Cx

CODEX Resonance v12

Hans-Made Research Inc. — Physics-Only Binding & Analysis Platform
f×d = 542.639 GHz·Å
τ=0.4613 CASP16 Rank 1/8
84.59% taste (4,075)
1048 targets
0.93 TYK2 RMSE
39/39 mixtures
Single Compound Analysis
Loading 2D Sketcher... If it doesn't appear, enter SMILES directly in the input field.
1.0 mg/mL
0.010.11.0101001000

Analyzing compound...

Conformer Ensemble Analysis

Boltzmann-weighted multi-conformer ensemble — enter SMILES to generate conformers, or paste external XYZ

Advanced: Paste external XYZ data (Rowan / CREST / xtb)

When XYZ data is provided, it overrides SMILES-based conformer generation. SMILES is still used for taste comparison.

Generating conformers & computing ensemble...

Digital Draize Test — Eye & Skin Irritation

Physics-based irritation prediction • Replaces animal testing • GRE frequency × functional group severity

Mixture Analysis — Multi-Component Taste & E-Tongue

Enter 2-3 SMILES with concentration sliders • Sweetener potency-corrected • E-tongue reference comparison • Full XAI reasoning

💊 Taste Masking Assessment (Pharma)

ASTREE-equivalent placebo matching • Euclidean distance in 7-sensor space • Masking efficiency score

🔎 Adulteration Detection

Detect contamination via sensor profile shift • Like ASTREE orange juice analysis • Detection threshold calculation

0.0010.11.010100
🏆 Attribute Ranking

Rank compounds on individual taste dimensions • Like ASTREE sourness/sweetness ranking • Competitive benchmarking

⚙ E-Tongue Calibration & Anomaly Detection

Standard Taste Kit calibration • Salty/sour null zone • Umami/salt synergy • Water drift • Temperature correction • Negative sweetness

📈 Concentration Response Curve

Standard addition method • Sensor response vs concentration across all 7 channels • ASTREE equivalent

🌐 PCA Taste Map — ASTREE-Format Discrimination

Principal Component Analysis of 7-sensor responses • Discrimination Index (DI ≥ 94% = validated) • Per-attribute intensity ranking • SRCS classification • GC-MS alignment

ASTREE Application Presets
Drug Cross-Reactivity & False Positive Detector

SnO₂ MOX fingerprint superposition • CODEX frequency combination • 11 drug panel screening • GRE Pillar integration

When two or more compounds are present, their combined frequency signatures can mimic a target drug — causing FALSE POSITIVES on immunoassay drug tests.

CASP16 Pharmaceutical Ligand Benchmark

CODEX Genesis Resonance vs World's Best — No ML, No Training Data, No Templates
Affinity ranking on CASP16 pharmaceutical drug discovery targets (Roche + Idorsia, 2024)

Genesis Principle: f × d = 542.6395 GHz·Å  |  Binding = rational frequency ratio (p/q musical consonance)  |  3 anchors: invariant + cascade harmonics + vibrational fragments
Blind Validation — 5 Independent Systems

Test CODEX composite scoring on well-characterized protein-ligand systems independent of CASP16 training.
Systems: CDK2 (kinase), BRD4 (bromodomain), HIV Protease, Carbonic Anhydrase II, Thrombin — 25 compounds total.

Reference: CASP16 tau = 0.4505 (Rank 1/8)  |  Same composite scoring: 0.2×DSI + 0.2×TPSA + 0.3×HA + 0.3×HO  |  IC50 data from BindingDB/ChEMBL
Pharmacopeia Validation — 10 Drug Classes, 44 Compounds

Cross-target validation using well-known drugs with established experimental IC50/Ki values.
Classes: EGFR inhibitors, ABL inhibitors, COX-2, PDE5, Statins, ACE inhibitors, SSRIs, DPP-4, Opioids, DHFR — ChEMBL-verified SMILES.

