High-Throughput Experimentally and Computationally Guided Discovery of Next Generation High-Temperature Shape Memory Alloys

Abstract

We have developed a framework for the discovery of novel high-temperature shape memory alloys by combining high-throughput experimental techniques, high-throughput computational methods, and statistical analysis/machine learning techniques. We have fabricated a novel resistance sensor array for the combinatorial screening of shape memory alloys, built a binary alloy database, and developed an efficient experiment design technique. An in-depth experimental-computational study on a broad range of Cu-Zr-X shape memory alloys shows that DFT simulations are a useful tool to guide the experimental development of shape memory alloys provided relevant energy terms are taken into account.

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Document Details

Document Type
Technical Report
Publication Date
Jul 31, 2019
Accession Number
AD1096609

Entities

People

  • Joost J Vlassak
  • Raymundo Arróyave

Organizations

  • Harvard University

Tags

Communities of Interest

  • Air Platforms
  • Autonomy
  • Energy and Power Technologies
  • Sensors

DTIC Thesaurus Topics

  • Alloys
  • Binary Alloys
  • Computational Science
  • Data Science
  • Databases
  • Heat Energy
  • High Temperature
  • Information Science
  • Latent Heat
  • Machine Learning
  • Materials Science
  • Measurement
  • Phase Transformations
  • Resistance
  • Simulations
  • Statistical Analysis
  • Transition Temperature

Readers

  • Computational Modeling and Simulation
  • Nanocomposite Materials Science
  • Powder metallurgy of Titanium alloys.

Technology Areas

  • AI & ML