PolyPower HSA Structured Electrode
Solid-State · Structured Electrode

We don't mix the electrode. We build it.

Every conventional electrode is a random pile of particles — and you cannot manufacture your way out of randomness. PolyPower HSA replaces that pile with tens of thousands of ordered pores per square centimeter, designing lithium's failure mode out of the cell, on manufacturing that already exists.

39,000pores/cm²
Ordered, not random
~10×power ceiling
Modeled vs today's cells
3patents
Foundational, filed int'l
Licensemodel
Ride existing factories
The Hard Cell

The chemistry works in the lab. The factory is where it dies.

By Scientific American's count, at least 14 Western battery startups have failed trying to reach automotive scale — stranded at the same gap: the distance between a cell that works on the bench and a line that can build a million of them. The magazine calls it the hard cell.

The problem was never the chemistry. It's what happens at scale, inside the electrode. Lithium doesn't plate evenly — it crowds into hot spots, grows sharp metal fingers called dendrites, and punches through the barrier that keeps a battery from failing. The field's two front-runners are chasing the same finish line from opposite sides, and both run into the truth the article lands on.

The Wedge

Everyone is fighting chemistry. We changed the geometry.

QuantumScape
Ceramic solid electrolyte
The best material properties on paper — but a brittle ceramic that is punishing to manufacture at scale.
Factorial
Polymer electrolyte
Easier to build on existing equipment — but still fighting the same unstable lithium interface.
PolyPower HSA
Architected electrode
Structured porous polymer
Stops the dendrite by geometry, not by a fragile new material — and rides the manufacturing that already exists.

In solid state, the winner isn't whoever has the best cell. It's whoever can actually make it.

The Architecture

Randomness, replaced by architecture.

Instead of asking "what new material do we pour in?", PolyPower asks "what if we stopped mixing the electrode and built it?" The answer is a structured, porous polymer electrode — order where the industry has only ever had chaos.

CONVENTIONAL — RANDOM anode cathode dendrite → short POLYPOWER HSA — ORDERED caged by geometry straight 10µm channels · walls carry current + plate Li
Schematic — not to scaleFailure mode designed out
  • 01
    39,000 ordered pores / cm². Straight, ten-micron channels running top to bottom — architecture where every other electrode has a random pile.
  • 02
    Every wall does double duty. The channel wall carries the current and is the surface lithium plates onto — even plating instead of hot spots.
  • 03
    The dendrite is caged. Inside a confined pore, a dendrite has nowhere to run before it's contained — stopped by geometry, not by a fragile ceramic hoping to hold the line.
  • 04
    It's a way to fabricate, not a new chemistry. So it's built to ride the factories that already exist — the exact wall the industry keeps hitting.
The Evidence

The model is striking. The bench is the next milestone.

We say the model out loud. Every projection below is cell-level and modeled; the proof-of-concept receipts are measured in the inventor's own cells. Nothing here is dressed up as more than it is.

~6×
Less activation loss
Ordered channels cut the energy lost the moment current flows.
Modeled
~10×
Higher limiting current
Roughly an order of magnitude more current before the electrode hits its wall — as geometric current over the high-surface-area structure.
Modeled
~10×
Power ceiling vs today
The structured electrode holds its voltage where random electrodes stall.
Modeled
250+ cycles · <10% fade
Held across hundreds of the inventor's proof-of-concept cells. Measured, not simulated — the strongest possible complement to the model.
Measured · Proof of concept

Behind the data: eight years of privately funded R&D by the inventor, three foundational patents, and proof-of-concept cells already in hand.

Modeled figures are cell-level, before pack-level losses, and are not yet bench-measured; current densities are geometric (areal) over the structured electrode, and independent bench validation is the next milestone. Proof-of-concept results are from the inventor's own cells. Market and capacity figures are cited from Scientific American and the IEA. This page is for discussion with prospective partners and investors and is not an offer to sell or a solicitation to buy any security.

Why Now

The West needs an edge it can actually build.

China makes over 80% of the world's lithium-ion cells (IEA) — and in October 2025 placed export controls on high-energy-density batteries, battery-manufacturing equipment, and graphite anode materials. For defense, aerospace, and autonomy, the West doesn't just want an advantage in energy storage — it needs one, and it needs one that can be manufactured at home.

China
80%+
Rest of world
<20%
Share of global lithium-ion cell production · IEA

A technology that rides existing factories isn't just cheaper to scale — it's the only kind the West can stand up fast enough to matter.

The Opportunity

Three patents. A geometry problem. Structured to license.

  • Three foundational patents, filed internationally.
  • A licensing and royalty model — ride the factories the world already has, not replace them.
  • Capital funds independent bench validation — taking the architecture from validated model to proven cell.
  • A market projected to approach $500B by the mid-2030s, and a supply chain the West urgently needs to re-shore.

Let's build the electrode the future runs on.

The science is here to be pressure-tested. Read it, challenge it — then let's talk.

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