Materials intelligence platform

Design matter.
Learn from reality.

LATTICE connects scientific evidence, generative and predictive models, physics-based simulation, engineering constraints, and experimental feedback to accelerate materials development for terrestrial and space infrastructure.

WORKSPACE INTEGRATEDEVIDENCE-AWAREHUMAN-GOVERNED
REQUIREMENTLow-RH H₂O capture≤70°C regeneration · cycling · dust
DISCOVEREvidence-grounded spaceLiterature · datasets · known structures
DESIGNFormulations + architecturesMulti-objective · process constrained
VERIFYEscalate evidencePredict → simulate → experiment
REQUIREMENTDISCOVERDESIGNCRITIQUESIMULATEEXPERIMENTLEARN

Point of view

Materials discovery should behave like an evidence-driven learning system.

Search broadly. Score cheaply. Escalate selectively. Verify against physics. Learn from every experiment.

LATTICE coordinates models, solvers, databases and experiments inside one evidence-driven learning loop.

3CORE OPERATING PILLARS
9MATERIAL LIBRARIES
6PRIMARY EVIDENCE STATES
1CLOSED LEARNING LOOP

Core platform

Discover. Design. Verify.

The permanent operating core. LATTICE starts from an engineering objective, traverses evidence and design space, then selects candidates for progressively stronger simulation and experiment based on evidence and decision value.

01 / DISCOVER

Build the evidence-grounded design space.

Parse mission requirements, search literature and patents, retrieve known materials, extract evidence, ingest structures and contract the candidate universe before expensive computation.

LITERATURE + PATENTSDATABASE RETRIEVALSCREENINGEVIDENCE GRAPH
SEARCH · RETRIEVE · SCREEN · TRACE
02 / DESIGN

Generate against competing objectives.

Explore structures, formulations, interfaces and architectures with manufacturability, cost, environment and mission constraints inside the design loop.

INVERSE DESIGNMULTI-OBJECTIVEACTIVE LEARNINGCO-DESIGN
GENERATE · OPTIMIZE · TRADE · CONSTRAIN
03 / VERIFY

Escalate evidence through progressively stronger validation.

Use independent critics, deterministic checks, fit-for-domain simulation, uncertainty analysis and experiment planning—then reconcile measurements and failures into the next cycle.

CRITICSSIMULATIONEXPERIMENTRECONCILIATION
CRITIQUE · SIMULATE · TEST · LEARN

Why the icons matter: they form a reusable visual language for LATTICE. DISCOVER = evidence converging into an inspectable search space; DESIGN = architecture and controlled transformation; VERIFY = an evidence ladder with explicit checkpoints.

Closed-loop architecture

Generate fast.
Verify harder.

Computational and experimental effort rises with evidence depth and decision value.

  • 01
    Condition the problemFunction · environment · constraints · evidence threshold
  • 02
    Search and designKnown evidence + generated candidates + formulations
  • 03
    Critique and simulateUse fit-for-domain tools rather than one universal solver stack
  • 04
    Validate for information gainChoose the next test by decision impact, uncertainty, cost and safety
SELECTIVE ESCALATIONevidence strength →
REQUIREMENTMission objective envelopehuman-defined
DISCOVEREvidence + known candidatesbroad / cheap
DESIGNGenerated structures / formulationscreative
CRITIQUEValidity + feasibility checksselective
SIMULATEHigh-fidelity physics where justifiedexpensive
EXPERIMENTPhysical validation + uncertainty reductionempirical
LEARNUpdate evidence graph + next cycleclosed loop

LATTICE family v1

One core. Expandable material libraries. Real application contexts.

LATTICE COREDISCOVER · DESIGN · VERIFY
1D / NanomaterialsCNT · BNNT · oxide NT · HNT · WS₂/MoS₂
Water / SeparationMOF · COF · zeolite · membranes · sorbents
ThermalPCM · TIM · coatings · extreme environment
Energy / Electrochemistrycatalysts · electrodes · membranes · electrolytes
Smart / Structuralcomposites · SHM · conductive architectures
Surface / Tribologydust · wear · ESD · lubrication · protection
Radiation / ShieldingBNNT · hydrogen-rich · multifunctional systems
Quantum / Photonicemitters · defects · IR/THz · photonics
Bio / Biohybridbiopolymers · biosorbents · biocatalysts · living systems
EURUS APPLICATION LAYER — WATERIG · WaterGrid · OASIS · FIRN/TARN · FIRN-TERRA · EMBER · WAVE · FLARE/FLARE-XL · LOOM · LatticeForm · LunarForma · LUI · CAIRN/MoonCloud · Quantum Technologies

Materials libraries

Broad by architecture. Specific by mission.