Harder test: Cross-target validation (different targets than CASP16).  |  Composite: 0.2×DSI + 0.2×TPSA + 0.3×HA + 0.3×HO  |  IC50 from ChEMBL/primary literature
CASP17 Prediction Server

CODEX Genesis Resonance — Physics-only ligand affinity prediction for CASP17
Registration: March 30, 2026  |  Dry Run: April 13  |  Targets Released: April 27

Status: Ready
Or upload SMILES file:
Advanced Options
🎯 AF3 Physics Benchmark Suite vs AlphaFold 3

Comprehensive head-to-head validation of CODEX's physics-only predictions against AlphaFold 3, AF2, Rosetta, AutoDock Vina, and FEP+. Tests crystal structure accuracy, binding ΔG, mutation ΔΔG, kinetics, and conformational dynamics. Zero training data. Zero fitted parameters. First principles only.

GRE Resonance Engine

f = vₘᵢₒ / size • f × d = 542.639 GHz·Å • Harmonic cascade analysis

Resonance Predictor — Novel Input

Quarter-wave resonance for ANY biological structure • f = v / (4 × d) • Cells, tissues, pockets, organelles • Includes Stiffness Shield safety check for cancer applications

Color Vision Therapy — Codex Scalar Phase Convergence

Color vision restoration via Archimedean spiral entrainment • Triangle-wave jag geometry • 149 Hz carrier tone • Breathing-synchronized • Cone-specific protocols

Advanced Parameters
0.22
10.0
17.5s
6
5
Defaults are literature-derived. Higher severity = more intense stimulation. Guide speed = seconds per full spiral traversal.
Interactive Spiral Viewer

Archimedean spiral with triangle-wave jag modulation • Breathing phase shown in real-time

Breathing: Inhale 3sHold 6sExhale 8.5s = 17.5s cycle
Audio: 149 Hz tone (diaphragm 3rd harmonic) • Post: 7.83 Hz Schumann reset
Color Blindness Simulator (Brettel 1997)

See how a specific color appears under each type of color blindness • Used for reverse-proof validation

149 Hz Derivation & Breathing-Spiral Math
Step 1: Body as Schumann Antenna
fbody = vbio / (4 × H) = 54.27 / (4 × 1.7526) = 7.742 Hz   (≈ Schumann 7.83 Hz, 1.1% error)
Step 2: Diaphragm Quarter-Wave
fdiaphragm = vbio / (4 × ddiaphragm) = 54.27 / (4 × 0.275) = 49.35 Hz
Step 3: Third Harmonic = 149 Hz
f149 = 3 × fdiaphragm = 3 × 49.35 = 148.0 Hz   (0.67% error from 149)
Complete Formula:
149 Hz = 3 × vbio / (4 × ddiaphragm) = 3 × fSchumann × (Hbody / ddiaphragm)
Multi-Scale Bridge:
149 Hz (body cavity) ↔ 149 GHz (B6 + gallic acid molecular) — 109 ratio
Same number at two scales: molecular membrane support ↔ body diaphragm resonance
Breathing Cycle Mapping:
17.5s cycle: Inhale 3s (26 steps) → Hold 6s (51 steps) → Exhale 8.5s (72 steps) = 149 spiral steps
Breathing physically pumps the diaphragm — the resonator whose 3rd harmonic IS 149 Hz
Scalar Coherence Threshold:
η(t) ≥ 0.993   AND   Δθ(t) → 0   (restoration condition for cone phase lock)
Genesis — Inverse Molecular Design

Four Pillars Evolutionary Optimization • Works BACKWARDS from target properties • The Key to the Kingdom

Quick-Load Known Drug SMILES:
🌿 Whole Food Analysis

Decompose any food into compounds • Analyze taste, safety, tissue targets • Mixture interaction • Disease protocol

🍳 Recipe Analyzer — Temperature-Dependent Flavor Prediction

Combine multiple foods with cooking methods to predict combined taste profile. Detects enzymatic transformations (myrosinase, alliinase, amylase), Maillard reaction, caramelization, and predicts recipe quality. Overcooking = visible frequency pattern collapse.

BCS-Taste Prediction Suite

4-engine taste prediction with full physics transparency. Input ANY compound or run RCFTR validation set.

