Benchmarked in joules-per-solution,
not qubit counts
QWAV is a pre-commercial computing platform exploring p-adic ultrametric architectures as an alternative to the qubit-gate-circuit model. The approach draws on Ostrowski's theorem for intrinsic error protection speculative and targets room-temperature operation speculative. All performance claims are benchmarked transparently with JPCUB — an open, falsifiable metric for computational thermodynamic efficiency.
The QNFO → QWAV Distinction
QNFO is a research collective that publishes critical analyses of the quantum computing industry. QWAV is a platform built from that physics — still pre-commercial, with all claims documented and independently falsifiable.
| Axis | QNFO | QWAV |
|---|---|---|
| What it is | Open-science research collective | Pre-commercial computing platform |
| Mission | Publish, critique, forecast, govern | Build, benchmark, commercialise, deploy |
| Core metric | Citation impact, paradigm influence | Joules-per-Solution (thermodynamic efficiency) |
| Audience | Physics, mathematics, and CS researchers | Enterprise CTOs, HPC architects, investors |
| Posture | Critical analysis of existing quantum computing approaches | Evidence-based platform development with open benchmarks |
| Licensing | QNFO-ULA / CC-BY-4.0 / AGPL | Commercial license (to be determined) |
Joules-per-Solution — The Falsifiable Benchmark
JPCUB measures thermodynamic efficiency: total energy consumed per correct answer. Not qubit counts. Not "quantum advantage" claims. Actual joules per actual solution — a measurement protocol anyone can replicate.
Traditional quantum processors: Gate-model architectures (superconducting, trapped-ion) require cryogenic cooling, active error correction, and report metrics (qubit count, gate fidelity) that do not directly measure computational utility.
QWAV approach [speculative]: Targets <10⁻³ joules per solution through p-adic ultrametric encoding with intrinsic error protection derived from Ostrowski's theorem. Room-temperature operation is a design target — not yet demonstrated speculative.
Platform Architecture research-phase
The QWAV computing stack — from p-adic mathematics to commercial applications. These architectural layers are published as research papers; hardware implementation remains pre-commercial.
Competitive Landscape
QWAV does not compete on qubit counts — these are metrics of a paradigm QNFO research has analysed critically. QWAV compares on thermodynamic efficiency and architectural clarity, using the open JPCUB protocol. Where JPCUB numbers are shown, they are computed from published data.
IBM
IonQ
⚡ QWAV
Rigetti
D-Wave
Built on QNFO Research
QWAV's architecture is grounded in published research from the QNFO Research Collective — all with Zenodo DOIs, independently verifiable, and citable.
Ready to benchmark with thermodynamic honesty?
The JPCUB protocol is published and open. Measure any platform — including QWAV — and compare transparently.