top of page

Rewriting the Rules of Battery Design

The Science Behind

Superior Performance

 

Our batteries use a proven vanadium-based chemical process. The electrolyte is embedded in a porous solid structure and managed by a high-performance separator, eliminating complex control systems. The result is a compact, stable, and low-maintenance energy storage solution.

This design delivers high power, thermal stability, and long service life.

Rewriting the Rules of Battery Design

The Science Behind Superior Performance

Our batteries use a proven vanadium-based chemical process. The electrolyte is embedded in a porous solid structure and managed by a high-performance separator, eliminating complex control systems. The result is a compact, stable, and low-maintenance energy storage solution.

 

This design delivers high energy density, extremely low self-discharge, and long service life.

THIS IS HOW

WE COMPARE

Solid-state

Solid porous electrolyte base improves safety and reliability.

Protons, beyond ions

Delivering high C-rate and fast response.

No rare earths

Supporting better recyclability and resilient local supply chains.

Bi-polar design

Enabling scalability through stacked cell architecture.

Comparison table-vssb-lfp-vrf.png

We are advancing Battery Architecture and Performance

Learn how VSSB technology is deployed today and explore its real-world applications.

winter field with energy storage containers_edited.png

Rewriting the Rules of Battery Design

Power, Reinvented

Not all batteries are built the same. Our chemistry delivers safety and longevity far beyond lithium-based technologies.

VSSB graph.png

The Breakthrough of VSSB

Inherent Stability: Solid-state design eliminates physical stress and degradation.

Extreme Longevity: Built as permanent infrastructure with no moving parts to wear out.

Simplicity & Efficiency: No need for complex external cooling or management systems.

LFP graph.png

The Challenges of LFP

Complex Construction: Multi-layered system prone to physical stress.

Faster Degradation: Physical intercalation of ions causes cumulative damage over time.

Heat Generation: Requires costly and complex external thermal management systems.

Rewriting the Rules of Battery Design

Power, Reinvented

Not all batteries are built the same. Our chemistry delivers safety and longevity far beyond lithium-based technologies.

VSSB graph.png

The Breakthrough of VSSB

Inherent Stability: Solid-state design eliminates physical stress and degradation.

Extreme Longevity: Built as permanent infrastructure with no moving parts to wear out.

Simplicity & Efficiency: No need for complex external cooling or management systems.

LFP graph.png

The Challenges of LFP

Complex Construction: Multi-layered system prone to physical stress.

Faster Degradation: Physical intercalation of ions causes cumulative damage over time.

Heat Generation: Requires costly and complex external thermal management systems.

Partner in Our Growth

Reach out to our team to discuss partnership opportunities, long-term vision, and growth potential.

bottom of page