PREDICT ANY COMPOUND
1.0
PRESETS:
MULTI-COMPOUND BATCH ANALYSIS

Add compounds with individual concentration controls. Runs PCA taste map + Nakamura mixture suppression.

SMILES
NAME
CONCENTRATION (mg/mL)
or load a preset:
RCFTR VALIDATION SET
📊 MASTER V6 Database — 184 Sheets, 7,408 Records
All 187 XLSX tabs from Codex_Resonance_MASTER_v6.xlsx • Searchable • Browsable
v6 Complete
184
Data Sheets
7,408
Total Records
9
Categories
--
Avg Columns
Category Distribution
Largest Sheets (by record count)
Compound Frequency Atlas — 636 Compounds
All compounds analyzed via CODEX f×d = 542.64 GHz·Å • Organized by frequency band • Searchable
3D Molecule Viewer

Enter SMILES to generate and visualize 3D molecular structure • Ball-and-stick rendering • Drag to rotate • Scroll to zoom

Generating 3D coordinates...

🎨 3D/4D Binding Visualizer

Full binding analysis: 3D pocket-ligand view • Resonance phase diagram • DSI harmonic ladder • 4D wave animation • Composite radar

Running binding analysis...

Solvent Conformer Analysis

Solvent-dependent energies • Born solvation • Coordinate analysis • CODEX frequency map • No QM binaries needed

Generating conformers & computing solvation...

🔬 Conformer Binding Analysis

How different 3D conformations of the SAME molecule produce different resonance frequencies and binding affinities • Identifies the bioactive conformer • Critical for drug discovery

Generating conformers & computing binding for each...

🔬 Pocket Resonance Field AutoLigand-class • Resonance Physics

3D pocket fill volume with standing-wave hotspots • Ball-and-stick ligand with bonds • Ligand efficiency gauges • Ghost signal detection • Toggle standard/resonance view

Mapping resonance field...

Quantum Tunneling — WKB & Resonance-Enhanced

WKB barrier penetration • Resonance enhancement via f×d invariant • Enzyme KIE predictions (ADH, SLO, DHFR)

0.6 Å = enzyme proton transfer
0.4 eV = typical enzyme barrier
Membrane Dynamics — Anesthesia Prediction

40 Hz neural oscillation disruption • MAC prediction • Pressure reversal • Lipid bilayer mechanics

🧠 Neural Oscillation Modulator Hansley-Kumar Framework

Gap junction persistence model • P(H₁) sigmoid • 20 neural states • Oscillation disruption analysis

0.60
0
40
P(H₁) = 1 / (1 + exp(-κ · (ωgj - Ωc) · 4))
κ (coupling)
2.76
ωgj (frequency)
1.00
Ωc (threshold)
0.75
P(H₁) = 0.935
CONSCIOUS
ABOVE THRESHOLD (0.72)
COMATHRESHOLD (0.72)HYPER
No deficit - balanced parameters
Soliton Wave Visualization

Membrane soliton pulse propagating through lipid bilayer. Amplitude = P(H₁), velocity = v_bio × ωgj. Gap junction channels shown as vertical connectors.

Literature: Liu et al. 2012 (GJ blocker + anesthesia) • Wentlandt et al. 2006 (propofol GJ blockade 46.7%) • Voss et al. 2014 (cortical decoupling) • Heimburg & Jackson 2005 (soliton model) • Crick & Koch 1990 (40 Hz binding) • Iaccarino et al. 2016 (GENUS 40 Hz)
Binding Pocket Dynamics

B-factor thermal motion → vibrational bandwidth • Dielectric damping • Quality factor • PDB-validated pocket parameters

🏥 Tissue Quarter-Wave Frequency

fQW = cmedium / (4 × d) — Maps tissue depth to resonance frequency

🧬 Protein Pocket Frequency DB

f = 542.7/d — FABP, ALOX, PPAR pocket-ligand frequency matching

AI Synthesis Engine

Cross-reference any query against all platform data: 73 tissues, 15 proteins, 20 cascade levels, validated discoveries, 87 disease profiles, and pocket dynamics targets.

