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CN-121984125-A - MAS-based energy management method and system for formation vehicle-mounted power interconnection system

CN121984125ACN 121984125 ACN121984125 ACN 121984125ACN-121984125-A

Abstract

The invention provides an energy management method and an energy management system of a formation vehicle-mounted power interconnection system based on MAS, which belong to the technical field of formation vehicle-mounted power interconnection systems and comprise the steps of constructing a multi-Agent technology control structure of the formation vehicle-mounted power interconnection system, constructing a micro-grid energy management and scheduling device, generating an energy management and scheduling scheme which is constructed according to battery management parameters and scheduling algorithm parameters and is managed in a time sequence, and obtaining an optimal energy management and scheduling scheme through an improved gold jackal optimization algorithm, wherein the improved gold jackal optimization algorithm introduces a goose group optimization algorithm and a whale optimization algorithm in an exploration stage and a development stage of an original Jin Chai optimization algorithm, and performs energy scheduling and management on the formation vehicle-mounted power interconnection system through a global energy management and scheduling Agent which dominates the micro-grid based on the energy management and scheduling scheme. The method can quickly generate the optimal MAS-based energy management scheme of the formation vehicle-mounted power interconnection system.

Inventors

  • CHEN KEWEI
  • WEI SHUGUANG
  • LIU CHUNGUANG
  • LI JIAQI
  • XU FEIFAN
  • ZHANG YUNYIN
  • ZHANG JIAXI

Assignees

  • 中国人民解放军陆军兵种大学

Dates

Publication Date
20260505
Application Date
20260123

Claims (8)

  1. 1. The MAS-based energy management method for the formation vehicle-mounted power interconnection system is characterized by comprising the following steps of: Determining a vehicle-mounted micro-grid Agent of a formation vehicle-mounted power interconnection system, wherein the formation vehicle-mounted power interconnection system comprises a master micro-grid and a plurality of slave micro-grids; Dividing the vehicle-mounted micro-grid Agent into a global energy management and scheduling Agent with formation energy management capability and a residual function Agent according to functions, wherein the global energy management and scheduling Agent of the dominant micro-grid controls global energy management and scheduling of the whole distributed formation vehicle-mounted power interconnection system through interaction with other agents in the formation; Constructing a micro-grid energy management and scheduling device, which is used for generating an energy management and scheduling scheme which is constructed according to battery management parameters and scheduling algorithm parameters and managed in a time sequence, and obtaining an optimal energy management and scheduling scheme through an improved type jackal optimization algorithm, wherein the improved type jackal optimization algorithm introduces a goose group optimization algorithm and a whale optimization algorithm in the exploration stage and the development stage of the original Jin Chai optimization algorithm; and based on the energy management and scheduling scheme, energy scheduling and management are carried out on the formation vehicle-mounted power interconnection system through the global energy management and scheduling Agent of the dominant micro-grid.
  2. 2. The MAS-based energy management method for a formation on-board power interconnection system according to claim 1, wherein the splitting of the highest intelligent level on-board micro-grid Agent into a global energy management and scheduling Agent with formation energy management capability and a remaining functional Agent according to functions comprises the steps of: On-board micro-grid to which highest intelligence level is set in each of the slave micro-grids, which will line the master micro-grid of the on-board power interconnection system An Agent that causes the onboard micro-grid to have all functions from reception/execution to formation energy management and scheduling; Vehicle-mounted micro-grid with highest intelligent level The Agent's formation energy management capabilities are stripped out to form a new global energy management and scheduling Agent, called , The remaining functions form a single chip with Agent of intelligent level, called I.e. each onboard micro-grid comprises one at the same time Agents and an Agent; Will dominate the micro-grid By means of a network connected to all the onboard micro-networks in the formation The interaction completes global energy management and scheduling of the whole distributed formation vehicle-mounted power interconnection system, and the slave micro-grid does not play a role As a dominant micro-grid Is only enabled in case of failure of the dominant micro-grid.
  3. 3. The MAS-based formation on-board electrical interconnection system energy management method according to claim 2, further comprising: with a master micro-grid and a plurality of slave micro-grids The method is defined as mobile Agent, and the mobile Agent is migrated from the master micro-grid to other slave micro-grids when needed, so that roles of the vehicle-mounted micro-grid are changed, wherein only one master micro-grid is responsible for formation global energy management and scheduling at any moment.
  4. 4. The MAS-based formation on-board power interconnection system energy management method according to claim 1, wherein the energy management and scheduling scheme is generated by the modified jackal optimization algorithm, comprising the steps of: basic parameters, vehicle-mounted micro-grid types, energy source characteristics, load types, load characteristics, inter-vehicle interconnection modes and working modes of the formation vehicle-mounted power interconnection system are determined; Initializing parameter information of an energy management and scheduling management scheme of the formation vehicle-mounted power interconnection system, wherein the parameter information comprises battery management parameters and scheduling algorithm parameters, and the battery management parameters comprise charge and discharge efficiency parameters, battery service life and thermal management parameters; constructing a comprehensive objective function by weighting the working efficiency, the service life, the new energy utilization rate and the fuel consumption rate of the formation vehicle-mounted power interconnection system as an objective function; And obtaining an fitness value according to the objective function, and optimizing design parameters through an improved jackal optimization algorithm to obtain an energy management and scheduling scheme with the optimal fitness value.
  5. 5. The MAS-based formation on-board power interconnection system energy management method according to claim 4, wherein the location update of the exploration phase of the modified jackal optimization algorithm comprises the steps of: the position update formula for male Jin Chai and female jackal is: ; ; Wherein t is the current iteration times; the position of the prey for the t-th iteration; 、 Positions of male Jin Chai and female jackal, respectively, of the t-th iteration; 、 Updated positions of male Jin Chai and female Jin Chai, respectively, corresponding to the prey for the t-th iteration; representing a random number based on a Lewye distribution; is a random number within [0,1 ]; Escape energy for the prey; Wherein: ; wherein: Is the weight coefficient of Jin Chai for the t-th iteration; And Is that Maximum and minimum of (2); ; wherein: is the convergence factor of gold jackal; then, the formula for updating the position of the jackal is improved as follows: ; wherein: the position of the jackfruit after the t+1st iteration is the individual after the t+1st iteration of the exploration phase of the battery management parameter and the scheduling algorithm parameter.
  6. 6. The MAS-based formation on-board power interconnection system energy management method according to claim 5, wherein the location update of the development stage of the modified jackal optimization algorithm includes the steps of: the position update formula for male Jin Chai and female jackal is: ; ; Wherein t is the current iteration times; the position of the prey for the t-th iteration; 、 Positions of male Jin Chai and female jackal, respectively, of the t-th iteration; 、 Updated positions of male Jin Chai and female Jin Chai, respectively, corresponding to the prey for the t-th iteration; then, the formula for updating the position of the jackal is as follows: ; wherein: The position of the jackfruit after the t+1st iteration is the individual after the t+1st iteration of the development stage of the battery management parameter and the scheduling algorithm parameter; 、 、 、 、 And Is a random number in [0,1] and satisfies , , 。
  7. 7. A design system for a fleet vehicle-mounted electrical interconnection system, the system comprising: A processor; a memory having stored thereon a computer program executable on the processor; Wherein the computer program when executed by a processor performs the steps of the MAS-based on-board power interconnection system energy management method as set forth in any one of claims 1 to 6.
  8. 8. A computer-readable storage medium, having stored thereon a data processing program that, when executed by a processor, implements the steps of the MAS-based on-board power interconnection system energy management method according to any one of claims 1 to 6.

