EWGAE 22-30 Contents of the Proceedings, 1972-2010 - AEWG
EWGAE 22-30 Contents of the Proceedings, 1972-2010 - AEWG
EWGAE 22-30 Contents of the Proceedings, 1972-2010 - AEWG
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<strong>Contents</strong> <strong>of</strong> <strong>the</strong> <strong>Proceedings</strong> <strong>of</strong> <br />
International Acoustic Emission <br />
Symposia - <strong>1972</strong> to <strong>2010</strong> <br />
Compiled by Kanji Ono <br />
Japan-‐US Joint Symposium on Acoustic Emission and its Applications to <br />
Structural Safety Monitoring, <strong>1972</strong> <br />
The Second Acoustic Emission Symposium, 1974 <br />
The Third Acoustic Emission Symposium, 1976 <br />
The Fourth Acoustic Emission Symposium, 1978 <br />
The Fifth International Acoustic Emission Symposium, 1980 <br />
The 6th International Acoustic Emission Symposium, 1982 <br />
The 7th International Acoustic Emission Symposium, 1984 <br />
The 8th International Acoustic Emission Symposium, 1986 <br />
The 9th International Acoustic Emission Symposium, 1988 <br />
The 10th International Acoustic Emission Symposium, 1990 <br />
The 11th International Acoustic Emission Symposium, 1992 <br />
The 12th International Acoustic Emission Symposium, 1994 <br />
The 13th International Acoustic Emission Symposium, 1996 <br />
The 14th International Acoustic Emission Symposium, 1998 <br />
The 15th International Acoustic Emission Symposium, 2000 <br />
The 16th International Acoustic Emission Symposium, 2002 <br />
The 17th International Acoustic Emission Symposium, 2004 <br />
The 18th International Acoustic Emission Symposium, 2006 <br />
The 19th International Acoustic Emission Symposium, 2008 <br />
The 20th International Acoustic Emission Symposium, <strong>2010</strong> <br />
1 <br />
3 <br />
9 <br />
12 <br />
16 <br />
23 <br />
<strong>30</strong> <br />
40 <br />
50 <br />
65 <br />
74 <br />
82 <br />
90 <br />
96 <br />
100 <br />
107 <br />
112 <br />
119 <br />
125 <br />
133
[IAES1-‐J]* <br />
Japan-‐US Joint Symposium on Acoustic Emission and its Applications to Structural Safety <br />
Monitoring <br />
July 4 – 6, <strong>1972</strong>, Tokyo, Japan <br />
Sponsored by High Pressure Institute <strong>of</strong> Japan and Japan Society for Non Destructive <br />
Inspection <br />
<strong>Contents</strong> <strong>of</strong> Japanese Volume <br />
Introduction M. Onoe 1-‐3 <br />
On Acoustic Emission Y. Ishii 4-‐6 <br />
Acoustic Emission <strong>of</strong> Rocks Kiyoo Mogi 7-‐23 <br />
Study <strong>of</strong> Fracture Processes <strong>of</strong> GFRP using AE method <br />
Mitsuo Takehana and Isao Kimpara 24-‐45 <br />
A Few Applications <strong>of</strong> AE at National Railways <br />
M. Miyairi, Mitsuo Tomisawa, E. Yamamoto, H. Hisakawa 46-‐68 <br />
AE Characteristics <strong>of</strong> Rod Electroslag Weld Crack Testing <br />
M. Arii, H. Kasuya, K. Uchida 69-‐89 <br />
Applicability <strong>of</strong> AE Method to Nuclear Reactor Vessels <br />
T. Fujimura, Y. Kamata, T. Nakanii 90-‐104 <br />
Applicability <strong>of</strong> AE Method for Materials Evaluation H. Nakasa 105 – 127 <br />
AE during Tensile deformation <strong>of</strong> Steel Plates <br />
T. Suzuki, T. Sato, R. Iwatani 128-‐152 <br />
Applications <strong>of</strong> Stress Wave Method to Safety Monitoring <strong>of</strong> Structures and Materials <br />
Research N. Niwa, H. Hatano, R. Horiuchi, T. Kishi, 153-‐186 <br />
Examination and Application <strong>of</strong> Delayed Crack Detection using AE <br />
T. Fuji, T. Mori 187-‐201 <br />
Recovery <strong>of</strong> Kaiser Effect E. Isono, T. Udagawa, M. Ogasawara 202-‐<strong>22</strong>2 <br />
Using Standard AE sources for Crack AE Measurement A. Kamio <strong>22</strong>3-‐256 <br />
* Name <strong>of</strong> “IAES” was used from <strong>the</strong> 5 th symposium in 1980, but it is now applied <br />
retroactively.
CONTENTS<br />
1. ACOUSTIC EMISSION AND FRACTURE MECHANICS ......<br />
A. S. Tetelman<br />
UNIVERSITY OF<br />
LOS ANGELES<br />
CALIFORNIA<br />
2. ACOUSTIC EMISSION FOR PERIODIC AND<br />
CONTINUOUS FLAW DETECTION IN PRESSURE<br />
VESSELS<br />
........ 7<br />
P.H.Hutton<br />
BATTELLE MEMORIAL<br />
INSTITUTE<br />
3. NDT OF WELDS WITH ACOUSTIC EMISSION<br />
... ···171<br />
Do W. Prine<br />
GENERAL AMERICAN TRANSPORTATION<br />
CORPORATION<br />
4. INSTRUMENTATION FOR ACOUSTIC EMISSION<br />
··· ..·201<br />
A. Gr een<br />
DUNEGAN<br />
RESEARCH CORPORATION<br />
~ CHARACTERISTICS OF ACOUSTIC EMISSION<br />
·....·233<br />
A. Green<br />
DUNEGAN CORPORATION<br />
LIVERMOR& CALIFORNIA<br />
6. ON-LINE ACOUSTIC EMISSION MONITORING<br />
SYSTEMS FOR NUCLEAR POWER PLANTS<br />
··..·.273<br />
R. Gopa I<br />
WESTINGHOUSE ELECTRIC CORPORATION
The First Day - September 2, 1974<br />
(CONTENTS)<br />
•<br />
•<br />
[SESSION 11<br />
Olairllll!ln<br />
M. Onoe, Dr.<br />
University <strong>of</strong> Tokyo, Japan<br />
P. G. Bentley<br />
United Kingdom Atcmic Energy Authority. U.X.<br />
09: 00 SYMPOSIUM OPENING WELCOME<br />
M. Onoe, Dr.<br />
09:10 University <strong>of</strong> TOkyo, Japan<br />
11:40<br />
DISPLAY AND ANALYSIS OF REAl TIME DATA FROM ACOUSTIC EMISSION<br />
TESTS OF PRESSURE VESSELS (Ilwitedj 1<br />
N. O. Cross<br />
Elso Research and Engineering Co .• U.S.A.<br />
11:40<br />
12:<strong>30</strong><br />
Lunch Time<br />
(SESSION 2)<br />
12: <strong>30</strong><br />
01:00<br />
01:00<br />
01:<strong>30</strong><br />
•<br />
01:<strong>30</strong><br />
•<br />
02:00<br />
Chairman<br />
t. Kimpara, Or.<br />
University <strong>of</strong> Tokyo. Japan<br />
A. C. Lucia, Or.<br />
EURATOM - J.C.R., Italy<br />
DEVELOPMENT OF AN ACOUSTIC EMISSION MONITORING CAPABILITY<br />
IN THE U.S. NAVy .<br />
K. Nishida<br />
Naval Ship Research and Development Center, U.S.A.<br />
SPATIAL FILTRATION IN ACOUSTIC EMISSION DETECTION 19<br />
Y. Nakamura, Dr.<br />
University <strong>of</strong> Texas, Galveston, U.S.A.<br />
STRESS WAVE EMISSION SDURCE LOCATION AND CHARACTERIZATION<br />
BY DIGITAl METHODS ........••.••.•.•.••...................•...••.•.42<br />
A. C. Lucia, Dr.<br />
R. Brunnhuber<br />
G. Redondi<br />
EURATOM -<br />
J.R.C., Italy<br />
02:00 SIHPLIFlED MULTICHANNEL ACOUSTIC EHlSSION EQUIPMENT FOR THE<br />
TESTING OF THE SPHERICAL HIGH PRESSURE TANK .•........••••.••......67<br />
T. Fuji<br />
Nippon Kokan Kabushiki Kaisha, Japan<br />
E. Yamamoto, Dr.<br />
02: 25 TOkyo Keiki Co., Ltd., Japan<br />
- 3 -
02:25 MULTICHANNEL ACOUSTIC EMISSION SOURCE LOCATION SYSTHI AND<br />
APPLICATION TO FATIGUE TEST OF MODEL REACTOR VESSEL<br />
ITS<br />
82<br />
M. Onoe, Dr.<br />
K. Yamaguchi, Dr.<br />
H. Ichikawa<br />
T. Shimada<br />
Y. Shilllozuma<br />
02:50 University <strong>of</strong> Tokyo. Japan<br />
'.<br />
[SESSION 3)<br />
02:50<br />
03: 20<br />
03,20<br />
03:<strong>30</strong><br />
03:<strong>30</strong><br />
03:55<br />
03:55<br />
04:20<br />
Chainnan<br />
A. Kanno, Dr.<br />
Ship Research Institute. Japan<br />
H. M. Tensi, Dr.<br />
Technische Universit~t MUnchen, W-Germany<br />
INSTRUMENTATION FOR ACOUSTIC EMISSION TESTING OF STEEL<br />
PRESSURE VESSELS ................................................•.<br />
Inter:mission<br />
P. G. Bentley<br />
D. J. Dawson<br />
J. A. Parker<br />
United Kingdom Atomic Energy Authority, U.K.<br />
OBSERVATION OF ACOUSTIC EMISSION IN TENSILE TEST USING<br />
SOURCE LOCATION TECHNIqUE <strong>30</strong><br />
I. Satoh<br />
S. Sasaki<br />
I. Masaoka<br />
Hitachi Ltd .• Japan<br />
FLAW INSPECTION TEST OF LARGE SPHERICAl TANKS BY ACOUSTIC<br />
EMISSION TECHNIqUE 53<br />
T. Watanabe<br />
S. Hashirizaki<br />
H. Arita<br />
Nippon Steel Corporation, Japan<br />
04: 20 CORRELATION BETWEEN ACOUSTiC EMISSION AND CRACK SiZE CALIBRATED<br />
BY STANDARO ACOUSTIC EMISSION SOURCE GENERATED BY DROPPED STEEL<br />
BALL 67<br />
A. Kanno, Dr.<br />
M. Sakaki<br />
04: 4 5 Ship Research Institute, Japan<br />
•<br />
•<br />
- 4 -
The Second Day - September 3, 1974<br />
(SESSION 4)<br />
•<br />
ChairJllan<br />
09:10<br />
10:<strong>30</strong><br />
N. Niwa, Dr.<br />
University <strong>of</strong> Tokyo, Japan<br />
D. H. Stone<br />
Association <strong>of</strong> American Railroads, U.S.A.<br />
ACOUSTIC EMISSION AND MICROSCOPIC DEFORMATION AND FRACTURE<br />
PROCESSES (lnvi ted) .••..••...••....•••.•••••••••••••••••••••••••••<br />
K. Ono, Dr.<br />
University <strong>of</strong> CalifoTnia, LOS Angeles, U.S.A.<br />
10: )0<br />
10 :45<br />
10: 4S<br />
11:10<br />
11:10<br />
11: 40<br />
11:40<br />
12:]0<br />
Intermission<br />
ACOUSTIC EMISSION CHARACTERISTICS OF HIGH STRENGTH ALUMINUM<br />
ALLOYS DURING FRACTURE TOUGHNESS TEST 64·<br />
H. ucisik<br />
K. Dno, Dr.<br />
University <strong>of</strong> California, Los Angeles, U.S.A.<br />
PLASTIC DEFORMATION AND FRACTURE MECHANISMS INVESTIGATION BY<br />
MEANS OF THE STRESS-WAVE-EMISSION TECHNIQUE 66<br />
M. Mirabile, Dr.<br />
Centro Sperimentale Metallurgico. Italy<br />
Lunch Time<br />
[SESSION 5J<br />
Chainnan<br />
T. Fuji<br />
Nippon Kokan Kabushlki Kailha, Japan<br />
Y. Nakamura, Dr.<br />
University <strong>of</strong> Texas, Galveston, U.S.A•<br />
• 12:<strong>30</strong> ACOUSTIC EMISSION OURlNG PLASTIC OEFORMATION IN AlUMINUM,<br />
COPPER AND 3! SIUCON-IRON .<br />
M. Shimizu, Dr.<br />
K. Sano, Dr.<br />
T. Imanaka, Dr.<br />
K. Fujimoto, Dr.<br />
12:55 F;awasaki Steel corporation, Japan<br />
12:55 ACOUSTIC EMISSION DURING DEFORMATION OF TEMPERED MARTENSIT}C<br />
STEELS .........•.•...........•.•..............•••..... ,... , ... ",,23<br />
K. Sano, Dr.<br />
T. Imanaka, Dr.<br />
T. Funakoshi, Dr.<br />
K. Fujimoto, Dr.<br />
01: 20 Kawasaki Steel Corpont.tion. Japan<br />
(-Abstract Only)<br />
- 5 -
01:20 ACOUSTIC EMISSION MEASUREMENTS DURING CRYSTAlLIZATION AND<br />
HElTlNG OF METALS AND BINARY ALLOYS 46<br />
H. M. Tensi, Dr.<br />
01:S0 Technlsche universitlt MUnch"n, W-Gen
•<br />
The Third Day - September 4, 1974<br />
(SESSION 7)<br />
K. Iida, Or.<br />
University <strong>of</strong> Tokyo, Japan<br />
W. F. Hartman<br />
Trodyne Corporation, U.S.A.<br />
09:10 A SURVEY OF ACOUSTIC EMISSION RESEARCH IN EUROPE ANO<br />
INVESTIGATIONS CONDUCTEO AT BATTELLE-FRANKFURT .......•....•.•... ,.<br />
10;)0<br />
10;45<br />
Intermission<br />
11:40<br />
J. Eisenbl8tter, Or.<br />
Battelle - Institut e.V., W-Gerailny<br />
11;40<br />
12:<strong>30</strong><br />
Lunch Tillle<br />
[SESSION 8]<br />
•<br />
12: <strong>30</strong><br />
01:00<br />
01:00<br />
01:<strong>30</strong><br />
Chairman<br />
H. t~akasa<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
J. Eisenbl8tter, Or.<br />
Battelle - Institut e.V., W-Gerlllany<br />
ACOUSTIC EMISSION MONITORING OF SHOP AND FIELD WELD OF RAIL 1<br />
O. If. Stone<br />
Association <strong>of</strong> American Railroads, U.S.A.<br />
A. Green<br />
Acoustic Emission Technology Corporation, U.S.A.<br />
QUALITY CONTROL OF SPOT WELDING BY ACOUSTIC EMISSION MONITORING ...27*<br />
W. F. Hartman<br />
F. C. J
{SESSION 9)<br />
ChaiI1ll&n<br />
S. Hiyazono, Dr.<br />
Japan Ato-ic Ener9Y Research Institute, Japan<br />
M. Mirabile. Dr.<br />
Centro Sper~ntale Hetallur91co. Italy<br />
02: 20 USES OF ACOUSTIC EMISSION IN THE CONSTRUCTION INDUSTRy .•.••••....• 1"<br />
R. Huenow<br />
02:50 LaW Engineering Testi"9 CCIIlpany, U.S.A.<br />
02:50<br />
03:00<br />
Intaraission<br />
•<br />
03:00 ANAlYSIS OF ACOUSTIC EHISSIOH FROM INTERttAL FAilURE OF GlASS<br />
FIBER REINFORCED PLASTICS COMPOSITES •. __ 2<br />
I. r.:impara. Dr.<br />
M. Takehana, Dr.<br />
03:25 University <strong>of</strong> Tokyo, Japan<br />
03: 25 ACOJSTIC EMISSION ANAlYSIS OH FATIGUE OF FAST BREEDfR REACTOR<br />
PIPING COMPONENTS •••••.•..••.••.••••.•.•••••••.••••.••••••.•.•..•. 21<br />
H. Nakasa<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
S. Ueda<br />
Japan Atomic Enerqy Research Institute, Japan<br />
T. Nagata<br />
03:50 Power Reactor and Nuclear Fuel DeveloplOnt Corp.• Japan<br />
03:50 ACOUSTIC EMISSION AT THE FATIGUE TEST OF MOOEL SPHERICAL TANK .....44<br />
T. Fuji<br />
Y. Otsuka<br />
I
CONTENTS<br />
SESSION 1 AE IN FATIGUE TEST<br />
1-1 An Application ot <strong>the</strong> M: technique to Low-Cycle Patique Test<br />
<strong>of</strong> Pipincj c:c.ponents<br />
Nagata, T. Kobayashi, X. Iaazu, A. Miura, R II<br />
Power Reactor and Nuclear Fuel Development Corporation<br />
1-2 AE Monitorincj <strong>of</strong> The Patique Test <strong>of</strong> Spherical Pres.sure Vessel<br />
Ot..sWta, Y. Ishihara, X. YlIJIlllda, x.<br />
Nippon Kahn Kabushiki Kaisha<br />
Fuji, T. .. 31<br />
Industrial Research Institute, Japan<br />
1-3 Acoustic EIl.ission durincj Low Cycle Fatique Test <strong>of</strong> Heaiapherical<br />
Pressure Vessel Hodels<br />
Iida, 1(,<br />
Faculty <strong>of</strong> Engineering. University <strong>of</strong> Tokyo<br />
Su.-oto, Y. YlUII4quchi, H. Fujisava, x. Oka:r.B.va, T 47<br />
Su.itomo Metal Industries Ltd.<br />
SESSION 2 : AE FOR INTEGRITY ASSESSMENT<br />
2-1 An Acoustic Emission Location System and its Application to<br />
Hydrostatic Test <strong>of</strong> PresSure Vessel<br />
V_guchi, It. Ichikava, H. ShiJllada. T. Atab, H. 67<br />
Institute <strong>of</strong> Industrial Science University <strong>of</strong> Tokyo<br />
2-2 Effectiveness <strong>of</strong> M: Inspection Method at Water Pressure Test ot<br />
Pressure Vessels<br />
Watanabe, T. Huhirizaki, S•.-.rita, 85<br />
Nippon Steel CorporatiQn<br />
2-3 Effecta <strong>of</strong> Threshold Level on PrObabilities <strong>of</strong> Detection ~<br />
LOcation <strong>of</strong> M: Sources<br />
Haaada T. · · ·101<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> To~<br />
2-4 Development ot Acoustic Emission Techniques tor PreSsure Vessel<br />
Inspection _ TAB-AA (IRI) Project<br />
onOlll, M. . 118<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo<br />
2-5 Instrumentation System for Par~tric Analysis <strong>of</strong> Acoustic Emission<br />
Characteristics and Its Application to Integrity Assessment ot Structural Materials<br />
Nuasa, H. Itusa.nagi, H. kimura, H 131<br />
Central Research Institute <strong>of</strong> Electric Power Industry<br />
2-6 A SilnpliUed Approach to COntinuous AE Monitoring Using<br />
Digital HellIOry Storaqe<br />
Hutton. P.H. Skorpik, J.R ".152<br />
Battelle Northwest laboratories<br />
2-7 PreUainary Investigations <strong>of</strong> On-line AE Monitoring Systelll for<br />
Nuclear Power plant<br />
UesUCJi, N. Tatsuno. It. uehidll, K. Miya:r.B.wa. T _ 167<br />
Tokyo Shibaura Electric Co., ltd.
SESSION 3: At INSTRUMENTATION AND FIELD APPLICATION<br />
3-1 The Use <strong>of</strong> Spatial Filterinq and Distribution Analysis <strong>of</strong><br />
Acoustic Emission Signals to Isolate and Characteri~e Subcritical<br />
Dunegan, H.L. wadin. J.R........<br />
Dunegan/Endevco<br />
Cra
5-3 Relation Between Acoustic Emission and crack Growth<br />
in Mild Steel<br />
Kanno, A. Sakai. M. Shimada, M. Katsumata, K.<br />
Ship Research Institute<br />
. - 360<br />
5-4 Acoustic Emission Characteristics Durinq Stress Relaxation<br />
in Low carbon Steels<br />
Shimizu, M. lmanakll, T. Fujimoto, K. . 376<br />
Kawasaki Steel Corporation<br />
5-5 Relation between <strong>the</strong> Ultrasonic Velocity Chanqos and AE Phenomena<br />
<strong>of</strong> <strong>the</strong> Low carbon Steel Curing Application <strong>of</strong> Stress<br />
Yamamoto, E. Uetake, N. Motegi, R. .. - - 393<br />
Tokyo Keiki Co .• ltd.<br />
Takahashi, S.<br />
Japanese National Research Institute for Metals<br />
SESSION 6: AE FOR WELD MONITORING<br />
6-1 Evaluation <strong>of</strong> an Acoustic Emission Monitor for an-Line Quality<br />
COntrol in Spotwelding <strong>of</strong> Electronic COQponents<br />
Knoliman, G.C. weaver, J.L. . ···· .. 13<br />
lockheed Research laboratory<br />
6-2 Monitoring Electroslag Welding by Acoustic Techniques<br />
Schwenk, E.B. Shearer. G.D. Hutton P.H. Klein, R.F..<br />
Battelle Northwest laboratories<br />
"'U8<br />
6-3 an-Line Acoustic Emission Monitorinq <strong>of</strong> Welds <strong>of</strong> <strong>the</strong> Stainless<br />
Steel Steam Lines in a Thermal Power Plant<br />
Grugni, G. Pan~ani, C. Tonolini, F. Vidali. P.<br />
Centro Infonmazioni Studi Esperienze<br />
AIllendola E .<br />
Ente Nazionale dell 'Energia Elettrlca<br />
. 2<br />
SESSION 7: AE CHARACTERISTICS OF MATERIAL<br />
(II)<br />
7-1 Acoustic Emission Signals <strong>of</strong> Ti Alloy and Maraqing Steel<br />
during plane Strain Fracture Touqhness Testing<br />
Kishi, T. Saito, S. M!shima, Y. Horiuchi R. · ·4S5<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo<br />
7-2 Acoustic Emission During Fracture-Toughness Tests <strong>of</strong> a<br />
Nuclear Pressure Vessel Steel and Its Wel4ment<br />
Hatano, H. Ono, K. . 475<br />
University <strong>of</strong> California<br />
7-3 Acoustic'Emission Characteristics During Tensile Tests <strong>of</strong> Various<br />
Metals with Several Types <strong>of</strong> crystal Structures<br />
I_eda, H. Kusanaqi, H. Kimura. H. Nakasa, H. .. 92<br />
Central Research Institute <strong>of</strong> Electric Power Industry<br />
7-4 Acoustic Emission in Brittle Fracture Accompanied by Fibrous Crack<br />
Kanauwa, T. Iida, K. Okumi. K 513<br />
Faculty <strong>of</strong> Engineering, University <strong>of</strong> Tokyo
CONTENTS<br />
SESSiON 1 : INSTRUMENTATION<br />
1-1 Preview <strong>of</strong> FLlC-N and Suggested Applications<br />
W.O. Jolly 1-<br />
Quality Assurance Systems and Engineering Division, Southwest Research Institute, San Antonio<br />
1-2 A Simulator for Multichannel AE Generations with Random Intervals and Amplitudes<br />
K. Yamaguchi. T. Hamada. N. Yamagami. 1-16<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo<br />
1-3 AE Source Location by Identification and Combination <strong>of</strong> Signals<br />
K. Yamaguchi, T. Hamada. Y. Nakai 1 -24<br />
Institute <strong>of</strong> Industrial SCience, University <strong>of</strong> Tokyo.<br />
1-4 Acoustic Emission in Burst Test <strong>of</strong> Rocket Motor Case<br />
T. Kishi, S. Saito 1-50<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo'<br />
Y. Mori<br />
College <strong>of</strong> Industrial Technology, Nihon University<br />
T. Watanabe, S. Hashirizaki<br />
Nippon Steel Corporation<br />
SESSION 2 : PLASTIC DEFORMATION<br />
2-1 Acoustic Emission Activity in Plastic Deformation<br />
- Acoustic Emission Energy Release During Plastic Deformation <strong>of</strong><br />
Polycrystalline Aluminium<br />
H. C. Kim. T. Kishi 2 _ 1 ./<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo<br />
2-2 Kinematical Study <strong>of</strong> Deformation Twinning in Zinc by means <strong>of</strong> Acoustic Emission<br />
K. Kuribayashi 2-I 1<br />
Institute <strong>of</strong> Space and Aeronautical SCienea, University <strong>of</strong> Tokyo<br />
2-3 The Acoustic Emission associated with The Deformation <strong>of</strong> Corson Alloys<br />
J. Masuda 2 - 1 9<br />
Nippon Telegraph and Telephone Public Corporation<br />
2-4 Kaiser Effect <strong>of</strong> Acoustic Emission in Metals and Alloys<br />
- Kaiser Effect Ratio (K.E.R.I and Microplasticity -<br />
Y. Mori 2-32<br />
College <strong>of</strong> Industrial Technology, Nihon University<br />
2-5 Acoustic Emission Behaviour under Plane Stress Condition<br />
K. Yoshida, M. Mitsui 2-43<br />
Government Industiral Research Institute, Chugoku Metal Technology Section<br />
2-6 An Application <strong>of</strong> Acoustic Emission Technique to The Study <strong>of</strong> Tensile Deformation behaviors<br />
in Neutron '"adiated Zirconium and O<strong>the</strong>r Nuclear Materials<br />
M. Tokiwai. H. Kimura, H. Takaku, H. Nakasa 2 - 6 2<br />
Central Research Institute <strong>of</strong> Electric Power Industire.<br />
SESSION<br />
3: FATIGUE<br />
3-1 Measurement <strong>of</strong> Fatigue Crack Growth by means <strong>of</strong> Acoustic Emission (AE <strong>of</strong> Fatigue Crack<br />
Growth in Low Strength Materials)<br />
H. Kitagawa. M.Onoe, Y. Torikai. H. Yamada, T.Ohira, Hyo·Ung Li... 3 - 1<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo<br />
3-2 AE Monitoring at Low Cycle Fatigue Test on Weld Joint<br />
K. Ishihara, K. yamada 3-26<br />
Nippon Kokan Kabushiki Kaitha
3-3 Acoustic Emission Analysis <strong>of</strong> SUS <strong>30</strong>4 from Fatigue Crack under Cyclic Loading<br />
T. Nagata, Y. Sakakibara 3-4 5<br />
Oaral Engineering Center <strong>of</strong> Power Reactor and Nuclear Fuel Development Corporation<br />
Y.Mori<br />
College <strong>of</strong> Industrial Technology, Nihon University<br />
T. Kishi<br />
Institute <strong>of</strong> Space and Aeronotical Science, UnivenitY <strong>of</strong> Tokyo<br />
3-4 Acoustic Emission Monitoring Through Creep Fatigue Test <strong>of</strong> Elbow Assembly in Sodium<br />
Environment<br />
T. Nagata..................................................................................................................................... 3 - 6 0<br />
Oaral Engineering Centor <strong>of</strong> Power Reactor and Nuclear Fuel Development Corporation<br />
SESSION 4 : AMPLITUDE DISTRIBUTION<br />
4-1 Quantitative Evaluation on Acoustic Emission Activities using Peak Amplitude Distributions<br />
H. Nakasa 4 _ I<br />
Central Research Institute <strong>of</strong> Electric Power Industry (CRIEPI)<br />
4-2<br />
-----",<br />
4-3<br />
---j<br />
4-4<br />
Acoustic Emission Analysis for Evaluation <strong>of</strong> Critical Faults in Welded Structures <strong>of</strong><br />
an Austenitic Nuclear Pressure Vessel Steel<br />
T. Fischer _ .<br />
Battelle-Institute, FrankfurtlMain<br />
K. Seifert. H.D. Kunze, K. Wolitz ..<br />
Institute <strong>of</strong> applied Material Research, Bremen<br />
4-<strong>22</strong><br />
4-<strong>22</strong><br />
On <strong>the</strong> Amplitude Distribution <strong>of</strong> Burst Emission due to MNS Inclusions in HSLA Steels<br />
K. Ono, R. Landy 4 - 33<br />
Materials Department, School <strong>of</strong> Engineering and applied SCience, UnivenitY <strong>of</strong> california<br />
C.Ouchi<br />
Technical Research Center, Nippon Kokan K.K.<br />
Investigation <strong>of</strong> Flaw and Thermal Shock in Heavy Section Steel Structures with<br />
Acoustic Emission<br />
W.O. Jolly 4 - 46<br />
Southwest Research Institute, Texas<br />
SESSION 5 : FIELD APPLICATION<br />
5-1 AE Monitoring <strong>of</strong> Petrochemical Vessels without taking <strong>the</strong>m out <strong>of</strong> Service<br />
M.P. Kelly, A.A. Pollock 5-<br />
Dunegan/Endevco, california<br />
5-2 An Application <strong>of</strong> ON-LINE AE Monitoring to Petrochemical Plants<br />
M. Takahashi, K. Takuhashi, H. Hara 5-16<br />
Asahi Chemical Industry Co., Ltd.<br />
5-3 Assessment <strong>of</strong> Acoustic Emission Testing Using Model Pressure Vessel<br />
M. Onoe _ 5-32<br />
Institute <strong>of</strong> Industrial Science, UnivenitY <strong>of</strong> Tokyo<br />
Y. Ishii<br />
Faculty <strong>of</strong> Engineering, Nihon Univenity<br />
T. Fuji. S. Hori<br />
Technical Approval Bureau (TAB), Industrial Research Institute<br />
5-4 Evaluation <strong>of</strong> GLASS-FIBER-REINFORCED Plastics by means <strong>of</strong> Acoustic Emission<br />
Measurements<br />
K. Wolitz, W. Brockmann 5 - 5 2<br />
Institut flir angewandte Materialfonchung, Bremen<br />
•<br />
T. Fischer<br />
Battelle-Institute, Frankfurt/Main
5-5 A Method <strong>of</strong> Evaluating <strong>the</strong> Harmfulness <strong>of</strong> Flaws in Structures using Acoustic Emission<br />
Techniques<br />
T. Watanabe, S. Hashirizaki, H. Arita 5-59<br />
Nippon Steel Corporation<br />
Acoustic Emission Signals <strong>of</strong> Tempered Martensitic Ni·Cr·Mo Low Alloy Steel During Fracture<br />
Toughness Testing<br />
Y, Shirasuna. T. Okubo .:... 1.,-1<br />
Sophia University<br />
SESSION 6 : STRESS CORROSION CRACKING<br />
6-1 Acoustic Emission Characteristics in Stress Corrosion Cracking<br />
Y. Monden, T. Murata. M. Nagumo............................................................................................. 6 - 1<br />
Fundamental Research Laboratories, R & C Bureau, Nippon Steel Corporation<br />
6-2 AE Characteristics during Stress Corrosion Cracking <strong>of</strong> Sensitized Type <strong>30</strong>4 Stainless Steel Pipes.<br />
H, Kusanagi, H. Nakasa.............................................................................................................. 6 -} 9<br />
Central Research Institute <strong>of</strong> Electric Power Industry<br />
T. Ishihara. S. Ohashi<br />
National Research Institute for Metals<br />
6-3 Detection <strong>of</strong> Stress Corrosion Cracking by Acoustic Emission Technique<br />
T. Mori. H. Kashiwaya. K. Uchida, I. Komura. S. Nagai 6-36<br />
Heavy Apparatus Engineering Laboratory<br />
M. Arii<br />
Nuclear Energv Group, Toshiba Corporation<br />
SESSION 7 : NON-METALIC MATERIALS<br />
7-1 Acoustic Emission Characteristics <strong>of</strong> Firebricks<br />
T. Shiraiwa, Y. Sakamoto, H. Yamaguchi. T. Suzuki, K. Fujisawa. T. Arahori........................ 7- 1<br />
Central Research Laboratories, Sumitomo Metal Industries, Ltd.<br />
7-2 Kaiser Effect <strong>of</strong> Acoustic Emission in Rocks<br />
Influences <strong>of</strong> Water and Temperature Disturbances-<br />
S. Yoshikawa, K. Mogi................................................................................................................. 7 - 21<br />
Earthquake Research Institute, University <strong>of</strong> Tokyo<br />
7-3 Acoustic Emission during <strong>the</strong> Degradation <strong>of</strong> GAP Light Emitting Diodes<br />
M.Ogura. Y. Adachi, T. Ikoma................................................................................................... 7-4 0<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo<br />
7-4 Acoustic Emission and Microstructural Camage in Silicon Nitride during Thermal Fatigue<br />
induced by Pulsed Laser<br />
U. La Malfa. P. Pizzi, A. Rastaldo 7-48<br />
FIAT Research Center, Orbassano (Torino)<br />
C. Rinaldi, F. Tonolini, P. Vidali<br />
CISE, Segrate (Milano)<br />
7-5 Recent Trends in Acoustic Emission Research<br />
K. Ono 7-72<br />
Mat. Cep. School <strong>of</strong> Eng. and Applied Science, Univ. <strong>of</strong> California<br />
(>JIlItlIJ)
SESSION 8 : FRACTURE<br />
B-1 Frequency Analysis <strong>of</strong> Acoustic Emissions from Plastic Deformation and Brittle Fracture<br />
Events in Steels<br />
N.W. Ringshall.. 8- 1<br />
Tokyo Institute <strong>of</strong> Technology<br />
J.F. Knott<br />
Department <strong>of</strong> Metallurgy and Materials Science, University <strong>of</strong> Cambridge, England<br />
B-2 Acoustic Emission Characteristics and POP-IN Cracking in AISI 4340 High Strength Steel<br />
H. Takahashi. M.A. Khan, K. Shimomura. M. Suzuki................... 8 - 24<br />
Department <strong>of</strong> Engineering Science, Faculty <strong>of</strong> Engineering, Tohoku University.<br />
B-3 Ductile Crack Growth and AE in Structural Steels<br />
K. Sano 8-46<br />
Research Laboratoriel, Kawasaki Steel Corporation<br />
B-4 The Relation between Fracture Behavior and AE in Steels<br />
T. Nakamura. Y. Fukuzawa, Y. Hayashi, Y. Wakasa, K.Okajima. Y. Ro 8 -61<br />
Department <strong>of</strong> Materials Science, Tokyo Institute <strong>of</strong> Technology.<br />
H. Hatano<br />
Research Laboratory <strong>of</strong> Precision Machinery and Electronics, Tokyo Institute <strong>of</strong> Technology
CONTENTS<br />
OPENING ADDRESS<br />
Nov. 18 9:00 - 9:20<br />
A DECADE OF ACOUSTIC EMISSION SYMPOSIUMS ..<br />
M.On08<br />
Ini>titute <strong>of</strong> Industrial Science. UniversitY <strong>of</strong> Tokyo. Japan<br />
INVITED LECTURES<br />
Nov. 18 15:50 - 16:50<br />
Chairman: M. Onoe<br />
Institute <strong>of</strong> Industrial Science, UniversitY <strong>of</strong> Tokyo, Japan<br />
ACOUSTIC EMISSION MONITORING DURING WELDING, A POWERFUL NOT TOOL 3<br />
D.W.Prine<br />
GARD, INC. A Subi>idiary <strong>of</strong> GATX Corporation, U.S.A.<br />
.,<br />
Chairman:<br />
Nov. 19 9:00 - 9:40<br />
K.Ono<br />
Department <strong>of</strong> Materials Science and Engineering, School <strong>of</strong> Engineering and Applied<br />
Science, UniversitY <strong>of</strong> california, Los Angeles, U.S.A.<br />
AN OVERVIEW OF THE ACOUSTIC EMISSION TECHNOLOGY IN JAPAN . . • . . . . . . . 20<br />
H. Nakasa<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
Nov. 20 14:00 - 15:00<br />
Chairman: M. On08<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
HIGHLIGHTS OF THE EPRI NDE PROGRAM . . . . . . . . . . . . . . . . . . . . . . . . . . •. 47<br />
G.J.Dau<br />
Electric Power Research Institute, U.S.A.<br />
SESSION 1<br />
BASIC MEASUREMENT<br />
Nov. 18 9:20 -10:40<br />
Chairmen:<br />
K. Yamaguchi<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
J.M. Rodgers<br />
Acoustic Emission Technology Corporation (AET), U.S.A.<br />
1-1 AE SIGNAL ANALYSIS - LABORATORY EXPERIMENTS EXAMINING THE PHYSICAL<br />
PROCESSES OF ACOUSTIC EMISSION . . . . . . . . . . . . . . . . . . . . . . . . • . • . . . . . .. 67<br />
N.N. HAl and D.G. Eitzen<br />
National Engineering Laboratory, National Bureau <strong>of</strong> Standards, U.S.A.<br />
1-2 TRANSFER FUNCTIONS FOR ACOUSTIC EMISSION SIGNALS PROPAGATING IN THICK<br />
PLATES ......•......•........•..•.•.•...............••...... 79<br />
E. Waschkiel<br />
Fraunh<strong>of</strong>er·lnstitut filr zerst6rungsfreie Prufverfahren, West-Germany ,<br />
