SCP network element according to a preset destination identifier, the destination identifier comprising a region and a network element type, the network element signaling being sent after the first SCP network element stores the network element signaling in a context queue according to a preset identifier of a first control network element, wherein the first control network element can perform other service processing before receiving response signaling corresponding to the network element signaling; allocating the network element signaling to a second control network element, so that the second control network element performs asynchronous processing on the network element signaling; ​ In the signaling architecture based on the SCP-based algorithm network fusion, the signaling of the algorithm network control network element is sent to the algorithm network control network element connected to the corresponding SCP network element of the region through the SCP network element proxy of the region; the type of the control network element is divided into the control network element deployed in the multi-access edge computing (MEC) and the independently deployed control network element, and both types of control network elements access the core network through the SCP network element of the region; after the second SCP network element receives the network element signaling forwarded by the first SCP network element of the region, if the type of the network element corresponding to the destination identifier is the independently deployed control network element, the network element signaling is distributed to the corresponding second control network element according to the name of the target algorithm network control network element, and if the type of the network element corresponding to the destination identifier is the control network element deployed in the MEC, the network element signaling is distributed to the corresponding second control network element through the distribution algorithm.

6. The method of claim 5, wherein, The preset identifier is a service identifier, and before the network element signaling is distributed to the second control network element, the method further comprises: Saving the network element signaling in the context queue corresponding to the service identifier.

7. The method of claim 6, wherein, If the second control network element is deployed in the MEC, the method further comprises: Receiving a retransmission signaling sent by the first SCP network element according to a preset destination identifier, the retransmission signaling being sent by the first SCP network element when the first SCP network element receives no response signaling corresponding to the network element signaling within a preset time length; According to the retransmission signaling, obtaining the network element signaling in the context queue corresponding to the service identifier to obtain the context of the network element signaling; Re-distributing the context to a third control network element for asynchronous processing.

8. The method of claim 5, wherein, The distribution algorithm specifically comprises: Calculating the processing capacity of each control network element in the MEC according to the residence time of the network element signaling distributed to each control network element in the MEC, and taking the average value of the processing capacities of all control network elements in the MEC as a horizontal line; For each control network element in the MEC, the following steps are performed respectively: Judging whether the processing capacity of the control network element is higher than the horizontal line; If the processing capacity of the control network element is higher than the horizontal line, increasing the distributed service of the control network element so that the processing capacity of the control network element is equivalent to the horizontal line; If the processing capacity of the control network element is not higher than the horizontal line, reducing the distributed service of the control network element so that the processing capacity of the control network element is equivalent to the horizontal line.

9. The method of claim 5, wherein, At the same time or after the network element signaling is distributed to the second control network element, the method further comprises: Allocating an identifier to the network element signaling, so that the second control network element performs asynchronous processing based on the identifier of the network element signaling.

10. The method of claim 9, wherein, The allocation of the identifier to the network element signaling, so that the second control network element performs asynchronous processing based on the identifier of the network element signaling, specifically comprises: Allocating a signaling identifier to the network element signaling, the signaling identifier being used to trigger the second control network element to identify the flow of the service corresponding to the network element signaling to obtain a signaling flow identifier; The second control network element adds the result of processing the network element signaling to the signaling flow identifier and saves the result in a context queue, so that the second control network element performs other service processing before receiving new network element signaling under the service flow corresponding to the network element signaling; When the new network element signaling is received, the new network element signaling is distributed to the second control network element, so that the second control network element processes the new network element signaling based on the corresponding result in the context queue according to the signaling flow identifier; The result of processing the new network element signaling by the second control network element is updated to the context queue corresponding to the result of the network element signaling, so that the second control network element processes the next network element signaling under the service flow corresponding to the new network element signaling based on the result of the new network element signaling.

11. An asynchronous signaling processing apparatus based on an algorithmic network converged network, characterized in that, The device is arranged in a first SCP network element of a signaling architecture of service communication agent SCP-based network calculation fusion, and the device comprises: A first receiving module is configured to receive network element signaling sent by a first control network element; A saving module is connected with the first receiving module and is configured to save the network element signaling through a context queue according to an identifier preset by the first control network element, so that the first control network element can perform other service processing before receiving a response signaling corresponding to the network element signaling; A sending module is connected with the saving module and is configured to send the network element signaling to a second SCP network element corresponding to a destination identifier according to a preset destination identifier, so that a second control network element connected with the second SCP network element assembles the network element signaling asynchronously; the destination identifier includes a region and a network element type. In the signaling architecture of SCP-based network calculation fusion, the signaling of a network calculation control network element is sent to a network calculation control network element connected with a SCP network element in a corresponding region through the SCP network element proxy in each region; the type of the control network element includes a control network element deployed in a multi-access edge calculation (MEC) and a control network element independently deployed, and both types of control network elements access a core network through a SCP network element in each region; after the second SCP network element receives network element signaling forwarded by a first SCP network element in a region to which the first control network element belongs, if the network element type corresponding to the destination identifier is a control network element independently deployed, the network element signaling is distributed to a corresponding second control network element according to the name of the target network calculation control network element, and if the network element type corresponding to the destination identifier is a control network element deployed in the MEC, the network element signaling is distributed to a corresponding second control network element through a distribution algorithm.

12. An asynchronous signaling processing apparatus based on an algorithmic network converged network, characterized in that, The device is arranged in a second SCP network element of a signaling architecture of service communication agent SCP-based network calculation fusion, and the device comprises: The second receiving module is configured to receive network element signaling sent by the first SCP network element according to a preset destination identifier, wherein the destination identifier comprises a region and a network element type, and the network element signaling is sent by the first SCP network element after the first SCP network element receives the network element signaling sent by the first control network element, saves the network element signaling in a context queue according to a preset identifier of the first control network element, and then sends the network element signaling, wherein the first control network element can perform other service processing before receiving response signaling corresponding to the network element signaling. The distribution module is connected with the second receiving module and is configured to distribute the network element signaling to the second control network element, so that the second control network element performs asynchronous processing on the network element signaling. In the signaling architecture of the SCP-based algorithm network fusion, the signaling of the algorithm network control network element is sent to the algorithm network control network element connected with the SCP network element in the corresponding region through the SCP network element proxy in the respective region. The type of the control network element includes a control network element deployed in a multi-access edge calculation (MEC) and a control network element independently deployed. Both types of control network elements access the core network through the SCP network element in the respective region. After the second SCP network element receives the network element signaling forwarded by the first control network element through the first SCP network element in the region to which the first control network element belongs, if the network element type corresponding to the destination identifier is the control network element independently deployed, the network element signaling is distributed to the corresponding second control network element according to the name of the target algorithm network control network element, and if the network element type corresponding to the destination identifier is the control network element deployed in the MEC, the network element signaling is distributed to the corresponding second control network element through a distribution algorithm.

13. An asynchronous signaling processing apparatus based on an algorithmic network converged network, characterized in that, The computer readable storage medium stores a computer program, and the computer program is executed by the processor to implement the asynchronous signaling processing method based on the algorithm network fusion network according to any one of claims 1-4 or the asynchronous signaling processing method based on the algorithm network fusion network according to any one of claims 5-10.

14. A computer-readable storage medium, characterized in that, The computer readable storage medium stores a computer program, and the computer program is executed by the processor to implement the asynchronous signaling processing method based on the algorithm network fusion network according to any one of claims 1-4 or the asynchronous signaling processing method based on the algorithm network fusion network according to any one of claims 5-10.

Images