Art

J-GLOBAL ID：201902233496856430   Reference number：19A0768120

Effect of Chemical Composition and Relative Humidity on the Humid Gas Stress Corrosion Cracking of Aluminum Alloys

アルミニウム合金の湿潤ガス応力腐食割れに及ぼす化学組成と相対湿度の影響

Author (4)： OGAWA Takeshi (Aoyama Gakuin University) ,  HASUNUMA Shota (Aoyama Gakuin University) ,  SHIRAWACHI Toshiki (Graduate school of Aoyama Gakuin University) ,  FUKADA Naonari (Graduate school of Aoyama Gakuin University)
Material： 圧力技術  (Journal of High Pressure Institute of Japan)
Volume： 57  Issue： 1  Page： 24-33(J-STAGE)  Publication year： 2019 
JST Material Number： S0913A  ISSN： 0387-0154  Document type： Article
Article type： 原著論文  Country of issue： Japan (JPN)  Language： ENGLISH (EN)

Thesaurus term： aluminum base alloy ,  moist air ,  *stress corrosion cracking ,  *chemical composition ,  *relative humidity ,  crack propagation ,  velocity ,  copper additive alloy ,  silicon additive alloy ,  stress intensity factor ,  fractography ,  failure mode (mechanics) ,  plastic working ,  residual stress ,  storage tank ,  hydrogen tank ,  crack growth rate ,  autofrettage ,  *crack ,  *corrosion cracking
Semi thesaurus term： crack growth rate ,  autofrettage method

Author keywords (5)： Humid Gas Stress Corrosion Cracking ,  Chemical Composition ,  Relative Humidity ,  Aluminum Alloy ,  Hydrogen Container

JST classification (2)： Corrosion  (WB03030B) ,  Metallic materials  (HC04020L)

Reference (7)：

• 1) ISO 14867-2: 2012 Hydrogen fuel-Product specification-Part 2: Proton exchange membrane (PEM) fuel cell applications for load vehicles.
• 2) Ito, G.; “Service Environment and Testing Method for Global Standardization of Aluminum Alloys Related to Hydrogen”, Corrosion Engineering, Vol. 65, pp. 339-346 (2016) . (ISSN 0892-4228) \n
• 3) HPIS E 103: 2018, Standard Test Method for Humid Gas Stress Corrosion Cracking of Aluminium Alloys for Compressed Hydrogen Containers (2018) . \n
• 4) Ogawa, T. , Hasunuma, S. , Sogawa, N. , Yoshida, D. , Kanezaki, T. and Mano, S.; “Characteristics of Fatigue Crack Growth and Stress Corrosion Cracking in Aggressive Environments of Aluminum Alloys for Hydrogen Gas Containers”, ASME 2014 Pressure Vessels & Piping Conference CD-ROM, PVP2014-28236. pdf, p. 10 (2014) . \n
• 5) Ogawa, T. , Hasunuma, S. , Watanabe, S. , Sogawa, N. , Kanezaki, T. , Mano, S. and Miyagawa, K.; “ Study on Evaluation Methods for Stress Corrosion Cracking and Fatigue Crack Growth of Aluminum Alloys for Hydrogen Containers”, Journal of High Pressure Institute of Japan, Vol. 54, Issue 6, pp. 277-288 (2016) . \n

Terms in the title (5)： アルミニウム合金 ,  湿潤 ,  応力腐食割れ ,  化学組成 ,  相対湿度