Advanced Modeling Techniques

Our approach involves using state-of-the-art computational models to simulate how different components of the power transmission system will behave in space. This includes:

1
Optical Modeling

Designing the laser optics to ensure precise power delivery over long distances, even under challenging conditions such as atmospheric distortion or space radiation.

2
Thermal Management

Modeling how heat will be generated and dissipated within the power conversion units, a critical factor in ensuring system stability and long-term performance.

3
Energy Efficiency Optimization

Using simulations to analyze how different material properties and device configurations can lead to the highest possible energy conversion efficiency.

Simulation-Driven Development

Our modeling efforts are not just about predicting outcomes but actively shaping the design process. By simulating different scenarios, we can quickly identify potential bottlenecks and adjust our designs to overcome them, without the need for costly physical prototypes.

Iterative Design Process
Iterative Design Process

Each simulation run provides data that informs the next iteration of the design, allowing us to continuously refine our approach.

Multiphysics Simulations
Multiphysics Simulations

We combine electrical, thermal, and optical simulations to understand the full spectrum of interactions in our system, ensuring a robust and integrated design.

Collaboration and Expertise

Our research and modeling team is composed of experts in material science, optics, and space engineering. By working closely together, we ensure that all elements of the power system - from laser emitters to power converters - are optimized for the unique demands of space environments.

Outcomes and Impact

The Research and Modeling phase will culminate in a comprehensive system design that balances efficiency, reliability, and sustainability. These models lay the foundation for the subsequent phases of material growth, device fabrication, and system testing, ensuring that the final product is not only functional but revolutionary in its capabilities.

Our Approach to Innovation

Explore Our Other Pillars

By using advanced modeling techniques, RePowerSiC is driving innovation forward, reducing risk, and paving the way for successful implementation in real space missions.

Discover the other aspects of our structured and iterative approach, focused on research, development, and validation of our laser power transmission system.

Material Growth and Device Fabrication
Developing high-quality SiC materials and fabricating laser power converters tailored to space environments.
System Integration and Testing
Testing the integrated system under realistic laboratory conditions, simulating the extreme environments of space.