View source for Northeastern University (20240319047). ULTRA-LARGE PHYSICAL SIMULATION FACILITY FOR DEEP ENGINEERING DISASTERS simplified abstract

=ULTRA-LARGE PHYSICAL SIMULATION FACILITY FOR DEEP ENGINEERING DISASTERS=


==Organization Name==

[[:Category:Northeastern University|Northeastern University]]


[[Category:Northeastern University]]

==Inventor(s)==

[[:Category:Xiating Feng of Shenyang City (CN)|Xiating Feng of Shenyang City (CN)]][[Category:Xiating Feng of Shenyang City (CN)]]

[[:Category:Xiwei Zhang of Shenyang City (CN)|Xiwei Zhang of Shenyang City (CN)]][[Category:Xiwei Zhang of Shenyang City (CN)]]

[[:Category:Lei Shi of Shenyang City (CN)|Lei Shi of Shenyang City (CN)]][[Category:Lei Shi of Shenyang City (CN)]]

==ULTRA-LARGE PHYSICAL SIMULATION FACILITY FOR DEEP ENGINEERING DISASTERS - A simplified explanation of the abstract==


This abstract first appeared for US patent application 20240319047 titled 'ULTRA-LARGE PHYSICAL SIMULATION FACILITY FOR DEEP ENGINEERING DISASTERS

==Simplified Explanation==
The patent application describes an ultra-large physical simulation facility for deep engineering disasters, including various systems and technologies for complex geological models and deep mining environments.

==Key Features and Innovation==
* Long-time large-load loading system for geological models
* 3D printing system for deep oil, gas, and water multiphase multi-component complex geological body models
* High-temperature-chemical-multiphase fluid collaborative injection, monitoring, and control system
* Robot excavation and monitoring system for complex engineering structures in deep geological environments
* Intelligent ventilation system for deep metal mine drilling, mining, and transferring networks

==Potential Applications==
The technology can be applied in disaster preparedness, mining operations, geological research, and engineering simulations.

==Problems Solved==
This technology addresses the need for advanced systems to simulate and monitor deep engineering disasters and complex geological environments.

==Benefits==
The benefits of this technology include improved safety measures, enhanced monitoring capabilities, and better understanding of deep geological structures.

==Commercial Applications==
Title: Advanced Simulation Facility for Deep Engineering Disasters
This technology can be commercially used in mining companies, geological research institutions, disaster response agencies, and engineering firms.

==Prior Art==
Further research can be conducted in the field of deep engineering disaster simulation facilities and advanced monitoring systems for geological models.

==Frequently Updated Research==
Researchers are continuously working on improving the efficiency and accuracy of the systems used in deep engineering disaster simulations.

==Questions about Ultra-Large Physical Simulation Facility for Deep Engineering Disasters==
===What are the potential real-world applications of this technology?===
The technology can be applied in disaster preparedness, mining operations, geological research, and engineering simulations.

===How does this technology improve safety measures in deep engineering disasters?===
This technology enhances monitoring capabilities and provides a better understanding of deep geological structures, leading to improved safety measures.


==Original Abstract Submitted==

provided is an ultra-large physical simulation facility for deep engineering disasters, including a long-time large-load loading system for a geological model, a 3d printing system of a deep oil, gas and water multiphase multi-component complex geological body model, a high-temperature-chemical-multiphase fluid collaborative injection, monitoring and control system, a robot excavation and monitoring system for a complex engineering structure in a model under deep geological environment, an intelligent ventilation system for a deep metal mine complex drilling, mining and transferring network, an intelligent filling system for a deep metal mine ultra-large stope, a deep-well enhanced geothermal safe intelligent mining system, an all-spatial-temporal intelligent high-precision monitoring system for an excavation and fracture process of a large-scale geological model, and an ultra-large multi-task intelligent collaborative main control and digital twin system for physical simulation tests.



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[[Category:E21F17/00]]
[[Category:CPC_G01M99/005]]