Formalization of the Burning Process of Virtual Reality Objects in Adaptive Training Complexes

Area of Science:

• Computer Science
• Simulation and Modeling
• Virtual Reality

Background:

• Existing mathematical models for physical processes like burning are not optimized for adaptive training complexes.
• Complexity of current models leads to increased costs and reduced productivity in training simulations.

Purpose of the Study:

• To develop an adapted mathematical model for formalizing the physical processes of virtual object burning.
• To enable efficient implementation of complex physical phenomena in adaptive training environments.

Main Methods:

• Formalization of virtual object structure, properties, and state changes during burning.
• Utilizing threshold value diagrams and state-change rules for virtual reality objects.
• Applying the model to scenarios from flame development to complete destruction or extinguishment.

Main Results:

• A novel mathematical model that accurately formalizes virtual burning processes.
• Demonstrated applicability to various physical phenomena including smoke and toxic gas spread.
• Successful integration into virtual and augmented reality simulators.

Conclusions:

• The proposed formalization approach enhances the efficiency and cost-effectiveness of adaptive training complexes.
• The methodology is versatile and can be applied to a wide range of physical processes in simulators.
• This research supports the development of advanced training for professional ergatic systems.