This series of papers has been issued to give general views on recent Japanese activities related to nuclear codes and standards. Part I of the series includes an overview, a discussion of administrative and design aspects related to new methods of evaluating the integrity of components, that is, piping seismic rules based on ratcheting fatigue, a fracture toughness equation for vessel materials, an extension of the factor based on elastic follow-up, a discussion of high cycle thermal fatigue, and a three-dimensional finite element method elastic-plastic analysis procedure.
1.
Japan Electric Association
, 1984, “Technical Guidelines for Aseismic Design of Nuclear Power Plants: Supplement Allowable Stress, Classification
,” JEAG 4601: Supplement.2.
Japan Electric Association
, 1987, “Technical Guidelines for Aseismic Design of Nuclear Power Plants
,” JEAG 4601.3.
Japan Electric Association
, 1991, “Technical Guidelines for Aseismic Design of Nuclear Power Plants: Supplement
,” JEAG 4601, Supplement edition.4.
Park
, Y. J.
, and Hofmayer
, C. H.
, NUREG/CR-6241 (BNL-NUREG-52422) 1994, “Technical Guidelines for Aseismic Design of Nuclear Power Plants
,” Translation of JEAG 4601-1987.5.
EPRI
, 1993, “Piping and Fitting Reliability Program, Vol. 1, Project Summary
.”6.
EPRI
, 1992, “Piping and Fitting Reliability Program, Vol. 2, Component Test Report
.”7.
EPRI
, 1992, “Piping and Fitting Reliability Program, Vol. 3, System Test Report
.”8.
EPRI
, 1992, “Piping and Fitting Reliability Program, Vol. 4, Specimen Fatigue Ratcheting Test Report
.”9.
EPRI
, 1989, “Piping and Fitting Reliability Program, Vol. 5, Piping Design Rules Revisions
.”10.
ASME
, “Boiler and Pressure Vessel Code, Sec. 3, Division 1
,” 1992 edition with 1994 addenda.11.
ASME
, 2001, “Boiler and Pressure Vessel Code, Sec. 3, Division 1
.”12.
NRC
, 1998, “Seismic Analysis of Piping: Final Program Report
,” NUREG/CR-5361.13.
Asada
, Y.
, 1985, “Failure Criterion on Low-Cycle Fatigue With Excessive Progressive Deformation
,” Proceedings of the 3rd German-Japanese Joint Seminar
, II 2.2, 1985, pp. 1
–13
.14.
Namaizawa
, J.
, Ueno
, K.
, Ishikawa
, A.
, and Asada
, Y.
, 1993, “Life Prediction Technique for Ratcheting Fatigue
,” ASME PVP
, 266
, pp. 3
–11
.15.
Fujiwaka
, T.
, Kobayashi
, H.
, Isogai
, T.
, and Asada
, Y.
, 2000, “Analytical Study on Excessive Deformation of Piping due to Seismic Load and Weight Load
,” ASME PVP
, 407
, pp. 147
–152
.16.
Yokota
, H.
, Endou
, R.
, Kawabata
, M.
, Sakakida
, T.
, Fujiwaka
, T.
, Asada
, Y.
, and Suzuki
, K.
, 2000, “Study on Seismic Design of Nuclear Power Plant Piping in Japan. Part 1: Overview of the Study
,” ASME PVP
, 407
, pp. 117
–123
.17.
Yokota
, H.
, Endou
, R.
, Kawabata
, M.
, Sakakida
, T.
, Fujiwaka
, T.
, Asada
, Y.
, and Suzuki
, K.
, 2000, “Study on Seismic Design of Nuclear Power Plant Piping in Japan. Part 2: Material Tests Results
,” ASME PVP
, 407
, pp. 125
–130
.18.
Yoshino
, K.
, Endou
, R.
, Sakakida
, T.
, Yokota
, H.
, Fujiwaka
, T.
, Asada
, Y.
, and Suzuki
, K.
, 2000, “Study on Seismic Design of Nuclear Power Plant Piping in Japan. Part 3: Component Tests Results
,” ASME PVP
, 407
, pp. 131
–137
.19.
Sakakida
, T.
, Endou
, R.
, Kawabata
, M.
, Yokota
, H.
, Fujiwaka
, T.
, Asada
, Y.
, and Suzuki
, K.