1-3 ACOUSTIC EMISSION SOURCE LOCATION IN THEORY AND IN PRACTICE ....•..... 91<br />
H.J. Rindorf<br />
Bruel & Kjm" Denmark<br />
1-4 ON A NEW REAL.TIME CALIBRATION METHOD FOR THE ACOUSTIC EMISSION<br />
MEASUREMENT SYSTEM WITH TRANSDUCER, SPECIMEN AND WAVEGUIDE .•.•.•.• 103<br />
V. Higo, K. Takashima and S. Nunomura<br />
Research Laboratory <strong>of</strong> Precision Mechinery end Electronics, Tokyo Institute <strong>of</strong> Technology,<br />
Japan
H. Nakamura<br />
Department <strong>of</strong> Applied Physics, Faculty <strong>of</strong> Engineering, University <strong>of</strong> Tokyo, Japan<br />
A.Wada<br />
Department <strong>of</strong> Physics, Faculty <strong>of</strong> Science, University <strong>of</strong> Tokyo, Japan<br />
SESSION 2 NoY.18 11:10-11:50<br />
STRESS CORROSION CRACKING<br />
Chairmen: H. Takahasi<br />
Faculty <strong>of</strong> Engineering. Tohoku University. Japan<br />
T.J.Mapes<br />
Naval Underwater Systems Center, U.S.A.<br />
2-1 AE ANALYSIS DURING CORROSION. STRESS CORROSION CRACKING, AND<br />
CORROSION FATIGUE PROCESS ON TYPE <strong>30</strong>4 STAINLESS STEEL.....•...•...... 115<br />
S. Yuyama and Y. Hisamatsu<br />
Faculty <strong>of</strong> Engineering, UniversitY <strong>of</strong> Tokyo. Japan<br />
T. Kishi<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo, Japan<br />
H. Nakasa<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
2-2 ACOUSTIC EMISSION MONITORING OF STRESS CORROSION CRACKING IN TYPE <strong>30</strong>4<br />
STAINLESS STEEL PIPES UNDER CYCLIC HEATING AND COOLING 125<br />
H. Kusanagi. H. Kimura and H. Imaeda<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
T. Ishihara and S. Ohashi<br />
National Research Institute for Metals, Japan<br />
SESSiON 3<br />
FATIGUE<br />
Nov. 18 11:50-12:10<br />
Chairmen:<br />
A. Kanno<br />
Ship Research Institute. Japan<br />
N.W. Ringshall<br />
Department <strong>of</strong> Mechanical Engineering, The Technological University <strong>of</strong> Nagaoka, Japan<br />
3-1 ACOUSTIC EMISSION DURING FATIGUE CRACK PROPAGATION IN STRUCTURAL<br />
MATERIALS •••.........••.•.............•.................... 137<br />
T. Ohlra, T. Kishi and R. Horiuchi<br />
Institute <strong>of</strong> Space and Aeronautical Science. University <strong>of</strong> Tokyo. Japan<br />
SESSION 4 Nov. 18 13:50 -15:<strong>30</strong><br />
NON·METALLIC MATERIALS<br />
Chairmen: Y. Higo<br />
Research Laboratory <strong>of</strong> Precision Machinery and Electronics. Tokyo Institute <strong>of</strong> Technology,<br />
Japan<br />
D.W. Prine<br />
GARD, INC. A Subsidiary <strong>of</strong> GATX Corporation, U.S.A.<br />
4-1 ACOUSTIC EMISSION MONITORING OF ADVANCED FIBER REINFORCED COMPOSITE<br />
MATERIALS - A REVIEW •......•.....•........................... 147<br />
J.C. Duke. Jr. and E.G. Henneke, II<br />
Department <strong>of</strong> Engineering Science and Mechanics. Virginia Polytechnic Institute and State<br />
Un iversity, U.S.A.<br />
4-2 AE CHARACTERISTICS AND DEFORMATION.FRACTURE BEHAVIOR OF<br />
REFRACTORIES UNDER THREE·POINT BENDING .•...........•.....•...... 163<br />
M. Kumagai, R. Uchlmura and T. Eml<br />
Research Laboratories, Kawasaki Steel Corporation, Japan
4-3 EVALUATION OF THE CRACK STARTING LOAD ON PMMA AND METALLIC<br />
MATERIALS BY THE AE TECHNIQUE •.................•.............. 175<br />
H. Tsuruta and A. Tooyama<br />
Graduate School, Tokyo In5titute <strong>of</strong> Technology. Japan<br />
Y. Higo and S. Nunomura<br />
Research Laboratory <strong>of</strong> Precision Machinery and Electronics, Tokyo Institute <strong>of</strong> Technology.<br />
Japan<br />
4-4 ACOUSTIC EMISSION CHARACTERISTICS AND ADHESIVE BOND FRACTURE IN<br />
INSULATED HEAT SINK " .•......•..•..•.................•.•..... 186<br />
N. Yasumura, J. Takahashi and H. Motomatsu<br />
K.K. Ryosan·Oenki, Japan<br />
H. Takahashi<br />
Tohoku University, Japan<br />
4-5 ACOUSTIC EMISSION CHARACTERISTICS OF FIRE BRICKS"<br />
T. Shiraiwa. H. Yamaguchi, T. Suzuki. K, Fujisawa and T. Arahori<br />
Central Research Laboratories. Sumitomo Metal Indu5tries, Ltd., Japan<br />
.............. 196<br />
SESSION 5<br />
FRACTURE<br />
Nov. 18 16:50 -17:50<br />
Chairmen:<br />
K, Yoshida<br />
Government Industrial Research Institute. Chugoku, Japan<br />
D. Jaffrey<br />
Royal Melbourne Institute <strong>of</strong> Technology Limited, Australia<br />
5-1 ACOUSTIC EMISSION ANO FRACTURE PATTERNS OF SUS-<strong>30</strong>4 ANO A533B<br />
MATERIALS ......••....•..••.•..••.....•.•..• , ...•.•..••.•... 209<br />
H. Iwasaki and M.lzumi<br />
Toshiba Research and Development Center, Toshiba Corporation, Japan<br />
N. Uesugi<br />
Nuclear Engineering Laboratory, Toshiba Corporation, Japan<br />
5-2 THE DIRECTIONAL PROPERTIES OF HSLA STEELS DURING ACOUSTIC EMISSION AND<br />
FRACTURE TESTING .•.••.•....•••.•.••.•.••...•...•.... , .• , •... <strong>22</strong>1<br />
M. Yamamoto<br />
Sumitomo Heavy Industries, Ltd., Japan<br />
C.Ouchi<br />
Nippon Kokan K.K., Japan<br />
K.Ono<br />
Department <strong>of</strong> Materials Science and Engineering. School <strong>of</strong> Engineering and Applied<br />
Science, University <strong>of</strong> California, Los Angeles, U.S.A.<br />
5-:),'<br />
DETECTION OF SEPARATIONS WITH AE IN LINE PIPE STEELS DURING FRACTURE<br />
TOUGHNESS TESTING ...•..•....•..•.....•......••.•..•...••.••• 236<br />
K. Sana. E. Kobayashi and K. Fujimoto<br />
Research Laboratories. Kawasaki Steel Corporation, Japan<br />
SESSION 6<br />
PLASTIC DEFORMATION 1<br />
Nov. 19 9:40 - 10:40<br />
Chairmen:<br />
K. Kuribayashi<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo, Japan<br />
H.J. Rindorf<br />
Bruel & Kjlllr, Denmark<br />
6-1 THE FAILURES OF MnS INCLUSIONS IN STEEL UNDER UNIAXIAL STRESS AND THEIR<br />
RELEVANCE TO AE STUDIES. . • . . . . • . • . . . . • • • . • . . . . . • . • • . • . . . . 249<br />
D. Jaffrey<br />
Royal Melbourne Institute <strong>of</strong> Technology Limited, Australia
6-2 ACOUSTIC EMISSION DURING THE MARTENSITE TRANSFORMATION OF <strong>30</strong>4<br />
STAINLESS STEEL •........................•...........•......•. 261<br />
K. Takashima, Y. Higo and S. Nunomura<br />
Research Laboratory <strong>of</strong> Precision Machinery and Electronics, Tokyo Institute <strong>of</strong> Technology,<br />
Japan<br />
6-3 TEMPERATURE DEPENDENCE OF ANISOTROPIC AE BEHAVIOR OF A533B STEEL ..... 270<br />
K. OkaJima and K. Ono<br />
Department <strong>of</strong> Materials Science and Engineering, School <strong>of</strong> Engineering and Applied Science,<br />
University <strong>of</strong> californie, Los Angeles, U.S.A.<br />
SESSION 7<br />
PLASTIC DEFORMATION 2<br />
Nov. 19 11:10 -12:<strong>30</strong><br />
Chairmen: T. Kishi<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo, Japan<br />
N.N.Hsu<br />
National Engineering Laboratory, National Bureau <strong>of</strong> Standards, U.S.A.<br />
7-1 ACOUSTIC EMISSION OF PLASTIC FLOW - I. METALS ..............•.......• 283<br />
S.·Y. S. Hsu and K. Ono<br />
Department <strong>of</strong> Materials Science and Engineering, School <strong>of</strong> Engineering and Applied<br />
Science, University <strong>of</strong> California, Los Angeles, U.S.A.<br />
7-2 ACOUSTIC EMISSION OF PLASTIC FLOW - II. ALLOYS •...<br />
S.·Y. S. Hsu and K. Ono<br />
Department <strong>of</strong> Materials Science and Engineering, Schoot <strong>of</strong><br />
Science, University <strong>of</strong> california, Los Angeles, U.S.A.<br />
Engineering and<br />
Applied<br />
294<br />
7-3 ACOUSTIC EMISSION GENERATED IN TENSILE DEFORMATION OF FOUR AGE·<br />
HARDENED COPPER ALLOYS ....................•....•..•...... , ... <strong>30</strong>4<br />
J. Masuda<br />
Research and Development Bureeu, Nippon Telegraph and Telephone Public Corporation, Japan<br />
7-4 ACOUSTIC EMISSION DURING THE DEFORMATION OF IRON CRYSTALS ..•••...... 318<br />
T. Nakamura, N. Rlngshall, Y. Fukuz8Wa and A. Adachi<br />
Department <strong>of</strong> Mechanical Engineering, The Technological University <strong>of</strong> Nagaoka, Japan<br />
SESSiON 8<br />
INSTRUMENTATION<br />
Nov. 19 14:00 -15:20<br />
Chairmen: T. Watanabe<br />
Engineering Business Operation Bureau, Nippon Steel Corporation, Japan<br />
K.Ono<br />
Department <strong>of</strong> Materials Science and Engineering, School <strong>of</strong> Engineering and Applied<br />
Science, UniversitY <strong>of</strong> California, Los Angeles, U.S.A.<br />
8-1 DEVELOPMENT AND EVALUATION OF A MULTI·CHANNEL ACOUSTIC EMISSION<br />
INSTRUMENTATION SYSTEM FOR FIELD APPLICATIONS ......•...........•.. 327<br />
H. NakllS8<br />
Central Research Institute <strong>of</strong> Electric Power Industry. Japan<br />
I, Nlshll and Y. Shlozakl<br />
Nippon ETL Co., Ltd., Japan<br />
B-2 AN AE REMOTE MONITORING SYSTEM USING TELEPHONE LINE •......•..•..•.. 339<br />
M. Onoll, S. Takaba and T. Kaneko<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
H. Nakasa<br />
Central RBSlIarch Institute <strong>of</strong> Electric Power Industry, Japan
8-3 ACOUSTIC EMiSSiON LOCATION SYSTEM BY REAL-TIME EXTRACTION OF<br />
IDENTIFICATION PARAMETERS .........•........................... 351<br />
K. Yamaguchi, H. Fujita, H. Ichikawa, H. Oyaizu and N. Hamada<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
8-4 A PERFORMANCE-EVALUATION METHOD FOR AE INSTRUMENTATION USING AE<br />
SIMULATOR .•....•.••........................................ 363<br />
K. Yamaguchi, T. Hamada, H. Fujita, N. Yamakami and N. Hamada<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
SESSION 9<br />
FRACTURE TOUGHNESS<br />
Nov.19 15:50 -17:<strong>30</strong><br />
Chairmen:<br />
K. Sano<br />
Research Laboratories, Kawasaki Steel Corporation, Japan<br />
E. Waschkios<br />
Fraunh<strong>of</strong>er·lnstitut fur zerstorungsfreie Prufverfahren, West·Germany<br />
9-1 ACOUSTIC EMISSION FROM STEEL CT SPECIMENS FOR PLASTIC DEFORMATION AND<br />
CRACK PROPAGATION , 377<br />
J. Louermoser<br />
Fraunh<strong>of</strong>er-Institut fUr zerstorungsfreie Prufverfahren, West-Germany<br />
9-2 APPLICATION OF ACOUSTIC EMISSION TECHNIQUES TO THE STUDY OF CRACK<br />
INSTABILITY .... , •......................................... , . 395<br />
M.A. Khan, T. Shoji and H. Takahashi<br />
Faculty <strong>of</strong> Engineering, Tohoku University, Japan<br />
9-3 AE CLASSIFICATION AND MICRO POP·IN CRACKING<br />
TEST .....•...... , .. , •......••.•......<br />
H. Niluuma. M. Kikuchi. H. Takahashi. M. Suzuki and R. Sato<br />
Faculty <strong>of</strong> Engineering, Tohoku University, Japan<br />
IN<br />
FRACTURE TOUGHNESS<br />
411<br />
Chairmen: S. Nunomura<br />
Research Laboratory <strong>of</strong> Precision Machinery and Electronics, Tokyo Institute <strong>of</strong> Technology.<br />
Japan<br />
J.e. Duke. Jr.<br />
Department <strong>of</strong> Engineering Science and Mechanics. Virginia Polytechnic Institute and State<br />
University. U.S.A.<br />
9-4 STOCHASTIC APPROACH TO FRACTURE TOUGHNESS AND ACOUSTIC EMISSION<br />
BEHAVIOR IN AISI4340 LOW ALLOY STEEL .........•.......••.......... 421<br />
K. Kuribayashl, A. Nozue, T. Kishi and R. Horiuchi<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo, Japan<br />
9-5 ACOUSTIC EMISSION DURING CRACK PROPAGATION IN PRESTRAINED STEEL , ..... 429<br />
N.W. Ringshall and T. Nakamura<br />
Department <strong>of</strong> Mechanical Engineering, The Technological University <strong>of</strong> Nagaoka, Japan<br />
K.Okamoto<br />
Institute <strong>of</strong> Precision Machinery and Electronics, Tokyo Institute <strong>of</strong> Technology, Japan<br />
J.F. Knott<br />
Department <strong>of</strong> Metallurgy and Materials Science. University <strong>of</strong> Cambridge. England<br />
SESSION 10<br />
SPECIAL APPLICATIONS<br />
Nov.20 9:00 - 9:40<br />
Chairmen: H. Nakosa<br />
central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
G.J, Dau<br />
Electric Power Research Institute, U.S.A.
10-1 DETECTION OF ACOUSTIC EMISSION DURING HYDRAULIC FRACTURING FOR<br />
GEOTHERMAL ENERGY EXTRACTION •..•............................. 443<br />
H. Takahashi, H. Nlitsuma, K. TamakllWa, H. Abe, R. Sato and M. Suzuki<br />
Faculty <strong>of</strong> Engineering. Tohoku University. Japan<br />
10-2 DEVELOPMENT OF A WIRELESS AE MONITOR AND ITS APPLICATION TO THE<br />
DIAGNOSIS OF ROTATING MACHINERY 464<br />
I, Sato, S. Sasaki, T. Yoneyama and T. Suzuki<br />
Hitachi Research Laboratory. Hitachi, Ltd., Japan<br />
T. Watanabe<br />
Hitachi Works, Hitachi Ltd., Japan<br />
K. Takahashi<br />
Tateyama Electronics Corp.• Japan<br />
SESSION 11 Nov.2O 9:40 -10:40<br />
EVALUATION AND WELDINGS<br />
Chairmen:<br />
Y. Kikuta<br />
Faculty <strong>of</strong> Engineering, Osaka University, Japan<br />
N.W. Rlngshall<br />
Department <strong>of</strong> Mechanical Engineering, The Technological University <strong>of</strong> Nagaoka, Japan<br />
11-1 ACOUSTIC EMISSION CHARACTERISTICS OF TYPE <strong>30</strong>4 STAINLESS STEEL DURING<br />
FATIGUE CRACK PROPAGATION ..............•....•................ 465<br />
Y.Mori<br />
College <strong>of</strong> Industrial Technology, Nihon UniversitY, Japan<br />
Y. Sakaklbara and T. Nagata<br />
Power Reactor and Nuclear Fuel Development Corporation, Japan<br />
T. Ohlra and T. Kishi<br />
Institute <strong>of</strong> Space end Aeronautical Science, University <strong>of</strong> Tokyo. Japan<br />
11-2 SOME ASPECTS OF ACOUSTIC EMISSION IN STEEL WELDS<br />
A. Kannll and M. Sakakl<br />
Ship Reseerch Institute, Jepan<br />
T. Nakallma<br />
Ishikawajlma Harima Heavy Industries Co., Ltd., Japan<br />
H. Nakasa<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
T. Full<br />
Industrial Research Institute, Japan<br />
T. Watanabe<br />
JGC Corporation, Japan<br />
..... 475<br />
11-3 EVALUATION OF WELDED JOINTS OF SUS <strong>30</strong>4 AUSTENITE STAINLESS STEEL WITH<br />
ACOUSTIC EMISSION METHOD .•.•.•.•.•...........•.••...•..•.....• 488<br />
K. Yoshida and M. Mitsui<br />
Government Industrial Research Institute, Chugoku, Japan<br />
SESSION 12<br />
PRESSURE VESSELS<br />
Nov.2O 11:10 -12:10<br />
Chairmen: Y. Mori<br />
College <strong>of</strong> Industrial Technology, Nihon University, Japan<br />
J. Lottermoser<br />
Fraunh<strong>of</strong>er·lnstitut fOr zerstorungsfreie Priifverfahren, West-Germany<br />
12-1 A STUDY OF ACOUSTIC EMISSION FROM CORROSION IN AN ALUMINUM PRESSURE<br />
VESSEL .............•....•.......................•...•.•.... 499<br />
T.J. Mapes and R.D. Vogelsong<br />
Naval Underwater Systems Center, U.S.A.<br />
J.R. Mitchell<br />
Physical Acoustics Corporation, U.S.A.
12-2 ACOUSTIC EMISSION TEST OF A 2 1/4 Cr - 1 Mo STEEL TEST VESSEL AND ITS<br />
CORRELATION TO FRACTURE ANALYSIS 510<br />
M. Nakano, Y. Ohshio, T. Tsukikawa, S. Yamamoto and H. Ueyama<br />
Chiyoda Chemical Engineering and Construction Co., Ltd., Japan<br />
T. Iwadate, J. Watanabe, K. Ohnlshl and R. Saikudo<br />
The Japan Steel Works, Ltd., Japan<br />
12-3 ACOUSTIC EMISSION DIAGNOSTICS FOR INTEGRITY OF CYLINDRICAL STORAGE<br />
TANK STRUCTURES........................................•.... 521<br />
K. Kawaguchi, M. Yamamuro. H. Kasugai and T. Uesugi<br />
Chubu Electric Power Co., Inc., Japan<br />
H. Nakasa, H.lmaeda and H. Kimura<br />
Central Research Institute <strong>of</strong> Electric Power Industry, Japan<br />
SESSION 13 Nov. 20 15:<strong>30</strong> -17:40<br />
SPECIAL SESSION JOINTLY HELD WITH THE THIRD PAN PACIFIC CONFERENCE<br />
FOR NOT<br />
INTERACTION BETWEEN NON-DESTRUCTIVE AND ACOUSTIC EMISSION<br />
TESTINGS<br />
Chairman: M.Onoe<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
13-1 THE DEVELOPING ROLE OF ACOUSTIC EMISSION IN AIRCRAFT MAINTENANCE AND<br />
STRUCTURAL INTEGRITY. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 537<br />
J.M. Rodgers<br />
Acoustic Emission Technology Corporation IAETJ. U.S.A.<br />
13-2 A MODEL FOR ON·LINE SAFETY·ASSURANCE OF STRUCTURES BY AE<br />
MONITORING ..........•................•..................... 550<br />
H. Fujite and K. Yamaguchi<br />
Institute <strong>of</strong> Industrial Science, University <strong>of</strong> Tokyo, Japan<br />
13-3 EVALUATION OF WELD DEFECTS EXTENSION IN HIGH STRENGTH STEEL PRESSURE<br />
VESSEL BY ACOUSTIC EMISSION AND X.RAY INSPECTIONS ..............•.... 566<br />
Y. Obata, Y. Mori and K. Aoki<br />
Collage <strong>of</strong> Industrial Technology. Nihon Univenity<br />
T. Kishi<br />
Institute <strong>of</strong> Space and Aeronautical Science, University <strong>of</strong> Tokyo, Japan<br />
H. Park<br />
Kukumin University, Korea<br />
13-4 ACOUSTIC EMISSION ANALYSIS OF THE F LAWS DURING WELDING .........•.... 576<br />
C.F. Huang and K.s. Hung<br />
INER, Taiwan, China<br />
13-5 Invited Lecture (PPCNDT) 17:00 - 17:40<br />
QUANTITATIVE NDE OF SURFACE BRAKING - AND NEAR SURFACE DEFECTS 586<br />
P. H~lIer<br />
Fraunh<strong>of</strong>er-I nstitut fur zerstorungsfreie Prufverfahren, West·Germany
<strong>Contents</strong><br />
Defonnation-l<br />
Effects <strong>of</strong> Heat Treatment on Acoustic Emission Peaks in<br />
Precipitation Streng<strong>the</strong>ned Alloys .<br />
C. R. Heiple and S. H. Carpenter<br />
Acoustic Emission Generated during Plastic Defonnation <strong>of</strong><br />
5052 and 2024 Aluminum Alloys II<br />
H. Kato and T Tozawa<br />
Effects <strong>of</strong> Heat-Treatment on Pre-Yield Burst Emissions<br />
<strong>of</strong> A533B Steel 21<br />
H. B. Teoh, I Roman, and K. Ono<br />
Acoustic Emission and Finite Element Analyses <strong>of</strong>Progressive<br />
Failure Processes in Brittle Materials 31<br />
M. Satake. S. Niiseki and H. Nishimoto<br />
Non-Metallic Materials<br />
Evaluation <strong>of</strong> Damage Growth in Composite Materials<br />
by Acoustic Emission Energy Measurement. . . . . . . . . . . . . . . . . . . . . . . . .. 41<br />
M. J. Sundaresan, L. C. Manoharan, H. N. Sudheendra, and<br />
V. Naik<br />
The Behaviour <strong>of</strong> Acoustic Emission from GRP upon Reloading . . . . . . . . .. 50<br />
H. Tao and F Gao<br />
Acoustic Emission Characteristics <strong>of</strong> Fire Bricks 60<br />
T. Shiraiwa, H. Yamaguchi, T. Suzuki, K. FujisawQ, and<br />
T. Arahori
Non-Metallic Materials<br />
Acoustic Emission Researches for <strong>the</strong> Application<br />
to Concrete Structure Monitoring 67<br />
D. Bozzetti, E. Fontana, F. Tonolini, and G. Villa<br />
Detennination <strong>of</strong> Fracture Toughness <strong>of</strong> Granitic Rock<br />
by Means <strong>of</strong> AE Technique 78<br />
T. Hash/da, S. Yuda, K. Tamakawa, and H. Takahashi<br />
Acoustic Emission during <strong>the</strong> Process <strong>of</strong> Crack Growth in<br />
Si 3 N 4 and AI 2 0 3 Ceramic Materials 90<br />
H. Iwasaki, M. Izumi, and K. Ohta<br />
Stress Corrosion Cracking and Fatigue<br />
Acoustic Emission in Fatigue Test <strong>of</strong> Nodes for Offshore<br />
Platfonns 0<br />
D. Bozzetti, E. Fontana, C. Panzani, F. Tonolini, Go. Villa,<br />
and P. Brandi<br />
0 o. 99<br />
Acoustic Emission Characteristics during Fatigue Test <strong>of</strong><br />
a 60kg/mm 2 Grade Steel . 0<br />
K. Yoshida, J. Takatsubo, and H. Yokogawa<br />
0 • 0 ••••••• 0 ••• 0 • 0 • 0 0 •••••• 0 0 0 • 0 0 0 0 • 0 •• 108<br />
Effect <strong>of</strong> Environments, Mechanical Conditions, and Materials<br />
Characteristics on AE Behavior During Corrosion Fatigue<br />
Processes <strong>of</strong> Austenitic Stainless Steel o. 0 0 0 ••••• 0 • 0 • 0 0 • 0 • 0 0 0 0 • 0 0 0 0 0 .115<br />
S. Yuyama, T. Kishi. and Y. Hisamatsu<br />
Acoustic Emission During Environmental Cracking <strong>of</strong><br />
High Strength Titanium Alloy 0<br />
S. Yuyama, T. Kishi, Y. Hisamatsu. and T. Kakimi<br />
••• 0 ••• 0 • 0 •• 0 • 0 0 •••• 126
Instrumentation and Wave Propagation<br />
Research on Multi-Channel Acoustic Emission Source<br />
Location System and <strong>the</strong> Location Technique 134<br />
Y. Ma, Y. Jiang, Z. Liu, 1. Zhang, H Bai, X. Ge,<br />
J. Guo, X. JiD, and F Xu<br />
Real-Time AE Spectrum A!lalyzer Using a New Pipelined<br />
FFT Processor 144<br />
H. Niitsuma, N. Chubachi, M. Kameyama, T. Higuchi,<br />
andJ. Konno<br />
Sources <strong>of</strong> Error in AE Location Calculations<br />
D. A. Tiede, E. E. Eller<br />
Characteristics <strong>of</strong> AE Propagation on a SUS <strong>30</strong>4<br />
'Tee' Piping<br />
H Oyaizu, H. Fujita, K. Yamaguchi, T. Nakanishi,<br />
and H Ichikawa<br />
1SS<br />
16S<br />
Experiment on Propagation Characteristics <strong>of</strong> Leakage Sound:<br />
Effects <strong>of</strong> Frequency Range and a Diameter <strong>of</strong> Leak Hole on<br />
Attenuation Rate 173<br />
T. Uchikawa, K. Watanabe, and K. Shiba<br />
Special Lecture<br />
Transient AE Waves in Elastic Plates 181<br />
Y. H. Pao<br />
Wave Analysis<br />
Observations on AE from Large Crack Jumps 198<br />
A. A. Pollock<br />
Quantitative Characterization <strong>of</strong> Dynamic Fracture Process<br />
by Means <strong>of</strong> Acoustic Emission Source Wave Analysis 208<br />
T. Ohira and T. Kishi
Characterization <strong>of</strong> Emission Mechanisms during Fatigue<br />
Crack Propagation by AE Waveform Analysis 218<br />
Y. Morl, Y. Obata, and K. Aoki<br />
The Waveforms <strong>of</strong> Acoustic Emission Due to Microcracking<br />
Near a Macro Crack <strong>22</strong>5<br />
K. Ohno, K. Hirashima. and J. D. Achenbach<br />
Deformation-~<br />
Acoustic Emission Behavior <strong>of</strong> Nickel During Tensile Deformation 235<br />
S.-Y. S. Hsu and K. Ono<br />
Acoustic Emission Characteristics <strong>of</strong> an Amorphous Metal<br />
during Tensile Testing 244<br />
K. Ueda. S. Sekiya. and T. Sugita<br />
Acoustic Emission Generated during <strong>the</strong> Multiple Compressive<br />
Deformation <strong>of</strong> Polycrystalline Zinc 254<br />
C. M. Chen and S. H. Carpenter<br />
Computer Simulation <strong>of</strong> Acoustic Emission during <strong>the</strong><br />
Yield Process <strong>of</strong> a Dispersion Hardened Alloy 265<br />
J. Masuda<br />
Acoustic Emission during <strong>the</strong> Plastic Deformation Pure Iron<br />
and 3%Si-Fe 275<br />
Y. Fukuzawa, T. Nakamura, N. W. Ringshall. and A. Adachi<br />
Fracture-l<br />
Application <strong>of</strong> Acoustic Emission in Determining Jic Value in Steel 285<br />
J. Peng and S. Qi<br />
Application <strong>of</strong> Radiation Pattern <strong>of</strong> Acoustic Emission in<br />
Determination <strong>of</strong> Elastic-Plastic Fracture Toughness. . . . . . . . . . . . . . . . .. 295<br />
K. Kurlbayashi and T. Kishi
On Monitoring <strong>of</strong> <strong>the</strong> Crack Initiation Process Using an Acoustic<br />
Emission Frequency Analysis <strong>30</strong>3<br />
K Takashima, Y. Bigo. and S. Nunomura<br />
AE and Separations <strong>of</strong>S841 or SM 50 Steel 312<br />
T. Ookouchi, H Takahashi, B. Niitsuma, K lchida,<br />
and T. Yoshida<br />
Advanced Application<br />
Advances in Acousto-Ultrasonic Inspection <strong>of</strong>Composites and<br />
Adhesive-Bonded Structures 3<strong>22</strong><br />
J. M. Rodgers<br />
AE Technology as a Diagnostic and Monitoring Technique for<br />
Superconducting Magnets 332<br />
O. Tsukamoto and Y. Iwasa<br />
AE Characteristics during Growth <strong>of</strong> Electrical Tree in a Plastic<br />
Insulating Material 345<br />
B. Fujita. K Yamaguchi. and T. Nakanishi<br />
Adaptive Spot Weld Feedback Control Loop via Acoustic Emission 356<br />
S. J. Vahaviolos and S. J. Slykhous<br />
Fracture-2<br />
Acoustic Emission Monitoring during Plastic Deformation and<br />
Cracking Process <strong>of</strong> D6AC Steel and Commercial-Pure Ti 366<br />
Z. M. Zhu<br />
Acoustic Emission Characteristics <strong>of</strong> Low Toughness Steel<br />
in Large Specimen Tensile Test 376<br />
A. Kanno. M. Sakaki. T. Watanabe. and T. Fuji<br />
An Acoustic Emission Study on Brittle-Ductile Cracking <strong>of</strong><br />
AISI 4340 Steel 388<br />
A. Nozue and T. Ok.ubo
Transfonnation<br />
Acoustic Emission Analysis <strong>of</strong> <strong>the</strong> Martensitic 'Y ~ (X-<br />
Transformation <strong>of</strong> Fe-<strong>30</strong> Ni . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. 396<br />
K. Wolitz and G. Frommeyer<br />
Acoustic Emission during <strong>the</strong> Martensite Transformation<br />
in Austenite Stainless Steel Single and Polycrystals 405<br />
Y. Higo, K. Takashima, and S. Nunomura<br />
Simultaneous Measurements <strong>of</strong> Acoustic Emission and Electrical<br />
Resistivity <strong>of</strong> Fe-er Base Alloys during Thermal Cyclings 413<br />
K. Shinohara, T. SeD, and T. Yoshioka<br />
Sensor Calibration<br />
An Evaluation <strong>of</strong> <strong>the</strong> Breaking Pencil Lead Calibration Technique. . . . . . .. 423<br />
B. R. A. Wood and R. W. Harris<br />
Wide Band Acoustic Emission Sensors Made <strong>of</strong> a Tapered Piezoelectric<br />
Ceramic 432<br />
Y. To mikawa, Y. Itoh, H. Yamada, and M. Onoe<br />
Self-Reciprocity Calibration <strong>of</strong>Acoustic Emission Transducers<br />
for Rayleigh Surface Wave 440<br />
M. Onoe and H. Yamada<br />
Calibration <strong>of</strong> Acoustic Emission Transducers: Comparison <strong>of</strong><br />
Two Methods . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. 448<br />
F. R. Breckenridge, T. Watanabe, and H. Hatano<br />
Monitoring Technology<br />
Acoustic Emission Monitoring <strong>of</strong> Steam Turbines 459<br />
A. F. Armor and L. J. Graham
A Model for Fracture Estimation in Structure by AE Monitoring<br />
and Its Simulation Results 468<br />
K. Yamaguchi, H. Fujita, and H Suzuki<br />
Application <strong>of</strong> Acoustic Emission Techniques to Mining Safety 481<br />
D. Li<br />
Journal Bearing Diagnosis with Acoustic Emission Technique 491<br />
I Sato, T. Yoneyama, S. Sasaki, T. Suzuki, T. Inoue,<br />
T. Koga, and K. Ikeuchi<br />
Pressure Vessels<br />
A New Assessment Parameter "H" in Measuring <strong>the</strong> Crack Fracture<br />
Initiation <strong>of</strong> a Cracked Structure by Using <strong>the</strong> Acoustic Emission<br />
Technique<br />
Z.He<br />
50I<br />
Experience in Acoustic Emission Examination <strong>of</strong> Pressure Vessels<br />
during Hydrotests 510<br />
E. Fontana, C. Panzani, F. Tonolini, and G. Villa<br />
The Characteristics <strong>of</strong> Acoustic Emission for Glass Fiber Wound<br />
Composite Pressure Vessels and <strong>the</strong> Approach to Predicting<br />
Their Burst Pressure 521<br />
Y. Liu, G. Lei, L. Yu, Z. Yuan, C. Li, and J. Li<br />
Evaluation <strong>of</strong> Structural Integrity by Acoustic Emission and<br />
Fracture Mechanics Techniques 531<br />
M. A. Khan, T. Shoji, and H. Takahashi
<strong>Contents</strong><br />
Metal<br />
~ The Behavior <strong>of</strong> AE Second Peak on <strong>the</strong> 2024 Aluminum Alloy<br />
Y. FukuZQWQ, T. Nakamura, K. Ozaki and T. Furuya<br />
Unloading and Reloading Acoustic Emission in Single Crystals and<br />
Polycrystals <strong>of</strong> Pure Copper , . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. 8<br />
R. Rahouadi. F. Ferrieux and J.F. Chretien<br />
Acoustic Emission Signal Analysis <strong>of</strong> Micr<strong>of</strong>racture Process in<br />
C-I/2Mo Steel 16<br />
S. Yamaoka, K. Wakita and T. Kishi<br />
An Acoustic Emission Investigation <strong>of</strong> <strong>the</strong> Ductile to Brittle<br />
Transition in Molybdenum - _ 24<br />
J.B. James and S,H, Carpenter<br />
,<br />
An Investigation <strong>of</strong> <strong>the</strong> Acoustic Emission Generated During<br />
<strong>the</strong> Deformation <strong>of</strong> Standard and Hydrogen Charged <strong>30</strong>4<br />
Stainless Steel 33<br />
J.B. Jomes. SoH. Carpemer. M.A. Homstod. CA. Tatro and<br />
R. Vandervoort<br />
An Experimental Study to Monitor Engineering Cracking Stress<br />
<strong>of</strong> Pressure Vessel with Ductile Material 42<br />
Z. He ond W. Guan<br />
Acoustic Emission During Deformation Processes in Coarse-grained<br />
Heat Affected Zone A533B Steel , 51<br />
G. Airoldi ond C. Rinaldi<br />
MnS Inclusion Content and Aspect-ratio in Deformation Processes<br />
<strong>of</strong> a Low Alloy Steel 59<br />
G. Afroldi ond C. Rinaldi
9 Detennination <strong>of</strong> Thickness Dependent Fracture Toughness <strong>of</strong><br />
SS4l Steel by AE 67<br />
T. Ookouchi. H. Takahashi. H. Niitsumo and K. Ichido<br />
Acoustic Emission Behaviors <strong>of</strong> AZ31 Magnesium Alloy During<br />
Fatigue Fracture ..........................................•.... 7S<br />
H. Kato and T. Tozawo<br />
The Relationship Between <strong>the</strong> Microstructure <strong>of</strong> 16Mn Steel and<br />
Acoustic Emission During Stress Corrosion Cracking . . . . . . . . . . . . . . . . . .. 83<br />
X. Zhu and J. Xlaa<br />
Detennination <strong>of</strong> Intergranular~leavageMode Fracture Toughness<br />
<strong>of</strong> Retired Steam Turbine Rotor Steel (CrMoV) by Means <strong>of</strong><br />
Acoustic Emission Technique 89<br />
K. Shimomura, T. Shoji. H. Takahashi and K. Saito<br />
MagnetomechanicaJ Acoustic Emission - Temperature Effects 97<br />
M.M. Kwan, K. Ono and M. Shibata<br />
Fracture Induced Acoustic Emission <strong>of</strong> AS33B Steel - Effects <strong>of</strong><br />
Test Temperature and Fracture Mechanisms<br />
H.B. Teoh, K. Ono and I. Roman<br />
J05<br />
Special Lecture<br />
Burst Type and Continuous Acoustic Emission Signal Analysis in<br />
A Broadband Frequency Range Leading to Source Characterisation<br />
P. Fleischmann and D. Rouby<br />
