Explorations of Post Constrained Recovery Residual Stress of Shape Memory Alloys in Self-healing Applications

Authors

  • Muhammad Istiaque Haider Muhammad Istiaque Haider Advanced Structures Laboratory Mechanical Engineering Department University of Wisconsin Milwaukee 3200 North Cramer Street Milwaukee, WI 53211 https://orcid.org/0000-0003-0391-7626
  • Maysam Rezaee Advanced Structures Laboratory Mechanical Engineering Department University of Wisconsin Milwaukee 3200 North Cramer Street Milwaukee, WI 53211 https://orcid.org/0000-0002-3653-4114
  • Nathan Salowitz Associate Professor of Mechanical Engineering Adjunct Professor of Electrical Engineering Adjunct Professor of Civil Engineering Associate Editor of Structural Health Monitoring Wisconsin Space Grant Consortium Advisory Council Member University of Wisconsin - Milwaukee 3200 North Cramer Street #955 Milwaukee, WI 53211 https://orcid.org/0000-0001-8294-4483

DOI:

https://doi.org/10.17307/wsc.v1i1.341

Keywords:

shape memory alloy, self-healing materials, NiTi, constrained recovery, post constrained recovery residual stress (PCRRS)

Abstract

Self-healing materials with intrinsic capabilities of geometric restoration and damage recovery have a tremendous potential to improve product safety and reliability, especially in space applications where recovery or manual performance of repairs may be prohibitive, dangerous, or impossible.  Self-healing materials typically incorporate a complex internal structure containing constituent materials of different functionality and one of the primary methods is to reinforce self-healing materials with shape memory alloys that can be activated to restore geometry and close a fracture.  Recent experimental investigation revealed that Nickel Titanium (NiTi) shape memory alloys (SMAs) could repeatedly produce stable residual stresses following constrained recovery when held in a constrained condition during temperature change through the forward and reverse transformations.  The ability to produce this post constrained recovery residual stress (PCRRS) in a low temperature state, without continuous actuation, and to regenerate it repeatedly have the potential to advance self-healing capabilities and even damage prevention.

Author Biographies

Muhammad Istiaque Haider, Muhammad Istiaque Haider Advanced Structures Laboratory Mechanical Engineering Department University of Wisconsin Milwaukee 3200 North Cramer Street Milwaukee, WI 53211

Teaching Assistant, Mechanical Engineering Department, University of Wisconsin Milwaukee

Nathan Salowitz, Associate Professor of Mechanical Engineering Adjunct Professor of Electrical Engineering Adjunct Professor of Civil Engineering Associate Editor of Structural Health Monitoring Wisconsin Space Grant Consortium Advisory Council Member University of Wisconsin - Milwaukee 3200 North Cramer Street #955 Milwaukee, WI 53211

Associate Professor of Mechanical Engineering
Adjunct Professor of Electrical Engineering
Adjunct Professor of Civil Engineering
Associate Editor of Structural Health Monitoring
Wisconsin Space Grant Consortium Advisory Council Member
University of Wisconsin - Milwaukee

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Published

2022-02-25

How to Cite

Haider, M. I., Rezaee, M., & Salowitz, N. (2022). Explorations of Post Constrained Recovery Residual Stress of Shape Memory Alloys in Self-healing Applications. Proceedings of the Wisconsin Space Conference, 1(1). https://doi.org/10.17307/wsc.v1i1.341

Issue

2021: Advancing Aerospace with Artificial Intelligence

Section

Physics and Engineering

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