FOR INVESTORS

A Structural Leverage Point in Billion-Dollar Power Markets

Global electrification is accelerating across:

• Electric vehicles

• Battery energy storage systems (BESS)

• Fast charging infrastructure

• Industrial DC networks

• Hydrogen platforms

These are multi-billion-dollar markets — and still growing.

Yet one critical component remains fundamentally unchanged:

The rigid switching contact.

The Structural Constraint No One Replaced

As current density increases, rigid contacts require:

• higher mechanical force

• larger housings

• more complex arc management

• heavier system architecture

This increases:

• cost

• validation cycles

• warranty exposure

• engineering time

The industry has optimized around this constraint —
but has not removed it.

Rigid contact physics scales poorly with modern power density.

The Architectural Shift

Elastic composite contacts change the interface itself.

Instead of fighting overheating with force,
they prevent current concentration structurally.

This enables:

• 1.5–2× nominal current increase within the same footprint

• reduced mechanical force requirements

• simplified system architecture

• improved reliability margins

The contact becomes a performance enabler rather than a bottleneck.

Why This Creates Margin

High-current switching is:

• safety-critical

• certification-heavy

• performance-defining

When a component:

• increases rating without enlarging the housing

• reduces warranty and fire risk

• improves lifetime stability

it commands pricing power.

This is not a commodity copper disc.

It is an architecture-defining module.

Architecture control drives margin control.

Time-to-Market Advantage

The technology integrates into existing platforms with minimal process changes.

Only one additional manufacturing step is required.

This allows:

• platform upgrades instead of full redesign

• shorter validation cycles

• faster deployment into high-growth segments

In EV and BESS markets, development speed directly impacts market share.

Reducing redesign cycles creates measurable economic value.

Defensibility

This is not merely material science.

It combines:

• structural architecture

• surface activation know-how

• controlled impregnation processes

• manufacturing integration methodology

The barrier to entry is not only intellectual property —
it is process knowledge and industrial implementation expertise.

Once integrated into an OEM platform,
replacement switching becomes structurally unlikely.

Why Timing Is Critical

Power systems are scaling toward:

• higher discharge currents in EV platforms

• ultra-fast charging

• larger BESS modules

• higher-density hydrogen switching

Rigid contacts will increasingly constrain system design freedom.

Manufacturers that adopt structural interface solutions early gain:

• higher power density

• lower system mass

• improved reliability perception

• stronger competitive positioning

Structural advantages compound across product generations.

Late adopters inherit architectural limitations.

Asymmetric Upside

The cost of the contact is a small fraction of total system value.

But it defines:

• rating ceiling

• thermal margin

• reliability exposure

• warranty risk

Small interface changes unlock disproportionately large system advantages.

This is leverage.

In power systems, leverage exists at the interface.

Elastic composite contacts sit precisely at that leverage point.

Investment Thesis

This is not incremental improvement.

It is structural enablement.

The opportunity is to supply a core performance module
for billion-dollar electrification markets
with premium margins, scalable integration, and defensible architecture.

When power density increases globally,
the interface becomes the strategic choke point.

Owning the solution to that choke point creates long-term value.