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Computer-Aided Design

       Designed to perform. Proven through simulations.

SynLayer
Validation

SynLayer has been validated through Ansys simulations—micrometeoroid impacts, self-healing, Layer 3 tests, optical transparency, dust accumulation and full-space environment modeling—proving it works. 

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Simulation 1

Micrometeoroids

We simulated micrometeoroid impacts using particles from 200 µm to 1 mm, traveling at speeds of 7–20 km/s and striking at multiple angles. 

SynLayer achieved 100% protection across all tests.
All impact damage was absorbed by Layer 2, while no failures occurred in the protected inner layers .

 

Simulation 2

Self-Healing in Layer 2

Under a severe impact of 1 mm at 20 km/s, the material’s strength dropped to 20%—but rapidly recovered to 85% after the first healing cycle.
Over three cycles, it consistently maintained above 75% strength, while achieving over 90% crack closure, demonstrating strong and sustained self-repair.

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Simulation 3

Sensing in layer 3

We tested Layer 3 under flexural deformation to evaluate its sensing response.

As displacement increased from 1 mm to 10 mm (increasing strain), the signal rose from 58% to over 92%.

This shows the system has high sensitivity to strain, allowing it to detect structural damage early and in real time.

Simulation 4

Thermal Expansion

We tested SynLayer under extreme space temperatures, from -150°C to 120°C, to simulate real orbital conditions. The most challenging case was extreme cold, where stress and deformation increased by about 75%. However, the system still performed reliably—deformation remained low (~0.099 mm) and stress stayed within safe limits (36.35 MPa).

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Simulation 5

Optical Transparency

The outer layer (Layer 1) is nearly fully transparent, allowing 99.7% of light to pass through with minimal loss.

For the full system, the original target was >85% transmission, and the result achieved was 67.6%. While lower than expected, this level remains sufficient to deliver energy to the solar layer.

Simulation 6

Dust Removal

Layer 4 uses electric fields to actively lift and move dust off the surface. As voltage increases from 800 V to 1200 V, the force strengthens from about 1.3 × 10⁷ to 2.1 × 10⁷ V/m, making removal faster and more effective. At 1200 V, the system removes 85% of dust in just 0.25 seconds, and up to 99.6% in 0.75 seconds after three cycles.

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                    Curious to see more? Explore the full
                                        simulations with us.

Get in Touch

Shivam:407-784-5886

Xaviera: 593 99-888-5330

xavierabueno@gmail.com

shivamsummer22@gmail.com

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