Accelerate R&D with AI-Driven Material Discovery

Harness proprietary machine learning models trained on millions of peer-reviewed publications, experimental datasets, and simulation outputs to predict properties, screen candidates, and shorten discovery cycles by up to 70%.

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Crystal Structures

2.1M entries
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Property Predictors

98.2% accuracy
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Graph Networks

Cross-domain
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Simulation Ready

DFT/MD export
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Open APIs

REST & GraphQL
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Verified Sources

Peer-reviewed
Workflow

How It Works

From hypothesis to validated candidate in four streamlined steps.

Define Target Properties

Input desired mechanical, thermal, electronic, or chemical properties using natural language or structured parameters.

AI Literature & Data Mining

Our models scan 140+ languages, cross-referencing Aevum's encyclopedia, open databases, and proprietary simulation archives.

Predictive Screening

Graph neural networks and transformer models rank candidates by feasibility, stability, and synthesis pathways.

Validation & Export

Export ranked lists, crystallographic files, and uncertainty metrics directly to VASP, LAMMPS, or Jupyter environments.

Capabilities

Core Features

Built for materials scientists, chemical engineers, and computational researchers.

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Multimodal ML Pipelines

Combines text embeddings, crystallographic fingerprints, and spectroscopic data for holistic material characterization.

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Uncertainty Quantification

Every prediction includes confidence intervals and source traceability, critical for high-stakes R&D decisions.

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Real-Time Updates

Continuous ingestion of preprints, patents, and experimental datasets keeps models current without manual retraining.

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Collaborative Workspaces

Share projects, annotate predictions, and manage versioned material libraries with your research team.

Applications

Research & Industry Use Cases

Trusted by academic labs and enterprise R&D departments worldwide.

Energy Storage

Solid-State Battery Electrolytes

Screening fast-ion conductors with optimized ionic mobility and electrochemical stability windows.

Sustainability

Biodegradable Polymers

Accelerating the design of high-performance, compostable alternatives to conventional plastics.

Aerospace

High-Entropy Alloys

Predicting phase stability and creep resistance for next-generation turbine components.

Pharma & Med

Drug Delivery Matrices

Identifying stimuli-responsive materials for controlled release and targeted therapeutics.

Integration

Technical Specifications

Seamless deployment into existing computational workflows.

# Quick start with Python SDK from aevum.materials import DiscoveryClient client = DiscoveryClient(api_key="your_key_here") results = client.predict( properties={"ionic_conductivity": >1e-4, "stability": "high"}, limit=50, include_uncertainty=True ) for mat in results: print(mat.formula, mat.confidence, mat.cif_url)
Community Feedback

From Researchers

Hear from the scientists integrating Aevum into their discovery pipelines.

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"Cut our initial screening phase from months to weeks. The uncertainty metrics are a game-changer for grant proposals and lab prioritization."

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Dr. David Lin

Lead Scientist, Argonne National Lab
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"The DFT export and Jupyter integration are flawless. We embedded it directly into our curriculum for computational materials science."

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Prof. Elena Rossi

Department of Chemistry, ETH ZΓΌrich
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"Finally, an AI tool that respects academic rigor. Every prediction traces back to verified literature. Essential for our polymer R&D team."

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Marcus Thorne

R&D Director, GreenPolymer Inc.
Get Started

Ready to Accelerate Discovery?

Join hundreds of research institutions and industry labs. Free tier includes 500 predictions/month and full API access.

No credit card required. Institutional & enterprise licensing available.