ASTM STP 1367-2000 PDF
Name in English:
St ASTM STP 1367-2000
Name in Russian:
Ст ASTM STP 1367-2000
Original standard ASTM STP 1367-2000 in PDF full version. Additional info + preview on request
Full title and description
Fretting Fatigue: Current Technology and Practices — ASTM Special Technical Publication STP 1367 (2000). A collected proceedings volume edited by D. W. Hoeppner, V. Chandrasekaran, and C. B. Elliott that compiles peer‑reviewed papers and keynote contributions on the mechanisms, testing, analysis, and mitigation of fretting fatigue in engineering materials and assemblies.
Abstract
This ASTM STP volume presents the state of practice and research (circa 2000) on fretting fatigue: experimental studies, environmental and material effects, crack nucleation and early propagation, fracture mechanics approaches, life‑prediction strategies, damage mapping concepts, surface treatments and coatings, and engineering applications. The book collects the technical papers from the 2nd International Symposium on Fretting Fatigue together with invited/keynote background papers, offering a comprehensive reference for researchers and practicing engineers concerned with fretting‑related degradation and failure.
General information
- Status: Published (ASTM STP proceedings volume)
- Publication date: 2000
- Publisher: ASTM International (ASTM Special Technical Publication), West Conshohocken, PA, USA
- ICS / categories: 77 (Metallurgy) — subcategories relevant to testing of metals and fatigue (e.g., 77.040 Mechanical testing of metals)
- Edition / version: STP 1367 (2000) — proceedings edition edited by D. W. Hoeppner, V. Chandrasekaran, C. B. Elliott
- Number of pages: 552 (proceedings volume; pagination varies by format)
Scope
Scope covers fundamental and applied aspects of fretting fatigue: identification of influential parameters (contact geometry, slip regime, load spectrum), environmental and temperature effects, microstructural and material influences on crack nucleation, fretting damage measurement and mapping, fracture‑mechanics approaches to fretting crack growth, life‑prediction methodologies, test methods and apparatus, surface treatments/coatings to mitigate fretting, and practical case studies from aerospace, automotive, and power industry applications.
Key topics and requirements
- Fretting‑fatigue parameter effects (contact, slip, load ratios, frequency)
- Environmental and temperature influences on nucleation and propagation
- Mechanisms of crack nucleation and early‑stage propagation under fretting
- Fracture mechanics and multiaxial approaches for fretting crack growth analysis
- Experimental methods, apparatus, and standardized test practice considerations
- Life‑prediction models and damage‑mapping concepts linking wear and fatigue
- Surface treatments, coatings, and design measures to reduce fretting damage
- Application case studies (aerospace alloys, steels, titanium and aluminum alloys, polymeric interfaces)
Typical use and users
Used as a technical reference and proceedings resource by materials scientists, fracture and fatigue engineers, tribologists, structural integrity and failure‑analysis specialists, test laboratory personnel, and engineering designers in aerospace, automotive, power generation, and heavy industries. It supports research, development, test method development, failure investigation, and design decisions where fretting damage and fretting‑assisted fatigue are concerns.
Related standards
Related ASTM STP volumes and papers on fretting fatigue and fatigue testing (for example later STP volumes addressing advances in fretting fatigue), general ASTM/ISO/ASME standards on fatigue and mechanical testing of metals (mechanical fatigue testing methods and specimen preparation), and fracture‑mechanics standards used for crack‑growth analysis. Relevant follow‑on literature includes subsequent ASTM STP collections and journal special issues addressing fretting mechanisms and life‑prediction techniques.
Keywords
fretting fatigue; fretting wear; fatigue life prediction; crack nucleation; fracture mechanics; surface treatment; coatings; Ti‑6Al‑4V; aluminum alloys; steels; experimental methods; damage mapping; tribology.
FAQ
Q: What is this standard?
A: This is not a prescriptive "standard" in the sense of a single test method; it is ASTM Special Technical Publication STP 1367 (2000), a proceedings volume that compiles peer‑reviewed papers and keynote contributions on fretting fatigue. It serves as a technical reference rather than a normative test standard.
Q: What does it cover?
A: It covers the science and engineering practice of fretting fatigue: parameter studies, environmental and temperature effects, microstructural influences, testing methodologies, fracture‑mechanics approaches, life‑prediction concepts, surface treatments, and practical application case studies across multiple material systems.
Q: Who typically uses it?
A: Researchers, fatigue and fracture engineers, tribologists, failure analysts, test laboratory staff, and designers in aerospace, automotive, energy, and other industries where fretting‑related failures are a concern.
Q: Is it current or superseded?
A: STP 1367 is a published proceedings volume from 2000 and remains a valuable historical and technical reference. It has not been "superseded" as a single definitive book, but the field has progressed since 2000; users should consult more recent ASTM STP volumes, journal literature, and current fatigue/fracture/testing standards for up‑to‑date test methods and models.
Q: Is it part of a series?
A: Yes — it is part of the ASTM Special Technical Publication (STP) series and was developed under ASTM committee E08 (fatigue and fracture). It is linked thematically to other STP volumes and publications on fretting fatigue and fatigue testing.
Q: What are the key keywords?
A: Fretting fatigue; fretting wear; crack nucleation; life prediction; fracture mechanics; surface treatment; testing methodology; tribology; fatigue of metals.