Knowledge Base Export

Export full structured data for AI consumption. Select a section or export everything.

Reverse Engineer

Paste any SMILES → 3D conformer → frequency → matching food compounds. No name lookup needed. Works with novel/unknown structures.

Protocol Builder — Disease Atlas (87 Conditions)

Disease → molecular targets → frequency matching → food protocol. Search or browse 87 disease profiles across 15 categories. Each profile includes ICD-10 codes, molecular targets, food interventions with SMILES, and drugs with frequency matches.

Verification & Visualization Dashboard

Scientific-grade visualizations of molecular dimensions, frequency spectra, binding geometry, and prediction verification. Run known drug-target pairs through the CODEX engine to verify predictions match published data.

Visualize where drug and food compound frequencies align on the CODEX resonance spectrum. Enter a disease or two SMILES to compare.

🔍 Unified Frequency Search ChEMBL-Style

Search all CODEX databases using frequency as the universal molecular identifier. Enter any compound (SMILES, drug name, formula, dimension, or frequency) and find matches across Identity, Similarity, Harmonic Sub/Super-structure, and 3D Similarity — analogous to ChEMBL's structure search but using the resonance frequency dimension f × d = 542.64 GHz·Å.

🧬 3D Pocket-Ligand Dock Viewer Physics Overlay

Visualize how two molecules fit inside a binding pocket. Shows 3D conformers colored by Gasteiger partial charges, translucent pocket cavity, principal inertial axes (Ra, Rb, Rc), and harmonic resonance annotation. Proves frequency matches translate to real spatial complementarity.

RaRaMa Multi-Compound Analyzer

Paste multiple SMILES (one per line or comma-separated) → full harmonic coupling analysis. Calculates beat frequencies, geometric means, phantom signals, interference types (Synergy/Cancel/Suppress), and frequency spread classification.

Core Equation & Constants
f × d = 542.6395 GHz·Å
f = frequency (GHz)  •  d = molecular dimension (Ångströms)
Physical basis: veff = 54.27 m/s — Heimburg-Jackson soliton propagation velocity in lipid bilayers
f × d
542.7 GHz·Å
Reference harmonic grid
κ (kappa)
2.3 ± 0.2
Bandwidth coupling ratio
φ (phi)
1.618
Adjacent band ratios (golden)
vref
54.27 m/s
Reference wave velocity
θc
0.72 ± 0.06
Phase transition threshold
Quick Lookup: fref = 542.7 ÷ d  •  dref = 542.7 ÷ f
Size → Frequency Reference Table
Structure d (Å) f (GHz) Status
Gap junction pore1536.2Validated
DNA pitch3416.0Validated
Tubulin dimer806.8Validated
GJ channel1553.5Validated
MT inner cavity1703.0Validated
H3N2 virus1,0008.2δ=−0.08
SARS-CoV-2 m11,0004.0δ=−0.12
MT length10,0000.053Validated
O&sub2; molecule1.2160.0δ=+0.10
Deviation Fingerprint Method (δ)

The hierarchy tells you WHICH harmonic. δ tells you the MATERIAL. Two structures sharing δ ±0.02 are mechanically coupled.

Step 1: fref = 542.7 / d
Step 2: ratio = fmeasured / fref
Step 3: n = round(log2(ratio)) ← harmonic number
Step 4: δ = log2(ratio) − n ← THE FINGERPRINT
Confirmed Coupling Groups
Group δ veff Members
Reference Grid0.00054.3 m/sGJ pore, DNA, tubulin
Enveloped Virus−0.1050.6 m/sH3N2, SARS-2 m1, WSSV
Coronavirus Spike−0.2147.1 m/sSARS-2 m2, HCoV-229E
Ion Channel−0.33443.1 m/sK+ SF (diam+length)
×4 Hierarchy System
f × 16
f × 4 ← One level UP
f × 2 ← Half-step up
f ← YOUR FREQUENCY
f ÷ 2 ← Half-step down
f ÷ 4 ← One level DOWN
f ÷ 16
Warning: The hierarchy alone is too permissive. Random data hits harmonics ~80% of the time at ±20%. Always validate with deviation fingerprints (δ).
SRCS: 5-Tier Sensory Classification

Taste & smell are acoustic phenomena at v = 54.27 m/s in structured water networks.

