01 — The Latent-Space Paradigm

Quantization as an Eigenvalue AI problem.

MoC-JEPA (Moment-driven Charge Density Joint Embedding Predictive Architecture) and Qiankun Net combine into a single latent-space pipeline: many-body complexity is folded into a compact set of latent eigenmodes, then unfolded into high-fidelity observables — collapsing exponential simulation cost into linear-time discovery.

Many-body complexity

Raw quantum many-body systems — exponential degrees of freedom, intractable for classical solvers.

Latent eigenmodes

MoC-JEPA's latent bridge compresses the wavefunction into a small set of predictive eigenmodes.

Linear-time discovery

Qiankun Net reconstructs high-precision observables — turning O(N⁷) into linear-time inference.

MoC-JEPA

Foundation Model

Qiankun Net

High-Precision Quantum Representation

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Linear-Time Discovery

Faster. Scalable. Transformative.

Technology

Public Research.

Our dedicated home for open research, whitepapers on Equivariant Manifolds, and our publications across AI for Science. The full technology archive is being prepared.

  • Whitepapers on Equivariant Manifolds & the Quantum Onion Model
  • MoC-JEPA architecture deep-dives and latent-space deduction
  • Qiankun Net high-fidelity dataset documentation
  • Peer-reviewed publications in AI4S
Public Research.
Braketlab

braketlab.io — Breaking the Index Wall. Accelerating the future of materials and drug discovery.

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Physics-Native · Linear-Time Discovery