●VEDRAH

Phase 01 · Hybrid Power Cell · 2026 · Built in India

Power density is the next
miniaturization curve.

Storage went from a warehouse of tape drives to a chip the size of a fingernail. Power hasn't made that jump yet — and the industries and homes priced out of reliable power the longest are the ones who need it most. Vedrah is a phased research program closing both gaps: a refuel-free hybrid cell first, compact high-density fusion next — research aimed, eventually, at every individual and household, not just institutions.

See the roadmap

Scroll for the roadmap ↓

20–30yrs
Runtime of our Phase 1 isotope cell
Zero refuels, zero recharge cycles
25MkWh/kg
Matter–antimatter, theoretical physics ceiling
Long-horizon reference point, not a product claim

The problem

Every portable system hits the same wall.

Compute and storage went through brutal miniaturization curves. Power didn't. The devices we want to build — always-on sensors, long-duration field equipment, eventually wearable exosystems — are still bottlenecked by one thing: how much energy fits in how little mass.

Where batteries stop

Chemical batteries plateau around 0.2–0.3 kWh/kg. Past that, it's not an engineering gap — it's a different reaction entirely. No amount of manufacturing refinement gets a lithium cell to nuclear-grade density.

Where nuclear power stops being yours

Radioisotope generators exist today — NASA has flown them for 50 years. But a usable unit runs $50–100M and is government-controlled. The physics is proven; the access isn't. That's the gap we're building a commercial path through.

The mission

Reliable power shouldn't need a government contract or a six-figure backup bill.

Diesel backup and grid-tied solar already serve whoever can afford them. We're building for the industries and homes that can't — starting in India, because that's where the gap is widest, and where we are.

Designed for access, not exclusivity

The research target is zero recurring fuel cost — once the physics holds up, access stops being gated by capital. That's an engineering goal here, not a pricing promise.

Independent by design

Every unit runs on its own — no grid tie-in, no fuel truck, no single point of failure. A thousand independent sites can't go dark together the way one grid can.

Safe before it's powerful

Phase 1 runs on low-energy beta emitters — fully stopped by a few millimetres of shielding, no gamma, no chain reaction. Power density only scales as far as the safety case allows.

Built for scale

One independent unit. Then a thousand of them.

Nationwide resilience doesn't come from a bigger grid — it comes from sites that don't need one. Every Vedrah unit powers its own site and answers to no central point of failure.

Each node: one site, one unit, fully independent. The network effect here is resilience, not dependency — no single failure takes down the rest.

The approach

Three phases. Each one de-risks the next.

We're not betting the company on a single breakthrough. Phase 1 ships on physics that already works. Phases 2 and 3 are where the research horizon opens up.

PHASE 01 Active now
Hybrid Power Cell
Year 0 – 2

A radioisotope source (Ni-63) trickle-charges a supercapacitor bank continuously. The isotope never stops; the capacitor banks the energy and releases it in bursts on demand. Target: 500 W–1 kW continuous, kW-class bursts, 20–30 years unattended.

PHASE 02 Up next
Compact Fusion R&D
Year 2 – 6

Dense plasma focus research into aneutronic (boron–hydrogen) fusion — no radioactive waste, no chain reaction. The goal is shrinking containment from building-scale toward container-scale while reaching MW-class continuous output.

PHASE 03 Horizon
Convergence Cell
Year 6 – 10

Merge isotope longevity with fusion-class density into a single cell sized for field-deployable and wearable systems — the point where decades-long runtime and high continuous output stop being a trade-off.

Y0 Y2 Y4 Y6 Y8 Y10 P1 · Hybrid Cell P2 · Compact Fusion P3 · Convergence

The destination

A power cell you wear. Nobody has built it yet — that's exactly why we're building it.

This isn't a product we're selling today. It's Phase 3 of the roadmap — the point where decades-long runtime and wearable size stop being a trade-off. We're not hiding how far away it is: it's honest engineering, laid out step by step, not a prop.

isotope core supercapacitor shell shielding, a few mm → continuous + burst output
A wearable hybrid cell: the same isotope-plus-supercapacitor architecture shipping in Phase 1 today, shrunk and shielded into a form a person can wear, worn rather than carried. This is an engineering target for Phase 3 — not a finished product.

Manufacturable, not exotic

Built on the same high-volume manufacturing economics as consumer electronics — a research question about materials and process, not a government-scale reactor program.

One person, one unit

No grid, no utility subscription, no fuel truck. The cell belongs to whoever wears it, for as long as the isotope decays — decades.

An honest timeline

Phase 1 already works today and funds this. We're not promising a wearable reactor next year — we're showing the path that gets there in ten.

The physics ceiling

What's beyond Phase 3.

Our roadmap stops at Phase 3. Physics doesn't. These are the two outer edges of what energy density can mean — one already demonstrated in particle accelerators, one still unverified at any usable scale.

Matter meets antimatter

100% of the mass converts to pure energy on contact — the hard ceiling set by E=mc². Demonstrated routinely at CERN, in quantities too small to matter yet. No containment method today makes this safe at any usable size.

The vacuum itself

Even "empty" space isn't empty — particle pairs blink in and out of existence constantly. If that energy could ever be tapped, it wouldn't need fuel at all. No experiment has extracted net usable energy from it, and most physicists think it can't be done. We watch this research; we don't bet the roadmap on it.

"

ॐ पूर्णमदः पूर्णमिदं पूर्णात्पूर्णमुदच्यते।
पूर्णस्य पूर्णमादाय पूर्णमेवावशिष्यते॥

oṁ pūrṇam adaḥ pūrṇam idaṁ pūrṇāt pūrṇam udacyate
pūrṇasya pūrṇam ādāya pūrṇam evāvaśiṣyate

"That is whole; this is whole. From wholeness, wholeness arises. Take wholeness from wholeness, and wholeness alone remains."

— Īśā Upaniṣad, invocation

Three thousand years before thermodynamics gave it a name, this was already stated as law: draw energy out of a whole system and the whole stays whole — nothing created, nothing destroyed, only its form changes. Every phase of this roadmap, from isotope decay to fusion to whatever Phase 3 becomes, is built on exactly that bet.

How Phase 1 works

Continuous trickle, on-demand burst.

The isotope alone can't deliver a strong burst of power — it's slow and steady by nature. The capacitor can't run forever on its own — it needs refilling. Together, they cover both jobs.

Ni-63 source continuous decay trickle · mW–W Supercapacitor stores + buffers burst · kW recharges between bursts Load sensors / actuator / motor assist
The isotope never produces more than a steady trickle — but it never stops, for decades. The supercapacitor stores that trickle and releases it fast when the load needs a kilowatt-scale push, then quietly refills before the next one.

Why now

The physics isn't new. The access is.

Betavoltaic isotopes, dense plasma focus fusion, and antimatter physics have all been demonstrated in labs for decades. None of it has been built into a commercial, phased product roadmap aimed at the problem that actually matters: getting reliable power to the industries and homes priced out of it, safely, without a government contract.

We're not claiming a breakthrough on day one. We're claiming a sequence — one phase that works today, funding the research for one that doesn't yet.

The plan starts in India — small and mid-size industry clusters and homes stuck choosing between diesel and an unreliable grid — and expands wherever that same choice exists.

Led by a first-generation founder who has already built and operated multiple ventures from zero to revenue, now assembling the nuclear-physics and plasma-engineering bench this roadmap needs.

Open to research collaborators.

Phase 1 prototype work is underway. We're looking to connect with physicists, engineers, and institutions who want to work on this with us.