, 2000, “Study on Seismic Design of Nuclear Power Plant Piping in Japan. Part 4: Analytical Evaluation of Piping Component Tests
,” ASME PVP
, 407
, pp. 139
–146
.20.
Suzuki
, K.
, Namita
, Y.
, Abe
, H.
, Ichihashi
, I.
, Suzuki
, K.
, Ishiwata
, M.
, Fujiwaka
, T.
, and Yokota
, H.
, 2002, “Seismic Proving Test of Ultimate Strength (Current Status of Preliminary Tests-II)
,” Proceedings of the Tenth International Conference on Nuclear Engineering
, ICONE-22225.21.
Suzuki
, K.
, Namita
, Y.
, Abe
, H.
, Ichihashi
, I.
, Suzuki
, K.
, Ishiwata
, M.
, Fujiwaka
, T.
, and Tai
, K.
, 2002, “Seismic Proving Test of Ultimate Strength (Results on Piping Component and Simplified Piping System)
,” Proceedings of ASME-PVP
, 445
, pp. 99
–106
.22.
Suzuki
, K.
, Namita
, Y.
, Abe
, H.
, Ichihashi
, I.
, Suzuki
, K.
, Ishiwata
, M.
, Fujiwaka
, T.
, and Tai
, K.
, 2003, “Seismic Proving Test of Ultimate Strength (Simulation Analysis of Simplified Piping System Test)
,” Proceedings of ASME-PVP
, 466
, pp. 23
–30
.23.
Suzuki
, K.
, Namita
, Y.
, Abe
, H.
, Ichihashi
, I.
, Suzuki
, K.
, Sakakida
, T.
, Sato
, T.
, and Yokota
, H.
, 2003, “Seismic Proving Test of Ultimate Strength (Status of Design Method Confirmation Test)
,” Proceedings of SMiRT-17
, K5
-2
.24.
Suzuki
, K.
, and Suzuki
, K.
, 2004, “Seismic Proving Test of Ultimate Strength (Design Method Confirmation Test)
,” Proceedings of ASME-PVP
, 486
, pp. 187
–194
.25.
Suzuki
, K.
, and Suzuki
, K.
, 2004, “Seismic Proving Test of Ultimate Strength (Ultimate Strength Test)
,” Proceedings of ASME-PVP
, 486
, pp. 201
–208
.26.
Nuclear Power Engineering Corporation
, 1999, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants Part 3, FY 1998: Piping-System Ultimate Strength Demonstration Test
.”27.
Nuclear Power Engineering Corporation
, 2000, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants Part 3, FY 1998: Piping-System Ultimate Strength Demonstration Test
.”28.
Nuclear Power Engineering Corporation
, 2001, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants Part 2, FY 1998: Piping-System Ultimate Strength Demonstration Test
.”29.
Nuclear Power Engineering Corporation
, 2002, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants Part 2, FY 1998: Piping-System Ultimate Strength
.”30.
Nuclear Power Engineering Corporation
, 2003, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants, Part 1, FY 1998: Piping-System Ultimate Strength Demonstration Test
.”31.
Nuclear Power Engineering Corporation
, 2003, “Report on Demonstration Test on Seismic Reliability of Nuclear Power Plants Part 1, FY 1998: Piping-System Ultimate Strength
.”32.
Maekawa
, O.
, Matsushita
, A.
, Iida
, M.
, Murakami
, E.
, Iida
, K.
, and Asada
, Y.
, 1997, “Establishment of a New KIR Curve Based on TNDT Obtained by the One Pass Procedure, Pressure Vessel and Piping Codes and Standards
,” PVP
, 353
, ASME 1997, pp. 351
–358
.33.
Asada
, S.
, Nakamura
, T.
, and Asada
, Y.
, 2001, “Evaluation of Conservativeness in the Simplified Elastic-Plastic Analysis Using Analytical Results Part 2: Proposal of a New Ke Function
,” Pressure Vessel and Piping Codes and Standards, PVP
, 419
, The American Society of Mechanical Engineers, pp. 33
–42
.34.
Tagart
, S. W.
, Jr., 1968, “Plastic Fatigue Analysis of Pressure Components
,” ASME 68-PVP-3.35.
Kawamura
, T.
, Shiina
, K.
, Ohtsuka
, M.
, Mizuno
, T.
, Kurosaki
, M.
, Wakamatsu
, M.
