An optimized operation method, system, equipment and medium of a combined electric heating system
A technology of combined systems and optimized operation, applied in the field of integrated energy system optimization, can solve problems such as affecting the accuracy of the solution, difficulty in solving, etc., to achieve the effects of strong spatial exploration, overcoming long computing time, and improving generation speed.
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Embodiment 1
[0127] In the technical solution provided by the embodiment of the present invention, an optimal scheduling model of the combined electric heating system based on the multi-agent deep deterministic strategy gradient is constructed to realize the multi-energy coordinated optimal scheduling of the combined electric heating system. Compared with the traditional model, it effectively solves the sequence decision-making problem in the continuous control process, avoids the disadvantages caused by the use of discrete action spaces, and only needs to know the local state information of each agent to complete their respective strategy calculations, and solves the problem of different agents. data sharing issues. In addition, combined electric heating system (such as described in the following literature, [1] Wang Weiliang, Wang Dan, Jia Hongjie, etc. A review of steady-state analysis of typical regional comprehensive energy systems under the background of energy Internet [J]. Chinese J...
Embodiment 2
[0134] Based on Example 1 above see image 3 Optionally, in the embodiment of the present invention, the combined electric heating system includes: a conventional generator set, a wind turbine, a combined heat and power device, etc.; wherein, G1 and G2 represent conventional generator sets, which are responsible for supplying electric loads in the system; W1 represents a wind turbine , the influence of its maximum output, wind speed, etc. is random, and its maximum output needs to be obtained according to the forecast results; CHP1, CHP2 represent cogeneration devices, which can supply the internal heat load of the system while supplying the electrical load in the system; load1, load2, load3 represents the electric load in the system; Hload1, Hload2, and Hload3 represent the heat load in the system.
[0135] For explanatory purposes, since the combined electric heating system is already an existing technology (refer to the references given above), a brief description is given ...
Embodiment 3
[0137] Based on Example 1 above see Figure 4 and Figure 5 , optional in the embodiment of the present invention, the multi-agent deep reinforcement learning model such as Figure 4 As shown, including: basic elements such as agent, environment, action, state and reward function.
[0138] The internal structure of the agent is as Figure 5 As shown, each agent is composed of a strategy (Actor) network and a value function (Critic) network. The agent perceives the state (s) from the environment, and the state set is input into the strategy network, and the strategy of the agent is obtained through the neural network calculation. , outputs all actions (a) of the agent in a given state. Specifically, the present invention divides the power system and the thermal system into two agents in the above model respectively.
[0139] Environment: Contains basic mathematical models of energy flow in electrical and thermal systems.
[0140] Exemplarily, regarding the power system mod...
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