Innomin Digital Twin
A new way to visualize and simulate industrial processes
The Digital Twin work within the INNOMIN project focuses on developing advanced solutions for measurement data visualization and virtual environments. The goal is to create highly realistic and interactive representations of industrial processes by combining 3D modeling, physics-based simulation, and intelligent data integration.
The project emphasizes the creation of digital environments that accurately replicate real-world systems, enabling analysis, testing, and communication of complex processes. These solutions support industrial development by transforming measurement data into visual, interactive, and meaningful representations.
Traditional analysis and presentation methods often rely on static models or limited visualizations. The INNOMIN Digital Twin approach addresses these limitations by developing dynamic simulation environments where users can observe, interact with, and better understand system behavior in real time.
Usability
The developed solutions enable users to explore industrial environments through detailed 3D models and interactive systems. Key components include modeled machinery, facility environments, material systems, photogrammetry-based breakable ore models, and conveyor processes, all integrated into a unified virtual space.
Measurement data and modeled elements are combined into realistic digital twins, allowing users to observe processes such as material movement, fragmentation, and system interactions. Physics-based simulation enables accurate representation of behavior, improving understanding of operational dynamics.
To ensure visual and material accuracy, different ore types have been modeled using photogrammetry. This approach allows real-world samples to be captured and reconstructed into highly detailed digital assets, preserving surface structure, texture, and variation between material types.
Users can interact with the system through intuitive interfaces, including adjustable parameters, control panels, and camera systems. Multiple camera perspectives and presentation modes allow both free exploration and guided visualization of processes.
In addition, cinematic visualization and presentation features are used to communicate system functionality. Camera paths, animations, and narrative elements are integrated to create clear and engaging demonstrations of complex processes.
Software Creation
The development work focuses on building a complete digital twin environment that integrates visualization, simulation, and interactivity. This includes detailed 3D modeling of machinery, environments, materials, and photogrammetry-based ore assets, as well as the implementation of animation systems and lighting solutions.
Physics-based systems are developed to simulate material behavior, including movement, collisions, and fragmentation. Different modeling approaches are combined to achieve both realistic and computationally efficient results.
Photogrammetry plays a key role in the content creation pipeline, enabling the generation of realistic ore models that are directly based on captured physical samples. These models are further processed and optimized for use in simulation and visualization environments.
Interactive components form a central part of the system. These include user interface elements, control logic for machinery, adjustable system parameters, and real-time feedback mechanisms. The goal is to enable users to actively test and explore system behavior.
The project also includes the development of presentation systems, combining camera logic, video sequences, and narrative content. Features such as presentation modes, recorded narration, and executable builds support both demonstration and practical use.
Future Development
Future work focuses on refining the realism, performance, and usability of the digital twin environment. This includes further development of physics-based simulation, optimization of system performance, and enhancement of interaction systems.
Upcoming improvements include more advanced material behavior models, expanded datasets, and improved integration of measurement parameters into the system. Additional work will also focus on localization, usability enhancements, and broader platform support.
The project will continue to develop presentation capabilities, including finalized narrative content, voice integration, and polished visual outputs. Deployment solutions such as executable builds and streaming-based access are also being explored.
Overall, the INNOMIN Digital Twin aims to create scalable and adaptable solutions that can be applied across different industrial contexts.
Download
The software is currently under development. An executable version will be made available once testing and finalization have been completed, along with suitable distribution and deployment options.
