Keywords
Institutes
Artificial intuition for solving chemistry problems via an End-to-End approach
Chinese Academy Of Sciences

It demonstrate that an inductive approach can be adopted using End-to-End (E2E) machine learning. This approach is illustrated for tackling the following chemistry problems: (i) determine the fully coordinated (FC) and under-coordinated (UC) atoms in a molecule with one missing atom, (ii) identify the type of atom that is missing …

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  • China
  • Datasets
  • Year 2020
  • machine learningEnd-to-EndE2E
CrySPY
Kanazawa University

CrySPY enables anyone to easily perform crystal structure prediction simulations for materials discovery and design, and automates structure generation, structure optimization, energy evaluation, and efficiently selecting candidates using machine learning. Several searching algorithms are available such as random search, evolutionary algorithm, Bayesian optimization, and Look Ahead based on Quadratic Approximation. …

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  • Japan
  • Datasets
  • Year 2021
  • crystal structure predictionEvolutionary AlgorithmBayesian OptimizationQuadratic Approximation
Compositionally-Restricted Attention-Based Network (CrabNet)
University Of Utah

An application of the Transformer self-attention mechanism in the field of materials science. The Compositionally Restricted Attention-Based network (CrabNet), explores the area of structure-agnostic materials property predictions when only a chemical formula is provided. The results show that CrabNet’s performance matches or exceeds current best-practice methods on nearly all of …

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  • United States
  • Datasets
  • Year 2021
  • Attention-based networkMaterials property
Crystal Graph Convolutional Neural Networks
Massachusetts Institute Of Technology

This work provides two major functions: Train a CGCNN model with a customized dataset. Predict material properties of new crystals with a pre-trained CGCNN model.

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  • United States
  • Datasets
  • Year 2018
  • material propertiesGraph Convolutional Neural Networks
Aviary
University Of Cambridge

A fundamental challenge in materials science pertains to elucidating the relationship between stoichiometry, stability, structure, and property. Recent advances have shown that machine learning can be used to learn such relationships, allowing the stability and functional properties of materials to be accurately predicted. However, most of these approaches use atomic …

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  • United Kingdoms
  • Datasets
  • Year 2021
  • interface
Roost
University Of Cambridge

In materials discovery applications often we know the composition of trial materials but have little knowledge about the structure. Many current SOTA results within the field of machine learning for materials discovery are reliant on knowledge of the structure of the material. This means that such models can only be …

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  • United States
  • Datasets
  • Year 2021
  • StoichiometryRepresentation LearningMaterials Science
MLStabilityTest
University Of California, Berkeley

The models tested in this work include five recently published compositional models, a baseline model using stoichiometry alone, and a structural model. By testing seven machine learning models for formation energy on stability predictions using the Materials Project database of DFT calculations for 85,014 unique chemical compositions, we show that …

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  • United States
  • Datasets
  • Year 2020
  • formation energystabilityprediction
GATGNN Global attention graph neural networks
University Of South Carolina

The development of an efficient and powerful machine learning (ML) model for materials property prediction (MPP) remains an important challenge in materials science. While various techniques have been proposed to extract physicochemical features in MPP, graph neural networks (GNN) have also shown very strong capability in capturing effective features for …

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  • United States
  • Datasets
  • Year 2020
  • graph neural networksband gapformation energydeep learningglobal attention
AFLOW-PAOFLOW
Duke University

PAOFLOW is a utility for the analysis and characterization of materials properties from the output of electronic structure calculations. By exploiting an efficient procedure to project the full plane-wave solution on a reduced space of atomic orbitals, PAOFLOW facilitates the calculation of a plethora of quantities such as diffusive, anomalous …

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  • United States
  • Datasets
  • Year 2020
  • ab initio Hamiltonians from the projections of electronic wavefunctions on atomic orbital
MolSSI SEAMM
Molecular Sciences Software Institute

Simulation Environment for Atomistic and Molecular Simulations (SEAMM)

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  • United States
  • Datasets
  • Year 2021
  • Simulation Environment for computational molecular and materials science