Phase 1 · data-backed core

KQUBIT

BUILT
QML

**REAL VQE** (PennyLane) — variational quantum eigensolver for a molecular (H₂) Hamiltonian; runs on a simulator now and on real quantum hardware (`KODEX_QC_BACKEND=ibm` + token), same code path. Recovers the exact ground state to **0.0002 mHa**; a bundled depolarizing-noise sweep shows p=0.5% → 5.56 mHa (why there's no advantage yet). Honest: no quantum advantage this decade (~8–10 yr out); the tooling is real today.

Headline benchmark — honest, computed
REAL VQE (PennyLane): recovers H2 ground state to 0.0002 mHa on default; runs on real QC hardware — no advantage yet

What it accelerates

KODEX KQUBIT is a fast, calibrated surrogate for fault-tolerant quantum hardware (not available this decade) — reproducing its result at inference speed, so it runs inside a real-time control loop or a design search where the full computation is far too slow to call.

Provenance
SIM
De-risking gates
AC-44, KX-L3-A4
Rollout
Phase 1 · Built

Use it

One line, one contract — a prediction, its uncertainty, and whether the input is in-domain.

from kronos_ml import KQUBIT

model = KQUBIT()                          # loads the trained surrogate
y, sigma, in_domain = model.predict(x)   # y = qml prediction
if not in_domain:                       # out of its trusted region
    fall_back_to_full_physics()          # KQUBIT abstains, never extrapolates

How to trust it

Every KODEX code wraps the shared spine — KHALO for calibrated uncertainty and KGATE for the out-of-domain gate — so it reports how confident it is and abstains rather than extrapolate. Benchmarks are computed on held-out data with a fixed seed; pre-registered misses are kept, not hidden.

In the fleet

Get it · cite it

Part of the open kronos-ml package (Apache-2.0). Open-access deposits with citable DOIs are listed below.

Open-access deposits, each with a citable DOI: