MatterSpace Use Cases
MatterSpace generates novel candidates — materials, drugs, chips, algorithms, biological interventions — that satisfy physical constraints by construction.
Not screening. Not filtering. Not predicting. Generating valid candidates from target specifications. Every output is physically realizable.
Case Studies
From blind rediscovery of known catalysts to novel battery materials — real generation results across materials science and beyond.

Rediscovered Re₁@Ni, Ir₁@Ni catalysts
MatterSpace generated single-atom alloy catalysts across 23 dopant elements and 600 candidates — matching known optimal SAA configurations without any prior knowledge of the targets. Structural match within half an angstrom.

Novel cathode candidates generated
Generated stable lithium-ion cathode materials with target voltage and capacity profiles. Constraint enforcement ensured thermodynamic stability and ionic conductivity at every step of the generation process.

Catalyst candidates for HER/OER
Generated catalyst compositions optimized for hydrogen evolution and oxygen evolution reactions. Multi-objective scoring across overpotential, stability, and earth-abundance constraints.

Coming Soon
Generating small molecules that satisfy binding affinity, selectivity, and ADMET constraints simultaneously. Physics-grounded navigation of chemical space replaces brute-force virtual screening.

Coming Soon
Generating semiconductor layouts that satisfy thermal, power, and area constraints by construction. Design-rule enforcement during generation eliminates costly post-layout iterations.

Coming Soon
Generating novel matrix multiplication algorithms that minimize arithmetic complexity while preserving numerical stability. Landscape navigation discovers non-obvious computational shortcuts.
How It Works
From target specification to validated candidates. Every stage is observable, every constraint enforced during generation.
Four physics modes fire in real time based on gradient state and exploration history. Local refinement, stochastic exploration, barrier crossing, and rapid stabilization — orchestrated automatically.
Physical constraints are enforced during generation, not after. Bond lengths, coordination numbers, symmetry groups, and charge neutrality validated at every step. Every output is valid by construction.
Field-specific force fields, physical constraints, objective functions, and sampling strategies. The core engine is domain-agnostic — domain packs supply the science for each application.
Multi-tier validation pipeline. Fast filters eliminate non-viable candidates. Relaxation confirms local stability. Property prediction scores against objectives. High-fidelity verification on top candidates.
Sub-Engines
The core engine is domain-agnostic. Domain packs supply the physics, constraints, and objectives for each field. Lattice is available now. Four more are in development.
Materials & Energy
Crystal structures, alloys, catalysts, battery cathodes, superconductors, photovoltaics. 10 domain packs covering the most important classes of functional materials.
Available NowDrug Discovery
Molecular generation guided by binding energy landscapes. Constraint-aware synthesis ensures drug-likeness, solubility, and ADMET compliance.
Coming SoonChip Design
Semiconductor architecture, photonic layout, and circuit topology optimization. Design-rule landscapes produce physically valid, manufacturable configurations.
Coming SoonAlgorithm Discovery
Matrix n-rank algorithm search and computational optimization. Novel algorithmic structures discovered by navigating solution landscapes under complexity and correctness constraints.
Coming SoonBiological Interventions
Partial epigenetic reprogramming target discovery. Navigates the Yamanaka factor landscape to identify safe, reversible rejuvenation interventions grounded in cellular biology constraints.
Coming SoonDescribe what should exist. MatterSpace creates it. Lattice is available now for materials discovery. Talk to us about early access to Pharma, Tessera, Algo, and Longevity.