ThriVolt Energy
Passive Thermal Architecture
For India's extreme-heat battery problem
THE CHALLENGE
The Extreme Heat Reality
Extreme ambient heat across India is destroying battery infrastructure and costing industries crores annually. Current passive cooling fails at 40°C. Active cooling breaks down in remote, dusty environments. Liquid cooling adds massive overhead and maintenance that field conditions cannot sustain.
THE SOLUTION
Dual-Zone Cascaded
Architecture
A fully passive cooling system delivering near-active-cooling performance. An inner-zone metal matrix absorbs cell heat laterally. A Copper separator plate isolates the inner thermal zone. An outer-zone environmental shield matrix blocks external heat. Aluminium casing radiates the remaining energy.
PROVEN PERFORMANCE
Simulation Validated
Rigorous ElmerFEM and PyBaMM multiphysics simulations prove outperformance across all critical safety and longevity parameters. The architecture survives conditions where every competitor fails.
ARCHITECTURE COMPARISON
| Metric | ThriVolt Dual-Zone | Active Liquid Cooling | Standard Passive |
|---|---|---|---|
| 55°C Ambient Survival | Pass (No Throttling) | Pass (Heavy Throttling) | Fails / Runaway |
| Parasitic Power Draw | 0.0 W | 500W – 1.5kW | 0.0 W |
| Moving Parts | 0 | Pumps, Fans, Valves | 0 |
| Field Maintenance | Zero | High (Coolant/Filters) | Zero |
| Cell-to-Cell ΔT | < 1.5°C | ~3.0°C (Flow Variance) | > 5.0°C (Hotspots) |
BUSINESS MODEL
Sequenced Market Entry
Scalable unit economics driven by phased revenue streams. Low certification risk first to establish revenue, maximum Total Addressable Market second.
LEADERSHIP
The Team
Material science, thermal modelling, and IP strategy. The architect behind the dual-zone cascaded PCM architecture.
R&D leadership and product architecture. Translating simulation-validated designs into manufacturable products.
Supply chain, sourcing, procurement, and quality control. Building the operations backbone for scale.