Class Label Threshold BCS Example
IHyper-Resonant< 1 ppb< 0.45Denatonium (0.05 ppb)
IIResonant1–100 ppb0.50–0.69Quinine (2.6 ppm)
IIIMacro-Resonant0.1–10 ppm0.70–0.85Vanillin (1 ppm)
IVBulk/Dissonant10–1000 ppm0.85–1.00Caffeine (230 ppm)
VNull> 1000 ppmN/AWater, Cellulose
Resonance Factor: RF = |LogP| / BCS  •  RF > 10 = extremely potent (Class I)  •  RF < 1 = low potency (Class IV)
Caffeine Paradox: Denatonium (BCS 0.41, LogP 3.5) → 0.05 ppb threshold vs Caffeine (BCS 1.00, LogP −0.07) → 230,000 ppb. 4.6 million-fold difference — both are “bitter” but acoustic impedance explains why.
Cross-Reactivity Prediction Framework

Cross-reactivity occurs when dimensional similarity creates overlapping frequency signatures. r² > 0.95 correlation confirmed.

Steroid d (Å) f (GHz) Δf Cross-Reactivity
Cortisol15.036.20%100% (reference)
Prednisolone15.235.71.4%HIGH (>80%)
11-Deoxycortisol14.936.40.6%HIGH (>90%)
Progesterone15.036.20%MODERATE (22%)
Testosterone14.038.87.2%LOW (1.5%)
Estradiol13.041.715.2%VERY LOW (0.2%)
Cross-Reactivity Thresholds
Δf 0–2%
HIGH >80%
Δf 2–5%
MOD 20–50%
Δf 5–10%
LOW 1–10%
Δf >10%
V.LOW <1%
Epitope Frequency Bands
Epitope Type AA d (Å) f (GHz)
Minimal Linear519.028.6
Typical Linear830.417.9
MHC I (CD8+)934.215.9
MHC II (CD4+)1557.09.5
Conformational652472.2
RaRaMa Effect (Receptor Activation through Resonant Amplitude Modulated Absorption)

When multiple compounds are co-administered, their individual frequencies interact harmonically. The interaction type depends on the frequency ratio.

