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Material Discovery

Generative models for discovering novel materials with desired properties

Material Discovery visualization

Overview

Our Material Discovery models utilize advanced generative AI techniques to explore vast chemical and structural spaces, identifying promising new materials with desired properties. Unlike traditional discovery methods that rely on time-consuming trial and error, these models can efficiently navigate complex material landscapes to propose candidate materials with high potential.

By combining machine learning, computational chemistry, and material science principles, these models accelerate the discovery process by orders of magnitude, opening new opportunities for innovation in diverse fields such as energy storage, catalysis, electronics, and sustainable materials.

Available Models

MaterialGAN
Type
Generative Adversarial Network
Material Types
Inorganic crystals, metal-organic frameworks
Capabilities
Generates novel crystal structures with specific lattice parameters
Training Data
120,000+ crystal structures from Materials Project database
InverseDesign-VAE
Type
Variational Autoencoder with Reinforcement Learning
Material Types
Organic molecules, polymers, composites
Capabilities
Generates materials with target properties through inverse design
Optimization
Multi-objective optimization for competing properties
MatComposer
Type
Transformer-based Generative Model
Material Types
Alloys, high-entropy materials, functional composites
Capabilities
Composition optimization with property constraints
Unique Feature
Incorporates manufacturability constraints

How It Works

Our material discovery models employ several AI approaches to generate and identify novel materials:

Generative Design Process

  1. Property Specification: Users define desired material properties and constraints.
  2. Latent Space Exploration: AI models explore a compressed representation of the material space.
  3. Candidate Generation: Novel material candidates are generated that potentially satisfy the specified criteria.
  4. Property Validation: Generated candidates undergo computational screening to validate their properties.
  5. Refinement: Promising candidates are refined through iterative feedback loops.
Material generation process visualization

Forward Design

Starting from known materials or chemical building blocks, the model explores incremental modifications to improve specific properties.

Forward design optimization

Inverse Design

Beginning with target properties, the model works backward to identify material compositions and structures that would exhibit those properties.

Inverse design process

Applications

Crystal structure visualization

Energy Storage Materials

Our discovery models have successfully identified novel electrode and electrolyte materials with improved energy density, cycling stability, and safety profiles.

BatteriesSupercapacitorsSolid-state Electrolytes

Catalyst Development

Generative models have accelerated the discovery of high-performance catalysts for chemical transformations, fuel cells, and CO₂ reduction.

ElectrocatalystsPhotocatalystsHeterogeneous Catalysts

Advanced Functional Materials

Our models have contributed to the development of novel materials with tailored optical, magnetic, thermal, and electronic properties.

PhotovoltaicsThermoelectrics2D Materials

Getting Started

Access to our Material Discovery models is available through our cloud API or on-premise deployment. To start discovering novel materials with AI:

  1. Sign up for a ThinkMaterial account
  2. Define your material property targets and constraints
  3. Select the appropriate discovery model for your application
  4. Generate and evaluate candidate materials through our intuitive interface
  5. Export promising candidates for experimental validation