01
Quasi-solid electrolyte
A proprietary polymer-ceramic matrix replaces volatile liquid electrolyte — non-flammable, room-temperature-stable, and printable on conventional roll-to-roll lines.
QUEST — Ultra-high energy density SSB.
QpiVolta Ultra-high Energy-density SSB Technology — quasi-solid-state lithium-metal pouch cells, built on the equipment that already manufactures the world's lithium-ion batteries.
Performance
The numbers, at the cell.
Specific energy450 Wh/kgProjected · NMC composite
10 → 80% charge15 min
Cycle life1,000+Gen 2 target · Q2 2028
Operating windowUp to 70 °C
The energy / safety frontier.
Every prior chemistry trades one for the other — gain density, lose safety, and vice versa. Quasi-solid-state lithium-metal moves the boundary itself, opening territory no liquid-electrolyte cell can reach.
02 — Technology
A cell, reconceived from its chemistry up.
Three breakthroughs, in series. Together they unlock the energy density step-change the industry has spent two decades pursuing — without the manufacturing dead-ends that derailed earlier solid-state efforts.
02
Lithium-metal anode
We replace graphite with pure lithium, the highest-density anode chemistry physically possible. Two times the gravimetric energy in the same form factor.
03
Drop-in manufacturable
Cells are built on existing pouch lines — no exotic vacuum, sintering, or solid-electrolyte deposition. The path to scale is already paved.
Anatomy
Five layers.One drop-in cell.
Scroll to open the cell — every layer is engineered to be made on the equipment that already builds the world's lithium-ion batteries.
01Anode current collectorCopper foil with QpiVolta surface treatment for uniform Li plating.
02Ultra-thin lithium-metal anode10× the theoretical capacity of graphite, at a fraction of the thickness. Stable where conventional Li-metal fails.
03Quasi-solid electrolyteCeramic-polymer composite. Suppresses dendrites without the cost of a true solid stack.
04Composite cathodeNMC / LFP / LMFP — high-nickel chemistries blended with proprietary catholyte for room-temperature ion transport.
05Cathode current collectorAluminum foil — drop-in compatible with existing roll-to-roll lines.
Open the cell
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02 — The cell
Built for the world it’s going into.
Three automotive-grade form factors, all in production today. Drop-in compatible with existing pack architectures from EV platforms to grid storage.
Hover a cell to inspect— —
QpiVolta cells
Each cell is built on the same quasi-solid-state platform — different geometries, identical chemistry.
Capacity—
Voltage—
Cycle life—
Stage—
QPV / CELLSREV. 04 — 20263 FORM FACTORSSCALE 1:1
Roadmap
QUEST to commercialization, Gen by Gen.
From first 2 Ah sample to 20 Ah commercial cell — released on the same quasi-solid-state platform, validated on our pilot line.
- 2027SampleQUEST_Gen 1Pouch · sample stage
- Capacity
- 2 Ah
- Cycles
- 750
- Notes
- Validation phase
First QUEST cells off the pilot line — sample units for OEM evaluation and characterization.
- Q2 2028ScaleQUEST_Gen 2Pouch · scale-up
- Capacity
- 20 Ah
- Cycles
- 1,000
- Notes
- Pilot production
10× capacity step, full pouch format for automotive and eVTOL platforms. 1,000-cycle validated life.
- Q3 2028LaunchQUEST_Gen 2 SSB CommercializationPouch · commercial
- Capacity
- 20 Ah
- Cycles
- 1,000+
- Notes
- GWh factory
Commercial release alongside QpiVolta GWh factory development. Volume shipments to lead partners.