I J4<br />
Source Characterization<br />
Determination <strong>of</strong> Acoustic Emission Source Characteristics<br />
Based on <strong>the</strong> Moving Dislocation Theory 125<br />
Y. Niwa and S. Hirose<br />
Acoustic Emission Waveforms in a Half Space .....••......••......... 132<br />
M. Ohtsu and K. Ono
AE Source Characterization During Deformation <strong>of</strong> 7075-T6<br />
Al Alloy by Frequency Analysis ............................••.....140<br />
Y. Fujita, Y. Higo and S. Nunomura<br />
Source Wave Analysis Based on Fourier Syn<strong>the</strong>sis ........••....•......147<br />
J. Takalsubo, K. Yoshida, and H. Yokogawa<br />
Measurement <strong>of</strong> AE Wavefonns and Simulation <strong>of</strong> AE .....•.....••.....155<br />
K. Katsuyama and Y. SolO<br />
Characteristics <strong>of</strong> Acoustic Emission Signals from Indentation<br />
Cracks in Glass .........................................••..... 163<br />
K. Y. Kim and W. Sachse<br />
Visualization <strong>of</strong> Stress Waves Emitted from Propagating Cracks and<br />
an AE Study on <strong>the</strong> Formation Mechanism <strong>of</strong> Secondary Cracks in<br />
Glassy Polymers 173<br />
K. Tak411aslli, K. MatsuslJige, N. Takeda. K. Arakawa and<br />
Y. Sakurada<br />
The Acoustic Emission Sources Characterization Problem ......••....... 181<br />
F. Tonolini, G. Villa and A. Sola<br />
Characterization <strong>of</strong> AE Sources from Experiments with<br />
Oblique Forces .......................................••....... J89<br />
J.E. Michaels and Y.-H. Pao<br />
Structural Integrity<br />
Propagation Attenuation <strong>of</strong> AE Signals at a Bend ......••...•••....... 196<br />
K. Watanabe and K. SIIiba<br />
Leak Detection in Pipelines Using Acoustic Emission .....•............. 202<br />
B.R.A. Wood and R. W. Harris<br />
AE Characteristics During Hydrostatic Tests <strong>of</strong> Oil Storage Tanks Repaired .210<br />
H. Sasaki and M. Inagaki<br />
Acoustic Emission Behaviors <strong>of</strong> Titanium Alloy and Quality<br />
Evaluation <strong>of</strong> Titanium Alloy Pressure Vessels ................••...... 218<br />
Z. Zhu, S. Bai. S. Fan. and H. Zhang
Application <strong>of</strong> Acoustic Emission in Monitoring Sphere Tank<br />
<strong>of</strong> Ethylene - <strong>22</strong>4<br />
Q.R. Kun<br />
Monitoring <strong>of</strong>Thermal Shock Induced Crack Growth in A Feed<br />
Water Nozzle Corner <strong>of</strong> Reactor Pressure Vessel by Acoustic<br />
Emission '232<br />
P. Holler, E. Waschkies and K. Hepp<br />
Acoustic Emission During Fatigue Crack Propagation in<br />
SUS<strong>30</strong>4 Steel at Room Temperature .........................•.....240<br />
M. Nakano, Y. Obala and I. Komura<br />
AE Signal Analysis During Fatigue Crack Propagation in<br />
SUS<strong>30</strong>4 at 600·C 248<br />
K. Yoshida, M. Nakano and I. Komura<br />
Acoustic Emission Waveform Analysis During Fatigue Crack<br />
Propagation in SUS<strong>30</strong>4 Steel at Room Temperature ...........•....... 255<br />
Y. Obala. T. Yasllnaka, Y. Mori, K. Aoki and M. Tsune<br />
Generation Characteristics <strong>of</strong> Acoustic Emission from Fatigue<br />
Crack in FBR Piping Component at Room Temperature 262<br />
K. Yamaguchi, H. Fujita, H. Oya(zu, A. Yamashita and<br />
Y. Sakakibara<br />
Generation Characteristics <strong>of</strong> Acoustic Emission from Fatigue<br />
Crack in FBR Piping Component at 400°C '270<br />
K. Yamaguchi, H. Oyalzu, A. Yamashita and<br />
Y. Sakaklbara<br />
Evaluation <strong>of</strong> Structural Integrity <strong>of</strong> Piping Components for<br />
Fast Breeder Reactor by Acoustic Emission Signals .............•......278<br />
S. Sakakibara. T. Kishi and K. Yamaguchi<br />
General Problem and Review<br />
Some Critical Remarks on Industrial Applications <strong>of</strong><br />
Acoustic Emission ...............................••• , •.. , 286<br />
H. Nakasa
A Critical Evaluation <strong>of</strong> <strong>the</strong> Use <strong>of</strong> Artificial Cracks and Notches<br />
. for AE Characterization <strong>of</strong> Metallic Materials Used for Pressure<br />
Vessel Service 294<br />
H.L. Dunegan<br />
Fundamentals <strong>of</strong> AE Source Characterization and Its Application<br />
• to Micro-eracking in Merals, Composites and Ceramics <strong>30</strong>2<br />
T. KisM<br />
Where Acoustic Emission and Where Not .............•.............. 310<br />
F. Tonolini, G. Villa and A, Sala<br />
Insrrumenration<br />
Analysis <strong>of</strong> Piezoelectric Disks and Cylinders Using Finite<br />
Element Method ......................................•........318<br />
M. OMsu and K. Ono<br />
Analytical Approach ro Acoustic Emission Signal Processing:<br />
Problems and Progress ", " ,., 326<br />
N.N. Hsu and D. G. Eitzen<br />
Measurement <strong>of</strong> Surface Excitation Due to Single and Double<br />
Forces by <strong>the</strong> Use <strong>of</strong> Flat-frequency Displacement Transducer 335<br />
S. Yuyama and T. Imanaka<br />
On a Real-time Calibration System for <strong>the</strong> Acoustic<br />
Emission Measurement System with Transducer and<br />
Propagation Medium<br />
- . -...............••.........343<br />
M. Dna, Y. Higo, S. Nunan/ura and T. Watanabe<br />
Acoustic Emission Event Counting Using an Apple Computer 351<br />
R. W. Ha"is and B.R.A. Wood<br />
Time Series Measurement System <strong>of</strong> AE Events ............••. _..... - -359<br />
T. Hirata, T. Yanagida"i and M. Terada<br />
Advanced Acoustic Emission Monitoring System by<br />
Distributed Processing <strong>of</strong> Wavefonn Microdata .............••........366<br />
K. Yamaguchi. T. Hamada. H. Ichikawa, H, Dyaizu<br />
Y. Nagata, T. Kishi and H. IsMtalll
Acoustic Diagnosis<br />
Acoustic Emission Diagnostics for Structural Integrity <strong>of</strong><br />
Petroleum Storage Tanks ...............................•••......374<br />
H. Imaeda<br />
In-situ Acoustic Emission Monitoring <strong>of</strong> a Selected Node in<br />
An Offshore Platform 381<br />
M. Arrington<br />
Application <strong>of</strong> Acoustic Emission Methods to Investigation <strong>of</strong><br />
<strong>the</strong> Cold Shortness <strong>of</strong> Steel Material in Mine ..................•......389<br />
Y. Watanabe and M. Takeuchi<br />
Estimation <strong>of</strong> <strong>the</strong> Stress History <strong>of</strong> <strong>the</strong> Aluminium Cable Steel<br />
Core Strand Wire by Means <strong>of</strong> Acoustic Emission ..............•......397<br />
Y. Saito<br />
Application <strong>of</strong> AE Method to <strong>the</strong> Hydro<strong>the</strong>rmal Reaction <strong>of</strong><br />
Autoclaved Lightweight Concrete .........................•.......405<br />
S. Teramura and K. Tsukiyama<br />
Quench Monitoring <strong>of</strong> Superconducting Magnet with<br />
AE Technology 413<br />
0. Tsukamoto. T. lshigohka and Y. Iwasa<br />
Special Lecture<br />
Acoustic Emission Testing <strong>of</strong> Chemical Process Industry Vessels 421<br />
T.J. Fowler<br />
FRP<br />
Fracture Process and AE Characteristics <strong>of</strong> C-FRPs During<br />
Three Point Bending Test '450<br />
M. Takahaslll, H. Tanaka, K. Tamura and S. Tomoura
Acoustic Emission Characterizations <strong>of</strong> Internal Damage for GFRP 458<br />
Z. Yuan<br />
Characterization <strong>of</strong> Tensile FaHure Process <strong>of</strong> Unidirectional<br />
Hybrid Composites by Acoustic Emission 464<br />
I. Kirnpara, I. Ohsawa, T. Ozaki and S. Takada<br />
Acoustic Emission Characteristics <strong>of</strong> Carbon-epoxy Laminate<br />
Beams During Bending Failure 472<br />
Z. lin, G. Song and C. Zhu<br />
Acoustic Emission Monitoring <strong>of</strong> A Graphite-epoxy Wing<br />
Segment During Limit Load Testing 480<br />
J. Rodgers<br />
FRPand Wood<br />
Acoustic Emission Study <strong>of</strong> Fracture <strong>of</strong> Random Shorl-fiber<br />
Sheet Molding Compound Composites in Water and Low<br />
Temperature Environments ...............................••.....488<br />
H. Sekine and Y. Ozawa<br />
Acoustic Emission Characterization <strong>of</strong> Failure Mechanisms in<br />
Woven Roving Glass-epoxy Composites .....................•••.....496<br />
I. Roman and K. Ono<br />
Acoustic Emission Characterization <strong>of</strong> Tensile Failure<br />
Mechanisms in Kevlar 49 - Epoxy Composites ..........•....••......504<br />
A. Mittelman, I. Roman and G. Marom<br />
Study <strong>of</strong> Acoustic Emission Generated in Fracture Process <strong>of</strong> Wood 510<br />
K. SalO, T. Okano, I. Asano, M. Noguclli and M. Fushitani<br />
Acoustic Emission During Lumber Drying 518<br />
S. Ogino, K. Kai,ro. T. A kUla and M. Suzuki<br />
Acoustic Emission and Internal Friction in Wood .............•.•.....525<br />
A.H. Kha/agy, W. G.B. Britton and R. W.B. Stephens
Ceramics. Glass and Concrete<br />
Monitoring <strong>of</strong> Indentation Fracture in Soda·lime Glass<br />
by Acoustic Emission ..................................•........533<br />
H.C. Kim and S.H. Lee<br />
Relationship Between <strong>the</strong> Microstructure and Acoustic<br />
Emission <strong>of</strong> Silicon Nitride Ceramics ....................••.........539<br />
Y. Sun and Y. Ija<br />
Acoustic Emission Studies During Fracture in AhO) Ceramics. - 547<br />
T. Kishi, S. Wakayama, Y. Sllinozakj, Y. Kagawa and<br />
E. Nakata<br />
Prediction <strong>of</strong> Fatigue Life <strong>of</strong> Reinforced Concrete Beams<br />
Using Acoustic Emission Monitoring ....................••.........555<br />
T. Uomolo. M. Onoe alld T. Kaklzawa<br />
Acoustic Emission During Three Point Bending Tests on<br />
Concrete Beams ...................................••.. , .•..... 563<br />
G. Villa and F. Baretich<br />
Acoustic Emission Behaviour in <strong>the</strong> Double Cantilever Beam<br />
Fracture Test <strong>of</strong> Concrete 570<br />
M. Izumi, H. Mihaslli alld N. Nomura<br />
Evaluation <strong>of</strong> Damage Levels in Concrete Specimens Through<br />
Acoustic Emission Measurement ...........................••.....578<br />
S. Niiseki, M. Salake and T. KaslJiwabara<br />
Rock Bnd COBI<br />
The Kaiser Effect <strong>of</strong> A Granite Under Various Loadings ....•.......... -586<br />
S. Murayama, K. Mlchifliro, J. Saito, T. Fujiwara,<br />
H. Yosllloka and K Halo<br />
Acoustic Emission Characteristics in In-situ Plate Loading<br />
and Block Shear Tests <strong>of</strong> Rock Masses 594<br />
K. Hlrama, M. Maruyama and T. Kuwahara
AE in Coal under Uniaxial Compression .......•••...•....•..........602<br />
M. Seto, M. Salo and Y. Walanabe<br />
Non Stationary Poisson Distribution for <strong>the</strong> Acoustic<br />
Emission Process in Coal 609<br />
M.e. Reymond<br />
Application <strong>of</strong> Acoustic Emission to Fracture Toughness Test<br />
<strong>of</strong> Rocks under <strong>the</strong> Simulated Geo<strong>the</strong>rmal Reservoir Conditions 616<br />
T. Shoil. K. Tamakawa. H. Takahashi and T. Wakabayashi<br />
Evaluation <strong>of</strong> Rock Fracture Toughness in <strong>the</strong> Presence <strong>of</strong><br />
Pressurized Water at Elevated Temperature by Means <strong>of</strong><br />
AE Technique 624<br />
M. Takanohashi. S. Miyazaki and H. Takahashi<br />
Special Lecture<br />
Geotechnical Applications <strong>of</strong> Acoustic Emission Techniques:<br />
Present Status and Future Goals .............................•.....632<br />
H. R. Hardy, Jr.<br />
Subsurface AE<br />
New Evaluation Method <strong>of</strong> Geo<strong>the</strong>rmal Reservoir by Field<br />
AE Measurement , 642<br />
H. Niilsuma. K. Nakatsuka. N. Chubachi. H. Yokoyama<br />
and M. Takanohashi<br />
Long Tenn Monitoring <strong>of</strong> A large Concrete Dam with<br />
A<br />
. E ..<br />
coustlc mission , ...................•.....••.....652<br />
B.R.A. Wood. R. W. Harris aud R.J. Colburn<br />
Prediction <strong>of</strong> Slope Failure by Acoustic Emission Technique " 660<br />
S. Yuda. Y. Hashimoto, K. TakiJhashi. M. Kumagai.<br />
H. Niitsuma and N. Chubaclti<br />
Rock Fracture around Longwall Panel in Deep·level Coal Mine .....•.....668<br />
K. Sola and A. Fukushima
Evaluation <strong>of</strong> Working Face Stability in Coal Mine with<br />
<strong>the</strong> Portable Acoustic Emission Counter ....................•.•.....676<br />
Y. Watanabe. J Nakajima, K. Nishimura arid S. Fukai<br />
Multi-ehannel Filtration <strong>of</strong> Seismoacoustical Data from<br />
Coal Mining .........................................••.......683<br />
B. Cionciara arid H. Marcak<br />
AE Monitoring to Evaluate <strong>the</strong> Effect <strong>of</strong> <strong>the</strong> Stress<br />
Relief Roadway in Underground Coal Mine ...........••....••.•.....690<br />
G. Deguchi, A. Fukushima and N. Oda<br />
Acoustic Emission Monitoring <strong>of</strong> Rock Burst in Excavation<br />
<strong>of</strong><strong>the</strong> Kan'etsu Tunnel 698<br />
J. Nakiljima and Y. Watanabe<br />
Acoustic Emission Monitoring <strong>of</strong> Rock Grouting <strong>of</strong><br />
Dam Foundations ...............................•.....••.......706<br />
T. Ueda, H. Nakazaki and T. Yamamoto
<strong>Contents</strong><br />
SPECIAL LECTURE<br />
The Characterisation <strong>of</strong> Crack Growth by Acoustic Emission .... ,......•......1<br />
C. B. Scruby<br />
Acoustic Emission as 8<br />
R. Davies<br />
Basis for Plant Integrity Monitoring .......•...........9<br />
LOCATION<br />
Acoustic Emission Source Location during Four-Point Bend Tests <strong>of</strong><br />
Alumina _,. _ _ 26<br />
M. A. Hamstad, P. M. Thompson and R. D. Young<br />
Acoustic Emission Source Location for 3-Dimensionel Structural<br />
Components .......................................................•..........34<br />
H. Nakasa<br />
Evaluation <strong>of</strong> Fatigue Crack Tip Configuration in Thick Specimen<br />
by Acoustic Emission Source Location _, 42<br />
Y. Obata. Y. Mori and K. Aoki<br />
Three Dimensional AE Source Location during Fracture Toughness<br />
Testing in Metals and Ceramics 48<br />
K. H. Kim. T. Nagumo. M. Enoki. S. Wakayama<br />
T. Kishi. T.Oka and J. Takatsubo<br />
ACOUSTIC DIAGNOSIS<br />
Uses <strong>of</strong> AE in Rolls-Royce PLC 58<br />
T. J. Holroyd. J. R. Webster. P. E. Cox and A. B. Price
Machine Condition Diagnosis System Using Acoustic Emission<br />
Techniques ................•.....................................•............65<br />
I. Sato, T. Yoneyama, S. Sasaki and T. Suzuki<br />
Relationship between Acoustic Emission and Vibration<br />
Characteristics during Destruction <strong>of</strong> Cast Iron .................•....•........73<br />
K. Honjoh, Y. Sudoh and J. Masuda<br />
Chaotic Vibrations and Acoustic Emission Caused by <strong>the</strong><br />
Cutting Process .......................•••.................., ....•..•..••.....87<br />
I. Grabec<br />
Use <strong>of</strong> Acoustic Emission for In-Process Monitoring <strong>of</strong> Tool during<br />
Turning and Milling ....•......................................................94<br />
J. Roget. P. Souquet and N. Gsib<br />
INSTRUMENTATION<br />
3rd Generation AE Instrumentation Techniques for High Fidelity<br />
and Speed <strong>of</strong> Data Acquiskion , 02<br />
S. J. Vahaviolos<br />
Mutti-Purpose Adaptable AE Monitoring System by Multi-Option<br />
S<strong>of</strong>tware ... ,............................•...................................117<br />
K. Yamaguchi, H. Ichikawa and H. Oyaizu<br />
STRUCTURAL INTEGRITY<br />
Acoustic Emission Applied to Railways 125<br />
B. R. A. Wood and R. W. Harris<br />
A Study for Evaluation <strong>of</strong> <strong>the</strong> Structural Integrity in Concrete<br />
Structures Using Acoustic Emission 136<br />
l. Adachi, M. Tsuda, S. Kimura and M. Ohtsu
The Problem <strong>of</strong> <strong>the</strong> Correlation between Acoustic Emission<br />
Source Characteristics and Indications <strong>of</strong> o<strong>the</strong>r NDE Techniques 144<br />
F. Tonolini<br />
Experience with Acoustic Emission Monitoring <strong>of</strong> Chemical Process<br />
Industry Vessels , , 150<br />
T. J. Fowler<br />
Acoustic Emission Monitoring on <strong>the</strong> Harmfulness on Defects in<br />
<strong>the</strong> Nozzle <strong>of</strong> ~2M Spherical Vessel 163<br />
Ze-yun He, Wei-he Guan, Zhong-Hai Chou, Ze-Zhen li<br />
Zhi-Xiang Chen and Feng Yang<br />
Pressure Vessel Integrity Evaluation Using Acoustic Emission 174<br />
B. R. A. Wood and R. W. Harris<br />
Safety Evaluation <strong>of</strong> Spherical Vessel by AE Technique .........•.•........182<br />
Wan Yao Guang and Shifeng liu<br />
Acoustic Emission Monitoring <strong>of</strong> 1:5 Scaled PWR Vessel<br />
during Mechanical Fatigue up to Failure , 190<br />
F. Tonolini, A. Sala, A. Caretta, M. Galli, A. Lucia and S. Ghia<br />
MAGNETOMECHANICAL AE<br />
Magnetomechanical Acoustic Emission - a Review ..... ,.•.•••.••.•........200<br />
K.Ono<br />
AEM and BN Signals in Steels 0 0 ••••• 0 213<br />
M. Shibata and H .Sasaki<br />
SUPERCONDUCT,NG<br />
Dissipative Energies <strong>of</strong> Micr<strong>of</strong>ailures at 4.2 K Determined by<br />
Acoustic Emission Technique., <strong>22</strong>2<br />
H. Fujita, E. S. Bobrov and Y. lwasa<br />
Acoustic Emission Monitoring <strong>of</strong> Superconducting Magnet ......•..•. 0<br />
O. Tsukamoto, S. Simamoto and Y. lwasa<br />
••••••2<strong>30</strong>
MEDICAL<br />
Acoustic Diagnosis <strong>of</strong> Vascular Disease <strong>of</strong> <strong>the</strong> Brain ........•....•.........236<br />
Y. Kosugi, Y. Kuse, J. Ikebe and K. Takakura<br />
Acoustic Emission Charscterisics <strong>of</strong> <strong>the</strong> Cortical Bone under Tensile<br />
loading "",., .. " , 244<br />
S. Inoue, K. Sakakida, F. Yamashita, T. Kusakabe<br />
N. Inoue, T. Hirai and T. Katayama<br />
Detection <strong>of</strong> Malfunction <strong>of</strong> Pros<strong>the</strong>tic Valve by Acoustic Method, 250<br />
K. Kobayashi and H. Matsumoto<br />
Acoustic Emission Characteristics <strong>of</strong> <strong>the</strong> Epiphyseal Plate<br />
under Tensile loading .............................................•.•.......257<br />
M. Suzuki, K. Sakakida, F. Yamashita, T. Kusakabe<br />
N. Inoue, T. Hirai and T. Katayama<br />
Application <strong>of</strong> Acoustic Emission to Artificial Joint.............•..••........263<br />
X. J. Gao, Y. Higo, S. Kumai, M. Ono, S. Nunomura<br />
K. Murota, Y. Tomita and H. Sugiyama<br />
Acoustic Emission Characteristics <strong>of</strong> <strong>the</strong> Cancellous Bone<br />
under Tensile loading""","""","","",,.",", 270<br />
N. Inoue, K. Sakakida, F. Yamashita, T. Hirai and T. Katayama<br />
FRACTURE<br />
Predictive Acoustic Emission in Fracture and Fatigue .......••.•.•..........276<br />
M. N. Bassim<br />
Acoustic Emission Studies on <strong>the</strong> Discontinuous Fatigue Crack<br />
Growth in Poly (Vinyl Chrolidel 283<br />
N. Takeda, T. Higashi and K. Takahashi<br />
Fracture Strength <strong>of</strong> Vapor Deposition layer <strong>of</strong> Alloy Steel<br />
Specimen Detected by Acoustic Emission Technique .......•............. , .291<br />
Xiao-Qian Zhu. Jian-Zhong Xiao, Jia-Lin Chen and Xi-Jiang Yin
Evaluation <strong>of</strong> Electr<strong>of</strong>ormed Bond Integrities by Acoustic Emission 296<br />
Zhou-Geng Jin. Guo-Gui Song and Xiang-Hua Pan<br />
Detection Bnd Localization <strong>of</strong> Cracks by Acoustic Emission<br />
during a Thermal Fatigue Test <strong>30</strong>5<br />
J. Roget, P. Souquet and J. L. Germain<br />
Acoustic Emission Studies for Detection Bnd Monitoring <strong>of</strong><br />
Incipient Crack Nucleation Bnd Propagation in EN-24 Steel<br />
under Fatigue 312<br />
S.C. Pathak and C. R. L. Murthy<br />
SUBSURFACE<br />
Clustering and Migration <strong>of</strong> AE prior to Main Faulting in Rock 318<br />
K. Itakura and K. Sato<br />
The Electrodynamics <strong>of</strong> Rock Fracture "., , 326<br />
B. T. Brady and G. A. Rowell<br />
Acoustic Emission Monitoring <strong>of</strong> Tunneling and Rock Grouting 334<br />
T. Ueda, H. Nakazaki and M. Takahashi<br />
Acoustic Emission and Deformation <strong>of</strong> Rock under Compression 341<br />
M. Takeuchi and Y. Watanabe<br />
In Situ Rock Stress Field Determination by Acoustic Emission<br />
Monitoring ............................................................•......349<br />
R. J. Watters and A. M. Soltani<br />
Evaluation <strong>of</strong> Rock Fracture Toughness Using <strong>the</strong> AE Technique 357<br />
M. Takanohashi and H. Takahashi<br />
Source Location Velocity Models for AE/MS Field Studies in<br />
Geologic Materials , 365<br />
H. R. Hardy, Jr.<br />
Calibration <strong>of</strong> Downhole AE Measuring System by Detonation Test ,389<br />
M. Sato, K. Nakatsuka, H. Niitsuma and H. Yokoyama
A New Automatic AE Source Location Algorithm for<br />
Downhole Tri-axial AE Measurement •......................•....•.•.......396<br />
K. Nagano, H. Niitsuma and N. Chubachi<br />
Seismicity Induced during a Viscous Stimulation at <strong>the</strong><br />
Cambome School <strong>of</strong> Mines Hot Dry Rock Geo<strong>the</strong>rmal<br />
Energy Project in Comwall. England 407<br />
R. Baria and A. S. P. Green<br />
Recents Developments from "Petite Sismique" Trials .......•....•.........4<strong>30</strong><br />
M. C. Reymond and J. Patron<br />
AE Monitoring <strong>of</strong> Well Drilling Processes by Using a Downhole<br />
AE Measurement System 436<br />
H. Niitsuma and N. Chubachi<br />
METAL<br />
Acoustic Emission Characterization <strong>of</strong> Deformation and<br />
Fracture in Heavy Alloys .....................................•....•.........446<br />
I. Roman. A. Mittelman and D. Rittel<br />
Fracture. Acoustic Emission and Adiabatic Heating <strong>of</strong> Austenitic<br />
Stainless Steels at Liquid Helium Temperature 453<br />
R. L. Tobler, T. Shoji, H. Takahashi and K. Ohnishi<br />
An Investigation <strong>of</strong> <strong>the</strong> Acoustic Emission from Various Crack<br />
Modes in <strong>30</strong>4 Stainless Steel , 462<br />
D. R. Smith,Jr. and S. H. Carpenter<br />
Acoustic Emission Behavior in Tensile Test <strong>of</strong> Steels at<br />
Elevated Temperatures .........................•...... ,..... ,...•.•.........469<br />
K. Yoshida. J. Takatsubo and H. Yokogawa<br />
Acoustic Emission Characterization <strong>of</strong> Corrosion Processes in<br />
7075-T651 Alloy 477<br />
Zu-ming Zhu and S. H. Carpenter
Defect Detection in Weld <strong>of</strong> 16Mn Steel by Acoustic Emission 488<br />
Shifeng liu, Jinhua Zhou, Pingyian Oin and Yizhi Zhuang<br />
Acoustic Emission during <strong>the</strong> Thermoelastic Martensitic<br />
Transformation in NiTi Alloys 494<br />
G. Airoldi<br />
Acoustic Emission Generated during Cyclic Deformation in<br />
AI-1 wt%Si Alloys 502<br />
S. Kumai, M. Kawashima, Y. Higo and S. Nunomura<br />
Nondestructive Evaluation <strong>of</strong> 0.355m' liquid Oil Gas Steel<br />
Weld Cylinders by Acoustic Emission , , 508<br />
Shifeng liu, Xinchen li, Shaowen Chen, Jianwei liu<br />
Qiangong Dong, Wei Chen and Ping Chen<br />
Acoustic Emission Generated during Plastic Deformation in<br />
Mg-AI Magnesium Alloys , 514<br />
H. Kato. T. Tozawa and Y. Takayama<br />
CONCRETE<br />
Characteristics <strong>of</strong> Acoustic Emission from Reinforced Concrete 5<strong>22</strong><br />
Lan li and H. 8. Poorooshasb<br />
Low Temperature Fracture Behavior and AE Characteristics<br />
<strong>of</strong> Autoclaved Aerated Concretes IAACI 529<br />
H. D. Jeong. H. Takahashi and S. Teramura<br />
Determination <strong>of</strong> Applied Compressive Stress in Concrete<br />
Structures by Acoustic Emission Measurement ..................•.•........538<br />
T. Uomoto. S. Sato and S. Yamamoto<br />
Fundamental Research for Evaluating Applied Stress Levels<br />
in Concrete Structures through AE Testing .........................•........546<br />
S. Niiseki, M. Satake, M. Hujita and I. Mauri
COMPOSITE<br />
Acoustic Emission Signal Analysis during Fatigue Damage <strong>of</strong><br />
GFRP ··· .. · 554<br />
M. Shiwa, S. Yuyama and T. Kishi<br />
Investigation <strong>of</strong> Mechanical Properties for Carbon Fiber<br />
Bundle Using Acoustic Emission 564<br />
Xing Wei. Zhen-Ming Yuan and Ri-Hong Deng<br />
Acoustic Emission Characterization <strong>of</strong> Interfacial Debonding<br />
on <strong>the</strong> Surface <strong>of</strong> a Model Reinforcement <strong>of</strong> Dispersion<br />
Composite Materials , 568<br />
Y. Ozawa, K. Sugiura and H. Sekine<br />
Tracking Progression <strong>of</strong> Matrix Splitting during Static Loading<br />
through Acoustic Emission in Notched Unidirectional<br />
Graphite/Epoxy Composites 575<br />
J. Awerbuch and S. Ghaffari<br />
Detection and Evaluation <strong>of</strong> Defects in Unidirectional FRP by<br />
Acoustic Emission Monitoring <strong>of</strong> Bending Tests 586<br />
M. Cherfaoui, A. Lemascon. J. Roget and D. Noiret<br />
Acoustic Emission Waveform Characteristics from FRP during<br />
Tensile Test ..................................•.....................•.......594<br />
K. Yamaguchi, H. Oyaizu and Y. Nagata<br />
Fracture Toughness and Acoustic Emission <strong>of</strong> Wood•........•••....•.......602<br />
K. Sato, T. Honda and M. Fushitani<br />
Experimental Investigations for Fiber Glass Water Pipe<br />
Acoustic Emission Testing 609<br />
F. Tonolini, A. Sala and S. Ghia<br />
Detection <strong>of</strong> Damage in Composite Materials by Thermo-Acoustic<br />
Emission Technique ......................................•..................620<br />
N. Sato, T. Kurauchi and O. Kamigaito
Characterization <strong>of</strong> Crack Resistance Performance <strong>of</strong><br />
Continuous Glassfiber Reinforced Polyurethane Foam by<br />
Acoustic Emission , 6<strong>30</strong><br />
I. Kimpara, I. Ohsawa, M. Kawashima, T. Horikawa and T. Mori<br />
Effect <strong>of</strong> Friction Generated Emission on Monitoring Damage<br />
in Composite Laminates through Aco.ustic Emission ...............•........638<br />
J. Awerbuch and S. Ghaffari<br />
CERAMICS/COATING<br />
Micr<strong>of</strong>racture Analysis in AI 20 3 Evaluated by AE Source<br />
Characterization .. , ............................................•..••.•.......653<br />
S. Wakayama, T. Kishi and S. Kohara<br />
Investigation on Fracture Processes <strong>of</strong> Plasma Coating<br />
during Three Points Bending by Acoustic Emission 661<br />
Hongtian Zhang, Xuke Zhou, Pe liao, Shan Cao, lishi Wen and<br />
Kan Guan<br />
Acoustic Emission during Degradation <strong>of</strong> Coating Films ......•.•...........669<br />
T. Tsuru, A. Sagara and S. Haruyama<br />
WAVE FORM ANALYSIS<br />
Some Notions Concerning <strong>the</strong> Behavior <strong>of</strong> Transducers 675<br />
F. R. Breckenridge, T. M. Proctor, N. N. Hsu and D. G. Eitzen<br />
On a Real-Time Calibration <strong>of</strong> AE Transfer Function (Amplitude<br />
and Phase) , 685<br />
Y. Higo. M. Ono, S. Nunomura and T. Watanabe<br />
Classification <strong>of</strong> AE Waveforms in Tensile Test <strong>of</strong> Carbon Steel 692<br />
J. Takatsubo, K. Yoshida and H. Yokogawa<br />
Analysis <strong>of</strong> AE Wave Propagation by Finite Element Method ........•......700<br />
T. Nagumo, F. Mudry, T. Kishi and S. Kohara
Classical Wave Theory in Practical AE Testing 708<br />
A. A. Pollock<br />
Dynamic Green's Function <strong>of</strong> Finite Media by Finite<br />
Difference Method ...........................................•.•..•.•.......7<strong>22</strong><br />
Y. Fukunaga and T. Kishi<br />
Quantitative Analysis <strong>of</strong> Micr<strong>of</strong>racturing due to Disbonding by<br />
Acoustic Emission 732<br />
S. Yuyama, T. Imanaka and M. Ohtsu<br />
Considerations on Field AE Data Based on Theoretical<br />
Studies <strong>of</strong> Elastic Waves due to Sudden Movement <strong>of</strong> a<br />
Subsurface Reservoir Crack· .. ·· .. ········ ··•· 742<br />
K. Hayashi and H. Nishimura<br />
Point Source/Point Receiver Materials Testing .....•.•....•.•....•.........760<br />
W. Sachse and K. U. Kim<br />
Determination <strong>of</strong> Microcracking Moment Tensor <strong>of</strong><br />
Quasi-cleavage Facet by AE Source Characterization ........•.•..•.•.......763<br />
M. Enoki. T. Kishi and S. Kohara<br />
Crack Orientations and Moment Tensor Solutions in<br />
Acoustic Emission ........................................•·· •.. ·•·.···· .... 771<br />
M. Ohtsu and K. Ono
<strong>Contents</strong><br />
Special Lecture<br />
In.trumentatioD aDd Data ProcelliDI for Aeou.tle Emlllion TeehDololY<br />
and Application. 1<br />
YAMAGUCID.K.<br />
OowDhole AE Meuurement Technique .nd It. Application to Geo<strong>the</strong>rmal<br />
Field. 11<br />
The Procelllni <strong>of</strong> AE Sllnall<br />
,.<br />
SACHSB,W.<br />
AE from an Indu.trl.1 AppllcatioD. Viewpoint<br />
3'<br />
HOLROYD,T.!.<br />
II Acou.tlc Emlllion <strong>of</strong> U.e In StudylDI <strong>the</strong> Mlcromechani.m. <strong>of</strong> Failure<br />
<strong>of</strong> Polymer Matrls: Compo.lte. 1 49<br />
HUll.D.<br />
Signal Processing<br />
Rllher-Order Crollini' - A New<br />
Method<br />
Aeou.tlc EmlllloD SIIDal Procelllni<br />
S9<br />
HSU,N.N.,<br />
ErI'ZEN,D.G.<br />
Source In'ferslon Procedure for Ac~u.tlc Emlilion<br />
.7<br />
OHI'SU,M.
