In the fields of geology, energy, engineering, and disaster warning, accurately predicting the behavior of underground rock masses remains a persistent industry challenge. Traditional methods, often constrained by model simplifications and computational limitations, struggle to realistically simulate complex geological processes such as mechanical behavior, seepage, and tectonic evolution. Today, GridWorld, with its independently developed geoscience numerical simulation and analysis technology, breaks through these barriers, enabling large-scale, high-precision numerical simulations of models with arbitrarily shaped meshes. This provides robust technical support for the scientific understanding and safe utilization of underground spaces.

Finite Element-Based, Oriented Toward Real-World Geology
GridWorld’s geoscience numerical simulation technology, rooted in finite element principles, possesses the robust capability to handle large-scale, heterogeneous, and structurally complex 3D geological models. Whether dealing with intricate faults, interbedded strata, or fracture-developed reservoirs, this technology enables high-precision meshing and numerical analysis, faithfully restoring the spatial attributes of geological formations. It propels geoscience analysis from "qualitative inference" to "quantitative simulation."

Three Core Simulation Capabilities, Covering Key Geoscience Scenarios

1. Solid Mechanics Simulation: Visualizing Subsurface "Stress Trajectories"
Supports detailed calculation of displacement, stress, and strain distributions in 3D geological models under external loads, rock mass self-weight, tectonic stress, and other forces. Applicable to:
(1) Slope stability evaluation and landslide warning
(2) Deformation analysis of surrounding rock in tunnels and roadways
(3) Prediction of reservoir compaction and surface subsidence during oil and gas reservoir development
(4) Assessment of rock strata movement induced by mining activities

2. Seepage Simulation: Tracking Subsurface "Water Pathways"
Enables precise simulation of groundwater seepage fields, pressure fields, and migration patterns in large, complex geological structures. Suitable for:
(1) Groundwater resource assessment and flow path analysis
(2) Prediction of contaminant diffusion in groundwater
(3) Research on seepage mechanisms in oil and gas reservoirs and optimization of development plans
(4) Seepage stability analysis for dam foundations and reservoir areas

3. Structural Restoration Simulation: Recreating Billions of Years of "Geological Transformation"
Through simulation of tectonic evolution restoration of geological bodies, this capability reveals dynamic processes such as basin evolution, fault development, and stratigraphic denudation, with support for full-process 3D dynamic visualization. Applicable to:
(1) Basin analysis and reconstruction of hydrocarbon accumulation processes
(2) Research on tectonic evolution history
(3) Geological education and science communication

Industry Application Value
GridWorld’s technology has been widely applied in sectors such as oil and gas exploration and development, mining geology, hydraulic engineering, urban geology, and geological disaster prevention, offering clients:

Solution Optimization: Pre-simulating various scenarios before project implementation to reduce construction risks

Cost Control: Replacing certain physical experiments with simulations to save on exploration and testing investments

Decision Support: Providing scientific basis for resource evaluation, hazard assessment, and environmental management

Results Presentation: Intuitive and clear 3D dynamic simulation outcomes, facilitating reporting and communication

From rock mechanics to groundwater, from static analysis to dynamic evolution, GridWorld remains committed to deeply integrating cutting-edge numerical simulation technology with geoscience practices. We empower enterprises and research institutions to "see through strata, warn of risks, and optimize decisions." In the future, we will continue to refine our technological systems, expand application ecosystems, and collaborate with industry peers to advance the digital and intelligent transformation of geoscience, safeguarding resource security and fostering a harmonious development paradigm between humanity and the Earth.