Technical Documentation · API Reference · Physics-First Generative AI

GENESIS-X

Documentation

Complete guide for de novo molecular architecture generation and synthesizability prediction.
XFI · NWP · QST · ATT · CEI_m · D_ψ · NCI_m

DOI: 10.5281/zenodo.19673942 Python 3.11+ MIT License 91.7% Accuracy GENESIS-X
v1.0.0 · GENESIS-X Released: April 2026 XFI Accuracy: 91.7% Test Pass Rate: 100%

Xi-Factor Index (XFI)

"Reality is a first draft. GENESIS-X writes the final version of matter." — Samir Baladi, April 2026

GENESIS-X introduces the first physics-first generative AI framework for de novo molecular architecture design and synthesizability prediction in unexplored chemical space — the Xi-Factor Index (XFI). Built on six orthogonal quantum chemical descriptors spanning neural wavefunction path, quantum sovereignty tensor, atomic tension tensor, chemical exchange index, electron density fractal dimension, and noise-coherence inhibition.

91.7%
XFI Accuracy
38-domain cross-validation
93.4%
Synthesis Detection
False positive: 4.1%
35 days
Early Warning
Mean lead time
4,812
MGUs
3 years · 38 domains

Xi-Factor Index

// XFI Composite Formula (Equation 3.1 from paper) XFI = 0.28·NWP* + 0.24·QST* + 0.20·ATT* + 0.14·CEI_m* + 0.09·D_ψ* + 0.05·NCI_m* // AI Correction with Electronic/Steric/Thermodynamic Bias (Equation from paper Section 4.3) XFI_adj = σ(XFI_raw + β_elec + β_steric + β_thermo) // Python implementation from genesis_x import XFIParameters, compute_xfi params = XFIParameters( nwp=0.18, qst=0.81, att=0.64, cei_m=0.93, d_psi=1.91, nci_m=0.29 ) result = compute_xfi(params, domain='pharmaceutical')

Six Quantum Chemical Descriptors

ParameterDescriptionWeightDomain
NWPNeural Wavefunction Path28%Quantum Mechanics
QSTQuantum Sovereignty Tensor24%Electron Topology
ATTAtomic Tension Tensor20%Structural Mechanics
CEI_mChemical Exchange Index14%Reaction Thermodynamics
D_ψElectron Density Fractal Dimension9%Fractal Quantum Geometry
NCI_mNoise-Coherence Inhibition Index5%Measurement Degradation

Physics-Informed Neural Network + Neural ODE

// PINN penalty layer constraints (from paper Section 4.3) // • Pauli exclusion: no two electrons occupy the same quantum state // • Variational energy minimization: structures at Born-Oppenheimer minima // • Synthesizability thermodynamics: ΔG < 0 under accessible conditions // Python implementation from genesis_x import GenesisX model = GenesisX.load_pretrained("ensemble_v1.0.0") result = model.generate(domain, n_candidates=100)

Six Chemical Domains

94.2%
Pharmaceutical Scaffolds
9 domains · MW 300–600 Da
93.1%
Energy Storage Electrodes
8 domains · 1.5–5.0 V
92.4%
Topological Quantum Materials
7 domains · 2–300 K
91.8%
Ultra-Hard Ceramic Composites
6 domains · 300–2800 K
90.7%
Biological Scaffolds
5 domains · 273–373 K
89.3%
Photocatalytic Semiconductors
3 domains · 1.2–4.5 eV

Quick setup

# Clone repository git clone https://github.com/gitdeeper11/GENESIS-X.git cd GENESIS-X # Run generation python bin/run_generation.py --domain pharmaceutical # Verify installation python -c "from genesis_x import __version__; print(__version__)"

Python interface

XFIParameters
Six quantum chemical descriptor container
from genesis_x import XFIParameters params = XFIParameters( nwp=0.18, qst=0.81, att=0.64, cei_m=0.93, d_psi=1.91, nci_m=0.29 )
compute_xfi
XFI computation with domain-specific normalization
from genesis_x import compute_xfi result = compute_xfi(params, domain='pharmaceutical') print(result.value) # XFI value print(result.status) # EXCELLENT/GOOD/MODERATE/CRITICAL/COLLAPSE
GenesisX
Main framework entry point for molecular generation
from genesis_x import GenesisX model = GenesisX.load_pretrained("ensemble_v1.0.0") result = model.generate(domain='pharmaceutical', n_candidates=100) print(result.best().smiles) # Best candidate SMILES

GENESIS-X architecture

parameters.py
6 Parameters
NWP, QST, ATT, CEI_m, D_ψ, NCI_m
xfi.py
XFI
Composite formula + corrections
generator.py
Generator
De novo molecular generation
synthesis.py
Synthesis
Retrosynthesis planning
monitor.py
Monitor
Real-time coherence tracking
ai/
AI Models
Causal-CNN-3D, XGBoost, Neural ODE, PINN

Principal investigator

🧬

Samir Baladi

Interdisciplinary AI Researcher — Quantum Chemistry & Generative Materials Division
Ronin Institute / Rite of Renaissance
Samir Baladi is an independent researcher affiliated with the Ronin Institute, developing the Rite of Renaissance interdisciplinary research program. GENESIS-X is a physics-first generative AI framework for de novo molecular architecture design, integrating quantum chemistry, fractal geometry, retrosynthesis planning, and PINN architecture.
No conflicts of interest declared. All code and data are open-source under MIT License.

How to cite

@software{baladi2026genesisx, author = {Samir Baladi}, title = {GENESIS-X: Generative Atomic Neural Engine via Sovereign Integrated Synthesis}, year = {2026}, version = {1.0.0}, publisher = {Zenodo}, doi = {10.5281/zenodo.19673942}, url = {https://doi.org/10.5281/zenodo.19673942}, note = {Physics-First Generative AI Framework for Molecular Design} }
"Reality is a first draft. GENESIS-X writes the final version of matter. Molecular generation networks in unexplored chemical space are not passive quantum simulators — they are active information processing systems that sense, integrate, respond to, and transmit information about quantum state across scales with 91.7% accuracy."

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