Slow Strain Rate Testing for the Evaluation of Environmentally Induced Cracking: Research and Engineering Applications

    Kane RD
    Published: 1993

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    Highlights some of the new directions in testing for environmentally induced cracking using a variety of slow strain rate techniques.

    19 papers written by researchers from industry, government agencies, and universities worldwide address:

    • Development and application of slow strain rate testing techniques

    • Uses of slow strain rate SCC testing to control or monitor industrial processes: applications in nuclear power

    • Research applications and developments in slow strain rate testing techniques

    • Industrial applications of slow strain rate testing to evaluate the environmentally induced cracking

    • Use of slow strain rate testing for qualification of SCC resistance of corrosion resistant alloys: case histories in petroleum production.

    Papers describe both fundamental research studies and more practical applications

    Table of Contents

    Kane R.

    Slow Strain Rate Testing—25 Years Experience
    Parkins R.

    Limitations of the Slow Strain Rate Test Technique
    Beavers J., Koch G.

    Status of Standardization Activities on Slow Strain Rate Testing Techniques
    Kane R., Wilhelm S.

    SSRT for Hydrogen Water Chemistry Verification in BWRs
    Indig M.

    Applications of Slow Strain Rate Testing in the Nuclear Power Industry
    Miglin B., Miglin M.

    Measurement of the Deformability of Austenitic Stainless Steels and Nickel-Base Alloys in Light Water Reactor Cores
    Alter D., Dewes P., Garzarolli F., Hahn R., Nelson J.

    The Use of Precracked and Notched Slow Strain Rate Specimens
    Toribio J.

    Environmental Slow Strain Rate J-Integral Testing of Ni-Cu Alloy K-500
    Juers R., Natishan M., Vassilaros M., Vasudevan A.

    Application of the Rising Displacement Test to SCC Investigations
    Dietzel W., Schwalbe K.

    Slow Strain Rate Fracture of High-Strength Steel at Controlled Electrochemical Potentials in Ammonium Chloride, Potassium Chloride, and Ammonium Nitrate Solutions
    Daniels R., Nguyen D., Nichols D.

    Slow Strain Rate Testing of Precracked Titanium Alloys in Salt Water and Inert Environments
    Meyn D., Pao P.

    Case Histories Using the Slow Strain Rate Test
    Baumert K., Watkins W.

    Use of Slow Strain Rate Tests to Evaluate the Embrittlement of Aluminum and Stainless Alloys in Process Environments Containing Mercury
    Kane R., Wilhelm S., Wu D.

    Effect of Heat Treatment on Liquid Metal-Induced Cracking of Austenitic Alloys
    Krupowicz J.

    Hydrogen Cracking Initiation of a High-Strength Steel Weldment
    Hays R., Klein P., Moran P., Scully J.

    Problems Associated with Slow Strain Rate Quality Assurance Testing of Nickel-Base Corrosion Resistant Alloy Tubulars in Hydrogen Sulfide Environments
    Ahluwalia H.

    The Role of Slow Strain Rate Testing on Evaluation of Corrosion Resistant Alloys for Hostile Hot Sour Gas Production
    Ikeda A., Okamoto H., Ueda M.

    Relationship of Localized Corrosion and SCC in Oil and Gas Production Environments
    Currie D., Wilhelm S.

    Improved SSR Test for Lot Acceptance Criterion
    Hibner E.

    Author Index

    Subject Index

    Committee: G01

    DOI: 10.1520/STP1210-EB

    ISBN-EB: 978-0-8031-5254-0

    ISBN-13: 978-0-8031-1870-6

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