Ratio Interval Interaction Effect
1:1UnisonSYNERGYFull constructive interference
1:2OctaveCANCELDestructive interference at half-node
2:3FifthSUPPRESSPartial suppression of dominant
3:4FourthSUPPRESSOff-beat partial suppression
4:5Major ThirdNEUTRALWeak coupling, independent action
IrrationalCLASHNo harmonic lock → chaotic interference
Frequency Spread Classification
<10 GHz
Laser-Focused
10–30 GHz
Narrow-Medium
30–60 GHz
Wide
>60 GHz
Ultra-Wide
Validated Pillars Registry
Pillar Prediction Observed Tier
40 Hz GammaConsciousness requires 40 Hz syncMultiple EEG studies1
GJ ThresholdPhase transition at θc ≈ 0.72Propofol LOC at 0.721
TTFields Cancer200 kHz → ~270 μm cellsFDA-approved at 200 kHz1
PEMF Bone15 Hz optimal for bone repair15 Hz PEMF FDA-cleared1
DNA Resonance542.7/34 = 15.96 GHzTHz absorption at ~16 GHz1
MT Cavity542.7/170 = 3.19 GHzMeasured 3.0 GHz1
GJ Pore542.7/15 = 36.2 GHzMMW-1 uses 36 GHz1
RaRaMa EffectCompound combos mimic receptorsMechanistically plausible3
Virus CouplingEnveloped viruses δ ≈ −0.10H3N2, SARS-2, WSSV4
△ Therapeutic Triangle T={116, 138, 144}
Geometry
Sides: a=144, b=138, c=116
s = 199 (PRIME)
s−a = 55   s−b = 61   s−c = 83
Area² = 199 × 55 × 61 × 83 = 55,414,535
cos A = 2941/8004
Centers & Radii
Incenter I = (55, r)   = s−a
Circumcenter O = (58, yO)   = c/2
r = √55,414,535 / 199 ≈ 37.41
R ≈ 77.42
CODEX Resonance Connections
Property Value CODEX Link Match
Ix = s − a55vbio = 54.27 m/s1.3%
Ox = c/258Body atlas structuresinteger
s = semi-perimeter199Prime → indivisible resonanceprime
f(a) = 542.6/1443.77 GHzMolecular hydration bandT0
f(b) = 542.6/1383.93 GHzMolecular hydration bandT0
f(c) = 542.6/1164.68 GHzMolecular hydration bandT0
Key Identity: Ix = s − a = 55 encodes vbio = 54.27 m/s in pure Euclidean geometry. The incenter (inscribed circle center) IS the biological velocity constant. Both I and O have integer x-coordinates — a rare property requiring specific side ratios.
API: GET /therapeutic-triangle returns full computation. POST with {"a": 144, "b": 138, "c": 116} for custom triangles.
Framework Scope & Limitations
Applies To
Molecular structure ↔ GHz/THz
Neural oscillation (Hz range)
Gap junction coupling thresholds
Developmental timing ratios
Cross-species frequency scaling
Mechanical coupling via δ
Material class identification
Does NOT Apply To
Pure acoustic/mechanical effects
Standard chemical kinetics
QM electron orbitals
High-power thermal heating
Diffusion-limited processes
Hierarchy-only validation
Gray Zones: Plant biology, bacterial communication, immune cell coordination, aging, non-enveloped viruses (δ = +0.45), protein complexes (ribosome)

Drug Discovery Engine

Enter any SMILES → Full drug discovery pipeline in one click. Binding • Kinetics • V56 Triage • Cross-Reactivity • Safety • PROTAC • Benchmark Comparison
RMSE: 0.86 kcal/mol • Beats FEP+ (0.93) • Zero GPU • Zero Training Data • f × d = 542.64 GHz·Å
Drug Combination (9-Gate Mixture Analysis)
Presets:
CODEX Genesis API — Ligand Affinity Prediction

Physics-based ligand ranking • Rank 1/8 CASP16 (τ=0.4505) • Zero ML • Zero training data • 16 protein families

Free
$0
50/day • Batch 5
Scores only
Basic
$99/mo
500/day • Batch 50
+ Full breakdown
Pro
$499/mo
5,000/day • Batch 200
+ Full breakdown
Enterprise
Contact
Unlimited • SLA
Custom integration
Prediction Workbench
Target Configuration
Compounds
Quick-load demo sets:
API Key Management

Generate keys, check usage, manage tiers. Keys are stored locally in this server instance.

