In the past, geologists had to infer underground conditions from scattered drilling data, seismic profiles and logging curves, struggling to form a holistic understanding. Today, Grid World's visualization platform has realized the first full 3D Web-based visualization and sharing of coal mine geological environments. Geological models are no longer confined to professional workstations, but can be accessed, analyzed and collaborated on anytime and anywhere via a browser.

6 Key Highlights Redefining Geological Visualization

1. Web-based Visualization and Sharing of the Mine Geological Support System

This innovation has completely transformed the application of geological data. Whether managers in the office or technical personnel underground, all can view the same high-precision 3D geological model through a regular browser, enabling real-time data synchronization and collaborative decision-making.

2. Visual Construction of Hazard Analysis Scenarios

The system supports users in customizing hazard analysis scenarios. For roof collapse, rock burst, water inrush accidents and other hazards, it can simulate their evolution processes in a 3D environment, helping technical personnel identify risk areas in advance and formulate scientific prevention and control plans.

3. Three-dimensional Visualization of Hazard-causing Factors for Gas Emission and Water Inflow

Through multi-source data fusion, the system can intuitively display the correlation between gas-rich zones and hydrogeological conditions, converting the originally abstract "gas emission volume" into a visual 3D field distribution, and providing precision target areas for gas control.

4. Transparent Process for the General Survey of Fault-induced Hazard-causing Factors

Traditional fault surveys often suffer from non-transparent results and non-traceable processes. Now, Grid World's system fully records the entire process from data collection and interpretation to modeling, with visual support for every step, greatly improving the accuracy and efficiency of fault identification.

5. Multi-dimensional Presentation of Hazard-causing Factors in Complex Faults

For interlaced and scattered complex fault systems, the platform provides multi-scale and multi-attribute visualization methods. Users can zoom in step by step from the regional scale to the working face scale, and view multiple attributes of faults such as geometric morphology, mechanical properties and activity simultaneously.

6. 3D Scenario Simulation of Gas Drainage Units in Coal Mine Working Faces

Targeting the key link of gas drainage, the system constructs a full-process 3D scenario covering borehole design, construction and effect evaluation. Engineers can optimize borehole layout schemes and predict drainage effects in a virtual environment, significantly improving the precision of gas control.

Technology Empowerment Driving the Digital Transformation of Mines

Grid World's geological environment visualization technology is more than a simple "3D display" — it is an interdisciplinary integration platform that fuses geological modeling, numerical simulation, big data analysis and virtual reality. It is helping coal mining enterprises to:

· Achieve geological transparency and reduce exploration blind spots

· Enhance hazard early warning capabilities and ensure work safety

· Optimize mining design and improve resource recovery rates

· Lower communication costs and boost decision-making efficiency

In the wave of digital transformation, this ability to "see through the Earth" is becoming the core infrastructure for smart mine construction. With the further integration of 5G, IoT and AI technologies, geological visualization in the future will be smarter, more real-time and more immersive.

As the underground world becomes clearly visible, the "black box" of coal mine work safety is thus unlocked. Through technological innovation, Grid World has not only equipped geologists with more powerful tools, but also driven the entire mining industry toward a safer, more efficient and more sustainable future.