Compound Knowledge Graph-Enabled AI Assistant for Accelerated Materials Discovery

Materials scientists are facing increasingly challenging multi-objective performance requirements to meet the needs of modern systems such as lighter-weight and more fuel-efficient aircraft engines, and higher heat and oxidation-resistant steam turbines. While so-called second wave statistical machi...

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Veröffentlicht in:Integrating materials and manufacturing innovation 2022-12, Vol.11 (4), p.467-478
Hauptverfasser: Aggour, Kareem S., Detor, Andrew, Gabaldon, Alfredo, Mulwad, Varish, Moitra, Abha, Cuddihy, Paul, Kumar, Vijay S.
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container_end_page 478
container_issue 4
container_start_page 467
container_title Integrating materials and manufacturing innovation
container_volume 11
creator Aggour, Kareem S.
Detor, Andrew
Gabaldon, Alfredo
Mulwad, Varish
Moitra, Abha
Cuddihy, Paul
Kumar, Vijay S.
description Materials scientists are facing increasingly challenging multi-objective performance requirements to meet the needs of modern systems such as lighter-weight and more fuel-efficient aircraft engines, and higher heat and oxidation-resistant steam turbines. While so-called second wave statistical machine learning techniques are beginning to accelerate the materials development cycle, most materials science applications are data-deprived when compared to the vastness and complexity of the search space of possible solutions. In line with DARPA’s vision of third wave AI approaches, we believe a combination of data-driven statistical machine learning and domain knowledge will be required to achieve a true revolution in materials discovery. To that end, we envision and have begun reducing to practice a system that fuses three forms of knowledge—factual scientific knowledge, physics-based and/or data-driven analytical models, and domain expert knowledge—into a single ‘Compound Knowledge Graph’ in which contextual reasoning and adaptation can be performed to answer increasingly complex questions. We believe this Compound Knowledge Graph-based system can be the nucleus of a collaborative AI assistant that supports stateful natural language back-and-forth dialogs between materials scientists and the AI to accelerate the development and discovery of new materials. This paper details our vision, summarizes our progress to date on a steam turbine blade coating use case, and outlines our thoughts on the key challenges in making this vision a reality.
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subjects Aircraft engines
Artificial intelligence
Aviation fuel
Blade coating
Characterization and Evaluation of Materials
Chemistry and Materials Science
Complexity
Domains
First World Congress on Artificial Intelligence in Materials & Manufacturing 2022
Knowledge
Knowledge representation
Machine learning
Materials Science
Metallic Materials
Nanotechnology
Oxidation resistance
Scientists
Steam turbines
Structural Materials
Surfaces and Interfaces
Thematic Section: First World Congress on Artificial Intelligence in Materials & Manufacturing 2022
Thin Films
Turbine blades
Weight reduction
title Compound Knowledge Graph-Enabled AI Assistant for Accelerated Materials Discovery
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