Application <strong>of</strong> n JutelUleDt Slloal Proceiliol S;rltem to Acoultlc<br />
Emililoo Aual;rlil ...•.•.•..•.•.•...•.•.•.•.•.•............•.....•..•......•......................... 75<br />
GRABEc,I.,<br />
SACHSE,W.<br />
Source Ideutlflcatloo aud Quantltatl,.. Cbaractuiaatlou <strong>of</strong> Fracture<br />
Procell 10 A533B Iteel by aD Aco.ltlc EmlilioD Source Wan ADal;r.1I<br />
II<br />
TAXA'TSUBO,I.,<br />
KISHI,T.<br />
Au Up-to.date lu.lumeDtatioD SYltem for DelectloD, LOcatiOD aDd<br />
Characteriaalloo <strong>of</strong> AE SII.all 19<br />
BELCREDI,D., SALA.A., TORNEIJ.J,C.<br />
ThID·Fllm Acoulllcl: Llu.·aDd Point Source GeneratloD aad TeltiDI <strong>of</strong><br />
Thlu FUml 98<br />
KIM,X.Y.,<br />
SACHSE,W.<br />
Instrumentation<br />
A.allablllt;r <strong>of</strong> Acoaltlc Emlliion Amplitude DlltribatloD'" Fractall<br />
NAXASA,H.<br />
,.6<br />
MODltorhl.1 <strong>of</strong> Sabmerl.d.Arc Weldlu. 0, AeoDltlc EmlilioD<br />
114<br />
XWON,O.Y., ONO,X., ISHIHARA,X.<br />
YAMADA,X.<br />
CbuactulzatiOD aDd Mealuremeat Aeeuuc;r <strong>of</strong> Aeoultle EmlliioD<br />
Sf.lema ..................................•.•............•.•................................•.•.•...•.•.. 121<br />
HAMSTAD,M.A.
SlmulatioD <strong>of</strong> Acou.tlc EmlllloD by Photoela.tlc VlluaUutlon Technique<br />
133<br />
SHlMOMlJRA,X.,<br />
DATE,X.<br />
A Study for<br />
Characterisation<br />
ADaly.l. Sy.tem <strong>of</strong> Acon.tlc EmlllloD Soarce<br />
140<br />
ENOKI,M.,<br />
KISHI.T.<br />
DetectioD <strong>of</strong> a Impu.lse Force la Bead-DI.k Media Contact a.IDI Small<br />
Pleaoelectrlc Traa.ducer 148<br />
MOOIIZUXI.X., SATO,L, HAYASHI,T.<br />
Relatlou betweea<br />
DlffereDt Materials<br />
Acoaatlc EmlllloD aDd Deformation Beha.. lor <strong>of</strong><br />
156<br />
FLEISOIMANN,P., FOUGERES,R., ROUBY,D.<br />
Characterlstlca <strong>of</strong> PeDcll Lead for AE System CaUbratioD<br />
164<br />
Hloo,Y.,<br />
INABA.H.<br />
Dnelopmeat <strong>of</strong> a Wlde-BaDd Accu.racy Acou.tlc EmlllloD Sea.or with<br />
Flat BI.b-l'reqaeacy aall.d Characteristic. 170<br />
MtTIO,K., MlYASlDTA,X., XATAYAMA,A.<br />
Medical<br />
Acou.tic EmllllOD Source Locatloa durlD. Tea.lle Test <strong>of</strong> Cortical BODe<br />
177<br />
n-iOUE,N., SAXAKlDA,X., YAMASHITA,F.<br />
INOUE.S., HIRAI.T., KATAYAMA,T.<br />
HAYASHIBARA,M.
AppUcaUon or Au.ltlc EmlllloD ror E',..llIaUDI Proldmal Pit In<br />
Uncemented Tota' Hlp Femoral Componentl 185<br />
SUOIYAMA,H., WHlTP.SIDE,!..A., XAISER,A.D.<br />
HIoo,Y.<br />
Acoultlc Emlilioa Cbancterlltici and Ji'ncture Toulhnell or Dental<br />
CompOllte Relinl 193<br />
HANAOXA,K., NAKAJIMA,N., KUBOTA.A.<br />
TERANAKA,T., IWAMOTO,T., FUKtlZAWA,Y.<br />
The Traurer FuneUon or AE la LI~lnl BodJ<br />
GAO,X.J., MUROTA,K., TOMlTA,Y.<br />
ONO,M., HIoo,Y., NUNOMURA,S.<br />
ApplleaUoa or AI TraDlrer Ji'uneUon ror E~alnaUal <strong>the</strong> Loolenlnl In<br />
ArUrlelal Knee Joint 208<br />
TAKASHIMA,K., TONDA,a, SAKATA,a<br />
MIZUTA,H., KAI,X., XUBOTA.K.<br />
ISHIKAWA,X., TAXAGI,K., lUoo,Y.<br />
NUNOMURA,S.<br />
Aeoulele Emlilion 8Jltem Applied ror Cemented Toeal Hlp Repl.eement<br />
215<br />
MATSUBARA,M., FURUYA,X., YAMAMoro,lL<br />
TUCHIYA,M., NUNOMURA,S., HIoo,Y.<br />
E~aID.Uon or Bone·ArUrlcial Knee Joint IDterrace bJ AeonlUe EmlilioD<br />
Technique ....•....•.................................................................................... <strong>22</strong>2<br />
INOUE,N., SAKAKlDA,K., YAMASHITA,F.<br />
KOHNO,S., HIRAI,T., XATAYAMA,T.<br />
KIDA,Y.
Subsurface<br />
AE/MS Actl... lty ID Rode .t Very Low Strellel<br />
HARDY,H.R.lr., BELBSKY,R.M., MRUOALA,M.<br />
"0<br />
Source Mech.Dilml <strong>of</strong> Acoultlc EmlllloDI uouDd UuderlrouDd<br />
EJ:C UOD 240<br />
SATO,K.,<br />
ITAXURA,IC..<br />
Cb.raderlutioD <strong>of</strong> Rock Form.tloa by Munl <strong>of</strong> AE MoaltorlDI durlDI<br />
Well Drllllni 248<br />
ASANl/MA,H., NIITSTJMA,K, SATO,M.<br />
OIUBACHI,N.<br />
Applicability<br />
CODitractioD<br />
or Aconitic EmlilioD to PredlctioD or Slope Failure under<br />
258<br />
OUCHIBU,A., IO,X., NAXAMURA,M.<br />
GOTO,T., KAMATA,M.<br />
Char_Clerl.tlCI <strong>of</strong> EaerlY or EluUc WUti due to Sudden<br />
Sub.urf.ce Ruenolr Cr.cks for Geo<strong>the</strong>rm.l Heat EJ:tractloa<br />
HAYASlfi,K., MOTEOI,S., ABE,H.<br />
Growth or<br />
265<br />
The Ob.er.... UoD <strong>of</strong> L.nd.lIde by <strong>the</strong> Acoultlc EmlliloD Monltorlnl Rod<br />
273<br />
NAKAJIMA,I., SATO,I., TAIRA,N.<br />
KUBOTA,N.<br />
Petrophy.lcal Interpretation <strong>of</strong> <strong>the</strong> AC01UtiC Eml.lloD I Mlcro.e1.mlc<br />
Actblty ID Buted Cry.tamae Rocks 282<br />
RTJIZ.DJ!.AROANDONA,V.O., CALLEJA,L., MONTOTO,M.<br />
SUAREZ-DEL-RIO,L.M., RODRIGUEZ-REY,A.
Mecbanlcal Wnelnldu for Un In AE/MS Geotecbnlcal Appllcatlonl ......... 192<br />
HARDY,H.R.lr.,<br />
TAIOll,P.<br />
AppllcatioD <strong>of</strong> AE/MS Wanform Anal,lll to Huard Detection,<br />
E"aluillon, and Control In Underlround Mlnlnl <strong>30</strong>3<br />
SWANSON,P.L.,<br />
BOLER,P.M.<br />
Confidence E.,.aluallnl Parameten for Automatic Source Location 10<br />
Downbole AE Mealurementl 311<br />
NAGANO,K., NIlTSUMA,H., SATO,M.<br />
CHUBAOD,N.<br />
Concrete<br />
On Innueace <strong>of</strong> Loadlnl Veloclt, and Mh; Proportion on KAISER Effect<br />
In Concrete 320<br />
NDSEKI,S., SATAXE,M., KANEMORI,H.<br />
ITO,Y.<br />
AE TecbDlque E'uluatlon <strong>of</strong> Deterloraled Viaduct<br />
328<br />
OHrAKI,T.,<br />
OH·OXA,T.<br />
Debulor or CODcrete SpecimeDt In Spllttlol TeDtlle Tnl 336<br />
UOMoro,T.,<br />
KAWAKAMI,T.<br />
Ule <strong>of</strong> Acouilic Emlilion 10 Detect Debondlnl <strong>of</strong> Relnforelnl Ban In<br />
Concrete 342<br />
HAWKINS,N.M., Md:ABB,W.M., NOBUl'A,Y.
AE E lu.tlOD <strong>of</strong> CODcrete Strac:turu 350<br />
KIMURA,S., ADAcm,I., H1RONAKA,Y.<br />
OHrSU,M.<br />
AE Obsen.tloo <strong>of</strong> Core Telt. for tbe Deterloratloo E'uluatloo 10<br />
Coocrete Strocture. ....•..••..........................................•................•..•.•.•.... 358<br />
OHrSU,M., SAXIMOTO,T., KAWAI,Y.<br />
VUfl,S.<br />
Structural Integrity<br />
Errect <strong>of</strong> Speclmeo Tblckoell 00 Auu.tlc Emlilioo Sl8oal. ID Steel<br />
Bllb",al Bridie. .........•.......................•.............•....•..•.•......•..•................ 366<br />
VANNOY.D.W.,<br />
HAlURI,R.<br />
Dlallnosls<br />
Comparl.ou <strong>of</strong> Laborator, aod field Telt. durlog Acollltic EmlllloD<br />
MODltorlol <strong>of</strong> Pre••ure Ve••el. 373<br />
WOOD,B.R.A., NOYES,L.M., HARRIS,R.W.<br />
Computerbed Leak Detectloo aDd Locatloo by Meao. or Cobereoce aod<br />
Cro••-correlatioo Aoal,..I. 382<br />
FONTANA,B., KARLE,H.P., ~,R.<br />
Receot DenlopmeDI. ID AcolI.tlc Emlilioo Teltlol <strong>of</strong> Cbemlc:al Procell<br />
EqulpmeDt 391<br />
FOWLER,T.J.
Dlalnolll <strong>of</strong> Rotatlnl SlIdel In Rotary Comprellorl ullnl Acoultlc<br />
Emlilioll Tecllllique ..•...........•.......•.•..............•........................................ 405<br />
SATO,J., YONEYAMA,T., SATO,IC.<br />
TANAKA,T., HATAJI,<br />
PracUul COlliideralioUI ou ludu.trlal Application. <strong>of</strong> AE TeclInolOIY<br />
413<br />
TONOLINI,F.<br />
Tile Correlation betwlla Actin Defect. and Source Loutloa la Acoultlc<br />
Emlilion Tilt <strong>of</strong> Metal Prellure Ves.ell 420<br />
SHEN,O.T., UU,s., WAN,Y.V.<br />
DVAN,Q.<br />
On-line XuluaUon Procedure for Siradnral Inlelrlly by Acou.tlc<br />
Eml••lou Preqllency Analy.1I 428<br />
IEONG,H.D., TAKAHASHI,H., MURAKAMI,Y.<br />
Acou.tlc Emlilion 11I'U.tllalioa on Surface Quality <strong>of</strong> Malnetlc<br />
Recordllli Dllk 439<br />
ZHANG,H., BAI,S., FANG,G.<br />
Eltlmale <strong>of</strong> <strong>the</strong> Patllal Condition oa Rolllni Bearlal by AE<br />
"6<br />
NISHIMOTO,S.,<br />
KAMENO,R.<br />
AE MODltorlll1 <strong>of</strong> Airframe Stractare darlal Pall Seale Fatllue Telt<br />
.5.<br />
BOZZBTI1,D., SALA,A., BORZACCHIELLO,G.<br />
SABATINO,C.
A Stud, oa <strong>the</strong> SeparaUoa. <strong>of</strong> Acoultlc Emlilioa SIIUI. fa Metal Cuttlal<br />
Proce.. 462<br />
ZHANG,Y.,<br />
XU,R.<br />
AE.moaltorlal S,.tema for <strong>the</strong> DetecUOD <strong>of</strong> SIDlle-polDt aad MultlpolDt<br />
CutUu. Tool 'aUurel 470<br />
BLUM,T., SUZUKI,I., mASAKI,I.<br />
Moultorlal Mlcro.tractura. Damale aad Quallt, CODtrol b, ACODIUC<br />
Emll.lon Technique. ......................................................................•....... 478<br />
WOOD,B.R.A., HARRIS,R.W., NOYES,L.M.<br />
AcoulUc Emlilioa. Data la.terpretaUoD Applied to PlpeliDe MODltorfDI<br />
484<br />
WOOD,B.R.A.,<br />
HARRIS,R.W.<br />
Metal<br />
DetecUon <strong>of</strong> "aUlue Crack blUaUoa OD TI-6AI-4V Allo, OIlnl ACOlllUC<br />
EmlilioD 491<br />
UODDA,Y., ONO,M., moo,Y.<br />
NUNOMURA,S.<br />
MaD' Acoultlc Emlilio. EYedI. from Propaaatia. ratlane Crack oD<br />
Carburlzed La,er 499<br />
OBATA,Y., NISHI,X., AOICI,X.<br />
MATSUMOI'O,T., SHIBATA,X., KAWABE,X.<br />
The lanuuce <strong>of</strong> Mlcro.lructure OD MAE and BN <strong>of</strong> Dual.Phale Sleel<br />
.00<br />
MU,X.R., SHEN,G.T., ZHANG,x.<br />
ZHANG,S.
Source MechaDllm <strong>of</strong> Acoa.tlc EmllllOD GeDerated aroaad <strong>the</strong> Yieldpolat<br />
<strong>of</strong> a AI-LI-Ca-MI-Zr Alloy _ 514<br />
YQSHIDA,X., YOSHIDA,M., TAKAGI,H.<br />
SAKAMAKI,x.<br />
Study oa <strong>the</strong> Ero.loD [alea.lty aDd Ihe Mechaallm <strong>of</strong> Ca,.ltatloa aad MI.t<br />
Ero.loD by AE ADaly.1I 520<br />
TAXEMaro,M.,<br />
HAYASHI,Y.<br />
The Acoa.ltc EmlilioD Soarc. Mechanl.m for Falilae Crack Propalalloa<br />
la 7075 AlamlDum 528<br />
McBRIDB,S.L., BOWMAN,P., MdlAE,X.I.<br />
AE MODltorlal <strong>of</strong> .alliae Te.1 with Welded Pipe Jolal<br />
..6<br />
HUSHIMI,T., NAKAMURA,T., SAXAI,M.<br />
SHIBASAKI,M., IWAI,X.<br />
Acou.Uc EmlilioD Ac::Ih-lty <strong>of</strong> NI-coatalDlaJ Weld Melal. al Low<br />
Temperalare 544<br />
ISHIXAWA,T., LOZEV,M.O., KNO'IT).F.<br />
ROWLANDS,C.W.<br />
Detedio. aDd CharacterllaUoD <strong>of</strong> RecrJ.talllzalJon la <strong>30</strong>04 AlumlDum<br />
Alloy U.IDI ACOD.llc Eml••loD 552<br />
ARMENTROUT,D.L.,<br />
CARPENTER,S.H.<br />
AE Soarea CharacterlzatioD durlD8 Fraclare TODlhneli Tnl <strong>of</strong> TI·6AI·<br />
4V Allo, 559<br />
MASHINO,S., KJSHI,T., HORIYA,T.<br />
SUZUXI,H.
AE CharacterlzaUoa 'arlal Stre.. Conoaloa Cracklal oa 16MaR Steel<br />
.66<br />
DAl,O., ZHANO,B.Q., Jrn,O.L.<br />
MagDeto-AcOD'UC Eml..loa 101' <strong>the</strong> DeteclloD 01 Irndlalloa Erreet. 00<br />
Reactor Ve••el Steeh 574<br />
XWON,O.Y., ONO,X., LUCAS,O.E.<br />
ODDElTE,O.R.<br />
Charac:terlillc. 01 ACOD.tlC Eml..loD IDduced b, <strong>the</strong> Thermoelutlc Pba..<br />
Traa.rormalloa la Cu-AI-Nl AIlG, SIDlle Cr,.t.11 583<br />
YOSHIDA,X., SAXAMAKl,K., TAXAOI,H.<br />
OHASHI,K., YOSHIDA,M.<br />
ApplicalloD or AcoulUc EmlllloD to Thermal ADa.,I" or Rapid<br />
SolldlrIcation 590<br />
KUBOYAMA,O., SUZUKI,T., UMEDA,T.<br />
AD Acou.llc Emlilion Inn.tll.tloD or tbe Ten.lIe 1I'.lIure or C.lhodlcall,<br />
Cbarled <strong>30</strong>4 Stalalel' Steel 598<br />
CARPENTER,S.H., XU,W., SMIIH,D.R.Ir.<br />
Ceramics<br />
Acou.tlc EmlllloDI aDd Mlcro.tructunl VarlaUoal or Plalma-.pra,ed<br />
Zr0 2 -y 203 CoallDl1 durlDI Thermal C,c:IIDII 605<br />
YOSHIOKA,T., ~OHARA,K., SASAKI,a.<br />
Acou.tlc EmlilioD rrom Bot.pret..d SI 3<br />
N.. with ArtIrld.1 Ddec:t. 615<br />
MORI,Y., ~O,M., AOKl,K.<br />
UEDA,M., IClTADATB,K.
Fractare <strong>of</strong> Slatered Alamlaa with Artificial Defect<br />
SHINKE,N., WATANABE,Y., NAXAOIRI,A.<br />
YAMANO,T.<br />
Characterl.tlc <strong>of</strong> Acou.tlc Emllliou ou <strong>the</strong> Slutered Zircoul.<br />
627<br />
FUKUZAWA,Y., IMOTO,S., TANAKA,K.<br />
Enl.atlou <strong>of</strong> Coatllli )'lIm. b,. Acou.tlc EmllilOIl Slgllal<br />
635<br />
IKEDA,It., KISHI,T.. NISHlNO,M.<br />
MORl,Y., VEDA-M.. KONDO,T.<br />
YAMAGUan,Y.<br />
Wood<br />
The Effect <strong>of</strong> Phy.leal aad Structural Propertlet <strong>of</strong> Solid Wood on <strong>the</strong><br />
Attelluatloa <strong>of</strong> Bur.t.Type Emllliou. ......•........•.•....•.•.............•.•.....•.•...•.. 642<br />
QUARLES,S.L.<br />
Effect <strong>of</strong> Butt Jolut oa <strong>the</strong> Beudlu. Stuulth aud AcoulUc Emlliiou<br />
Propertlel <strong>of</strong> Lamla,ted Wood 650<br />
BYEON,RS., SATO,K., FUSHITANI,M.<br />
Applh::atloa <strong>of</strong> Acou.Uc EmlllloD to Strut Gradlul <strong>of</strong> Tim ber<br />
657<br />
SATO,K.,<br />
FUSHITANI,M.<br />
Composite<br />
Acoa.Uc Emlilioa <strong>of</strong> Adbulnl,. Bouded Jolull lu Gla.. FIber RelDtorced<br />
PI.ltlcl .......•...•.••...................•.•.•.•..................•...................••.•..............• 664<br />
OSAXA,K.,<br />
FUKUDA-T.
Fracture Beh....lor <strong>of</strong> CII'RP In Creep·Reconr, TeD.lle TestlDg hI<br />
Acou.tlc :Eml••lon 672<br />
YOON,D.l., KIM,G.c., U!.B,S.<br />
KWON,O.Y.<br />
Application <strong>of</strong> AET 10 IdeDtlflcation <strong>of</strong> Inlernal Damages In GII'RP<br />
UENOYA,T.<br />
A:E Technique, a' Applied 10 Material Dulgn and Quality AllnraDee <strong>of</strong><br />
GII'RP Anlomotl"e Component. 687<br />
SATO,N., ICURAUon,T., ICAMIGAITO,O.<br />
Fallgue Fraclure Mechanl.m. <strong>of</strong> Short Fiber Reinforced PET Compo.lte<br />
by Acon.tlc Emission Method 695<br />
SUZUKI,M., IMURA,M., IWAMOTO,M.<br />
JINEN,B.<br />
Acon.tlc Eml..loD Monitorial <strong>of</strong> Bearing Failure In Mechanically<br />
Fa,leued FRP 702<br />
HAMADA,H., MABKAWA,Z., YOXOYAMA,A.<br />
TAMURA,T., YONEHARA.H., SINOBU,M.<br />
HlRANO,T.<br />
E"aluaUon <strong>of</strong> Fraclure ProCei. In Fiber R.elnforced Metal by Acou.tlc<br />
Emission 710<br />
WAXAYAMA,S.,<br />
NISHIMURA,H.<br />
AE Characterlstlu <strong>of</strong> Short Gla.. Fiber Reinforced Poly(elblleue<br />
Terephtbalale) 718<br />
CHOI,N.S., TAXAHASHI,X., TAKEDA,N.
Failure Anal,..11 <strong>of</strong> CFIlP b,. AE 726<br />
YASUDA,B., ISOMURA.M., TANABE,Y.<br />
Acoultlc Emlilion Chanderlaatlon <strong>of</strong> TeDille PaUure MechaDllm <strong>of</strong><br />
Unidirectional CPRP with DlffereDt [aterfaclal SireDlib 732<br />
lCIMPARA,I., OHSAWA,I., TSUSHIMA,B.<br />
YOSHIZAWA,a<br />
AcoulUe Emlilioa Charaderlltlc. <strong>of</strong> CarboD-epox,. Rebbed Shell. darla.<br />
Compre'lh'e Pallure 741<br />
Jm,z.G., PAN,X.a, ZHU,C.<br />
SONO,a.O.<br />
E ....la.tloa <strong>of</strong> Pncture<br />
SlIIcalefWoodfiber L.mia.tel<br />
Toulbnell '0 Auloclued C.lclum<br />
7.8<br />
TBRAMURA,S.,<br />
TAKAHASHI,K<br />
Fracture Mecb.nllm Studies <strong>of</strong> Carbon Plber Reinforced TbermopluUc<br />
CompOIUe. b,. Aeoultle Eml.lIOD 757<br />
lENO).S., ONO,K., YANO,I.M.<br />
AcoalUc EmlllloD darln. DeformaUoD 'Dd Pncture Procell.. <strong>of</strong> 3D C/C<br />
Compo.lte ...•...•..•.•..•.............................................•.••.•..•.......•............... 765<br />
FEN,S., BAI,S., ZHU,Z.<br />
Recolultlon <strong>of</strong> Pnclure Mod.. lu Fiber Reinforced Plutlc. b,. AcoulUe<br />
Emlilioa WaTeform Parameterl 773<br />
YAMAOUon,K., OYAIZU,H., HIRAI,I.<br />
IOHKAJI,l
Acou.tlc Eml..lon E"aluaUon <strong>of</strong> Aramld Reinforced Aluminum<br />
Lamlaate. 781<br />
SHlWA.M., ICISlD,T., ISHIDA,T.<br />
Mechanical Parameten aad Acoultlc Emlilion a' Damage Indlcalon<br />
durlnl 'atllue <strong>of</strong> oae Dlmn.lonal Glall/Epu1 Compo.lte. 788<br />
SCHIAVON,I., FOUGERES,R., ROUBY,D.<br />
FLEISCHMANN,P.<br />
Relatiouhlp between Fracture Mecbanllm. aDd AE Cbaracterl.tlc. <strong>of</strong><br />
Model GFRP 795<br />
SUN,F., SUZUKI,M., NAXANISHI,H.<br />
IWAMOTO,M., lINEN,B.<br />
En"lroumental Strut Crack PropaCatloD on PMMA<br />
803<br />
NATSUI,T., moo,Y., NUNOMURA,S.<br />
MATSUOKA,J.<br />
Magnetomechanlcal AE<br />
MacnetomechaDlcal Acou.tlc Emliliou lu Gr.ln Oriented and NODoriented<br />
Fe-51 All01 809<br />
SHEN,G.T., XU,Y., UU,S.<br />
The Maluetic Acoultic EmllllOD Beba"lor <strong>of</strong> Ferromagnetic Malerlall<br />
uuder Torque Strel' _...... 816<br />
ZHU,x.a., MA,X.Y., CHEN,J.L.<br />
XIAO,J.Z.<br />
Tbe Frequenc1 Spectrum CbaracterlltlCl <strong>of</strong> Malaetic Acoultlc Emlilioa<br />
<strong>of</strong> FerromaCDetic Malerlah 821<br />
2JIU,x.Q., XlAO,J.Z., MAX.Y.<br />
CHEN,J.L., CHEN,M.J., YANG,S.Y.
