Method and system for end device network slice selection
US-2025016644-A1 · Jan 9, 2025 · US
US12477357B2 · US · B2
| Field | Value |
|---|---|
| Publication number | US-12477357-B2 |
| Application number | US-202217973553-A |
| Country | US |
| Kind code | B2 |
| Filing date | Oct 26, 2022 |
| Priority date | Jul 11, 2022 |
| Publication date | Nov 18, 2025 |
| Grant date | Nov 18, 2025 |
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A hierarchical proxy deployment method includes: performing information collection and information interaction in a hierarchical proxy deployment architecture to obtain bandwidths and latencies of all inter-node communication links; and selecting an optimal proxy deployment solution from all feasible proxy deployment solutions based on the bandwidths and latencies of all the inter-node communication links. According to the method, a hierarchical proxy deployment architecture is used. An optimal proxy deployment solution is formed by selecting the optimal location and the optimal number of proxies for deployment to meet the transmission performance requirement of network applications in 5G/B5G networks. Therefore, transmission performance requirements are satisfied by a proxy deployment with a minimized number of proxies, thereby reducing network overheads and resource waste.
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What is claimed is: 1 . A hierarchical proxy deployment method, comprising the following steps: S 1 : performing information collection and information interaction in a hierarchical proxy deployment architecture to obtain bandwidths and latencies of all inter-node communication links; and S 2 : selecting an optimal proxy deployment solution from all possible proxy deployment solutions based on the bandwidths and latencies of all the inter-node communication links; wherein the hierarchical proxy deployment architecture in step S 1 comprises a secondary base station node, a master base station node, a cloud proxy node, and a long connection proxy node; and the secondary base station node establishes a communication connection with the master base station node and user equipment separately; the master base station node establishes a communication connection with the cloud proxy node; the cloud proxy node establishes a communication connection with the long connection proxy node; and a server establishes a communication connection with the master base station node, the cloud proxy node, and the long connection proxy node separately. 2 . The hierarchical proxy deployment method according to claim 1 , wherein the cloud proxy node comprises a plurality of cloud proxy sub-nodes, and the long connection proxy node comprises a plurality of long connection proxy sub-nodes; and each cloud proxy sub-node establishes a communication connection with the master base station node and a persistent communication connection with each long connection proxy sub-node separately; and the server establishes a communication connection with each cloud proxy sub-node and each long connection proxy sub-node separately. 3 . The hierarchical proxy deployment method according to claim 1 , wherein step S 1 comprises the following sub-steps: S 11 : collecting bandwidths and latencies of communication links between all adjacent nodes in the hierarchical proxy deployment architecture by using the master base station node, the cloud proxy node, and the long connection proxy node in the hierarchical proxy deployment architecture; and S 12 : notifying all nodes of the bandwidths and latencies of all the communication links by using the master base station node, the cloud proxy node, and the long connection proxy node. 4 . The hierarchical proxy deployment method according to claim 1 , wherein step S 2 comprises the following sub-steps: S 21 : selecting a set of feasible candidate solutions from all the possible proxy deployment solutions based on the bandwidths and latencies of all the communication links; and S 22 : selecting the optimal proxy deployment solution from the set of feasible candidate solutions. 5 . The hierarchical proxy deployment method according to claim 4 , wherein step S 21 comprises the following sub-steps: S 211 : enumerating all the possible proxy deployment solutions according to an enumeration method after the user equipment sends a service request to the server; S 212 : obtaining transmission performance, the minimum throughput of the communication links and a time to first byte (TTFB), of all possible proxy deployment solutions based on the bandwidths and latencies of all the communication links; and S 213 : excluding proxy deployment solutions incapable of meeting the transmission performance requirements of network applications and generating the set of feasible candidate solutions comprising the rest proxy deployment solutions. 6 . The hierarchical proxy deployment method according to claim 5 , wherein a calculation formula of the TTFB in step S 212 is: TG= 2 D+ 2 max( D i ), wherein TG denotes the TTFB, D denotes a delay of an entire end-to-end transmission link, and D i denotes a delay in a link between every two adjacent nodes. 7 . The hierarchical proxy deployment method according to claim 4 , wherein step S 22 comprises the following sub-steps: S 221 : in a case that a proxy deployment with minimizing the number of proxies and network overheads as a goal, selecting, from the set of feasible candidate solutions, first proxy deployment solutions with a minimum number of proxies and network overheads to obtain a first filtered set; S 222 : in a case that the cloud proxy node is taken as a condition, selecting, from the first filtered set, second proxy deployment solutions passing the cloud proxy node to obtain a second filtered set; S 223 : in a case that the long connection proxy node is taken as a condition, selecting, from the second filtered set, third the proxy deployment solutions to obtain a third filtered set, wherein the third proxy deployment solutions do not need to use the persistent connection between the cloud proxy node and the long connection proxy node; and S 224 : selecting one proxy deployment solution as the optimal proxy deployment solution from the third filtered set.
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