Ashok Saxena
This is a likely match — the affiliation was inferred from OpenAlex, ORCID, and web sources but has not been fully confirmed. Treat with appropriate caution.
President
Also affiliated: Georgia Institute of Technology (1986–2023); Nippon Steel (Japan) (1975–1976); Galgotias University (2013–2015); American Society For Testing and Materials (1984); Hindustan Aeronautics Limited (India) (1980); Center Point (2024); Westinghouse Electric (Germany) (1982); Greater Pittsburgh Orthopaedic Associates (1984); Westinghouse Electric (Japan) (1982); University of Cincinnati (1973–1975); Banaras Hindu University (1980); Westinghouse Electric (United States) (1978–2009)
Formerly Arkansas Affiliated with University of Arkansas through 2024; recent publications list Life University.
Faculty Researcher
Research Areas
Biomedical Subjects
Links
Biography and Research Information
OverviewAI-generated summary
Ashok Saxena's research focuses on materials science, with a particular emphasis on the mechanical properties and performance of alloys under various conditions. His work includes investigating creep crack growth in advanced alloys such as Alloy 247LC-DS, and developing phenomenological models to describe creep and creep-fatigue crack growth behavior in ferritic steels. Saxena also studies the engineering of pressure vessels, including the estimation of autofrettage pressure and residual stresses, and the design of durable, low-cost vessels for bulk hydrogen storage, addressing challenges like hydrogen embrittlement.
His publications span topics from material fatigue and fracture mechanics to the physics of planetary motion. Saxena's research contributions are reflected in his h-index of 36 and over 5,000 citations across more than 200 publications. He has recently been active in research related to high-pressure hydrogen storage vessel designs and the effects of hold time on fatigue crack growth in high-temperature alloys.
Metrics
- h-index: 36
- Publications: 224
- Citations: 5,108
Selected Publications
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Effects of Hold Time on the Elevated Temperature Fatigue Crack Growth Behavior of Alloy 247LC‐DS (2026)
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Creep crack growth in alloy 247LC‐DS (2024)
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A Phenomenological Model for Creep and Creep-Fatigue Crack Growth Rate Behavior in Ferritic Steels (2023)
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A Phenomenological Model for Creep and Creep-fatigue Crack Growth Behavior in Ferritic Steels (2023)
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Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy (2023)
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Thermomechanical Fatigue—Mechanisms and Practical Life Analysis (2021)
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Modelling the crack growth behaviour of a single crystal nickel base superalloy under TMF loading with long dwell times (2020)
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Results of the ASTM Round Robin on Creep-Fatigue Crack Growth Testing of a P91 Steel (2019)
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Challenges in predicting crack growth in structures operating in extreme environments (2019)
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Accounting for crack tip cyclic plasticity and creep reversal in estimating (<i>C</i><sub>t</sub>)<sub>avg</sub> during creep‐fatigue crack growth (2019)
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Advanced Fracture Mechanics and Structural Integrity (2019)
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Fracture control and structural integrity (FraCSI) education and research (2018)
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Fatigue Crack Growth Behaviour of High Strength Ferritic Steels in High Pressure Hydrogen (2018)
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Fracture mechanics – An interpretive technical history (2018)
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Oxide-scale thickness measurement for predicting crack growth history in elevated temperature components (2018)
Collaboration Network
Top Collaborators
- Creep crack growth in alloy 247LC‐DS
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
- Effects of Hold Time on the Elevated Temperature Fatigue Crack Growth Behavior of Alloy 247LC‐DS
- Creep crack growth in alloy 247LC‐DS
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
- Effects of Hold Time on the Elevated Temperature Fatigue Crack Growth Behavior of Alloy 247LC‐DS
- Creep crack growth in alloy 247LC‐DS
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
- Effects of Hold Time on the Elevated Temperature Fatigue Crack Growth Behavior of Alloy 247LC‐DS
- Creep crack growth in alloy 247LC‐DS
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
- Creep crack growth in alloy 247LC‐DS
- Effects of Hold Time on the Elevated Temperature Fatigue Crack Growth Behavior of Alloy 247LC‐DS
- Thermomechanical Fatigue—Mechanisms and Practical Life Analysis
- Thermomechanical Fatigue—Mechanisms and Practical Life Analysis
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
- Evolution of Creep Deformation near Tips of Sharp Notches and Cracks in CM247LC-DS Ni-Base Superalloy
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