<strong>Contents</strong><br />
Special Lecture<br />
Acoustic Emission in Advanced Materials' ......................•.........• 1<br />
T.Kishi<br />
Ocean Bottom Seismographs as a Tool to Study <strong>the</strong> Interior<br />
<strong>of</strong><strong>the</strong> Earth··························································· 11<br />
H. Shimamura<br />
Transient Sources for Acoustic Emission Work 20<br />
F. R. Breckenridge, T. M. Proctor, N. N. Hsu,S. E. FickandD. G. Eizen<br />
Manufacturing<br />
An Experimental Study on AE Monitoring afFine Wire<br />
DrawingProcess· ............................................•........ ·38<br />
E. Suzuki, T. Kotani, T. Kishigami, N. Teraoka,<br />
E. Ogawa, T. Ohkoshi and Y. Mori<br />
Changes with Material Properties <strong>of</strong>Acoustic Emission<br />
Produced during Single Point Machining' 44<br />
C. R. Heiple, S. H. CarpenterandD. L. Armentrout<br />
Application <strong>of</strong>Acoustic Emission Technique to Machining<br />
Processes' .................................................•..•........ 51<br />
N. S. VenkataramanandG. S. Kandasami<br />
Process Moni toring by Acoustic Emission Technique for<br />
Metal Matrix Composite Components· 59<br />
N. Sato, T. Kurauchi and O. Kamigaito<br />
Advanced Materials<br />
Laser/AE Technique for Evaluating <strong>the</strong> Thennal Shock<br />
Resistance <strong>of</strong>Functionally Gradient Materials" 66<br />
T. Hashida and H. Takahashi<br />
AE Signal Characterization for Integrity Evaluation <strong>of</strong>Laser<br />
Glazed Titania· ................................................•..... ·75<br />
Y. Hayashi, T. Nanbu and M. Takemoto
Acoustic Emission Wavefonns Generatedby <strong>the</strong>-Phase<br />
Transfonnations in Cu-AI-Ni Shape Memory Alloy Single<br />
Crystals and its Sources· 83<br />
K. Yoshida, A. Takahashi, K. Sakamaki and H. Takagi<br />
AE Studies on <strong>the</strong> Fracture Behavior during Small Punch<br />
Tests <strong>of</strong>CoaTi Intermetallic Compound· 90<br />
A. Kimura,H. Izumi, K. Itakura, K. Sato and T. Misawa<br />
Acoustic Emission Study on Stress-induced Transformation<br />
and Micr<strong>of</strong>racture in Zirconia and Metal FiberlZireonia<br />
Composites ···························97<br />
M. Saito, H. Takahashi, A. Kawasaki andR. Watanabe<br />
Metal<br />
Acoustic Emission Analysis during <strong>the</strong> Martensitie<br />
Transfonnation in an Fe-<strong>30</strong>%Ni Alloy· , 105<br />
K. Takashima, M. Moriguehi andJ:l. Tonda<br />
Acoustic Emission in Fracture Process <strong>of</strong>SolderMetal· , . , 112<br />
T. Ookouchi, M. Ito, K. Tanaka and S. Shirakawa<br />
Acoustic Emission Generated during <strong>the</strong> Tensile Testing <strong>of</strong><br />
AZ31 Magnesium Alloys· ,' '.' ...................•....... ·121<br />
H. Kato, T. Tozawa and Y. Takayama<br />
Civil Engineering (1)<br />
A Study Qf AE Par8lPeters and Shear Strength <strong>of</strong>'Sand . . . . . . . . . . • . . . . . . .. 129<br />
V.K. GargaandA. Chichibu<br />
Control <strong>of</strong>Ground Stability and Antilandslide Measures by<br />
<strong>the</strong> Acoustic Emission Method· ................................•........ 137<br />
G.Murauin<br />
Acoustic Emission <strong>of</strong>Large-scale EnbankmentExperiment<br />
to Evaluation Collapse Location· ..............................•.. , ..... 145<br />
S. Naemura, M. Tanaka, S: Nishikawa,<br />
M. Nakamura, K. Jo and T. Kishishita<br />
Study <strong>of</strong>AE Response <strong>of</strong>Coastal Structures under Storm<br />
Wave Loading·······<br />
;...............•. , •.......153<br />
M. H. Dauies, A. Chichibu and V. K. Garga
Wood<br />
Application <strong>of</strong>Acoustic Emission to Stress Grading <strong>of</strong>Timber ill<br />
-Evaluation Using MOE and AE- ....................•..... 160<br />
H. Takeuchi, K. Sato •K. Yamaguchi,<br />
N. Ando and M. Fushitani<br />
Effect <strong>of</strong>Poor Bonding on Bending Strength Properties and<br />
Acoustic Emission <strong>of</strong>Laminated Wood·· 167<br />
H. Byeon, K. Sato and M. Fushitani<br />
Acoustic Emission Inspecting<strong>of</strong>Poor Bonding in Production<br />
Line <strong>of</strong>Plywood Factory· .....................................•..•..... 174<br />
M.Ishibashi, K. Sato and M. Fushitani<br />
Applications (1)<br />
Acoustic Emission Monitoring <strong>of</strong> a Wear Occuring in a<br />
Lubricated Ball-on-CylinderTest· 181<br />
SL. McBride, andR.J. Boness<br />
Acoustic Emission from SIC/SIC Composites after<br />
Thermal Ageing· . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . • . . . . • . . . . . . .. 188<br />
J. Benoit andD. Valentin<br />
Theory<br />
Automatic Modeling<strong>of</strong>Ultrasonic Phenomena· 196<br />
1. Grabec and W. Sachse<br />
Elastic Waves Radiating from a Penny Shaped Reservoir<br />
Crack in a Rock with Atten'uation and Mapping-<strong>of</strong><br />
a Reservoir Crack· , 203<br />
K. Hayashi and M.limura<br />
Crack Kinematics by Simplified MomentTensor Inversion <strong>of</strong>AE 211<br />
M. Shigeishi and M. Ohtsu .<br />
A Study <strong>of</strong> Acoustic Emission Waves in Double-Layered<br />
Composite Plates· ; ; 217<br />
T. WuandC.Kou<br />
The Characterization <strong>of</strong> Materials with Simulated AE Signals· <strong>22</strong>2<br />
W. SachseandA. G. Every
Civil Engineering (2)<br />
AElMS Studies<strong>of</strong>Higbway Rock Slopes" 2<strong>30</strong><br />
H. R. Hardy, Jr. andE. J. Kimbk,Jr.<br />
The Acoustics <strong>of</strong>BoomingSand· 239<br />
M.F. LeachandG.A. Rubin<br />
Subsurface (I)<br />
Precise Estimation <strong>of</strong>AE Source Direction by Spectral<br />
Matrix Analysis· ...........................................•..........244<br />
H. Moriya, K. Nagano and H. Niiuuma<br />
Numerical Analysis <strong>of</strong>Maximum Shear Seismic Moment<br />
Release for Microseismicity Induced by Deep Coal Mining<br />
Activity' ......................................................•...... 252<br />
Y. Fujii and Y.lshijima<br />
Seismological Research on MiningTremors· . . . . . . . . . . . . . . . . . . . . . . • . . . .. 260<br />
S. Zhang, M. Yang and Z. Zhang<br />
Comparison <strong>of</strong>Aftershocks <strong>of</strong>Earthquakes and AE that<br />
Occurs afterTurning Out Gas Stove and so on 266<br />
H.Ogasawara<br />
Composite (I)<br />
Non DestructiveTestingon Glass-Fiber Pressure Vessels<br />
Using Acoustic Emission· ·273<br />
P.F.FilhoandL.E. V.L.daCosta<br />
Acoustic Emission <strong>of</strong>Filament Reinforced Metallic-spherical<br />
Pressure Vessels· ..............................................••..... 280<br />
B.Mouhamath andA. Bunsell<br />
Acoustic Emission in an FRP Isotensoid Cell· 285<br />
B. R.A. Wood,R. W. Harris, G. Coal! andG. Poljak<br />
AE Monitoring during Fatigue Tests <strong>of</strong>Fiber Reinforced<br />
Plastic Components <strong>of</strong>Trucks 293<br />
A. Sala, D. BozuUi, F. Tonolini and O. Salvatore
Medical<br />
Evaluation <strong>of</strong>Callus Strength UsingAcoustic Emission<br />
Technique during Leng<strong>the</strong>ning <strong>of</strong>Human Long Bone' ............•....... 297<br />
M. Suzuki,N.lnoue, Y. Watanabe,F. Yamashita,<br />
Y. Hirasawa, T. Kusakabe, T. Hirai and T. Katayama<br />
Acoustic Emission Properties <strong>of</strong>Fracture Callus under<br />
Tensile Loading .............................................•........ <strong>30</strong>3<br />
Y. Watanabe,N.lnoue, Y.Hirasawa, Y. Arai, T.Hirai,<br />
T.KatayamaandH. Yamamoto<br />
Concrete<br />
Rate Process Analysis <strong>of</strong>AE Activity in Uniaxial<br />
Compression Test<strong>of</strong>Core Sample······································· 311<br />
M. Ohtsu<br />
Aspects <strong>of</strong> Fracture Process Zone <strong>of</strong>Concrete· ................•........... 317<br />
N. Nomura, H. Mihashi, A. Suzuki and M. Izumi<br />
Drying Shrinkage <strong>of</strong>Concrete and Acoustic Emission· .....•..•....•...... 325<br />
T. UomotoandH.Kato<br />
Quick Detection <strong>of</strong>Alkali-aggregate Reaction by AE<br />
Monitoring· .................................................•........ 331<br />
S. Niiseki, M. Satake and M. Gohke<br />
Determination <strong>of</strong>Concrete Behaviour in Structures on <strong>the</strong><br />
Basis <strong>of</strong>Acoustic Emission Data· 337<br />
G. Muravin<br />
Several AE Sources Observed during Fracture <strong>of</strong> Repaired<br />
Reinforced Concrete Beams· ...................................•....... 345<br />
S. Yuyama, S. Nagataki, T. Okamoto and T. Soga<br />
Instrumentation (1)<br />
A Simplified AE Source Location Technique in <strong>the</strong> Cylidrical<br />
Vessel······························································ . 354<br />
D.J. Yoon, Y. H. KimandO. Y.Kwon<br />
A Rational Approach to Acoustic Emission Signal Analysis<br />
and System Calibration· ····························361<br />
N.N.HsuandK. Yamaguchi
New System Concepts for On-line Digital Evaluation <strong>of</strong><br />
Acoustic Emission Signals' ············.··.·.········369<br />
J. M. Rodgers<br />
A Real Time Token Ring LAN for AE Monitoring<br />
K. V. M. D. Raju, S. V. S. Rao, K. V. Srinivasan, and M. Annamalai<br />
Development <strong>of</strong>Dynamic Crack Microscope<br />
- Multi-channel AE Signal ProcessingSystem - 387<br />
S. Mashino, M. Shiwa and T. Kishi<br />
3BO<br />
Composite (2)<br />
Acoustic Emission Studies on Fracture Mechanisms <strong>of</strong><br />
Randomly Oriented Carbon Fiber Reinforced Glass Matrix<br />
Composite ...................................................•....... 394<br />
N. Takeda, O. Chen and T. Kishi<br />
Acoustic Emission Monitoring <strong>of</strong>Failure Mechanism <strong>of</strong><br />
Mechanically Fastened CarbonlEpoxy Joints ····························401<br />
H. Hamada, Z. Maekawa,K. Haruna, M. Shinobu andH. Naito<br />
Strain Limits in Glassfibre Reinforced Phenolic Determined<br />
by Acoustic Emission· 409<br />
B. Melve<br />
Subsurface (2)<br />
Quantitative Source and Location Effects on AE Waveforms<br />
Produced by Discrete Fracture Propagation in Rock ······················414<br />
S.D. GlaserandP.P. Nelson<br />
The Observation <strong>of</strong> Microcracking Cluster in Stressed Rock<br />
by AE and Seismic Tomography Techniques· 4<strong>22</strong><br />
K.ltakura, K. Sato and A. Ogasawara<br />
Acoustic Emission Associated with Rock DrillingTests<br />
under Laboratory Conditions' .............................•.•..•.•..... 4<strong>30</strong><br />
H. Asanuma and H. R. Hardy,Jr<br />
An Analysis <strong>of</strong>Three Dimens:iomll AE Lissajou Pattern<br />
duringWell-drilling and Estimation <strong>of</strong>So:urce Direction· .....•.•......... 436<br />
H.Asanuma,H.Niitsumaand N. Chubachi
Ceramics<br />
Acoustic Emission in Ceramic Matrix SiC Fiber Composites<br />
duringInterfacial Shear Strength Tests··· 444<br />
M. Enoki, H. Tsuda and T.Kitshi<br />
Acoustic Emission Monitoring<strong>of</strong><strong>the</strong> SlidingWear<strong>of</strong><br />
Sintered Silicon Nitrides 452<br />
O. Y.Kwon, D.S. LirnandD.J. Yoon<br />
Mier<strong>of</strong>racture Process during BendingTests <strong>of</strong>Alumina<br />
Evaluated by Acoustic Emission· 460<br />
S. Wakayama. T. Xoji andH. Nishimura<br />
Subsurface (3)<br />
A Fundamental Study on <strong>the</strong> KaiserEffect in <strong>the</strong> Rock for<br />
Tectonic Stress Measurement· 468<br />
T. Kojima and K. Matsuki<br />
Stress Memory Measurement in Geological Materials Using<br />
<strong>the</strong> Kaiser Effect <strong>of</strong>Acoustic Emission· ..........................•....... 476<br />
M. Momayu, F. Hassani andH. R. Hardy, Jr.<br />
Experimental Study on Rock Creep Fracture and its<br />
Implication for Earthquake Prediction· ....................•....•....... 484<br />
A.Zhao<br />
Applications (2)<br />
An Investigation <strong>of</strong> <strong>the</strong> Acoustic Emission Generated during<br />
<strong>the</strong> Deformation and Fracture <strong>of</strong>Premium Grade 4340 Steel' .....•....... ·492<br />
S. H. Carpenter and C. Pfliderer<br />
Comparison between Various Waveguides in Three Long<br />
Term Acoustic Emission Monitoring Projects· 501<br />
B.R. A. Wood, T. G.Flynn, R. W. HarrisandL. M.Noyes<br />
Some Considerations on <strong>the</strong> Application <strong>of</strong>AE Standards to<br />
Industrial Practice' 507<br />
G.D. Chirico,F. Tonolini andE. Fontana
Structural Integrity<br />
Acoustic Emission Monitoring<strong>of</strong>a Ground Durability and<br />
Damage ToleranceTest· .......................................•....... 513<br />
S.L.McBride, MR. Viner and M.D. Pollard<br />
Possibility <strong>of</strong>AE Crack Monitoring in Thermal Power Plant<br />
Components· 520<br />
Y. Sugita, T. Okumura, Y. Kato, M. Shibasaki andK. Iwai<br />
Application <strong>of</strong>AE Technology to Headers Monitoring in<br />
Thermal PowerPlant· 528<br />
M. Mocchetti,E. Fontana, D. Bouetti, F. Cattaneo and S. Ghia<br />
Application <strong>of</strong>Acoustic Emission to TestingTransmission<br />
Towers······························································· 537<br />
M.N. Bassim and R. Roller<br />
Non·destructive Evaluation <strong>of</strong>Degraded CrMoV Steel by BN<br />
and MAE Methods· . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .. 544<br />
T. Hirasawa, K. Fujiyama,I. Komura, K. Onda and Y. Kato<br />
Composite (3)<br />
Multi-parameter Analysis <strong>of</strong>AE Waveform for Identification<br />
<strong>of</strong>Fracture Modes and Behavior in GFRP Low-Cycle Fatigue Tests ·552<br />
H. Oyaizu, K. Yamaguchi,K. Kobayashi and Y. Kobayashi<br />
A Study on Fracture Mechanisms <strong>of</strong>FRPET by Frequency<br />
Analysis <strong>of</strong>Acoustic Emission (Effects <strong>of</strong>Sensor-Position<br />
and Tensile Speed on Frequency Characteristics)' .............•......... ·560<br />
M. Suzuki,M.Imura,E. Jinen, S.Kida, M. Shimbo<br />
and Y. Miyano<br />
Application <strong>of</strong>an Acoustic Emission Technique to <strong>the</strong><br />
Single·fiber·composite Test 567<br />
T. Nishikawa, T. Ishida, M. Higuchi andK. Kubomura<br />
Evaluation <strong>of</strong>Defects in CFRP Laminates by Acoustic Emission· 574<br />
1. Kimpara andI. Ohsawa<br />
Effect <strong>of</strong>Hygro<strong>the</strong>rmal Ageing <strong>of</strong>Felicity Ratio<br />
Measurement<strong>of</strong>G FRPTubes········································· 582<br />
I. Ghorbel, D. Valentin; M. C. Yrieix andJ. GraWer
Instrumentation (2), (3)<br />
Calibration <strong>of</strong>AE Sensors with Laser·genarated Ultrasound· 591<br />
Y. Matsuda,H. Nakano, S. NagaiandK. Muto<br />
Development and Use <strong>of</strong>StressWave Sensors' ····················597<br />
T. J. Holroyd, S. D. King and N. Randall<br />
Development <strong>of</strong> <strong>the</strong> High Sensitivity and Low Noise<br />
Integrated Acoustic Emission Sensor' 605<br />
M. Shiwa, H.lnaba and T. Kishi<br />
Development<strong>of</strong>a Heatpro<strong>of</strong>AE Sensor by a SolderingTecbnique 613<br />
1. Sato, T. Yoneyama, S. Kokura, M. Yanagibashi and<br />
H.lnaba<br />
Measurement<strong>of</strong>AE Signals in 100MHz Frequency Range' 619<br />
N. Chubachi, H. Kanai, T. Sannomiya, M. Obata and T. Mihara<br />
Effect <strong>of</strong>Thennal Heat Cycle on AE Sensor Sensitivity for<br />
Superoonducting Magnet· 627<br />
Y.Higo,A. Ninomiya, T.lshigookaandH.lnaba
CONTENTS<br />
Special Lecture<br />
Application <strong>of</strong> Acoustic Emission Techniques in Manufacturing ,.............. 1<br />
D. DORNFELD<br />
Prediction <strong>of</strong> Chaotic AE Signals by a Neural Network 17<br />
1. GRABEC<br />
Applications <strong>of</strong> Acoustic Emission Techniques for Diagnosis <strong>of</strong> Machinery<br />
in Plants and Mass Produced Goods in Factories 25<br />
.1. SATO<br />
Composites 1<br />
Determination <strong>of</strong> <strong>the</strong> Elastic Properties <strong>of</strong> Composite Materials<br />
Using S~mulated AE Signals 35<br />
W. SACHSE, M. VElDT and L. NIU<br />
The Fracture Behavior <strong>of</strong> a Model Fiber Reinforced Plastic Composite<br />
Utilizing 8. Displacement-Sensitive AE Monitoring System················································ 45<br />
H. SUZUKI, M. TAKEMOTO and K. aNa<br />
Source Characterization <strong>of</strong> Acous.tic Emission (AE) Wave during Tensile<br />
Test <strong>of</strong> CFRP by Analyzing Frequency Spectrum ·..·....•......····....···....·· .. ···....·..··.. ·.......·... ·53<br />
J.•s. LEE, J.·O. LEE and S.-K. OH<br />
Acoustic Emission Monitoring <strong>of</strong> Damage Progression<br />
<strong>of</strong> CFRP Laminates under Repe"ated Tensile Loading 63<br />
I. KIMPARA, K. KAGEYAMA, T. SUZUKI and 1. OHSA WA<br />
Manufacturing 1<br />
Acoustic Emission during Unlubricated Sliding Wear <strong>of</strong> Silicon Nitrides 71<br />
O.·Y. KWON, D..J. YOON, S.·K. PARK and D.-S. LIM
Origin <strong>of</strong> Acoustic Emission Produced during Wire Drawing 77<br />
Y. MOm<br />
Acoustic Emission Quality Control for Wooden Panel Production 83<br />
K. SATO, K. SUGIMOTO, F. KAMIYA, T. HIRATA, K. YAMAGUCHI,<br />
N. ANDO and M. FUSHITANI<br />
Acoustic Emission Monitoring <strong>of</strong> Incipient Failure in Journal Bearings 93<br />
D.- J. YOON, 0.- Y. KWON and M.-H. JUNO<br />
Composites 2<br />
Transient Elastic Waves Generated by Point Source<br />
in Carbon Fiber Reinforced Plastics Plate 101<br />
J. K. LEE, Y. H. KIM and H. C. KIM<br />
Monitoring <strong>of</strong> Creep Damage in Woven E-Glass Fiber/Epoxy<br />
Laminated Composites during Short Term Creep Test through Acoustic Emission ........... 109<br />
T. UENOYA<br />
Relation Between AE Characteristics and Interlaminar Fracture<br />
<strong>of</strong> Quasi-Isotropic Carbon/Epoxy Laminates 117<br />
T. TANIMOTO and T. MORII<br />
Characteristics <strong>of</strong> Acoustic Emission in Fracture Process<br />
in Static Load Tests for Notched FRP Plates 125<br />
H. HYAKUTAKE and T. YAMAMOTO<br />
Characteristics <strong>of</strong> Acoustic Emission in Notched Short Fiber<br />
Reinforced Thermoplastic 133<br />
N. S. CHOI, K. TAKAHASHI and K. ROSHINO<br />
Micr<strong>of</strong>ailure Mechanism and Improvement <strong>of</strong> Mechanical Properties<br />
for Sheet Molding Compound , , 141<br />
N. SATO and T. KURAUCHI<br />
Subsurface 1<br />
Recent Kaiser Effect Studies on Rock .:., 149<br />
H. R. HARDY, Jr. and W. SHEN<br />
The Estimation <strong>of</strong> Pre-Stress from AE in Cyclic Loading <strong>of</strong> Pre-Stressed Rock 159<br />
M. SETO, M. UTAGA WA and K. KATSUYAMA
In Situ Stress Measurements Obtained Using Overcoring and <strong>the</strong> Kaiser Effect<br />
"Of Acoustic Emissions within <strong>the</strong> Carnmenellis Granite, Cornwall, UK.· ....···..······.....····.. 167<br />
A. J. JUPE, S. P.· BARR ang. R. J. PINE<br />
A Study <strong>of</strong> <strong>the</strong> Time Dependency <strong>of</strong> <strong>the</strong> Kaiser Effect<br />
in <strong>the</strong> Carnmenellis Granite, Cornwall, UK. · ·.. ·.. · ·· ·.. ·· ..· · 175<br />
S. P. BARR, R. J. PINE and A. J. JUPE<br />
An Evaluation <strong>of</strong> <strong>the</strong> Kaiser Effect and Wave Propagation Characteristics<br />
in Rock Samples 183<br />
B. R. A. WOOD, R. W. HARRIS, J. B. PORTER and T. METE<br />
Systems and Analysis<br />
The Reverberation <strong>of</strong> A,E Signal in Small Specimen during Corrosion Process 195<br />
B. Q. ZHANG and Y. H. LlU<br />
A Hit Processing Procedure for Locating Acoustic Emission Events 203<br />
M.-H. YANG<br />
A SiGMA Analysis <strong>of</strong> <strong>the</strong> 2-Dimensional PMMA Model 211<br />
M. SHIGEISHI arid M. OHTSU<br />
A Method <strong>of</strong> One Dimensional Source Location by Using AE Waveform Parameter ...... 219<br />
T. KISHISHlTA, A. CHICHIBJJ and T. KIKUCHI<br />
Acoustic Emission Waves in Heterogeneous Media and Its Application<br />
to <strong>the</strong> NDE Problems <strong>22</strong>7<br />
T.-T. WU and J.-H. GONG<br />
AE Source Waveform Analysis by Using a- Neural Network 235<br />
H. YUKI and K. HOMMA<br />
Structures 1<br />
Acoustic Emission Testing - A Mature Technology for Chemical Industry Safety 243<br />
T. J. FOWLER<br />
AE Monitoring and Studying <strong>of</strong> Signal Analysis Method<br />
for Large Spherical Tanks with Insulating Layer 251<br />
G. DAI, Y. T. XU, B. Q. ZHANG and W. X. HAN
AE Monitoring and Strain Measurement for Testing Pressure Vessel<br />
with Artificial Prefabricated Flaw 259<br />
G. DAI, Y. T. XU' lind B. Q. ZHANG<br />
Sensors<br />
Method for Measurement <strong>of</strong> Sensitivity Degradation<br />
<strong>of</strong> Acoustic Emission Transducer 267<br />
Y. HIGO and H. INABA<br />
Calibration <strong>of</strong> Conical Transducer!! in Seismic Model Tests · 2(3<br />
P.-L. UU ,T.·H. SONG and T.·T. WU<br />
Characterization <strong>of</strong> AE-Transducers Using Davies' Bar and Laser Interferometry ........·..· 281<br />
A. UMEnA and K. UEDA<br />
Data Reproducibility Improvement at Changing Contact Conditions<br />
for <strong>the</strong> Electrodynamic Sensor by Means <strong>of</strong> Using Electroacoustic Effect ·· 289<br />
YA. 1. BULBIK, V. V. BULAVKIN, N. V. VASILENKO and A. G. KOZLOV<br />
Medical<br />
Vibration Arthrography in Degenerative Knee Joint Disorders 295<br />
C.- C. JIANG, T.-T. WU,<br />
Y.-R. LIU and C.·s. LIU<br />
The Effect <strong>of</strong> Haversian Remodeling on AE Response<br />
<strong>of</strong> Compact Bone under Quasi·Static Tension <strong>30</strong>3<br />
S. TANAKA, T. HARA, T. SHIBUYA and T. KOIZUMI<br />
Non-Destructive Evaluation <strong>of</strong> Yielding Stress<br />
<strong>of</strong> Bone during Fracture Treatment Using Acoustic Emission Technique · · ·.. 311<br />
N. INOUE, Y. HIRASA WA, Y. WATANABE, Y. ARAl, H. TSUNEOKA<br />
and Y. HATANAKA<br />
Nonlinear Behavior with AEbf Cortical Bone Treated<br />
with Acid under Tensile Loading 317<br />
T. HIRAI, T. KATAYAMA. H. YAMAMarO, M. INADA, N. INOUE,<br />
Y. WATANABE and Y. ARAI<br />
Structures 2<br />
Enhanced Fatigue Crack Detection in Aging Aircraft Using Continuous<br />
Acoustic Emission Monitoring····················..······················· 325<br />
S. L. McBRIDE, Y. HONG and M. D. POLLARD
AE Behavior at <strong>the</strong> Connecting Part <strong>of</strong> Transmission Tower Foundations<br />
during Pull.Qut Tests 333<br />
S SH/NOHARA, S. EB/SU, N. KATAGIRl and T. SOMEYA<br />
Monitoring <strong>of</strong> Fatigue Crack Growth on Steel Bridges with AE Technology ............··...... 341<br />
M. SHIBASAKI, M. NAKA YAMA, T. HOJYo. Y. SAKAMOTO,<br />
J. MURAKOSH/ and S. YAMAMaro<br />
Detection <strong>of</strong> Fatigue Cracking in Metallic Structures with Acoustic Emission 347<br />
M. N. BASSlM<br />
Manufacturing 2<br />
Relationships Between Acoustic Emission and Experimental Variables<br />
during Sliding Friction 353<br />
S H. CARPENTER, C. R. HEIPLE, D. L ARMENTROcn',<br />
F. M. KUSI'AS aru:l J. S. SCHARTZBERG<br />
Diagnosis <strong>of</strong> Ball Bearing by Use <strong>of</strong> Sound Information ·..··········..·...··············.....··..........·361<br />
N. NAKAGA WA and Y. SEKIGUCHI<br />
Abnormal Sound Diagnosis <strong>of</strong> Fan Motor Using Acoustic Emission Technique 369<br />
Y. TAGUCH/, K. FUKAURA, T. KATSUKI. T. YONEYAMA, I. SATO,<br />
K. KIKUCHI (JIId T. OKA WA<br />
Identification <strong>of</strong> a Manufacturing Process by AE Analysis 377<br />
D. ZUPANCIC (JIId I. GRABEC<br />
Generation Method <strong>of</strong> Diagnostic Algorithms with AE Technique<br />
for Mass Produced Goods ", ······..···················,·..········385<br />
I. SA TO. T. YONEYAMA, S. MICHIMOTO, Y. SUGIYAMA,<br />
Y. TAGUCHI (JIId M. YANAGIBASHI<br />
Nondestructive Quality Control <strong>of</strong> Tools with Coverings<br />
'by Internal Friction Method 393<br />
N. V. VASlLENKO, V. V. LEI'UNOVS/(Y, V. V. SHILDIN, E. A. PETROVS/(Y,<br />
A. A. GORODlLOV, O. A. GRlGORlEVA and A. N. KOVRlGIN<br />
Subsurface 2<br />
Microseismic Applications <strong>of</strong> Acoustic Emission Techniques 399<br />
B. R. A. WOOD (JIId R. W. HARRIS
Development and Calibration <strong>of</strong> Downhole Triaxial AE Detectors<br />
for Subsurface and Civil Engineering AE Measurements<br />
S. NAGASHIMA, H. MORIYA and H. NIITSUMA<br />
4ffl<br />
Characteristics <strong>of</strong> Acoustic Emission Waveform during Slope Model Test 415<br />
A. CHICHIBU, T. KISHISHITA and T. KIKUCHI<br />
Subsurface 3<br />
A Theoretical Study <strong>of</strong> AE Traveling through a Fluid-Filled Crack<br />
with Application to Characterization <strong>of</strong> a Geo<strong>the</strong>rmal Reservoir Crack 423<br />
K. HA YASHI and K. SATO<br />
Subsurface AE Source Location by Multi Zone Modeling<br />
for Uncertain Velocity Structure 431<br />
S. OKADA and H. NIITSUMA<br />
Applicability <strong>of</strong> Acoustic Tomography Techniques<br />
to Evaluate <strong>the</strong> Instability <strong>of</strong> Stressed Rock ",,,············439<br />
K. ITAKURA and K. SATO<br />
Virtual Calibration Method for Neural Source Location in Subsurface AE<br />
Measurement ",., 447<br />
A. MIYAZAKI and H. NIITSUMA<br />
Concrete<br />
Relation Between Acoustic Emission and Absorbed Energy<br />
<strong>of</strong> Reinforced Concrete and Fiber Reinforced Plastic 455<br />
T. UOMOTO. T. YAJIMA and T. NISHIMURA<br />
Relation Between Fracture Toughness and Widths <strong>of</strong> Fracture Process Zones<br />
in Mortar and Concrete Analyzed by Improved AE Source Location 463<br />
S. NIISEKI, H. MIHASHI and N. NOMURA<br />
AE Properties <strong>of</strong> Concrete with Corroded Reinforcement··..·........·....·· .. ·•...····...·.....·......·... 471<br />
Y. MURAKAMI, H. YAMASHITA and M. OHTSU<br />
Rate Process Analysis <strong>of</strong> AE Activity in Core Test <strong>of</strong> Deteri.or~ted Concrete 479<br />
K. MATSUYAMA, A. ISHIBASHI and M. OHTSU
Fundamental Study <strong>of</strong> Acoustic Emission Generated in Corner Part<br />
<strong>of</strong> Reinforced Concrete Rigid Frame under Cyclic Loading 487<br />
S. YUYAMA, R. TOMITA, T. OKAMOTO, S. KAJIO, M. OHT$U (1fId M. SHIGEISHI<br />
Metal<br />
Evaluation <strong>of</strong> Stress-Induced Martensitic Transformation Velocity<br />
in Cu-Al-Ni Shape Memory Alloy Single Crystals by Acoustic Emission Method ....·····..·..·497<br />
K. YOSHIDA, A. TAKAHASHI, K. SAKAMAKI and H. TAKAGI<br />
The Effect <strong>of</strong> Precipitate Forming Elements in Al 4.5% Mg Alloys<br />
on <strong>the</strong> Measured Acoustic Emission and on LUders Band Deformation 505<br />
D. L. ARMENTROUT and $. H. CARPENTER<br />
Study <strong>of</strong> <strong>the</strong> Fracture Mechanism <strong>of</strong> Hydrogen-Attacked Steel<br />
by Acoustic Emission Technique " 513<br />
J. TAKATSUBO and S. YAMAMOTO<br />
Acoustic Emission from Crack Growth in 7050 Aluminum and 7015 Aluminum<br />
as a Function <strong>of</strong> Temperature and Heat Treatment ,., " 521<br />
S. L. McBRIDE and Y. HONG<br />
Analysis <strong>of</strong> Micr<strong>of</strong>racture Mechanism in AltOs by Acoustic Emission 529<br />
M. ENOKI and T. KISHI<br />
Acoustic Emission Behavior during Heating/Cooling <strong>of</strong> Pd-Cu Alloys ........,....., ·....····...··537<br />
M. YAMANAKA. K. ASAOKA, K. YOSHIDA and K. SAKAMAKI<br />
Ceramics<br />
Evaluation <strong>of</strong> Grad~ in <strong>the</strong> Grinding Wheel by Acoustic Emission ··..... ·.. ·· .. ····..·....·····..,..·545<br />
