Decentralized trading platform system based on dynamic management of virtual nodes

Abstract

A decentralized trading platform system based on dynamic management of virtual nodes is disclosed. The trading management platform server is connected to a first client device and a second client device. The trading management platform server includes at least one processor and memory coupled to the at least one processor. The trading management platform server establishes virtual nodes corresponding to each channel, configures independent memory blocks and computing resources, and establishes virtual node identification codes, node access media, and internal routing tables. This allows external access requests to be quickly responded to specific virtual nodes. Furthermore, by continuously receiving behavioral data information provided by the second client device, the system converts it into control signals that conform to the underlying control algorithm to dynamically adjust the computing resource configuration and internal routing allocation of the virtual nodes. This achieves the technical effect of dynamically adjusting the computing resources and routing allocation of virtual nodes, improving the resource management efficiency, system scalability, data isolation capabilities, and trading service stability of the decentralized trading platform.

Claims

1. A decentralized trading platform system based on dynamic management of virtual nodes, the system being applicable to a trading management platform server connected to a first client device and a second client device, the trading management platform server comprising at least one processor and a memory coupled to the at least one processor, the memory storing computer-executable instructions, wherein when the at least one processor executes the computer-executable instructions, the trading management platform server performs the following steps: the trading management platform server dynamically configures multiple virtual nodes, allocating a memory block and a computing resource limit to each virtual node for resource isolation; the trading management platform server generates a virtual node identification code corresponding to each virtual node, and stores the virtual node identification code and an independent access address of the memory block in an internal routing table; the trading management platform server generates a node access medium based on the virtual node identification code and the independent access address, and then stores the node access medium, the virtual node identification code, and the independent access address in the internal routing table; the trading management platform server obtains a community node request from the first client device. The transaction management platform server selects one of the node access media from the internal routing table and sends it back to the first client device. When the second client device obtains and triggers the node access media through the first client device, the transaction management platform server obtains an access request from the second client device containing the virtual node identification code in the node access media. The transaction management platform server queries the corresponding virtual node from the internal routing table based on the virtual node identification code contained in the access request and establishes a data connection between the second client device and the virtual node. The transaction management platform server confirms that the virtual node receives multiple behavioral data information continuously provided by the second client device through the data connection, and converts the multiple behavioral data information into control signals conforming to the underlying format based on the characteristics of the multiple behavioral data information. The transaction management platform server uses an underlying control algorithm based on the control signals to dynamically adjust the upper limit of the computing resources of the virtual node corresponding to the control signals or change the allocation path of the internal routing table, and then pushes a status information to the first client device to complete the feedback loop.

2. The decentralized trading platform system based on dynamic management of virtual nodes as described in claim 1, wherein the trading management platform server configures the memory blocks and computing resource limits of each virtual node according to channel type, historical transaction volume, estimated number of simultaneous connections, number of commodities or transaction frequency, and restricts different virtual nodes from accessing non-corresponding memory blocks through memory access control rules to form resource isolation.

3. The decentralized trading platform system based on dynamic management of virtual nodes as described in claim 1, wherein the node access medium includes node links, Uniform Resource Locators, deep links, two-dimensional barcodes, near-field communication tag data or combinations thereof, and the trading management platform server generates a routing scepter based on the virtual node identification code and independent access address as access parameters for external devices to access virtual nodes.

4. The decentralized trading platform system based on dynamic management of virtual nodes as described in claim 1, wherein the trading management platform server aggregates the multiple behavioral data information into behavioral feature data, and converts the behavioral feature data into a control signal containing an opcode, a target virtual node identification code, and control parameters according to a pre-established feature mapping data table.

5. The decentralized trading platform system based on dynamic management of virtual nodes as described in claim 1, wherein the underlying control algorithm adjusts the computing resource configuration of the virtual nodes, establishes or stops backup virtual nodes, updates the allocation path of the internal routing table according to the control signal, and pushes the updated status information to the first client device to form a continuously looping closed-loop control process.

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