GDBS is a geometric database system with HPC-grade precision computing built in. Every computation carries its error. Every result is verifiable. No black boxes. No hidden drift.
Standard databases store data and return it. GDBS stores data geometrically — every value knows where it lives in precision space, how much it drifted to get there, and what its uncertainty is. That's not a feature. That's a different physics.
2048-shade zone/shade architecture. Drift compartments track error at every multiplication step — transparently, not silently.
One GeoNum class, domain-specific zone configurations. Theory, Quantum, Fluids, Plasma, Materials, Geophysics, Ballistics.
8-byte content addressing. 5D geometric positioning in semantic space. Automatic relationship discovery between data nodes.
getUncertainty() and getRelativeUncertainty() on every result. No black box. Every computation auditable, every drift visible.
C.O.R.A., SyncSearch, and KFS aren't built alongside GDBS. They're built on it. Each one proves a different dimension of what geometric precision computing makes possible.
The intelligence node. A browser-native AI assistant with persistent geometric memory — knowledge is stored in GDBS, not in a context window. Responses are grounded, traceable, and domain-aware.
Enterprise search without the cluster. GDBS geometric positioning replaces the inverted index — semantic proximity in 5D space means relevance is a geometry problem, not a keyword problem.
Storage compression that understands content. GDBS encodes files into geometric semantic space — identical structure stored once, near-duplicate structure stored differentially. 128GB becomes 384GB+.
Every claim in GDBS has a benchmark. Every benchmark has a published reference. The Theory Lab at gdbs.getvaultsync.com runs these computations live — in your browser, in seconds.
Run Live BenchmarksT_H computed across 60 orders of magnitude (10⁻³⁴ to 10⁻¹⁴). GeoNum drift: 0.345 shades. IEEE 754 fails silently at this scale. GDBS tracks every digit.
175 published galaxy rotation curves reproduced from first principles — zero fitted parameters. HPC-equivalent results delivered at browser speed.
1/α = L(5)² + L(3)² = 137 derived from first principles via the Lucas lattice — no measurement input, no fitted parameters. Pure geometry.
HPC-grade precision at a fraction of cluster cost. No job queue. Instant results. Transparent uncertainty on every output. That's the value proposition.
Every result is reproducible in your browser. No cluster access required.
Results reproducible at gdbs.getvaultsync.com — Theory Lab, Plasma, Materials, and Cosmic modules.
GDBS geometric encoding means files aren't just compressed — they're understood. Structure is stored once. Variants are stored as geometric offsets. The result is a file system that gets smarter the more you put in it.
From exploratory tools to full HPC-grade research workflows. No credit card required to start.
Create an account and get 30 days of full platform access automatically. No credit card. Drops to free tier on expiry.
A-la-carte access to any single physics domain. Month-to-month — add or swap modules as your work evolves.
Full access to all standard physics domains. Annual commitment with priority compute and extended simulation history.
All modules, HPC Lab, and multi-physics coupling. The full research platform — justified against $M/yr cluster time.
Custom deployment, dedicated support, commercial license, and source code access for internal integration.
We're accepting a limited cohort of research institutions and engineering teams for full Beta access. Beta participants get the complete platform — Multi-Species MD, coupled MD↔FEM, batch sweeps, and HPC Lab — at no cost during the program.
Academic and student pricing available — contact us directly. We respond to everything.
The Theory Lab runs Hawking radiation, SPARC galaxy validation, and seven physics domains live — right now, in your browser. No signup. No queue. No black box.
Licensing, investment, integration — we answer fast.
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