N, SHINKE (1fId Y. ISHIDA<br />
AE Studies on <strong>the</strong> Micr<strong>of</strong>racture Process in Silicon Nitride 551<br />
S. WAKAYAMA, M. IWATA and M, KAWAHARA<br />
Nondestructive Evaluation <strong>of</strong> Ceramic Coating by Acoustic Emission<br />
and Ultrasonic Testing "".,'." """",..".""" ",.. "" , 559<br />
M. SHIWA. H. MORl, T. KISHI, M. OHTSllKA. A. ITOH and Y. SUGITA
Composites 3<br />
Fiber Break Characterization by Acoustic Emission<br />
in a Single SiC Fiber Aluminum Matrix Model Composite 567<br />
N. CHAMIOT-CLERC, P. FLEISCHMANN and R. FOUGERES<br />
Acoustic Emission Characterization <strong>of</strong> Failure Behavior<br />
<strong>of</strong> SiC Fiber/AI Composite 5?5<br />
Z. G. JIN, X. H. PAN, C. ZHU and G. G. SONG<br />
Acoustic Emission Behavior during Tensile Fracture<br />
<strong>of</strong> Resin-Impregnated Strands <strong>of</strong> Pitch-Based Carbon Fiber , 583<br />
A. NANJYO, M. MOHRI and K. ONO<br />
Adhesion <strong>of</strong> Titanium Coated Films on Various Substrates Measured<br />
by <strong>the</strong> Scratch Tester with an Acoustic Emission Sensor 591<br />
I. TAKANO, S. ISOBE,. K. MATSUI. T. TAIRA and N. INOUE<br />
Quantitative Evaluation <strong>of</strong> Bending Strength and Fracture Dynamics<br />
<strong>of</strong> Laser Fusion Produced Titanium Aluminide Coatings<br />
by AE Wave Characterization : 597<br />
M. TAKEMOTO and M. SHINYA
<strong>Contents</strong><br />
SPECIAL LECTURE<br />
Optical Methods for Detection <strong>of</strong> Acoustic Emission····················..······..·· ..····.. 1<br />
J. W. Wagner, R. D. Huber<br />
The Situation <strong>of</strong> Acoustic Emission in Germany..·......·.. ··......··..·····..........·..·..9<br />
P. Hoeller, C. SkJarczyk, G. Man<strong>the</strong>i<br />
Acoustic Emission Frequency Domain Analysis..·...··..···..·......··········..·...······19<br />
Y. Higo<br />
Acoustic Emission . The First Half Century················································-27<br />
T. F. Drouillard<br />
AE TREK From First Hydraulic Test to Power Plant Component Monitoring····..·.. 39<br />
E. Fontana, C. D. Michelis, S. Ohio<br />
Application to Civil Engineering in Japan with <strong>the</strong> Emphasis on Concrete and Soil<br />
Mechanics······································.. ······································.. ····.. ··51<br />
M.Ohtsu<br />
Acoustic Emission from Composite Materials and Its Application for <strong>the</strong> Design <strong>of</strong><br />
AUlOmOlive Composite Components·· ·· ..· ···· .. ·· ···· · ··..59<br />
N. SOlO, T. Kurauchi<br />
Pattern Recognition Analysis <strong>of</strong> Acoustic Emission Signals ·.. 69<br />
K. ORO, Q. Huang<br />
AE SENSORS<br />
An Examination <strong>of</strong> Piezoelectric Polymers as Wideband Acoustic Emission<br />
Displacement Sensors··.. ·.. ·.... ·.. ·.. ·....·· .... ·.. ·.. ·.. ·.. ·.. ·....·· .. ···.. ·.. ·.. ·.. ·.. ·..·79<br />
M. A. Hamstad<br />
Consideration <strong>of</strong> AE Sensor for Bending Test <strong>of</strong> Ceramics····..···..······......·..·· ..·87<br />
Y. Obato, K. Aoki<br />
New Acoustic Emission Sensors for In-Process Monitoring..···....·· ..····......··.....91<br />
C. Cavalloni, A. Kirchheim<br />
An Experimental Investigation <strong>of</strong> Electrodynamic Sensor with Local Piezoceramic<br />
Interface·.. · ···99<br />
Y. Bulbik, N. Vasi/enko, L. Loginov
METALS-l<br />
A Waveform Investigation <strong>of</strong> <strong>the</strong> Acoustic Emission Generated During <strong>the</strong> Deformation<br />
and Cracking <strong>of</strong> 7075 Aluminum··························.. ·········.....·········.........105<br />
S. H. Carpenter, M. R. Gorman<br />
Acoustic Emission Behavior during Plastic Deformation <strong>of</strong> Al-Li 8090 Alloy.......· 113<br />
K.-J. Hong, H.·D. Jeong, C.-S. Lee<br />
Acoustic Emission Generated during Compressive Deformation in Dual Phase Mg-Li<br />
Alloys····························································· .. ····························119<br />
H. Karo, T. Tozawa, Y. Takayama<br />
Acoustic Emission Characteristics for A3 Steel during Damage Accumularlon..···· .. 125<br />
Y. Chee, Z. Yuan, A. Davidenko<br />
PLANTS & WOODS<br />
Development <strong>of</strong> Acoustic Emission Sensor for Detecting <strong>of</strong> Plant Root Orowth······131<br />
L. Okushima, M. ShirT/()jo, Y. Higo<br />
Effects <strong>of</strong>Soil Acidity on Acoustic Emission Properties <strong>of</strong> Sugi (Cryplomeria Japonica)<br />
Seedling········.. ·······.. ····.. ····.. ·········.. ··········.................................... 137<br />
K. SaID, A. Uchiyama, T./zura, M. Miwa, N. Watanabe, T. Kubo,<br />
M. Fushitani<br />
Acoustic Emission from Oriented Strandboard during Flexural Testing··..·..·· ..·· ..·143<br />
F.e.Beall<br />
METALS-2<br />
Acoustic Emission Characteristics during Fracture Toughness Test <strong>of</strong> Cast Pure Ti and<br />
Ti-6AI-4V Alloy for Dental Use· ........·....····· ....····........·..........··......·......149<br />
K.-H. Kim, M.·Y. Choi, Teruo Kishi<br />
Acoustic Emission Characteristics During Phase Transfonnations in TiNiFe Shape<br />
Memory Alloys···.. ···.. ·.. ·· .. ···············.. ····.. ·.. ·····.. ···.. ···.. ···.. ···.. ·· .. ···.. ·155<br />
K. Takashima, M. Nishida<br />
The Mechanism <strong>of</strong> Acoustic Emission Behavior During <strong>the</strong> Tensile Testing in A Fe-<br />
9.1%Ni Alloy··.. ·····.. ········.. ·· .. ··················.. ·· .. ·· .. ····.. ·····.. ·····.. ·····.. ··161<br />
Z. Zhu, S. Liu, F. Zhang, C. Li<br />
Acoustic Emission Study on Martensitic Transfonnation and Iso<strong>the</strong>nnal Martensitic<br />
Transformation in Fe-Ni Alloy........··..·........·..·..·..·........·..·.... ·........·.... · 167<br />
Z. Zhu, Q. Q. Liu, Q. Y. Long, X. M. Zhang<br />
ROCKS·l<br />
Acoustic Emission from Rock Specimen under Cyclic Loading ·173<br />
Y. Mori, K. Saruhashi, K. Mogi
Characterization <strong>of</strong>Thermal Cracking by AE Time Series Analysis.....·.........·..·· 179<br />
K. Nagano, K. Sugawara, K. Jtakura, K. Salo<br />
Calculation <strong>of</strong> Source Parameters for Acoustic Emission Events in Salt Rock Using<br />
Inverse Methods for Moment Tensor and Crack Size.......···..··· ..····..··......··..··185<br />
H. Kuehnicke. G. Man<strong>the</strong>i. J. Eisenblaetter<br />
Acoustic Emission Study <strong>of</strong> Anisotropic Stress Memory in Rock Subjected to Cyclic<br />
Polyaxial Loading············.. ·.. ····· ·.. ·· ·····..······..·········.. ·········193<br />
C. E. Sluart. P. G. Meredith, S. A. F. Murrell<br />
METALS·)<br />
Relation between Acoustic Emission Behaviorduring Defonnation and Micro-scopical<br />
Behavior <strong>of</strong> Intermetallic Compounds· .. ·...·····.. ·······..·······.. ··..·.. ·.... ····..·..·199<br />
K. Yoshida. Y. Marulani, A. Zhu, H. Takagi, K. Sakamaki<br />
Acoustic Emission Analysis <strong>of</strong> TiAI IntennetalJics..···..·..·····..····..····...·........·205<br />
M. Enoki. T. Kishi<br />
A Study on <strong>the</strong> Quantitative Evaluation <strong>of</strong>Stress Corrosion Cracking Characteristics by<br />
Acoustic Emission Technique····..·· .. ··················.. ··········.. ·.. ············....···211<br />
H.-S. You, H.-D. Jeong, S.-H. Chung<br />
A Study on Thennal Resistance Evaluation <strong>of</strong> PGM by AE Method·....·......··......217<br />
J.-K. Lim, J.-H. Song. H. Talalhashi, T. Hashida. K. Fujii, M. Kanazawa<br />
Investigations <strong>of</strong> Acoustic Emission under Thennal Loading <strong>of</strong> Pipes and Plates·..· <strong>22</strong>5<br />
G. Muravin, L. Lezvinskaya, V. Ship. B. Muravin<br />
Gluing Connection Shear Strength Monitoring by Acoustic Emission....·........·..· 231<br />
Y. Chee, Z. Yuan, L. Miao<br />
Acoustic Emission Study on Fracture Mechanisms <strong>of</strong> SiC Particle Reinforced<br />
Aluminum Matrix Composite..·..·..........·....·..·......·..·.. ·.. ·· ......·.. ·..·..····.. ·237<br />
Z. Zhu, L. Sun, S. Li, Z. Wang<br />
ROCKS-2<br />
Complex Analysis <strong>of</strong> Acouslic Emission from Loaded Rock Samples.....··......·..·243<br />
V. Rudajev, J. Vifhelm. J. Kozak, T. LoklJjicek<br />
The Interaction Between Pore Fluid Pressure Changes and Crack Damage Evolution in<br />
Rocks and Subsurface Rock Sttuctures Modelled from Acoustic Emission Data..... 249<br />
P. Sammonds. P. Meredilh. J. Gomez, I. Main<br />
Fractals on AE emanated during Hydraulic Fracturing · ·· ·..··..··· 255<br />
K.llakura. K. SafD. K. Nagano, Y. Kusano<br />
Method <strong>of</strong> Eliminating Noise with Attenuator.......·.....·......·.....·..·..·..·..···.... 261<br />
W. Lu, K. Zhu, D. Liu
Acoustic Emission Caused by Development Shear Cracks in Rocks·..·..·...···....·· 265<br />
V. Mansurov<br />
APPLICATIONS·l<br />
Acoustic Emission Monitoring <strong>of</strong> Melt Crystal Growth Processes··..·..·..·..···....··271<br />
E.L.Lube<br />
Thennal Fracture Evaluation <strong>of</strong>Foam Glass Panels by Lamp Heating/AE Method...277<br />
S. Ohmi, M. Ohgoshi, T. Hasida. H. Takahashi<br />
Acoustic Emission in Bending Fatigue Process <strong>of</strong> Spur Gear Teeth.........··.....·...283<br />
K. Miyachika, S. Oda. T. Koide<br />
AE in Bending Fatigue Process <strong>of</strong> Spur Gear ·.. · · · 289<br />
H. Sentoku. T. Tokuda<br />
APPLlCATIONS-2<br />
Acoustic Emission -An Application in <strong>the</strong> Pro<strong>of</strong> Pressure Testing <strong>of</strong> Aircraft<br />
Structures ·.. · ·:··· ·· · ··.. ·.. ··.. · ·295<br />
N. Murray, M. We/burn<br />
Analysis <strong>of</strong> Acoustic Emission Data from Metal Pressure Vessels by Weighing <strong>of</strong>Data<br />
Attributes. Including MONPAC Criteria ·..·· ···· ·.. 299<br />
S. Stockbridge, J. H<strong>of</strong>fman<br />
Recent Applications <strong>of</strong> Acoustic Emission Testing for Plant Equipments··......·....·<strong>30</strong>5<br />
M.Amaya<br />
The Acoustic-Emission Diagnostic. Monitoring and Inspection. -Why progress <strong>of</strong> <strong>the</strong><br />
method is restrained 1....·....·....·....·· ....·· ....·.. ·.. ·· ..···..·.. ·..···..·······.. ·.. ·· ..313<br />
G. Muravin<br />
The Application <strong>of</strong> Acoustic Emission Technology to <strong>the</strong> Leaking Detection <strong>of</strong><br />
Pressure-pipe···· 321<br />
C. Chen, R. Zu, Z. Huo. X. Wang<br />
CERAMICS<br />
Acoustic Emission Monitoring <strong>of</strong> <strong>the</strong> Seuing <strong>of</strong> Orthophosphate Bonded<br />
Ceramics········································.. ··············································329<br />
B. Bridge, F. J. Bishop<br />
Simulation <strong>of</strong> AE Generation Behavior during Fracture <strong>of</strong> Alumina Ceramics... ··...335<br />
B.-N. Kim, H. Naito, S.. Wakayama<br />
Estimation <strong>of</strong> Fracture Toughness and Residual Stress in Brittle Crystals from<br />
Indentationlnduced Acoustic Emission· ...... ·..······.. ·..·· ..·· ..··.. ··......····..··..··341<br />
E. L. Lube. A. T. Zlatkin
CONCRETES·l<br />
Quantitative Evaluation and "isualization <strong>of</strong> Cracking Process in Reinforced Concrete<br />
Specimens by a Moment Tensor Analysis <strong>of</strong> Acoustic Emission·..···..·..·....···..·..347<br />
S. Yuyama, T. Okamoto, M. Shigeishi, M. Ohtsu<br />
State Estimation <strong>of</strong> Reinforced Concrete Beams by <strong>the</strong> Acoustic Emission<br />
Method··························································································355<br />
G.Muravin.<br />
AE Field Application for Diagnosis <strong>of</strong> Deteriorated Concrete Structure·........·......361<br />
K. Matsuyama, A. Ishibashi, T. Fujiwara, S. Fukuchi, M. Ohtsu<br />
COATINGS & FILMS<br />
Development <strong>of</strong> Thermal Shock and Fatigue Tests <strong>of</strong> Ceramic Coatings for Gas<br />
Turbine Blades by AE Technique··..·..·.. 369<br />
C. Y. Jian, T. Shimizu, T. Hashida, H. Takahashi, M. Saito<br />
Non-destructive Evaluation <strong>of</strong> Ceramic Coating By Using Thermal Acoustic Emission<br />
and Ultrasonic C-Scope········· .. ························ .375<br />
M. Shiwa, T. Kishi<br />
Investigation <strong>of</strong> AE Signals Emitted from a SiOx Layer Deposited on a PET Film..·381<br />
M. Yanaka, N. Nakaso, Y. Tsukahara, N. N. Hsu<br />
COMPOSITES·1<br />
Acoustic Emission Analysis on Interfacial Fracture <strong>of</strong> Fabric Laminated Polymer Matrix<br />
Composites·········· ··387<br />
T. Uenoya<br />
Evaluation <strong>of</strong> <strong>the</strong> Fracture Process during Bending Tests <strong>of</strong> C/C Composites by<br />
Acoustic<br />
Emission·············································································393<br />
S. Wakayama, H. Koyama, M. Kawahara, H. Hatta<br />
Characterization <strong>of</strong> Ceramic/Ceramic Matrix Composite Materials Using Simulated AE<br />
Signals·······················································································.··399<br />
W. Sachse, M. Shiwa, T. Kishi, M. O. Thompson<br />
CONCRETES·2<br />
AE Wavefonn Analysis in Fracture Toughness Test <strong>of</strong> Mortar and Concrete......·.. 405<br />
S. Niiseki, M. Satake, M. Gohke<br />
Post-Analysis <strong>of</strong> SiGMA Solutions for Error Estimation in Reinforced Concrete<br />
Members························································································411<br />
M. Ohtsu, K. Arao, S. Yuyama
GEOSURFACES·l<br />
An Automated AE/MS Source Location Technique Used by Canadian Mining<br />
Industry········ ·417<br />
M. Ge, P. Mottahed<br />
Downhole Triaxial AE Measurement during Hydraulic Fracturing Test at Yunomori Site<br />
and Estimation <strong>of</strong> Dynamic Behavior <strong>of</strong> Subsurface Fracture....·......·....·.......... 425<br />
K. Hisamatsu, H. Moriya, H. Asanuma, M. Sato, N. Shinohara, M. Tateno,<br />
H. Niitsuma<br />
Application <strong>of</strong> AE Technique in Predicting <strong>the</strong> Local Falling <strong>of</strong> Rock-masses..·....· 431<br />
L.Han<br />
Acoustic Emission <strong>of</strong> Ground Water Flow..·....····....·..···..·..····.. ·..·..........·..437<br />
A. R. Blystra<br />
COMPOSITES·2<br />
Acoustic Emission during Fracture Process <strong>of</strong> Short-Fiber-Reinforced Plastics......445<br />
N. S. Choi, K. Takahashi<br />
Evaluation <strong>of</strong> Fracture Toughness and Micr<strong>of</strong>racture Mechanism <strong>of</strong> Porous Glass<br />
Composite by using Acoustic Emission..·.. ·· ..···..····· ..·····..·····..·......··.. ·.. ···451<br />
H.-D. Jeong, Y.-G. Kweon, T. Hashida, H. Takahashi, S. Ohmi<br />
AE Source Wave Characterization to Study <strong>the</strong> Fracture Dynamics in a Dissipative<br />
Glass Fiber/Epoxy Model Composite··· ······457<br />
H. Suzuki, M. Takemoto, K. Ono<br />
AE Characterization <strong>of</strong> <strong>the</strong> Fracture Behavior during Ring Burst Test <strong>of</strong> FW-FRP<br />
Pressure<br />
Vessel································································.················463<br />
O. Fujishima, S. Wakayama, M. Kawahara<br />
Use <strong>of</strong> Acoustic Emission to Standardise Material Quality for Composite Fibre<br />
Systems········· ···469<br />
R. Hill, E. U. Okoroafor<br />
GEOSURFACES·2<br />
Discrimination <strong>of</strong> Reflected Wave from 3C AE Waveform and Estimation <strong>of</strong> Deeper<br />
Subsurface Structur~s in Geo<strong>the</strong>rmal Field.. ·......·.. ·....·......·.. ·....·......·..····.. 475<br />
N. Soma, H. Niitsuma<br />
Detennination <strong>of</strong> Subsurface Stress Direction by Means <strong>of</strong> AE Doublet Source Location<br />
and Focal Mechanism Analysis·.. ·.. ···· ·· ··· · ·..·481<br />
H. Moriya, H. Niitsuma<br />
Effect <strong>of</strong> Interfacial Stiffness along <strong>the</strong> Crack Surfaces on <strong>the</strong> Dynamics <strong>of</strong> an Anti-<br />
PlaneShear Crack in <strong>the</strong> Earth's Crust ·.. ··· 487<br />
K. Hayashi, S. Ito
Use <strong>of</strong> AE Laboratory Observation for Forecasting <strong>of</strong> Rock Failure in Mines·..·.... 493<br />
V. Mansurov<br />
Recent Progress in <strong>the</strong> Development <strong>of</strong> Musical Sand·.. ·........···..·....·........·....499<br />
M. F. Leach~ H. J. Chartrand<br />
COMPOSITES·3<br />
Acoustic Emission Monitoring <strong>of</strong> Tensile Testing <strong>of</strong> Low Velocity Impact-Damaged<br />
CFRP L·aminates··, ,...................... 505<br />
O. Kwon, J. H.Lee, D. M. Ahn, D. J. Yoon<br />
AE Characterization <strong>of</strong> Compressive Residual Strength <strong>of</strong> Impact-Damaged CFRP<br />
Laminates·······················································································511<br />
/. Ohsawa, I. Kimpara, K. Kageyama, T. Suzuki, A. Yamashita<br />
Acoustic Emission Behavior during Tensile Deformation <strong>of</strong> Ni-NiO In-Situ<br />
Composite······················································································517<br />
H. Takagi, K. Sakamaki, K. Yoshida<br />
Acoustic Emission and Damage Evolution in a SiC Fibre Reinforced Ti Alloy<br />
Composite································· ·············523<br />
K. Takashima, H. Tonda, P. Bowen<br />
GEOSURFACES·3<br />
Evaluation <strong>of</strong> Progressive Failure using AE Sources/Improved B-Value on Slope<br />
Model Tests· ·529<br />
T. Shiotani, K. Fujii, T. Aoki, K. Amou<br />
Experience in Using Acoustic Emission to Monitor Soil Failure in <strong>the</strong> Laboratory and in<br />
<strong>the</strong> Field························································································ 535<br />
R. Hill, N. Dixon, J. Kavanagh<br />
Acoustic Emission Monitoring for Shield Tunnelling.. ·....·· ..····....·......·......··..541<br />
A. Chichibu, A. Waku, T. Waki, H. Yoshino<br />
Acoustic Emission <strong>of</strong> Coal Induced by: Gas and Water Flow, Gas Sorption or<br />
Stress······· 547<br />
Z. J. Majewska, S. A. Majewski, H. Marcak, W. J. Moscicki,<br />
S. Tomecka-Suchon, J. Zietek<br />
AE ANALYSIS<br />
Acoustic Emission Transmitted Through a Solidi Fluid Interface -Theory........·....553<br />
N. N. Hsu, Y. Tsukahara<br />
High-Accuracy AE Source Location Method Using Numerical Analysis···....·..··.. 559<br />
H.Nakasa
Intelligent Locator <strong>of</strong> AE Sources..·..· ·..··..565<br />
I. Grabec, B. Antolovic<br />
On <strong>the</strong> Measurement <strong>of</strong> Concrete Elastic Constants using Transient Elastic Waves..·571<br />
T.-T. Wu, f.-S. Fang<br />
Interface Card for Multichannel Processing <strong>of</strong> Acoustic Emission Signals· 577<br />
T. Lokajicek, J. Vlk<br />
MANlUFACTURING·l<br />
Assesment <strong>of</strong> Weld and Material Defects Using Acoustic and Electromagnetic<br />
Barkhausen Emission·········································································583<br />
R. Hill, R. Geng<br />
The Condition Monitoring <strong>of</strong> Mechanical Seals -Relation between AE and Torque-<br />
......................................................·············································589<br />
S. Lim, W.-K. Lee, M.-Y. Choi<br />
Development <strong>of</strong> AE Diagnosis System for Journal Bearing......·......··..··.. ·........595<br />
D.-J. Yoon, 0.-. Kwon, M.-H. Chung<br />
AE Signal Transmission System from Rotating Sensor to Stationary Field for Machine<br />
Monitoring············································......................................... 601<br />
T. Ohkouchi, M.ltou, S. Narusawa, T. Ariyoshi<br />
MANUFACTURING·2<br />
An Acoustic Emission Diagnosis Technique for Rotating Slides in Scroll<br />
Compressors······ ····················~·············607<br />
I. Salo, T. Yoneyama, Y. Salo, M. Salo, T..Akama, K. Salo<br />
Characterization <strong>of</strong> Chaotic Vibrations <strong>of</strong> a Turning Process ·..· 613<br />
E. Govekar, I. Grabec<br />
Monitoring Turning, Milling, Drilling and Grinding Processes using Acoustic Emission<br />
Signals···· " ·:619<br />
W. Koenig, G. Ketteler, T. Klumpen<br />
Acoustic Emission and Force Signal Integration for Cutting Tool Wear Sensing and/or<br />
Monitoring···· 625<br />
J. Zizka, M. Shiraishi<br />
AE Method to Study Fracture and Wear <strong>of</strong> Cutting Tools Made <strong>of</strong> Polycrystalline<br />
Superhard Materials· ·631<br />
N. Novikov, L. Devin, F. Lemkey, O. Lysenko
CONTENTS<br />
SPECIAL LECTURE<br />
Wave Prop~gationin Anisotropic Composite Plates<br />
A.Mal, D.Guo, Y.Bar-Cohen and S.·S.Lih<br />
Development <strong>of</strong> Acoustic Emission for Aircraft<br />
Applications<br />
C.M.Scala and S.J.Bowies<br />
A Nondestructive Test for Aircraft Halon Bottles.<br />
<strong>the</strong> Development <strong>of</strong> an Acoustic Emission Application<br />
A.G.Beatile<br />
COMPOSITE<br />
Characterization <strong>of</strong> Fracture Behavior during Ring<br />
Burst Test <strong>of</strong> FW-FRP Multiply Composite by<br />
Acoustic Emission<br />
A.Horlde, SWakayama and M.Kawahara<br />
Acoustic Emission Characterization <strong>of</strong> Fracture <strong>of</strong><br />
Fiber Reinforced Materials<br />
A.M.leksowskij, AP.Tishkin and A.Abdumanonov<br />
II<br />
19<br />
28<br />
34<br />
Surface-crack Growth Mechanisms <strong>of</strong>Composite<br />
Materials<br />
T.Sakuma, K.Noma and Y.Sakai<br />
Fracture-Mode Determination <strong>of</strong> Glass-fiber<br />
Composites by Various AE Processing<br />
H.Suzuki. T.Kinjo, M.Takemoto and K.Ono<br />
41<br />
47<br />
AE Study on <strong>the</strong> Fracture Behavior in C1C Composites 53<br />
with Various Heat Treatment Temperature<br />
T.Suoh, SWakayama. H.Hatta and Y.Kogo<br />
AE Chamcteristics during Compressive Tests <strong>of</strong> 20<br />
Carbon/Carbon Composites<br />
N.Tohyama. B.-N.Kim, M.Enoki and T.Kishi<br />
Acoustic Emission Source Chamcterization <strong>of</strong> SiC<br />
Particulate Glass Matrix Composites<br />
M.Enoki. H.Fujila and T.Kishi<br />
59<br />
64<br />
POSTER SESSION<br />
Investigation <strong>of</strong> Concrete Structural and Mechanical<br />
Chamcteristics by Acoustic Emission Method<br />
G.Muravin, L.Lezvinsky and B.Muravin<br />
70
Source Characterization <strong>of</strong> AE Signals during <strong>the</strong><br />
Molten Chloride Attack <strong>of</strong> Stressed AISI<strong>30</strong>4 Steel<br />
.................. 76<br />
K.Hayashi and M.Takemoto<br />
Structural Integrity Evaluation <strong>of</strong> Concrete Members .................. 82<br />
by Acoustic Emission Method<br />
M.Uchida, T.Shibala, D.Mor!, T.Okamoto, M.Ohtsu and<br />
T.Kishi<br />
The Role <strong>of</strong> Surface in Acoustic Emission during .................. 88<br />
Plastic Defonnation <strong>of</strong>Copper Single Crystals<br />
A.Vinogradov, M.Nadtochy, D.Merson, A.P.Braginsky<br />
and S.Hashimoto<br />
AE Characteristics during Compressive Tests <strong>of</strong> .................. 92<br />
Unidirectional Carbon/Carbon Composites<br />
B.-N.Klm, N.Tohyarna, M.Enoki and T.Klshl<br />
CONSTRUCTIONS<br />
Development <strong>of</strong> a New System for Diagnosing .................. 98<br />
Damage to Disc Cutter Using Acoustic Emission<br />
Technique<br />
A.Chichlbu, H.Yoshino and K.Sato<br />
Dynamic Responses <strong>of</strong> a Fluid-Filled Geo<strong>the</strong>nnal .................. 104<br />
Reservoir Crack-Effect <strong>of</strong> <strong>the</strong> Aspect Ratio <strong>of</strong> <strong>the</strong><br />
Reservoir Crack<br />
K.Hayashi and S.llo<br />
The Application <strong>of</strong> AETechnique to Estimate In .................. liD<br />
Situ Stress in Virgin Coal Seam<br />
V.S.VUlukuri, M.Selo, D.K.Nag, K.Katsuyama and<br />
M.Utagawa<br />
Acoustic Emission Experience on Bridges .................. 1I6<br />
R.K.Tyagi and H.M.Srivastava<br />
The Application <strong>of</strong> Acoustic Emission Techniques .................. 121<br />
for Inspection <strong>of</strong> <strong>the</strong> I-Plate Girder Steel Bridge<br />
Members<br />
D.-J.Yoon, S.-S.lee, Y.·G.Kim, S.-H.Kim, S.-H.Lee, H.-<br />
S.Kim, S..I.Choi, W.-C.Park and H.-S.Kim<br />
AE Characterization <strong>of</strong> Failure Process <strong>of</strong>Concrete .................. 127<br />
Beams Reinforced with CFRP Sheets<br />
1.Ohsaw3, I.Kimpara, K.Kageyama, T.Suzukl, S.Yuyama<br />
and Z.W.lI
Clustering Similar AE Events Using <strong>the</strong> Filtered .................. 133<br />
Waveform Envelope<br />
A.Lesnlak and H.Niilsuma<br />
COMPOSITE I METAL<br />
Acoustic Emission and Damage Evolution in .................. 141<br />
Particulate Reinforced AI Matrix Composites<br />
A.Rabiei, B.N.Klm, M.Enokl and T.Kishi<br />
FiberlMatrix Interfacial FraclUre Characterization .................. 147<br />
by Acoustic Emission in Fabric Polymer Matrix<br />
Composite Laminates<br />
T.Uenoya<br />
Spectral Features <strong>of</strong> Acoustic Emission in .......<br />
Amorphous Metals<br />
A.Y.Vinogradov and A.M.leksovskli<br />
n ......... 153<br />
Source Location <strong>of</strong> Acoustic Emission in a .................. 157<br />
Filament Wound Composite Tube through Wavelet<br />
Transform<br />
C.-C.Yin, l.-C.Shieh and F.-T.Un<br />
Acoustic Emission Monitoring <strong>of</strong>Impact-Damaged .................. 163<br />
CFRP Laminates during Flexural Tests<br />
O.-Y.Kwon and D.-H.Hong<br />
METAL<br />
Acoustic Emission Behavior during a Small Punch .................. 169<br />
Test for Mg·AI Alloys<br />
H.Kato, T.Tozawa and Y.Takayama<br />
Acoustic Emission Behaviors during Tensile .................. 175<br />
Defonnation <strong>of</strong> Ni3AI Intermetallic Compound<br />
K.Yoshida, r.Sallo, AZhu, H.Takagi and K.Sakamaki<br />
Acoustic Emission Characteristics during .................. 181<br />
Martensitic Transformation in an Fe-Pt Alloy<br />
H.Ohtsuka, K.Takashima and G.B.Olson<br />
Non-destructive Evaluation <strong>of</strong> Weld Defects in Ring .................. 187<br />
Samples by Acoustic Emission<br />
M.Shlwa, A.Yamaguchi, M.Nagal and M.Salo<br />
THERMAL SPRAY I CONCRETE<br />
Deformation and Fracture Analysis <strong>of</strong>Thermal .................. 193<br />
Spray Coatings by AE Method<br />
K.Aklta, S.Wakayama and S.Tobe
Evaluation on Defects <strong>of</strong> Reinforced Concrete .................. 199<br />
Members by Acoustic Emission and Ultrasonic<br />
Method<br />
T.Shibala, M.Uchida, D.Morl, T.Okamoto, M.Ohlsu and<br />
T.Kishi<br />
AE Analysis for Damage Estimation <strong>of</strong> Reinforced .................. 205<br />
Concrete Structure<br />
M.Shigeishl and M.Ohtsu<br />
Determination <strong>of</strong> <strong>the</strong> Dynamic Elastic Constants <strong>of</strong> .................. 211<br />
Concrete Using Horizontally Polarized Conical<br />
Transducers<br />
T.-TWu and J.-S.Fang<br />
Acoustic Emission Evaluation <strong>of</strong>Structural Integrity .................. 217<br />
in Reinforced Concrete Beams Deteriorated due to<br />
Corrosion <strong>of</strong> Reinforcement<br />
V.Murakami and S.Yuyarna<br />
FATIGUE / FRACTURE<br />
Effect <strong>of</strong> Inclusions on Acoustic Emission in Fatigue .................. <strong>22</strong>5<br />
M.N.Bassirn<br />
Relation between Acoustic Emission <strong>of</strong>7175 .................. 231<br />
Aluminum Alloy during Fracture Toughness Test<br />
and In-situ Crack Observation by <strong>the</strong> Scanning<br />
Election Microscope<br />
Y.Obata, K.Aokl, Y.Mori and A.Nolue<br />