Libraries are reusable domain packs of data, descriptors, constraints, evaluators, simulation hooks and validation templates.

Featured design space

1D / nanotube architectures

narrowwide
randomaligned

Qualitative trade-space

TransportDirectional transport favored by stronger alignment.
Interface / chemistryArray/contact quality may dominate device-level performance.
ManufacturingGrowth, transfer and scale remain explicit constraints.
EnvironmentVacuum compatibility and thermal-cycle stability become explicit gates.
Next evidenceSelect the cheapest test that discriminates among the leading hypotheses.
Evidence stateDESCRIPTOR EXPLORER · QUALITATIVE TRADE SPACE
The explorer maps descriptor-driven relationships and qualitative trade-offs. Source-linked numerical records can enter the same view with their evidence class and conditions.

Applications

A shared intelligence layer. Specialized by mission.

Filter by mission need rather than project name. Each context maps back to concrete materials questions and evidence requirements.

SELECT AN APPLICATION

Mission-conditioned material reasoning

Choose a project card to see the relevant material libraries, target properties, and the evidence gate LATTICE should apply.

LIBRARIESTARGETSNEXT EVIDENCE

Mission walkthroughs

From engineering requirement to the next defensible test.

Two application examples show how the same LATTICE loop adapts to different material families, mission objectives and validation pathways.

CAU-10-H · SOURCEMOF-303 · SOURCEMOF-801 · SOURCEZeolite 13X · BENCHMARKGEN-014 · EXAMPLE

Embedded research workspace · v1.4

The app is inside the website.

The public layer explains LATTICE; the product layer below is the same evidence-aware workspace surface. v1.4 embeds a self-contained app snapshot directly into this page so it renders even when the site is previewed as a standalone HTML file.

Open full workspace ↗
MISSION OBJECTSrequirements + project context
CANDIDATE RECORDSproperties + evidence state
VALIDATION QUEUEnext test by information gain
RUNS + EVIDENCEtraceable methods and versions
WORKSPACE CONTEXTpublic-site controls synchronize with the embedded mission
LIVE WORKSPACE SURFACEloading workspace…
v1.4.1 fix: embedded `/app/` HTML is now decoded as UTF-8 before being mounted into srcdocPRODUCTION ROUTE: lattice.eurus.space/app/

Evidence discipline

Evidence behind every output.

Every consequential value must preserve its evidence state, provenance, method or model, conditions, uncertainty and version. Human authority remains explicit for qualification and safety-critical decisions.

01

Source lineage

Dataset, publication, patent, experimental record, model and version stay attached to the candidate.

02

Uncertainty stays visible

Error ranges, disagreement, open evidence questions and operating conditions remain visible in the decision record.

03

Reproducible runs

Inputs, model/tool versions, solver settings, data versions, outputs and validation state are traceable.

04

Learning from every result

Failed candidates and experiments become evidence for the next search and design cycle.

05

Human authority

Material selection, qualification, hazardous tests and engineering baselines remain reviewable human decisions.

06

Example data is clearly labeled

Example interface data carries an EXAMPLE evidence label.

Evidence records

Make provenance inspectable at the value level.

CLICK A RECORD →

Research & source layer

Technical stories should show where the claim came from.

The Research layer connects selected publications, run records and evidence context to each case, candidate and technical record.

PLATFORM BASELINE

LATTICE Website Build Handoff v1.0

Defines DISCOVER · DESIGN · VERIFY, the nine materials libraries, application layer, evidence-state rules and the public-site/workspace split.

Open source note →
APPLICATION WORKSTREAM

MOF & Sorbent Findings v1.4

Provides the current OASIS candidate-family shortlist, cartridge/TSA logic, KPIs, test benches and explicit Earth-to-space use-case framing.

Open source note →
CLAIM BOUNDARY

Frontier ≠ product

Nanoconfined water, CNT field emission and similar frontier topics remain research directions until a source, model or experiment supports a narrower claim.

Open claim policy →
Research notes are part of the trust architecture.Use them to expose sources, assumptions and engineering context while keeping the product narrative focused.Browse research layer →

eurus Intelligence Foundry

A specialist engine inside a broader technical intelligence architecture.

LATTICE is the materials intelligence specialist inside the eurus Intelligence Foundry—a human-governed system for assembling models, deterministic tools, simulation, experiments and evidence workflows around technical objectives.

eurus Intelligence FoundryCross-domain technical intelligence and orchestration.
LATTICEMaterials-specific discover · design · verify engine.
This intake opens a prepared email to design@lattice.eurus.space.