Description

MAS-based energy management method and system for formation vehicle-mounted power interconnection system Technical Field The invention relates to the technical field of formation vehicle-mounted power interconnection systems, in particular to a MAS-based formation vehicle-mounted power interconnection system energy management method and system. Background The formation vehicle-mounted power interconnection system consists of a plurality of platform vehicle-mounted micro-grids in the formation, wherein an inter-vehicle power interconnection mode based on wired/wireless composite transmission is adopted among the platforms, and the formation vehicle-mounted power interconnection system has a flexible topology framework and can realize dynamic networking and flexible access/disconnection of other platforms in the formation. The working efficiency of the formation vehicle-mounted power interconnection system is directly influenced by the advantages and disadvantages of the energy management method. In the face of complex application scenes, how to research an efficient energy management method of a formation vehicle-mounted power interconnection system is a critical problem which needs to be solved urgently. The Multi-Agent system (Multi-AGENT SYSTEM, MAS) is one of the hot spots of distributed artificial intelligence research and is suitable for solving decision problems in a distributed dynamic environment. The formation vehicle-mounted power interconnection system adopting the multi-intelligent system architecture has a plurality of advantages. First, the architecture may simplify maintenance and management. Each Agent can perform autonomous action according to the own target, so that tedious management and manual intervention in a centralized management mode are avoided, and management cost is reduced. Secondly, the architecture can improve the efficiency of the formation vehicle-mounted power interconnection system. The multi-agent system can coordinate distributed power sources and loads to optimize energy consumption. The distribution of the multi-agent system accords with the distribution type power supply and the load characteristic, and the advantages of the distribution type power supply can be fully exerted. In addition, the system has higher reliability and fault tolerance, reduces fault loss and maintenance cost, and improves the energy efficiency of the power grid. Furthermore, the formation vehicle-mounted power interconnection system adopting the multi-agent architecture also has higher safety. The architecture can realize fault self-diagnosis and self-regulation capability, and improves the safety and stability of the formation vehicle-mounted power interconnection system. Each Agent processes a small amount of data, thereby reducing the operation amount of the host. Each Agent monitors the operation parameters of each micro-grid element, and directly processes the problems which can be independently solved, so that the data transmission quantity in the network is reduced, and the reliability of the system is enhanced. Meanwhile, as a decentralized management and control mode is adopted, the risks of network attack and hacking invasion can be reduced, and the safety of the formation vehicle-mounted power interconnection system is ensured. In order to enable all intelligent-level vehicle-mounted micro-grid agents in the formation vehicle-mounted power interconnection system to mutually cooperate to complete tasks, a perfect control structure must be established to control all vehicle-mounted micro-grid agents to cooperatively work so as to realize system energy management, however, an efficient formation vehicle-mounted power interconnection system energy management method is lacked in the prior art. Disclosure of Invention The invention provides a MAS-based energy management method for a formation vehicle-mounted power interconnection system, which can quickly generate an optimal MAS-based energy management scheme for the formation vehicle-mounted power interconnection system. The method specifically comprises the following steps: Determining a vehicle-mounted micro-grid Agent of a formation vehicle-mounted power interconnection system, wherein the formation vehicle-mounted power interconnection system comprises a master micro-grid and a plurality of slave micro-grids; Dividing the vehicle-mounted micro-grid Agent into a global energy management and scheduling Agent with formation energy management capability and a residual function Agent according to functions, wherein the global energy management and scheduling Agent of the dominant micro-grid controls global energy management and scheduling of the whole distributed formation vehicle-mounted power interconnection system through interaction with other agents in the formation; Constructing a micro-grid energy management and scheduling device, which is used for generating an energy management and scheduling scheme which is constructed according