Pattern Recognition Analysis <strong>of</strong> Acoustic Emission .................. 237<br />
from Fatigue <strong>of</strong> 2024-T4 Aluminum<br />
K.Ono and J.Y.Wu<br />
AE Source Location in Bending Fatigue Process <strong>of</strong> .................. 243<br />
Carburizing Spur Gear<br />
H.Senloku and H.Yarnato<br />
POSTER SESSiON<br />
Inspection and Evaluation <strong>of</strong> In-Service High H2JN2 .................. 249<br />
Cylinders by Acoustic Emission<br />
l.BangXlan, S.GongTlan, D.QlngRu, l.Qlzhi and l.Shifeng<br />
Use <strong>of</strong> Acoustic Emission to Identify Defects and .................. 255<br />
Evaluate Their Potential Danger in Pressurized<br />
Storage Tanks<br />
G.Muravin, L.Lezvinsky and a.Murav!n
The Possibility <strong>of</strong> Identifying Stages in <strong>the</strong> Metal .................. 261<br />
Embrittlement Process and <strong>the</strong> Electrochemical<br />
Corrosion by Acoustic Emission Image Recognition<br />
Method<br />
G.Mur8vln, L.Lezvinsky and B.Muravln<br />
Development <strong>of</strong> Plywood Grader Using Acoustic .................. 267<br />
Emission Technique<br />
K.Salo, Y.SuzukI, H.Malsuo and S.Murase<br />
DEFECT I PLANT I MONITERING<br />
Nondestructive Evaluation <strong>of</strong> Defects in HOI- .................. 273<br />
Pressed Ceramic Nozzles by Combined<br />
Electroacouslic Technique<br />
Y.I.Bulblk<br />
Evaluation <strong>of</strong> Structural Integrity Using Acoustic .................. 278<br />
Emission for Electric Power Components-for<br />
Condition Based Maintenance<br />
H.lmaeda<br />
Development <strong>of</strong> Leak Gas Detection Technique by .................. 283<br />
Acoustic Emission<br />
C.Kairiku, -V.Nakamura, S.NIshlmolo and K.Tsukl,<br />
T.Yoshiara, T.lmanaka and Y.Yokono<br />
Experiences in Applying Acoustic Emission .............<br />
Technology to Structural Integrity Assessment<br />
H.Nakasa<br />
h ... 289<br />
STANDARD<br />
A Proposed Standard for Evaluating Structural .................. 295<br />
Integrity <strong>of</strong> Reinforced Concrete Beams by Acoustic<br />
Emission<br />
S.Yuyama, T.Okamolo, T.Kamada, M.Ohtsu and T.Klshi<br />
ROCK I INDUSTRIAL APPLICATIONS<br />
I NEURAL NETWORK I SENSORS<br />
Fractals on AE Source Distribution and Fracture .................. <strong>30</strong>5<br />
Surface Formed by Hydr<strong>of</strong>racturing <strong>of</strong> Rock<br />
Specimens<br />
K.hakura, K.Salo and K.Nagano<br />
Acoustic Emission and Electromagnetic Effects in .................. 311<br />
Rocks<br />
T.lokajicek and J.Sikula<br />
A Model <strong>of</strong> <strong>the</strong> Energy Capacity <strong>of</strong> AE in <strong>the</strong> .................. 315<br />
Precision Turning by Cubic Boron Nitride Tools
N.Novikov, O.Lysenko and L.Oevin<br />
Aspects <strong>of</strong>an Embedded High-Fidelity Acoustic<br />
Emission Transducer<br />
G.Welss and S.O.Glaser<br />
WOOD I MANUFACTURE I<br />
AGRICULTURE<br />
Application <strong>of</strong> Acoustic Emission Technique for<br />
Optimization <strong>of</strong> Wood Drying Method by Use <strong>of</strong><br />
Carbon Dioxide<br />
T.Kono, H.Shlnohara, N.Yamasaki. H.Takahashi,<br />
T.Hashlda, K.Tamagawa and T.Shoji<br />
Development <strong>of</strong> Fault Detection Technique <strong>of</strong>Small<br />
Bearing by Acoustic Emission<br />
S.Nishimol:o, T.lmanaka and Y.Yokono<br />
Possibility <strong>of</strong>Root Growth Measurement<br />
Underground by Acoustic Emission Sensor<br />
L.Okushlma, M.ShI~, Y.Higo, T.Ohtani and S.Sase<br />
321<br />
321<br />
333<br />
339<br />
Acoustic Emission Characteristics Generated from<br />
Seedling, Adult Tree and Shoot Culture <strong>of</strong>Conifers<br />
K.SaIO, K.Walanabe. N.Watanabe. M.Fushitanl,<br />
Y.Motoyama. S.Oglta and M.Kanlwa<br />
344<br />
STRUCTURE<br />
Acoustic Emission Sources <strong>of</strong> Field Pressure Vessel<br />
Tes'<br />
a.Shen, B.U. a.Duan and S.Uu<br />
Application <strong>of</strong> Acoustic Emission Evaluation <strong>of</strong><br />
Structural Integrity in Marine Concrete Structures<br />
T.Kamada, M.lwanaml, S.Nagalaki. S.Yuyama and<br />
N.Olsuki<br />
Evaluation <strong>of</strong> Hot Industrial Pipeline Condition by<br />
Acoustic Emission Image Recognition Method<br />
a.Muravin, L.Lezvinsky, B.Muravin and V.Ship<br />
Development <strong>of</strong> New Procedures for In·Service<br />
Acoustic Emission Testing in Pressure Vessels and<br />
Pipework<br />
R.D.TidsweH. M.P.Shipley and B.J.C8ne<br />
349<br />
355<br />
361<br />
361
<strong>Contents</strong><br />
Part I<br />
AppHc:atioDS<br />
Improvements OfGrindingIDressing Monitoring Using Acoustic Emission<br />
Jason W.P. DoDg (Physical Acoustics Corp.)<br />
I-I<br />
An Investigation OfBrittle Failure ID Composite Materials Used For High Voltage Insulators 1-10<br />
D. ArmenlroUt, T. Ely. S. Carpenter. and M. Kumosa (Univemty Of Denver)<br />
AE In Tooth Surface Failure Process Of Spur Gears 1-19<br />
Hir<strong>of</strong>umi Sentoku (Yamaguchi University)<br />
Long-Tenn Continuous Monitoring OfStructural Integrity Of Steel Storage Tanks 1-25<br />
Hiroyasu Nakasa (Engineers Guild) and Hiroaki Sasaki (Japan Fire Equipment Inspection Institute)<br />
Using OfNon-Stationary Thermal Fields and Thermal Stresses As A Method For Evaluating The Danger 1-35<br />
OfDamage Development In Chemical and Refinery Equipment<br />
Boris Muravin. Luidmila Lezvinsky. Gregory Muravin (Margan Physical Diagnostics Ltd.• Israel)<br />
Acoustic Emission For The Evaluation OfIntegrity For Pressure Vessel 1-45<br />
M. Cherfaoui and C. Herve (CE11M. France)<br />
Partn Coacrete and Geological<br />
Aeoustic Emission and Electric PoteDtial Changes <strong>of</strong>Rock Sample under Cyclic Loading<br />
Y. Mori, K. Sato. Y. Obata and K. Mogi (College <strong>of</strong> Industrial Technology. Nihon University)<br />
n-I<br />
Acoustic Emission As An Information Means For Direcaed Fracturing OfRocks 11·9<br />
Gregory Muravin and Luidmila Lezvinsky (Margan Physical Diagnostics Ltd.• Israel)<br />
Correlations Of AE Signatures To Mechanical and Petrologic Properties OfFour Types OfRocks 11-19<br />
A. Wahab Khair (West Virginia University)<br />
Damage Mechanics and Fracture Mechanics Of Concrete By SiGMA 11-31<br />
M. Ohtsu. M. Shigeisbi and M. C. Mumwam (Kumamoto University)<br />
Application Of Acoustic Emission For Studies OfSoil Defonnation: Case Studies and New Developments 0-41<br />
R. Hill. N. Dixon. J. Kavanagh. A. Kousteni (The Nottingham Trent University. UK)<br />
Acoustic Emission Applications To An Arch Dam Under Construction 0·50<br />
S. Yuyarna (Nippon Physical Acoustics Ltd.). T. Okamoto (Nihon Cement Co.• Ltd.). O. Minemura<br />
(Niigata Prefecture Govennent), N. Sakata (Kajima Corp.), K. Murayarna (Nagaoka University Of<br />
Technology)<br />
Acoustic Emission Measurements During HydraUlic Fracturing Tests In A Salt Mine Using A Special 11-60<br />
Borehole Probe<br />
Gerd Man<strong>the</strong>i. Jilrgen Eisenbllitter (Gesellschaft Filr Malerialprilfung und Geophysik mbH. Gennany).<br />
Peter Kamlot (Institut Filr Gebirgsmechanik GmbH). Stefan Heusermann (Federal Institute for Geosciences<br />
and Natural Resources)<br />
Evaluation Of Progressive Slope-Failure By Acoustic Emission 0·70<br />
Tomoki Shiotani (Tobishima Corp.) and Masayasu Ohtsu (Kumamoto University)<br />
ix
Evaluating The Condition Of A Tunnel's Reinforced Concrete Suucture By Non-Destroctive Inspection<br />
Acoustic Emission Methods<br />
Gregory Muravin. Ludmila Lezvinsky. Boris Muravin (Margan Physical Diagnostics Ltd., Israel)<br />
Acoustic Emission Diagnostics OfReinforced Concrete Bridges Condition<br />
GregoJY Muravin. Ludmila Lezvinsky. Boris Muravin (Margan Physical Diagnostics Ltd.• Israel)<br />
Characterisation Of Fonnation Defects In Orthophosphate Bonded Cements By Acoustic Emission<br />
BfYID Bridge (Centre for Automated and Robotic Nondestroctive Testing, South Bank University. UK)<br />
Fractal Description Of Acoustic Emission Produced In Systems: Coal-Gas lind Coal-Water<br />
20fia Majewska and Z<strong>of</strong>ia Mortimer (University Of Mining and Metallurgy. Crakow. Poland)<br />
New Possibilities For Acoustic Emission Testing OfConcrete Stroctures<br />
Edouard G. Nesvijski (Federal University Of Santa Maria. Brazil)<br />
ll-80<br />
ll-89<br />
8-99<br />
0-109<br />
D-119<br />
partm<br />
Materials<br />
Characteriution Of The Lamb Waves Produced By Local Impact Fracture In Thin Brittle Plates<br />
Yoshihiro Mizutani (Aoyama Gakuin University). Hideo Cho (Tohoku University), MOOo Takemoto<br />
(Aoyama Gakuin University) and Kanji Ono (University Of California. Los Angeles)<br />
Acoustic Emission and Magnetic Flux Leakage Associated With Magnetisation OfCracked and Uncracked<br />
Ferromagnetic Materials .<br />
R. Hill. A-A. R. ChoudhUJY (The Nottingham Trent University. UK) and L. Morgan (British Gas Research<br />
centre)<br />
Wavelet Transfonn Of MagnewmechanicaJ Acoustic Emission Under Elastic Tensile Stress With<br />
Displacement Sensor<br />
Masanori Takuma. Noboru Shinke. (Kansai University) and Kanji One (University <strong>of</strong>California, Los<br />
Angeles)<br />
m-I<br />
m-II<br />
ill-20<br />
Effect OfBoron Addition On Acoustic Emission Behavior During Tensile Defonnation Of Ni}AI m-28<br />
Intermetallic Compound Single CJYstals<br />
K. Yoshida. Y.lwata, H. Takagi and K. Sakamaki (The University OfTokushima)<br />
Acoustic Emission Characteristics During Defonnation OfPolye<strong>the</strong>r E<strong>the</strong>r Ketone (PEEK) m-36<br />
M. Gakumauwa, M. Akiyama (Shibaura Institute OfTechnology). C.lshiyama, J. Hu, K. Takashima. Y.<br />
Higo (Precision and Intelligence Laboratory. Tokyo Institute OfTechnology) and C. Nojiri (Terumo Corp.)<br />
Studies On The Strocture OfThe Surface OfAcoustically Emitting Sands From Barking Sands Beach.<br />
Kauai. Hawaii<br />
Douglas E. Goldsack. Marcel F. Leach. Cindi Kilkenny, Nelson Belzile and Fred Ford (Laurentian<br />
University. Canada)<br />
Use Of Helium Penneability To Discriminate Acoustic Events OfVarious Physical Origin During m-51<br />
Mechanical Loading<br />
W. Prince and R. Perami (Universite Paul Sabatier. Toulouse, France)<br />
Principals OfStatistical and Spectral Analysis <strong>of</strong> Acoustic Emission and Their Application To Plastic m-61<br />
Deformation <strong>of</strong> Metallic Glasses<br />
A. Yu. Vinogradov (Kanauwa University)<br />
Micr<strong>of</strong>racture Process In Ceramics Under Thermal Shock Fracture Characterized By Acoustic Emission m-73<br />
Shuichi Walcayama (Tokyo Metropolitan University)<br />
m..w<br />
x
AE Study Of Stress Corrosion Cracking Mechanism OfStainless Foil Using Quantitative Lamb Wave<br />
Analysis and Video Images<br />
Mildo Takemoto. Okiharu Tamura and Hiroaki Suzuki (Aoyama Gakuin University)<br />
A Study Of The Acoustic Emission From Musical Sand and Silica Gel<br />
Marcel F. Leach, Douglas E. Goldsack, Cindi Kilkenny and Chantal Filion (Laurentian University, Canada)<br />
Effects or Humidity On Acoustic Emission Characteristics During Environmental Stress Cracking In<br />
Polymethyl Methacrilate (PMMA)<br />
Chiemi Ishiyama. Takumi Sakuma. Yasuyuki Bokoi. Masayuki Shimojo and Yakichi Higo (Precision And<br />
Intelligence Laboratory. Tokyo Institute OfTechnology)<br />
ill-81<br />
ill-89<br />
ill-99<br />
Part IV<br />
Wave Analysis and Signal Processing<br />
Optimizing AE Location Accuracy: A Measurement Approach<br />
Richard Nordstrom (Vallen Systeme. Germany)<br />
Source Location in Plates by Using Wavelet Transform <strong>of</strong> AE Signals<br />
Oh-Yang Kwon and Young-Chan Joo (Inha University. Korea)<br />
Wavefonn Analysis Of Acoustic Emission Signals<br />
Ajit Mal and Dawei Guo (University Of Califomia, Los Angeles) and Marvin Hamstad (University Of<br />
Denver)<br />
Selection Of Acoustic Emissions and Classification or Damage Mechanisms In Fiber Composite Materials<br />
Torsten Krietseh lind Jurgen Bohse (Federal Institute For Materials Research and Testing, Gennany)<br />
Grey Correlation Analysis Method or Acoustic Emission Signals For Pressure Vessels<br />
Gonglian Shen. Qingru Duan and Bangxian Li (Center OfBoiler and Pressure Vessellnspection and<br />
Research. China)<br />
On Wideband Acoustic Emission Displacement Signals As a Function Of Source Rise-Time and Plate<br />
Thickness<br />
M. A. Hamstad (University Of Denver and NlST). J. Gary and A. O'Gallagher (NIST. Boulder)<br />
2-D AE Source Localization On The Material With Unknown Propagation Velocity Of AE Wave<br />
Kyung-Young Jhang. Weon-Heum Lee, DaI-Jung Kim (Ranyang University, Korea)<br />
Three Dimensional Acoustic Emission Signal Analysis In ClC Composites With Anisotropic Slructure<br />
Ja-Ho Koo. Manabu Enoki and Teruo Kishi (The University Of Tokyo) and Byung-Nam Kim (National<br />
Research Institute for Metals)<br />
Calibration Of Low-Frequency Acoustic Emission Transducers<br />
H. Reginald Hardy. Jr. and Euiseok Oh (The Pennsylvania State University)<br />
Modeling Acoustic Emission Transducers Using Finite Element Methods<br />
R. Hill. S. Forsyth and P. Macey (The Nottingham Trent University, UK)<br />
Characterizing The Acoustic Sources Of Pressure Vessel By Wavelet Analysis<br />
Luming Li. Peng Zheng. Shifeng Liu and Zufei Wu (Tsinghua University, Beijing. China)<br />
lV-I<br />
lV-9<br />
lV-19<br />
lV-<strong>30</strong><br />
lV~O<br />
IV~8<br />
IV-5S<br />
lV-66<br />
1V-74<br />
IV-S6<br />
IV-96<br />
xi
Part V<br />
Composites<br />
Advanced AE Signal Classification For Studying The Progression OfFracture Modes In Loaded UD-GFRP<br />
Naoya Saito (Aoyama Galcuin University), Hiroaki Suzuki (Chiyoda Chemical and Construction Co),<br />
Mikio Takemoto (Aoyama Galcuin University) and Kanji Ono (University Of California. Los Angeles)<br />
Fatigue Monitoring <strong>of</strong>Heat Exposed Carbon FiberlEpoxy By Means Acoustic Emission and Acousto-<br />
Ultrasonic<br />
A. Maslouhi and V.L. Tahiti (Universit~ de Moncton. Canada)<br />
V-I<br />
V-II<br />
Thcnnal Shock Evaluation OfFUDCtionally Graded CeramicIMetal Composites By AE V-21<br />
Jae-Kyoo Lim and Jun-Hec Song (Chonbuk National University. Korea)<br />
Effect OfSurface Modification or SiC Fiber On Acoustic Emission Behaviors and Interface Strength Of V-29<br />
SiC/AI Composite<br />
Zuming Zhu, Yanfeng Guo, Nanling Shi (Institute orMetal Research, Chinese Academy OfSciences,<br />
China)<br />
Characterization Of Fracture Process In Short-fiber-Reinforced Plastics By Acoustic Emission V-36<br />
K.. Takahashi (Kyushu University) and N. S. Choi (Hanyang University, Korea)<br />
Effects <strong>of</strong>Foam Thennallnsulation and Previous ThennaI Exposure on <strong>the</strong> Acoustic Emission Recorded<br />
From GraphiteJEpoxy Pressure Vessels With and Withoutlmpact Damage<br />
K.. S. Downs (Lockheed Martin) and M. A. Harnstad (University Of Denver)<br />
V-4S<br />
Interpretation OfFraeture Toughness In Unidirectional GIass-FiberlPolypropylene Composites By V-55<br />
Acoustic Emission Analysis Of Damage Mechanisms<br />
Jurgen Bohse and Torsten Krietseh (Federal Institute For Materials Research and Testing. Germany)<br />
Acoustic Emission Studies From Reinforcing Fibre Failure and Transverse Composite Cracking V-63<br />
R. Hill, D. Kaloedes (The Nottingham Trent University, UK) and R. Brooks (University Of Nottingham)<br />
Authors Index<br />
a<br />
xii
CONTENTS<br />
Fracture<br />
Keynote<br />
Fiber· Matrix Failure Processes Studied with Quantitative AE 1<br />
A R. Baker and W. Sachse (Cornell University)<br />
Stress Intensity Factors by Acoustic Emission and Analysis <strong>of</strong><br />
Crack Propagation by Boundary Element Method 11<br />
Farld Uddin AK.M" K. Ishiharaguchf and M. Ohtsu (Kumamoto University)<br />
Acoustic Emission Measurement by Laser in Ceramics Coating 17<br />
M. Enokl, M. Watanabe (The University <strong>of</strong> Tokyo) and<br />
T. KIShi (Nationa! Institute for Advanced Interdisciplinmy Research)<br />
Acoustic Emission Examination <strong>of</strong> Mode t, Mode II and Mixed-Mode 1/11<br />
lnterlaminar Fracture <strong>of</strong> Unidirectional Fibre-Reinforced Polymers 23<br />
J. Bohse (Federal Institute for Materials Research and Testing)<br />
and J. Chen (Technical University <strong>of</strong> Berlin)<br />
Fracture Dynamics in Notched PMMA Plates by Lamb Wave AE Analysis 29<br />
K. Nagashlma, H. Nishino, M. Takemoto (Aoyama Gakuln University)<br />
and K Dno (University <strong>of</strong> CalifornIa, Los Angeles)<br />
Materials I<br />
Keynote<br />
Monitoring <strong>of</strong> Micro-cracking during Heating Process <strong>of</strong> Hydrogen Ion Doped<br />
Germanium and Silicon Single Crystals by Acoustic Emission Method 35<br />
K Yoshida, Y. Wang, K. Horlkawa, K. Sakamakl (The UniversIty <strong>of</strong> Tokushlma)<br />
and K. Kefiyama (fan Engineering Research Institute Corporation)<br />
Damage Detection in a Fiber-Reinforced Cylinder (Fishing Rod)<br />
by Guided Wave Acoustic Emission Analysis 43<br />
Y. Hayashi, Y. Mlzutani, H. Nlshlno, M. Takemoto (Aoyama Gakuin University)<br />
and K. Dna (University <strong>of</strong> CalifornIa, Los Angeles)<br />
Characterization <strong>of</strong> Dezlnclficalion in Brass Alloys Used for Water Meters by AElUT .49<br />
/. Roman and F. Zeldes (Hebrew UnIversity <strong>of</strong>Jerusalem)<br />
Acoustic Emission and Dislocation Self-Organization during<br />
Cyclic Deformation <strong>of</strong> Copper Single Crystals 53<br />
A. Vlnogradov (Osaka City University), V. Patlan (Kanszawa UnIversity)<br />
and S. Hashimoto (Osaka City University)
Acoustic Emission Characterization and Numerical Simulation <strong>of</strong> Internal Damage<br />
Progression in CFRP Multi-Directional Symmetric Laminates 59<br />
I. Ohsawa, I. Kimpara, K. Kageyama and K. Hiekata (The University <strong>of</strong> Tokyo)<br />
Rock<br />
Source Parameters <strong>of</strong> Acoustic Emission Events In Salt Rock 65<br />
G. Man<strong>the</strong>I, J. Eisenb/atter (GMuG Gesellschaft fiir MaterialprCdung und Geophysik) ,<br />
T. Spies (Federa/lnstitute for GeoscIences and Natural Resources)<br />
and G. Eilers (Federal Office for Radiation Protection)<br />
Geometrical Complexity <strong>of</strong> Rock Inclusion and Its Influence on AE Activity 71<br />
K. ltakura, A. Takashima, T. Ohnishi and K. Sata (Muroran Institute <strong>of</strong> Technology)<br />
Studies <strong>of</strong> Acoustic Emission from Soil Structures and <strong>the</strong> Problem <strong>of</strong> Calibration .77<br />
R. Hifl (The Nottingham Trent University), N. Dixon (University <strong>of</strong> Loughborough)<br />
and A. Koustenl (The Nottingham Trent University)<br />
Development <strong>of</strong> AE Waveguide for Rock Failure Monitoring 85<br />
T. Shioranl, S. Mlwa (Tob/shima Corporation), M. Ohrsu (Kumamoto Un/verslty)<br />
and K. Ikeda (Hokkaido Development Bureau)<br />
Waveform Analysis and Modeling<br />
Keynote<br />
Statistical Modeling <strong>of</strong> AE Phenomena 91<br />
I. Grabec, E. Govekar, T. Kosel, E. Susic (University <strong>of</strong> 4ubljana)<br />
and W. sachse (Cornell University)<br />
Wavelet Transform Analysis 01 Magneto-Acoustic Emission Signals<br />
from Displacement and Shear Sensors 99<br />
M. Takuma, N. Shinke, R. Inoue O
Corrosion and Str.ss Corrosion Cracking<br />
sec Monitoring <strong>of</strong> Zirconium in Boiling Nitric Acid by <strong>the</strong> Acoustic Emission Method 123<br />
C. Kala and K. Kiuchl (Japan Atomic Energy Reserch fnstituteJ<br />
AE Monitoring <strong>of</strong> Chloride Stress Corrosion Cracking <strong>of</strong> Austenitic Stainless $teel 129<br />
S. Fujimoto, M. Takemoto (Aoyama Gakuin University) and<br />
K. Dna (University <strong>of</strong> california, Los Angeles)<br />
Acoustic Emission Revealing and Danger Level Evaluation <strong>of</strong> Stress Corrosion<br />
Cracking In Stainless Steel Pipes 135<br />
G. Muravin, B. Muravin and L. Lezvfnsky (Margan Physical Diagnostics Ltd., Israef)<br />
Cylinder Wave Analysis for AE Source Location and Fracture Dynamics <strong>of</strong><br />
Stress Corrosion Cracking <strong>of</strong> Brass Tube 141<br />
F. Uchida, H. Nfshlno, M. Takemoto (Aoyama Gakuln University) and<br />
K. Ono (University <strong>of</strong> Califomia, Los Angeles)<br />
Use <strong>of</strong> Acoustic Emission Technique to Detect localized Corrosion in <strong>the</strong> Industrl~1<br />
A. Proust, J. C. Lanaln (Eura Physical Acoustics SA) and<br />
S. Yuyama (Nippon Physical Acoustics Ltd,)<br />
Field.........147<br />
Delayed Fracture <strong>of</strong> Stainless Steel and Peculiarities <strong>of</strong> Associated<br />
Acoustic Emission 153<br />
G. Muravln, B. Muravln G. Kravetz and L Lezvfnsky (Margan Physical Diagnostics Ltd., Israel)<br />
Acoustic Emission from Active Corrosion under <strong>the</strong> Insulation <strong>of</strong> a Sulphur Tank 159<br />
P. T. Cole and S. N. Gautrey (PhysIcal Acoustics Ltd,)<br />
Instrumentation and Data Analysis<br />
Keynote<br />
Calibration <strong>of</strong> Acoustic Emission Transducers and its Standardization 163<br />
H. Hatano (Science University <strong>of</strong> Tokyo)<br />
3·Oimensional AE Source Location Using Numerical Analysis 171<br />
H. Nakasa (Engineers Guild)<br />
A Consideration about <strong>the</strong> Rainy Influence In Field AE Measurement.<br />
M. Shigeishi (Kumamoto University), T. Shiotani (Toblshlma Corporation)<br />
and M. Ohtsu (Kumamoto University)<br />
1n<br />
Concrete<br />
Detection <strong>of</strong> Voids in Grouted Tendon Ducts <strong>of</strong> PC Members Using Elastic Wave 183<br />
T. Kamada, M. Asano, S. Nakszawa, K. Rokugo (Glfu University)<br />
and H. Kitazono, H. Yokoyama (Abe Kogyo Co., Ltd,)<br />
iii
Application <strong>of</strong> Acoustic Emission Technique to Evaluation <strong>of</strong> Cracking<br />
in Concrete Structures 189<br />
N. Tsuji, M. Uchida, T. Okamoto (Ta/he/yo Cement Corporation)<br />
and M. Ohtsu (Kumamoto Unwersity)<br />
Acoustic Emission Evaluation during Fatigue Processes in Reinforced Concrete Slab 195<br />
S. Yuyama, Z W. Lf (Nippon Physical Acoustics Ltd.), M. Yoshizawa, T. Tomok/yo (Techno/ogy<br />
Center <strong>of</strong> Metropolitan Expressway) and T. Uomoto (The Unlvers/ty <strong>of</strong> Tokyo)<br />
Application <strong>of</strong> <strong>the</strong> AE Improved b-Value to Quantitative Evaluation <strong>of</strong><br />
Fracture Processes in Concrete Materials 201<br />
T. Shlotanl (Toblshlma Corporation), S. Yuyama, Z. W. U (Nippon Physical Acoustics Ltd.)<br />
and M. Ohtsu (Kumamoto University)<br />
Evaluation <strong>of</strong> Fracture Process in Concrete Joint by Acoustic Emission h<br />
T. Kamada, M. Asano, S. Lim, M. Kun/eda and K. Rokugo (Gifu University)<br />
Damage Diagnosis <strong>of</strong> Concrete-Piles by Machinery-Induced Acoustic Emlssion h<br />
T. Shlotanl, S. Miwa (Tab/shima CorporatIon), Y. Ichlmurs (Public Works Research Institute,<br />
Ministry <strong>of</strong> Construct/on) and M. Ohtsu (Kumamoto Unwerslty)<br />
207<br />
213<br />
Structures<br />
Acoustic Emission Monitoring <strong>of</strong> <strong>the</strong> JAS 39 Gripen Combat Aircraft 219<br />
D. Lindahl and M. Knuuttila (CSM Materfalteknlk AB, A Saab / Celsius - Company)<br />
Analysis <strong>of</strong> Acoustic Emission Data from Wind Turbine Blade Testing<br />
Using Unsupervised Pattern Recognition <strong>22</strong>5<br />
A. A. Anastassopoulos (Envlrocoustics SA), S. J. Vahavlolos (PhysIcal Acoustics Corporation),<br />
D. A. Kauroussfs (Envirocoustics S.A.), P. VIonls (Centre far Renewable Energy Sources)<br />
and J. C. Lena/n, A. Proust (Eura Physical Acoustics S.A.)<br />
Inspection <strong>of</strong> Pressure Vessels Used in Refrigeration and Air Conditioning Systems 231<br />
A. Skraber, M. Chertaoul, F. Zhang and L. Legln (Centre Technique des Industries Mechanlques)<br />
Integrity Evaluation <strong>of</strong> Pressure Vessels, Sphere Type, Using <strong>the</strong> Interaction<br />
<strong>of</strong> Acoustic Emission and Fracture Mechanics 237<br />
P. Feres (Physical Acoustic South America), G. V. P. Donato (Petrobras, Petroleo Brasi/elro S.A.)<br />
and P. T. Cole (Physical Acoustics Ltd.)<br />
Revealing. Identifying. and Evaluating Failures In High Pressure Reactors<br />
by Acoustic Emission Image Recognition Method 243<br />
G. Muravin, C. W. Adams, B. Muravln and L. Lezvinsky (Margan Physical Diagnostics Ltd., IsraeJ)<br />
Detection and Location <strong>of</strong> Cracks and Leaks in Buried Pipelines Using Acoustic Emission........249<br />
S.J. Vahaviolos, R. K. Miller, D. J. Watts (Physical Acoustics Corporation) and<br />
V. V. Shemyakln, S. A. Strizkov (Physical Acoustics, RussIa)<br />
Approach to AE Diagnostics <strong>of</strong> Main Pipeline Systems and<br />
Pressure Vessels in Oil and Gas Inclustry 257<br />
V. M. Belov, M. N. Podlevsklkh, A. N. Struchenka and O. B. Tarutin (Eftest Ltd., Russia)
Recommended Practice for In Situ Monitoring <strong>of</strong> Concrete Structures<br />
by Acoustic Emission 263<br />
M. Ohtsu (Kumamoto University) and S. Yuyama (Nippon Physical Acoustics Ltd.)<br />
Subsurface I<br />
Estimation and Characterization <strong>of</strong> Subsurface Fracture in Souttz HDR<br />
Geo<strong>the</strong>rmal Site by AE Multiplet Analysis 269<br />
K. Nakazato, H. Morlya, H. Niitsuma (Tohoku University) and R. Baria (SOCOMINE)<br />
Monitoring <strong>of</strong> Micrccrack Generation around Closely Spaced Exca ations<br />
in an Underground Repository 275<br />
T. Spies (Federal Institute for GeoscIences and Natural Resources) and<br />
J. Eisenblatter (Gesel/schaff fUr Materialpriifung und Geophysik mbH)<br />
Super-Resolution Mapping <strong>of</strong> AE Multiplet for E....aluation <strong>of</strong> Structure and Dynamic<br />
Beha lor <strong>of</strong> Subsurface Fractures in Ogachl Hot Dry Rock Fleld 281<br />
H. Morlya, S. Miyano, H. Niitsuma (Tohoku University) and<br />
H. Kaieda (Central Research Institute <strong>of</strong> Electric Power Industry)<br />
Application <strong>of</strong> Two-Unes-Fitting Scanning to Observe Kaiser Effect for Rock Stress 287<br />
K. Shin (Central Research Institute <strong>of</strong> Electric Power Industry)<br />
Estimation <strong>of</strong> Deep Subsurface Structure by Using Reflected AE Signal with Multi<br />
Component Signal Processing In TIme-Frequency Domaln 293<br />
N. Soma (National Institute for Resources and Environment>, H. Niitsuma (Tohoku University)<br />
and R. Baria (SOCOMINE)<br />
Materials II<br />
Detection <strong>of</strong> Pre-Martensitlc Transformation Phenomena in Austenitic Stainless<br />
Steels Using an Acoustic Emission Technique 299<br />
T. Inamura, s." Nagano, M. Shlmojo, K. Takashima and Y. Higo (Tokyo Instituta <strong>of</strong> Technology)<br />
Acoustic Emission Signal Analysis on SMA Wire I Optical Fiber Embedded CFRP <strong>30</strong>5<br />
J. - H. Koo, B. - K. Jang, N. Toyama and T. Kishi (National Institute for Advanced<br />
Interdisciplinary Research)<br />
Emission <strong>of</strong> Higher Harmonics during Flexural Vibration Fatigue <strong>of</strong><br />
Type <strong>30</strong>4 Stainless Steel Slab 313<br />
M. Oda. M. Maeda, T. Ebuchi, T. Yoshlara and T. Imanaka (Non-Destructive Inspection Co., Ltd'><br />
AE Characterization <strong>of</strong> Thermal Shock Fracture In Ceramlcs 319<br />
K. Nishlno and S. Wakayama (Tokyo Metropolitan University)
Malerlals III<br />