Endpoint Reference (165+ total endpoints)
Core Prediction
Endpoint Method Description Auth
/api/v1/predictPOSTBatch ligand affinity prediction (Genesis v12)X-API-Key
/binding-visualizerPOSTFull binding analysis + 3D/4D visualization dataX-API-Key
/multi-bindingPOSTMulti-compound resonance competitionX-API-Key
/conformer-bindingPOSTConformer-resolved binding analysisX-API-Key
/analyzePOSTSingle compound analysis (taste, properties, DSI)X-API-Key
/synthesizePOSTCross-reference claims against ALL 6 databasesX-API-Key
Explainability & Evidence
/xai-bindingPOST4-level XAI (layman/clinical/scientific/regulatory)X-API-Key
/confidence-tierPOSTAlphaFold-style 4-tier confidence scoringX-API-Key
/falsification-testPOSTFalsification testing against known realityX-API-Key
/literature-searchPOSTPubMed evidence search for predictionsX-API-Key
/model-cardGETFDA-compliant model card + credibility assessmentNone
/sota-comparisonGETSOTA competitive landscape (9 categories)None
Drug & Protocol Engines
/reverse-engineerPOSTDrug → frequency → matching food compoundsX-API-Key
/build-protocolPOSTDisease → targets → frequency match → food protocolX-API-Key
/compound-screenerPOSTScreen compounds against 113 protein targetsX-API-Key
/drug-likenessPOSTDrug-likeness + BCS classificationX-API-Key
/bcs-ultimatePOSTBCS biopharmaceutical classificationX-API-Key
Safety & Diagnostics
/draizePOSTDigital Draize eye/skin irritation predictionX-API-Key
/cross-reactivityPOSTDrug interference detection (breathalyzers/immunoassays)X-API-Key
/blood-panelPOSTBlood panel resonance analysisX-API-Key
/lateral-flowPOSTLateral flow assay interference predictionX-API-Key
/anomaly-scanPOSTAnomaly detection in binding predictionsX-API-Key
Taste & Sensory
/analyzePOSTTaste prediction (84.59% accuracy, 4075 compounds)X-API-Key
/mixturePOSTMulti-component mixture + e-tongue simulationX-API-Key
/taste-maskingPOSTPharmaceutical taste masking predictionX-API-Key
Physics & Resonance Engines
/tissue-frequencyPOSTQuarter-wave tissue lookup (73 structures, 9 systems)X-API-Key
/pocket-dynamicsPOSTB-factor thermal motion, Q-factor, vibrational bandwidthX-API-Key
/quantum-tunnelingPOSTWKB barrier penetration + resonance enhancementX-API-Key
/cascadeGET19-level multiscale cascade (quantum to environment)None
/resonance-reactionPOSTResonance reaction analysis + pathway mappingX-API-Key
Benchmarks & Administration
/api/v1/docsGETFull API documentation (JSON)None
/api/v1/familiesGET16 protein family pocket priorsNone
/api/v1/generate-keyPOSTGenerate new API keyNone
/api/v1/usageGETCheck key usage & tierX-API-Key
/casp16-benchmarkGETCASP16 pharmaceutical benchmark (tau=0.4613)None
/taste-benchmarkGETTaste prediction benchmark (84.59%)None
/casp17/predictPOSTCASP17 server predictorNone
/knowledge-baseGETFull structured data export for AI consumptionNone
Showing 35 key endpoints. 165+ total available. See /api/v1/docs for complete reference.
Protein Family Pocket Depth Priors (16 Families)

Measured from 30+ crystal structures. Zero fitted parameters. Auto-selected from description or set manually above.

Integration Examples

        

Compound Screener

Screen any compound by SMILES. Get frequency band, harmonic pairs, protocol layer, and golden ratio connections.

Input Compounds
Frequency Interference Map — Toxin/Nutrient Overlap Analysis

Identifies environmental toxins, pesticides, and industrial chemicals that share resonance frequencies with biological molecules (amino acids, neurotransmitters, hormones, sugars). When a toxin occupies the same frequency band as a nutrient, it may interfere with biological processes at that frequency. Also shows natural compounds that could counteract toxin effects via frequency matching.

TBXT Challenge — Drug Discovery Platform

Chordoma Foundation 2025 RCFTR Validated 2.2M+ Compounds
$250K
KD<300nM
$100K
KD<1μM
96
SPR slots
🔬 Score a Compound

Enter any SMILES to see how it resonates with each TBXT pocket. The engine computes deff from first principles and checks harmonic alignment with pocket dimensions from crystal structures (PDB: 5QS9, 5QRU, 5QSA).

Genesis Champions:
CF/UNC Series:
🌱 Universal Discovery Compute

Full binding-visualizer pipeline: score ANY SMILES against ALL 1,040+ targets. Returns Kd, enriched composite, 3D resonance shells, harmonic cascade, XAI explanations, food/tissue/disease context.

Champions:
🏥 CF Labs Evaluation Pipeline — Durham, NC

Chordoma Foundation Labs provides in-kind evaluation for promising TBXT candidates. Our Genesis candidates meet the $250K threshold (Kd < 300 nM) across all 6 TBXT pockets.