, Tanimoto
, K.
, Fyukuda
, T.
, Minami
, Y.
, Moriya
, S.
, and Madarame
, H.
, 2003, “Study on High-Cycle Fatigue Evaluation for Thermal Striping in Mixing Tees With Hot and Cold Water (2)
,” Proceedings of the 11th International Conference on Nuclear Engineering
(ICONE-11), No. 36182.36.
Noguchi
, H.
, Tanimoto
, K.
, Kondo
, Y.
, Ishiga
, H.
, Ogura
, K.
, Shiina
, K.
, Minami
, Y.
, Fukuda
, T.
, Moriya
, S.
, and Madarame
, H.
, 2003, “Study on High-Cycle Fatigue Evaluation for Thermal Striping in Mixing Tees With Hot and Cold Water (3)
,” Proceedings of the 11th International Conference on Nuclear Engineering
(ICONE-11), No. 36376.37.
Kondo
, Y.
, Tanimoto
, K.
, Shiraishi
, T.
, Suzuki
, S.
, Hirayama
, H.
, Shiina
, K.
, Minami
, Y.
, Isaka
, H.
, Fukuda
, T.
, Mizutani
, J.
, Moriya
, S.
, and Madarame
, H.
, “Study on Relationship Between Thermal Stratification and Cavity Flow in a Branch Pipe With a Closed End
,” 2003, Proceedings of the 11th International Conference on Nuclear Engineering
(ICONE-11), No. 36214.38.
Kawamura
, T.
, Shiina
, K.
, Ohtsuka
, M.
, Tanaka
, I.
, Hirayama
, H.
, Tanimoto
, K.
, Fukuda
, T.
, Sakashita
, A.
, Mizutani
, J.
, Minami
, Y.
, Moriya
, S.
, and Madarame
, H.
, 2002, “Experimental Study on Thermal Striping in Mixing Tees with Hot and Cold Water
,” Proceedings of the 10th International Conference on Nuclear Engineering
(ICONE-10).39.
Tanimoto
, K.
, Shiraishi
, T.
, Suzuki
, S.
, Hirayama
, H.
, Shiina
, K.
, Fukuda
, T.
, Mizutani
, J.
, Minami
, Y.
, Isaka
, H.
, Moriya
, S.
, and Madarame
, H.
, 2002, “Study on Relationship between Thermal Stratification and Cavity Flow in a Branch Pipe with a Closed End
,” Proceedings of the 10th International Conference on Nuclear Engineering
(ICONE-10), No. 23340.40.
Fukuda
, T.
, Sakashita
, A.
, Mizutani
, J.
, Matsunaga
, T.
, Ogura
, K.
, Shiina
, K.
, Tanimoto
, K.
, Moriya
, S.
, and Madarame
, H.
, 2003, “Current Effort to Establish a JSME Code for the Evaluation of High-Cycle Thermal Fatigue
,” Proceedings of the 11th International Conference on Nuclear Engineering
(ICONE-11), No. 36439.41.
Wakamatsu
, M.
, Hirayama
, H.
, Kimura
, K.
, Ogura
, K.
, Shiina
, K.
, Tanimoto
, K.
, Mizutani
, J.
, Minami
, Y.
, Moriya
, S.
, and Madarame
, H.
, 2003, “Study on High-Cycle Fatigue Evaluation for Thermal Striping in Mixing Tees with Hot and Cold Water (1)
,” Proceedings of the 11th International Conference on Nuclear Engineering
(ICONE-11), No. 36208.42.
Okamoto
, A.
, Nishiguchi
, I.
, and Aoki
, M.
, “Recent Advancement on the Draft or Alternative Stress Evaluation Criteria in Japan Based on Partial Inelastic Analysis
,” Pressure Vessel and Piping Codes and Standards, PVP
, 419
, The American Society of Mechanical Engineers, pp. 17
–24
.43.
Asada
, S.
, Okamoto
, A.
, Nishiguchi
, I.
, Aoki
, M.
, and Asada
, Y.
, 2004, “Technical Bases for Alternative Stress Evaluation Criteria in Japan Based on Partial Inelastic Analysis
,” Pressure Vessel and Piping Codes and Standards, PVP
, 472
, The American Society of Mechanical Engineers, pp. 85
–92
.Copyright © 2006
by American Society of Mechanical Engineers
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