Manifold mesh — latent-space geometry of quantum many-body representation
The World Model for Quantum Many-body Representation

Quantization as an
Eigenvalue AI Problem

braketlab.io is a Neolab dedicated to decoding the intrinsic soul of matter. Through MoC-JEPA and Qiankun Net, we transform quantum many-body complexity into linear-time discovery.

02 — The Index Wall

Where complexity meets a linear horizon.

Classical algorithms collapse under exponential cost. MoC-JEPA holds the floor — achieving Schrödinger-level accuracy at a fraction of the cost as systems scale past 10⁴ atoms.

Traditional MethodsO(N⁷)
Qiankun NetMany-Body Solver
MoC-JEPAEmergent World Model · O(N)
1002k4k6k8k10kSYSTEM COMPLEXITY → DEGREES OF FREEDOM0255075100COST → TIME

03 — Dual Engines

Two networks. One programmable universe of matter.

MoC-JEPA

The Equivariant World Model. Based on the Quantum Onion Model, MoC-JEPA (Moment-driven Charge Density Joint Embedding Predictive Architecture) projects massive charge-density data into atom-centered equivariant manifolds — letting physical laws emerge in latent space. The result: O(N) linear complexity for systems exceeding 10⁴ atoms.

Equivariant ManifoldsLatent DeductionO(N) Scaling

Qiankun Net

The High-Fidelity Data Backbone. Integrating supercomputing-scale wavefunction data, Qiankun Net provides the high-precision ground truth required to anchor our foundation models with sub-chemical accuracy.

Wavefunction DataSub-Chemical AccuracyFoundation Anchor
Braketlab

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

© 2026 braketlab.io · Quantization as an AI Problem

Physics-Native · Linear-Time Discovery