The invention provides a complex geothermal
system digital twinning online experiment method based on multi-
source data deep fusion, and solves the problems of precise construction of geothermal
system digital twinning and low-
delay visualization of virtual-real interaction. The method comprises the following steps: firstly, building a typical
geothermal reservoir multi-source heterogeneous data parallel acquisition
system, and carrying out fine inversion, high-precision identification and continuous correction on
geothermal reservoir parameters by using a large amount of
field experiment test data; then, a complete
physical model of the geothermal system is established, online
simulation is conducted on an actual system through high-performance scientific calculation, and mutual calibration is conducted on the actual system and
test data; and finally, building a geothermal system digital twinning on-line experiment platform based on real-time acquired
test data, a reliable mechanism model and an
artificial intelligence method, and realizing accurate measurement and on-line monitoring of a geothermal exploitation process and iterative evolution of a
geothermal reservoir exploitation scheme. According to the method, multi-
source data of the geothermal system are deeply fused, high-precision online
simulation and low-time-
delay virtual-real interaction in the geothermal experiment process are achieved, and geothermal storage and exploitation details can be comprehensively transparentized. And furthermore, intelligent and rapid inversion is performed on the multi-scale seepage and
heat transfer process of the geothermal reservoir by carrying out a virtual online experiment, so that the scientificity and efficiency of full-life-cycle geothermal exploitation are greatly improved. Meanwhile, a multi-agent collaborative optimization regulation and control framework provided by the method has relatively high expandability and flexibility, and an optimal well spacing design scheme and an optimal experiment scheme of the geothermal well group can be automatically excavated through
adaptive optimization and iterative evolution of a system regulation and control strategy; and the method has a very strong application prospect in the distributed optimization field of the geothermal storage
virtual experiment.