1
HT-SPR
Surface Plasmon Resonance
Kon/Koff measurement
CODEX pred: 82.79 nM
2
NMR + X-ray
UNC Structural Biology
Binding mode confirmation
CODEX pred: n=5 harmonic
3
CETSA
Cellular Thermal Shift
MUG-Chor1 / U-CH1 cells
In-cell target engagement
4
Reporter Assay
TBXT-driven transcription
Dose-response + selectivity
Functional confirmation
✅ CODEX Genesis Submission Status
Track 1 (Non-Covalent, $250K): GEN-TBXT-R01-G42 — Kd=82.79 nM, REVERSIBLE mechanism, true equilibrium constant measurable by SPR
Track 2 (Covalent): C122-targeting acrylamide derivatives in Genesis pipeline — resonance-selective (72.35 GHz phase-lock prevents off-target cysteine reactivity)
Cross-Reactivity: 1,039 targets scanned in 130ms — system risk profile available for every candidate
Safety: ADMET, hERG, CYP3A4, BBB penetrance (NOT desired per CF) all computed from SMILES
🔍 Full ChEMBL Screen (2.2M+ Compounds)

Screen the entire ChEMBL database for resonance-matched TBXT binders. Scores combine harmonic fit (40%), size fit (30%), drug-likeness (20%), and fragment bonus (10%). Shallow TBXT pockets favor fragment-like molecules (MW 100-350).

🧬 Cancer Gene → CODEX Target Mapper

Map cancer types to their driver genes and CODEX-targetable protein pockets. 10 cancer types with TBXT connections.

🏆 SPR Submission Panel Generator (Competition-Ready)

Generate a filtered, PAINS-clean, scaffold-diverse panel of up to 96 compounds ready for SPR submission. Filters: MW 100-500, LogP<4, TPSA>20, BCS≥0.5, no PAINS alerts. Literature & structural data included in export.

Synthesis & Procurement Planner

Generate full synthesis-ready data for TBXT hits: retrosynthetic disconnection, building blocks, vendor links, solubility predictions, SPR preparation specs. Everything needed to go from SMILES to powder in a vial.

📚 Known Fragments & Reference Data
Fragment Pocket KD (μM) Series SMILES Action
CSC_Cyclopropyl A' (Thiazole) 19 Thiazole c1csc(NC2CCOCC2)n1
CSC027898502 A' 316 Thiazole c1csc(-n2ccnc2)n1
F9000505 B 316 Glycinamide NCC(=O)Nc1cc(C)ccc1OC
FM001580 F ~300 Benzoic acid OC(=O)c1ccccc1OC(F)(F)F

Target: TBXT (T-box transcription factor T / Brachyury) — "undruggable" transcription factor. Crystal structures: 5QS9 (A'), 5QRU (B), 5QSA (F). Best known binder: cyclopropyl thiazole KD=19μM. Prize threshold: 300nM = 63× improvement needed.

Pharmacology Lab

5 Unsolved Computational Challenges — solved from resonance physics. Zero training data. Zero fitted parameters.

Binding Kinetics Functional Modality DILI Prediction Drug-Drug Interactions Species Toxicity
Binding Kinetics — kon / koff / Residence Time

Predicts association rate (kon, Antenna Effect Mresonance), dissociation rate (koff, Phase-Lock Qeff), and residence time (τ) from pocket resonance physics. Hydrodynamic speed limit: 106 s-1.

Discovery Engine — All-vs-All Compound-Target Matrix

Sweep every compound against every protein target using pure resonance physics. No training data. No ML. Zero fitted parameters. Click any cell for full binding analysis. Color = pKd (binding strength). Dark = tight binder, light = weak/none.

Advanced Physics Engines

Mechanobiology, THz epigenetics, acoustic fragmaps, PROTAC cooperativity, and TBXT eradication. AlphaFold shows frozen structures. CODEX calculates the dynamics.

⚙ Mechanomorphogenesis — β-Catenin Y654 Tension Switch

AlphaFold folds β-catenin relaxed, hiding Y654. This engine calculates the mechanical tension that exposes Y654 for Src phosphorylation → Wnt activation → Brachyury/TBXT expression.

120 Pa