The world's most comprehensive quantum error correction framework. Production-certified with 41 physics engines, validated against published data from Google, IBM, Princeton, NIST, and ETH Zurich.
GEDA v7.0 BEAST delivers measurable, validated improvements across every dimension of quantum error correction — from raw qubit efficiency to predictive accuracy.
The foundational characterization and optimization layer. Establishes hardware baseline across all supported platforms.

The Quantum Physicist Council identified five gaps in the existing GEDA stack that no combination of prior engines addressed. Each BEAST original was designed to fill a specific blind spot in the quantum error correction landscape.
CQCW monitors spatial correlations at τ=0 only. Cosmic ray phonon bursts propagate across the chip with microsecond-scale delays, creating temporally correlated errors that surface code decoders misattribute.
Track C(i,j,τ) = ⟨δn_i(t)·δn_j(t+τ)⟩ across qubits and time lags. Feed propagation signature to decoder as syndrome weight bias.


A complete media library covering the BEAST framework from introduction to deep technical analysis. Watch the presentations to understand how GEDA is reshaping quantum error correction.

Overview of the BEAST framework and its capabilities

How GEDA addresses the trillion-dollar quantum hardware problem through software

How BEAST represents the inflection point toward fault-tolerant quantum computing
Audio presentation on how GEDA's software approach bridges the 1 kHz–1 MHz noise gap
From B+ (3.34) pre-remediation to A– (3.68) — achieved through governance hardening, physics calibration, and engineering quality fixes with zero new engine development.
GEDA v7.0 BEAST unifies every physics engine that passed audit across versions 6.0 through 6.31 plus Final Frontier, adds five council-inspired original engines, and delivers 22/22 validation checks with zero regressions. The council finds this to be the first GEDA build where the engine count, the physics substance, and the stress test numbers are all internally consistent.
Retired. Mixed physics engines with enterprise scaffolding (API Gateway, SLA Monitor). BEAST's 41-engine manifest contains only physics.
Absorbed. All engine classes from noise_friendship.py, razor_pack.py, and razor_final.py are integrated into BEAST Sections 3–4.
Fully superseded. BEAST includes every engine from v5.2 plus 33 additional engines.
Folded into Tier 4 as hardware specification modules (IRShieldSpec, ThermPurgeSpec, PurcellOptSpec).
BEAST cannot save Al-Si (IBM Eagle class) hardware. Even with all 41 engines, p_physical remains above the surface code threshold (0.63–0.75%). This material's intrinsic noise floor requires hardware intervention beyond software specification.
3/16 blind prediction failures, all on 2Q fidelity. The intrinsic 2Q error model systematically overestimates fidelity. This is a known calibration gap, not a structural flaw.
Hardware profiles for IonQ and Quantinuum are included in the database, but the stress test and fidelity calculator are SC-focused. Ion-specific Monte Carlo is needed for BEAST to make ion claims.
Specifies the substrate patterning but has not been validated against fabricated phononic crystal structures. This is a design spec, not an experimentally confirmed result.
These institutions are validation benchmarks, not customers.