TY - CHAP
T1 - Machine Learning for Safety-Critical Applications
T2 - Opportunities, Challenges, and a Research Agenda
AU - National Academies of Sciences, Engineering, and Medicine
AU - Committee on Using Machine Learning in Safety-Critical Applications: Setting a Research Agenda
AU - Computer Science and Telecommunications Board
AU - Division on Engineering and Physical Sciences
AU - Pappas, George
AU - Chen, Yiran
AU - Damm, Werner
AU - Dietterich, Thomas
AU - Gaston, Matthew
AU - Girard, Anouck
AU - Griffin, Robert
AU - How, Jonathan P.
AU - Llorens, Ashley
AU - Tapia, Lydia
AU - Zhang, Aidong
AU - Nguyễn, Thơ H.
AU - Eisenberg, Jon K.
AU - Risica, Gabrielle M.
AU - Udeagbala, Nneka A.
AU - Bradley, Shenae A.
AU - Haas, Laura
AU - Danks, David
AU - Isbell, Charles
AU - Kamar, Ece
AU - Kurose, James F.
AU - Luebke, David
AU - Meyerriecks, Dawn
AU - Scherlis, William
AU - Schulzrinne, Henning
AU - Seshadri, Nambirajan
AU - Washington, Kenneth E.
AU - Shrestha, Aarya
N1 - Publisher Copyright:
Copyright 2025 by the National Academy of Sciences. National Academies of Sciences, Engineering, and Medicine and National Academies Press and the graphical logos for each are all trademarks of the National Academy of Sciences. All rights reserved.
PY - 2025
Y1 - 2025
N2 - Advances in artificial intelligence, and specifically in machine learning, are enabling new capabilities across nearly every sector of the economy. Many of these applications - such as automated vehicles, the power grid, or surgical robots - are safety critical: where malfunctions can result in harm to people, the environment, or property. While machine learning is already being deployed to enhance the capabilities of some physical systems, extending the rigorous practices of safety engineering to include machine learning components brings significant challenges. Machine Learning for Safety-Critical Applications explores ways to safely integrate machine learning into physical systems and presents research priorities for improving safety, testing, and evaluation. This report finds that designing machine learning algorithms in a way that aligns with safety engineering standards will require changes in research, training, and engineering practice - as well as a shift away from focusing on algorithmic performance in isolation.
AB - Advances in artificial intelligence, and specifically in machine learning, are enabling new capabilities across nearly every sector of the economy. Many of these applications - such as automated vehicles, the power grid, or surgical robots - are safety critical: where malfunctions can result in harm to people, the environment, or property. While machine learning is already being deployed to enhance the capabilities of some physical systems, extending the rigorous practices of safety engineering to include machine learning components brings significant challenges. Machine Learning for Safety-Critical Applications explores ways to safely integrate machine learning into physical systems and presents research priorities for improving safety, testing, and evaluation. This report finds that designing machine learning algorithms in a way that aligns with safety engineering standards will require changes in research, training, and engineering practice - as well as a shift away from focusing on algorithmic performance in isolation.
UR - https://www.scopus.com/pages/publications/105032911221
U2 - 10.17226/27970
DO - 10.17226/27970
M3 - Chapter
AN - SCOPUS:105032911221
SN - 9780309726665
SP - 1
EP - 85
BT - Coresource 4
PB - National Academies Press
ER -