Measurement <strong>of</strong> AE and Electric Potential Changes In Fracture <strong>of</strong> Brittle Materials 325<br />
I. lida, Y. Morl, Y. Obata and K. Magi (Nihon University)<br />
Change <strong>of</strong> Acoustic Emission Activity due to Ductility Impro ement <strong>of</strong> NiAl<br />
Intermetaltlc Compound 331<br />
R. Yamashita, K. Yoshida, K Sskamakl and K. Horikaw8 (The University <strong>of</strong> Tokushlma)<br />
Acoustic Emission Analysis <strong>of</strong> Carbide Cracking in Tool 5teeI5 337<br />
K. Fukaura (Himeji Institute <strong>of</strong> Technology) and K Dna (University <strong>of</strong> CalifornIa, Los Angeles)<br />
In Situ Acoustic Emission Detection <strong>of</strong> Cracks during Electroplating Processes 345<br />
T. Morikawa (Technology Research Instftute <strong>of</strong> Osaka Prefecture) and<br />
K. Ono (University <strong>of</strong> Callfomla, Los Angeles)<br />
Subsurface II<br />
Study <strong>of</strong> Hydraulically Induced Crack Propagation in <strong>the</strong> Bemburg Salt Mine,<br />
Germany, by Using Acoustic Emission 351<br />
H. Morlya, T. FUjita, H. Niitsuma (Tohoku University) and J. Eisenbliftter,<br />
G. Man<strong>the</strong>i (Gesel/scharr fUr MaterlaJpnJfung und Geophyslk mbH)<br />
Comparison <strong>of</strong> Reflection Image and Logging Data in Kakkonda Geo<strong>the</strong>rmal Field 357<br />
K. Sato, J. Samuelsson, H. Niitsuma (Tohoku University), N. Soma (The National<br />
Institute for Aesources and Environment), M. Tateno (Geo<strong>the</strong>rmal Engineering)<br />
and T. Ominato (Earthquake Aeserch Institute, The University <strong>of</strong> Tokyo)<br />
AE Measurement for Evaluating Structure <strong>of</strong> Ogachl HDR Geo<strong>the</strong>rmal Reservoir 363<br />
H. Kaieda (Central Research Institute <strong>of</strong> Electric Power Industry)<br />
Measurements <strong>of</strong> In-Situ Crustal Stresses Using AE Method and<br />
Its Application in Earthquake Predietion 369<br />
Y. Huang (Seismological Bureau <strong>of</strong> Yunnan Province, China) and H. Huang (University <strong>of</strong> Delaware)<br />
Machine Diagnosis<br />
Acoustic Emission Source Location Method and Prediction <strong>of</strong> Failure<br />
for a Radial Rolling Bearing 375<br />
H. Mano, A. Korenaga, T. Yoshioka (Mechanical Engineering Laboratory)<br />
and T. Yamamoto (Tokyo University <strong>of</strong>Agriculture and Technology)<br />
A New System for Machinery Diagnosis Using AE and Vibration Signals 381<br />
A. Korenaga (Mechanical Engineering Laboratory), S. Shimizu (Meiji University),<br />
T. Yoshioka (Mechanical Engineering Laboratory), H. Inabs (Fuji Ceramics Corporation),<br />
H. Komura (Alon Co., Ltd) and K. Yamamoto (NF Corporation)<br />
Acoustic Emission Technique for Tool Wear Monitoring in Face MilIing 387<br />
Srinlvasa Pal. P (MHAM, Institute <strong>of</strong> Technology, Kamataka, India) and P. K. Aamakurlshna Rao,<br />
M. T. Ma<strong>the</strong>w (S. J. College <strong>of</strong> Engineering, Mysore, Karnataka, India)
Development <strong>of</strong> Abnormality Detection Technology for <strong>the</strong> Electric Generation<br />
Steam Turbine by Using Acoustic Emission (A simulation <strong>of</strong> <strong>the</strong> Damage <strong>of</strong> <strong>the</strong><br />
Turbine in <strong>the</strong> Laboratory) , , , , , " , ,395<br />
M, Maeda, T. Yoshiara, T. Imsnaka, S. Nishimoto (Non-Destructive Inspection Co., Ltd)<br />
and A. Salo, E. Nakashima, M. Koike (Kyushu Electric Power Co., Inc.)<br />
Development <strong>of</strong> Abnormality Detection Technology for <strong>the</strong> Electric Generation<br />
Steam Turbine (AE Wave Measurement on <strong>the</strong> Main Turbine <strong>of</strong> Ainoura Power<br />
Station Unit 2) 399<br />
A. Sato, E. NakashIma, M. Kalke (Kyushu Electric Power Co., Inc) and M. Maeda,<br />
T. Yoshlara, S. NishImoto (Non-Destructive Inspection Co., Ltd)<br />
Authors Index<br />
vii
<strong>Contents</strong><br />
Materials I<br />
Non-destructive Evaluation <strong>of</strong> High Temperature Creep Damage<br />
UsingAE Method 1<br />
Y. Yokono,Y.Nagano,K.Nitta and T./manaka (No'n-Destructive Inspection Co. Ltd.)<br />
Micro-Cracking and Breakdown <strong>of</strong> Kaiser Effect<br />
in Ultra High Strength Steels 7<br />
H. Cho (Tohoku University), K. Fukaura (Himeji Institute <strong>of</strong>Technology)<br />
and K. Ono (University <strong>of</strong>California, Los Angeles)<br />
Effect <strong>of</strong> Boron Additives on Acoustic Emission Behaviour<br />
during Tensile Deformation <strong>of</strong> Ni-Al Intermetallic Compounds............•......................... 15<br />
K. Yoshida, K. Horikawa and K. Sakamaki (Tokushima University<br />
Materials II<br />
Impact Damage Threshold <strong>of</strong> CFRP Laminates and Acoustic Emission<br />
from Impact and Fracture , 23<br />
Y. Mizutani (National Space Development Agency 0/Japan),<br />
K. Ono (University o/California, Los Angeles)<br />
and M. Takemoto (Aoyama Gakuin University)<br />
Evaluation <strong>of</strong> Bending Fatigue Damage for FRP Laminates<br />
withAcousticEmission - Application <strong>of</strong> Wavelet Transform - 31<br />
M. Takuma and N. Shinke (Kansai University)<br />
Characterization <strong>of</strong> Paperboard Deformation by AE 37<br />
S. Suzuki, Y. Fukuzawa, S, Nagasawa (Nagaoka University o/Technology),<br />
H. Sakayori (Koutou Carving Co.)<br />
and I. Katayama (Katayama Steel Rule Die Co. Ltd.)<br />
Thin Film & Coating<br />
Acoustic Emission from Atmospheric Rust Fracture .45<br />
M. Takemoto, T. Sogabe, K. Matsuura (Aoyama Gakuin University)<br />
and K. Ono (University o/California, Los Angeles)<br />
Acoustic Property <strong>of</strong> CVD-Diamond Film and Acoustic Emission Analysis<br />
for Integrity Evaluation ............................................................................•.......53<br />
R. Ikeda, Y. Hayashi and M. Takemoto (A oyama Gakuin University)<br />
Evaluation <strong>of</strong> Coated Film by Laser AE-UT Technique 61<br />
M. Enoki and T. Kusu (The University o/Tokyo)<br />
Evaluation <strong>of</strong> Micro-Fracture Criterion during Thermo-Mechanical Test<br />
<strong>of</strong> Ceramic Coating..............................................................................•........... 67<br />
K. Nozawa, M. Enoki (The University o/Tokyo)<br />
and K. Tomita (Industrial Technology Center <strong>of</strong>Fukui Prefecture)
Development <strong>of</strong> In-Process Monitoring System for Coatings<br />
Using Laser AE Technique 73<br />
S. Nishinoirl, M. Enoki (The University <strong>of</strong>Tokyo)<br />
and K. Tomita (Industrial Technology Center <strong>of</strong>Fukui Prefecture)<br />
Material III<br />
Micro-Fracture Process during Bending Tests <strong>of</strong> Bio ceramics<br />
in Simulated Body Environment Evaluated by Acoustic Emission....................•... , 79<br />
S. Wakayama, T. Kawakami, S. Kobayashi (Tokyo Metropolitan University),<br />
M. Aizawa and A. Nozue (Sophia University)<br />
Fracture Toughness Test and AE Analysis <strong>of</strong> Ceramics<br />
Using Indentation Method 86<br />
A. Yonezu, T. Ogawa and M. Takemoto (Aoyama Gakuin University)<br />
Evaluation <strong>of</strong> Micro-Fracture Process <strong>of</strong> Graphite Material<br />
by Acoustic Emission 94<br />
S.Nombu and M. Enoki (The University <strong>of</strong>Tokyo)<br />
Detection <strong>of</strong> Micro-Cracking in PZT Ceramics Using Pattern Recognition<br />
<strong>of</strong>Acoustic Emission Signals 100<br />
S. P. M. Rao and A. Dode (Osmania University, India)<br />
Concrete<br />
Corrosion Cracking in Reinforced Concrete by Acoustic Emission.. '" ., .........•................108<br />
M. Ohtsu and Y. Tomoda (Kumamoto University)<br />
Evaluation <strong>of</strong> Bond Behavior <strong>of</strong> Reinforcing Bars<br />
in Concrete Structures by Acoustic Emission '" 116<br />
K. Iwaki, O. Makishima, T. Shiotani and K. Ozawa (Tobishima Corporation)<br />
Non-Destructive Inspection <strong>of</strong> Pre-stressed Concrete Containment 124<br />
G. Muravin, E. Osterberg and L. Lezvinsky (Margan Physical Diagnostics Ltd.. Israel)<br />
Acoustic Emission in Fatigue Process <strong>of</strong> Steel-Concrete Composite Slabs 132<br />
T. Ito (Kawada Industries Co. Ltd.),<br />
M. Shigeishi and M. Ohtsu (Kumamoto University)<br />
Identification <strong>of</strong> Cracking in Concrete Structures by Acoustic Emission 138<br />
M. Uchida (Taiheiyo Cement Corporation),<br />
N. Tsuji (Taiheiyo Consultant Corporation)<br />
and M. Ohtsu (Kumamoto University)<br />
Sensor & Data Analysis I<br />
Acoustic Emission Sensors <strong>of</strong> RFNC-VNIlEF . 144<br />
A. A. Bazhenov, 0, Yu. Vititnev, S. A. Kamyshev, M. K. Smimov<br />
and V.I. Yarovikov (Russian Federal Nuclear Center- VNIlEF, Russia)
A Fiber-Optic Micro-Sensor for Acoustic Emission Measurement<br />
Fabricated by Micro-Machining 152<br />
M. Shiga, G. Suzuki, M. Yamada,<br />
M. Kitahara and H. Niitsuma (Tohoku University)<br />
Development <strong>of</strong>A Novel Optical Fiber Sensor<br />
for AE Detection in Composites 160<br />
J. Osawa, K. Kageyama, Y. Tsuchida<br />
and M. Kanai (The University <strong>of</strong>Tokyo)<br />
Development <strong>of</strong>AE Monitoring System Using Optical Fibers 168<br />
T. Matsuo and M. Takemoto (Aoyama Gakuin University)<br />
Sensor & Data Analysis II<br />
Updating <strong>of</strong>AE-SiGMA Analysis: 3D Visualization<br />
<strong>of</strong>AE Moment Tensor Solutions on <strong>the</strong> Internet. 176<br />
M. Shigeishi and M. Ohtsu (Kumamoto niversity)<br />
Free Tools for Dispersion Curve Display, Wavelet Transform<br />
and <strong>the</strong> Overlay <strong>of</strong> Both Analysed Waveforms<br />
from Resonant Sensors in Known Source Distances 182<br />
H. Vallen, J. Vallen (Vallen-System GmbH, Germany)<br />
How to Measure <strong>the</strong> Maximum Data Acquisition rate<br />
<strong>of</strong> Modem AE-Equipment. 189<br />
H. Vallen, J. Forker (Vallen-System GmbH, Germany)<br />
Structure & Monitoring I<br />
Acoustic Emission Evaluation <strong>of</strong> Corrosion Damages<br />
in Buried Pipe <strong>of</strong> Refinery oo oo oo oo •••••• 197<br />
S. Yuyama (Nippon Physical Acoustics Ltd.)<br />
and T. Nishida (Japan Energy)<br />
Study on The Applicability <strong>of</strong> Train-Induced Secondary Acoustic Emission<br />
for Non-Destructive Inspection <strong>of</strong> Structures 205<br />
Xiu Luo, H. Haya, T. Inaba (Railway Technical Research Institute),<br />
T. Shiotani and Y. Nakanishi (Tobishima Corporation)<br />
Review <strong>of</strong> ns 2342-2002 " Method for Acoustic Emission Testing<br />
<strong>of</strong> Pressure Vessels during Pressure Tests and Classification <strong>of</strong> Test Results" 213<br />
Y. Mori (Nihon University),<br />
M. Shiwa (Japan Power Engineering & Inspection Corporation),<br />
M. Nakano (Chiyoda Advanced Solutions Co., Ltd.)<br />
and K. Iwai (Showa Electric Laboratory Co., Ltd.»<br />
Structure & Monitoring II<br />
Identification and Evaluation <strong>of</strong> Clusters <strong>of</strong> Acoustic Emission Events<br />
Observed near Excavations in a Mine <strong>22</strong>1<br />
T. Spies (Federal Institute for Geosciences and Natural Resources, Germany)<br />
and J. Eisenbltitter (Gesellschaftfur Materialprufung und Geophysik mbH, Germany)
Acoustic Emission Evaluation <strong>of</strong> Tank Floor Condition <strong>22</strong>9<br />
S. Yuyama (Nippon Physical Acoustics Ltd.),<br />
M. Yamada (National Research Institute <strong>of</strong>Fire and Disaster),<br />
K. Sekine (Yokohama National University), •<br />
S. Kitsukawa (High Pressure Institute <strong>of</strong>Japan)<br />
and H. Marnyama (National Oil Corporation <strong>of</strong>Japan)<br />
Fundamental Examination <strong>of</strong> AE Detection in Oil Storage Tank Floors 237<br />
I. Morita (Safety and Environment Centerfor Petroleum Development <strong>of</strong>Japan),<br />
T. Arakawa and M. Tagami (Ishikawajima-Harima Industries Co., Ltd.)<br />
and M. Hagiwara (Ishikawajima Inspection & Instrumentation Co., Ltd.)<br />
Evaluation <strong>of</strong> The Use <strong>of</strong> Acoustic Emission Technology<br />
to Reveal Flaws with Small Stress Intensity in High Energy Piping<br />
and to Determine Their Type and Danger Level _ 245<br />
B. Muravin, E. Turkel and G. Muravin (Margan Physical Diagnostics Ltd., Israel)<br />
The Dislocation Mechanisms <strong>of</strong> Creep Development in High Pressure<br />
and High Temperature Pipes and Possibility <strong>of</strong> Creep<br />
Revealing by Associated Acoustic Emission 253<br />
G. Muravin, V. Finkel and L. Lezvinsky (Margan Physical Diagnostics Ltd., Israel<br />
Materials IV<br />
Conformation <strong>of</strong> Precipitate Cracking as A Source <strong>of</strong> Acoustic Emission 260<br />
T. Stuch and S. H. Carpenter (University <strong>of</strong>Denver)<br />
Acoustic Emission Accompanied by Grain Boundary Embrittlement<br />
<strong>of</strong>An Al-Mg-Si Alloy 266<br />
K. Horikawa, A. Ohmori, K. Yoshida and K. Sakamaki (Tokushima University)<br />
Advanced Processing <strong>of</strong>Acoustic Emission Data from Composite Structure:<br />
Overview and Case Studies ", , ,., 274<br />
A. Anastassopoulos (Envirocoustics S.A.)<br />
and S. Vahaviolos (Physical Acoustics Corporation)<br />
Rock & Stone<br />
Collapsing Method for Delineation <strong>of</strong> Structures inside AE Cloud<br />
Associated with Compression Test <strong>of</strong> Salt Rock Specimen.................................•........ 282<br />
H. Moriya, S. Mochizuki, H. Niitsuma, M. Ishimoto (Tohoku University),<br />
G. Man<strong>the</strong>i, 1. Eisenbliitter (Gesellschaft fur Materialprufung und Geophysik<br />
mbH, Germany), and R. H. Jones (ABB-OFFshore Systems, UK)<br />
AE Activity during Drying Processes in Cement-based Materials 290<br />
T. Shiotani (Tobishima Corporation),<br />
J Bisschop (Delft University <strong>of</strong>Technology, The Ne<strong>the</strong>rland)<br />
and J. G. M. Mier (Institute for Building Materials, Switzerland)
Acoustic Emission and Deformation <strong>of</strong> Rock under Compression 298<br />
y. Imaizumi, T. Nagano, T. Fu"me (Kyushu Electric Power Co., Inc.),<br />
T. Ebuchi, M. Maeda, M. Shindo, T. Imanaka (Non·Destructive Inspection Co., Ltd.),<br />
Y. Mori, A. Hosogi (Nihon University),<br />
T. Tamari and S. Tawaki (Kyusyu Environmental Evaluation Association)<br />
Diagnosis & Evaluation I<br />
Acoustic Emission in Bending Fatigue Process<br />
<strong>of</strong> Super-Carburized Spur Gear Teeth <strong>30</strong>4<br />
K. Miyachika, Yin-Ling Zeng, T. Koide, C. Namba,<br />
and T. Hayashi (Tortori University),<br />
K. Tsubokura (Matsue National College o/Technology),<br />
S. Oda (Fukuyama University)<br />
and Y. Kanayama (Izumo Murata Manufacturing Co., Ltd.)<br />
Quantitative Studies <strong>of</strong>Acoustic Emission due to Leaks<br />
from Above Ground Water Tank 311<br />
K. Mor<strong>of</strong>uji, M. Tsuji (Tokyo Gas Co., Ltd.),<br />
M. Yamada, A. Maie (National Research Institute <strong>of</strong>Fire and Disaster)<br />
and S. Yuyama (Nippon Physical Acoustics Ltd.)<br />
Effect <strong>of</strong> Pinhole Shape with Divergent Exit on AE Characteristics<br />
during Gas Leak 319<br />
Y. Akematsu, K. Yoshida, K. Horikawa and K. Sakamaki (Tokushima University)<br />
Diagnosis & Evaluation II<br />
Shaft-Seal Rubbing Detection in Power Generation Thrbines<br />
using Acoustic Emission; Case Study 325<br />
D. Mba (Cranfield University, UK)<br />
Rotor-Stator Rubbing Diagnosis with Acoustic Emission 333<br />
D. Mba and L Hall (Cranfield University, UK)<br />
Collision Tests Simulated <strong>the</strong> Solid Particle Erosion and Damage<br />
on <strong>the</strong> Nozzle and Blade <strong>of</strong> a Steam Thrbine by AE Technique 341<br />
M. Maeda (Non-Destructive Inspection Co., Ltd.),<br />
T. Fume (Kyushu Electric Power Co., Ltd.)<br />
On a Feasibility <strong>of</strong> AE Monitoring to <strong>the</strong> Performance <strong>of</strong> a Steam Thrbine 347<br />
T. Furue, M. Shimizu, Y. Imaizumi (Kyushu Electric Power Co., Ltd.),<br />
M. Maeda, T. Yoshiara and T. Imanaka (Non·Destructive Inspection Co., Ltd.)<br />
Authors Index
<strong>Contents</strong><br />
Signal Processing<br />
A Nontraditional AE Source Location Algorithm Applicable to Complex Materials<br />
and Structures _ ....<br />
.................. I<br />
Oh-Yang Kwon (Inha Univ., Korea)<br />
Real Time Classification <strong>of</strong>Acoustic Emission Signals for Drive System Coupling<br />
Crack Detection. . .<br />
Valery Godinez, Fang Shu (Physical Acoustics Corp., USA),<br />
Athanasios Anastasopoulos (Envirocousrics SA., Greece),<br />
Richard Finlayson (Physical Acoustics Corp., USA)<br />
and Bruce O'Donnell (Naval Air Warfare Center Aircraft Division, USA)<br />
Challenges in Acoustic Emission Detection and Analysis for Hydraulic Fracture<br />
Monitoring .<br />
Julian Drew (Schlumberger K.K., Japan), Les Bennett (Schlumberger, Texas),<br />
Joel Le Calvez (Schlumberger, Texas) and Kristin Neilson (Schlumberger, Texas)<br />
. 15<br />
Sensor<br />
A Study on Damage Detection System Which Used Smart AE Sensor for <strong>the</strong> Structure 23<br />
Takahito Yanase and Sei Ikegawa (JUST Co., Ltd., Japan)<br />
Development <strong>of</strong> Heat-Resistant Optical Fiber AE Sensor 29<br />
Porn<strong>the</strong>p Chivavibul, Hiroyuki Fukutomi (Central Research Institute <strong>of</strong>Electric<br />
Power Industry, Japan), Shin Takahashi and Yuichi Machijima (LAZOC Inc., Japan)<br />
Hybrid Sensing <strong>of</strong>Acoustic Emission and Strain Using Optical Fibers 35<br />
Hironobu Yuki and Yuki Mine (The Univ. <strong>of</strong>Electro-Communications, Japan)<br />
Development <strong>of</strong> Stabilized and High Sensitive Optical Fiber Acoustic Emission<br />
System and Its Application.. .._ _ 43<br />
Hideo Cho, Ryouhei Arai and Mikio Takemoto (Aoyama-Gukuin Univ., Japan)<br />
Development <strong>of</strong> an Optical Micro AE Sensor w"ith an Automatic Tuning System 49<br />
Hiroshi Asanuma, Hironobu Ohishi and Hiroaki Niitsuma (Tohoku Univ., Japan)<br />
Application <strong>of</strong>AE Technique to Pro<strong>of</strong>Test <strong>of</strong> Bioceramics for Artificial Joints _ _55<br />
Toyokatsu Oshima, Satoshi Kobayashi<br />
and Shuichi Wakayama (Tokyo Metropolitan Univ., Japan)<br />
AE Characterization <strong>of</strong>Thennal Shock Crack Growth Behavior in Alumina Ceramics<br />
by Disk-on-Rod Test _ . 63<br />
Toshiya Wada, Satoshi Kobayashi and Shuichi Wakayama (Tokyo Metropolitan Univ., Japan)<br />
Materials (1) -Ceramics-<br />
-v-
Development <strong>of</strong> In-Situ Monitoring System for Sintering <strong>of</strong> Ceramics Using Laser<br />
AE Technique 69<br />
Satoshi Nishinoiri and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Acoustic Emission Behavior during Thermal Compression Tests <strong>of</strong>Ceramic Fiber Mat . 77<br />
Kaita Ito, Manabu Enoki (The Univ. a/Tokyo, Japan)<br />
and Hidetomo Takahashi (Ibiden Co .. Ltd., Japan)<br />
Evaluation <strong>of</strong> Fracture Process <strong>of</strong> Porous Ceramics Using Acoustic Emission ....<br />
Tsuguya Kojima, Satoshi Kobayashi<br />
and Shuichi Wakayama (Tokyo Metropolitan Univ., Japan)<br />
Materials (2) -Composites-<br />
Evaluation <strong>of</strong> Fatigue Damage for FRM with AE Method<br />
Masanori Takuma and Noboru Shinke (Kansai Univ., Japan)<br />
......................................................................................... 91<br />
AEs for Damage Evaluation in Cross-ply CFRP Plates Subjected to Twisting<br />
Touru Ohara, Hideo Cho and Mikio Takemoto (Aoyama-Gukuin Univ., Japan)<br />
.. 99<br />
On Edge Cracking and Transverse Cracking in CF/Epoxy Laminates..... . 105<br />
Tomohiro Yokozeki, Takashi Ishikawa (Japan Aerospace Exploration Agency, Japan)<br />
and Takahira Aoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Acoustic Emission Technique for Detecting Damage and Mechanisms <strong>of</strong> Fracture<br />
in a Knitted Fabric Reinforced Composite............. ..., ,..,., ,.... .. 111<br />
C. R. Rios (Centro de Investigacion Cientlfica de Yucatan, Mexico),<br />
S. L. Ogin, C. Lekakou (University a/Surrey, UK)<br />
and K. H. Leong (Cooperative Research Centre for Advanced Composites<br />
Structures Ltd, Australia)<br />
Acoustic Emission Behavior <strong>of</strong> Failure Processes <strong>of</strong> Glass-Fiber Laminates Under<br />
Complex State <strong>of</strong> Loading .<br />
Jerry Schmidt, Ireneusz Baran (Foundry Research Institute, Po/and)<br />
and Kanji Ona (UCLA, USA)<br />
. 119<br />
Materials (3) -Concrete, Plastics, Glass-<br />
Micromechanics <strong>of</strong> Corrosion Cracking in Concrete by AE-SiGMA , 127<br />
Farid A.K.M. Uddin and Masayasu Ohtsu (Kumamoto Univ., Japan)<br />
Fatigue Damage Progressing in Plastic during Cyclic Ball Indentation 135<br />
Takayasu Hirakawa, Akio Yonezu, Takeshi Ogawa<br />
and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
Presurser <strong>of</strong> Hydroigen Induced Glass Lining Chipping by AE Monitoring 141<br />
Kohei Murakami and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
- VI-
Structure (1)<br />
Inspection <strong>of</strong> Deaerators by The Quantitative Acoustic Emission Method 147<br />
Gregory Muravin, Boris Muravin and Ludmila Lezvinsky (Margan Physical Diagnostics Ltd., Israel)<br />
Evaluation <strong>of</strong> Acoustic Emission Technology to Locate Flaws in Glass-lined<br />
Equipment and Detennine <strong>the</strong>ir Type and Danger Level....... .. _.................. . 155<br />
Gregory Muravin. Boris Muravin<br />
and Ludmila Lezvinsky (Margan Physical Diagnostics Ltd., Israel)<br />
Examination <strong>of</strong>AE wave propagation route in <strong>the</strong> small model tank<br />
Hideyuki Nakamura, TakahiroArakawa (lshikawajima Inspection &<br />
Instrumentation Co., Ltd., Japan)<br />
and Minoru Yamada (National Reserch Institute <strong>of</strong>Fire and Disaster, Japan)<br />
...................................... 163<br />
Investigation on AE SignallNoise Processing in Corrosion Damage Evaluation <strong>of</strong><br />
Tank Bottom . 171<br />
Zhengwang Li, Shigenori Yuyama (Nippon Physical Acoustics Ltd." Japan),<br />
Minoru Yamada (National Research Institute <strong>of</strong>Fire and Disaster, Japan),<br />
Kazuyoshi Sekine (Yokohama National Univ., Japan),<br />
Shigeo Kitsukawa (High Pressure Institute <strong>of</strong>Japan, Japan),<br />
Hiroaki Maruyama (Japan Oil, Gas and Metals National Corporation)<br />
and Shigeo Konno (Petroleum Association <strong>of</strong>Japan)<br />
AE Source and Activity during Corrosion Process <strong>of</strong> Oil Tank Bottom Plate under<br />
Environment with Various pH Conditions 179<br />
Sosoon Park (Yokohama National Univ., Japan),<br />
Shigeo Kitsukawa (High Pressure Institute <strong>of</strong>Japan, Japan),<br />
Kenji Katoh (Nippon Steel Corporation, Japan),<br />
Shigenori Yuyama (Nippon Physical Acoustics Corporation Ltd." Japan),<br />
Hiroaki Maruyama (Japan Oil, Gas and Metals National Corporation, Japan)<br />
and Kazuyoshi Sekine (Yokohama National Univ., Japan)<br />
Materials (4) - Metals-<br />
The Origin <strong>of</strong> Continuous Emissions . ...<br />
Kanji Ono (UCLA, USA), H. Cho (Aoyama Oakuin Univ., Japan)<br />
and Masanori Takuma (Kansai Univ., Japan)<br />
... 187<br />
A New Acoustic Emission Parameter and Phenomenological Modeling <strong>of</strong>Acoustic<br />
Emission 195<br />
Alexei Vinogradov (Osaka City Univ., Japan)<br />
Acoustic Emission Behaviors <strong>of</strong> Recovery for Mg Alloy at Room Temperature _ 201<br />
Yunping Li and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Acoustic Emission Behavior <strong>of</strong>Hydraulically Loaded Spherical Titaniwn Test Specimens<br />
Ho-Sung Lee, Jong-Hoon Yoon, Jae-Sung Park<br />
and Yeong·Moo Yi (Korea Aerospace Research Institute, Korea)<br />
................ 209<br />
- vn-
Application <strong>of</strong> Acoustic Emission in <strong>the</strong> Study <strong>of</strong> Fracture Mechanisms in Burn<br />
Resistant ~-Titanium Alloy (Ti-25V-15Cr-2AI-O.2C)...... . 217<br />
Shukri Mohd, Abd Nasir Ibrahim (Malaysian Institute for Nuclear Technology Research, Malaysia)<br />
and Paul Bowen (Univ. <strong>of</strong>Birmingham, UK)<br />
Effect <strong>of</strong>Boron Additives on Two Peaks <strong>of</strong> AE Event Rate during Tensile Deformation<br />
<strong>of</strong> Ni 3<br />
A1 Intermetallic Compound . <strong>22</strong>5<br />
Kenichi Yoshida, Yuji Masui, Takuo Nagamachi.<br />
and Hideo Nishino (The Univ. <strong>of</strong>Tokushima, Japan)<br />
Subsurface<br />
Measurement <strong>of</strong> Hydraulically Activated Subsurface Fracture System in Geo<strong>the</strong>nnal<br />
Reservoir by Using Acoustic Emission' Multiple-clustering Analysis * 233<br />
Hirokazu Moriya, Hiroaki Niitsuma (Tohoku Univ., Japan)<br />
and Roy Baria (GEIE, France)<br />
Evaluation <strong>of</strong> Parameter Dependencies <strong>of</strong>AE Accompanying Sliding Along a Rough<br />
Simulated Fracture....................... . 239<br />
Katsumi Nemoto, Hirokazu Moriya and Hiroaki Niitsuma (Tohoku Univ., Japan)<br />
High Precision Geophone Calibration ...<br />
M. Kamata (Schlumberger K.K., Japan)<br />
.. 247<br />
Earthquake Detection by a Downhole Seismic Array ........<br />
P. Primiero and M. Kamata (Schlumberger K.K., Japan)<br />
. 255<br />
Interpretation <strong>of</strong> Reservoir Creation Process at Cooper Basin, Australia by Acoustic<br />
Emission . 263<br />
Yusuke Kumano, Hirokazu Moriya, Hiroshi Asanuma (Tohoku Univ., Japan),<br />
Nobukazu Soma (National Institute <strong>of</strong>Advanced Industrial Science and Technology, Japan),<br />
Hideshi Kaieda (eRIEPI, Japan), Kazuhiko Tezuka (Japan Petroleum Exploration Co., Ltd, Japan),<br />
Doone wyborn (Geodynamics Ltd, Australia) and Hiroaki Niitsuma (Tohoku Univ., Japan)<br />
New Application<br />
Acoustic Emission Loose Parts Monitoring 271<br />
Sotirios Vahaviolos (MISTRAS Holdings Group, USA),<br />
Mark F. Carlos (Physical Acoustics Corp., USA)<br />
and Athanasios Anastasopoulos (Envirocoustics SA, Greece)<br />
Development <strong>of</strong> a Plastic Region Tightening Method for Bolts Using AE Techniques 279<br />
Yoshihiro Mizutani and Yu Kurokawa (Tokyo Institute <strong>of</strong>Technology, Japan)<br />
Observation <strong>of</strong> Cavitation in Leaf Vein <strong>of</strong> Rubber Tree Using AE Method .. 287<br />
Kensuke Kageyama, Kazumasa Higashi and Hiroshi Kato (Saitama Univ., Japan)<br />
AE Application to Strength!Durability Assessment <strong>of</strong> a New Temporary Woody-Stool 293<br />
Toshiyuki Uenoya (Technology Research Institute <strong>of</strong>Osaka Prefecture, Japan)<br />
- VIII -
Structure (2)<br />
Acoustic Emission Detection <strong>of</strong> Impact Damage on Space Shuttle Structures<br />
William H. Prosser (NASA Langley Research Center, USA),<br />
Michael, R. Gorman (Digital Wave Corporation, USA)<br />
and Eric /. Madaras (NASA Langley Research Center, USA)<br />
.............................. <strong>30</strong>1<br />
Water-Leak Evaluation <strong>of</strong> Existing Pipeline by Acoustic Emission <strong>30</strong>9<br />
Tersuya Suzuki. Yukihumi Ikeda, Yuichi Tomada and Masayasu Ohtsu (Kumamoto Univ" Japan)<br />
Acoustic Emission Measurement <strong>of</strong> <strong>the</strong> Wheel Load Running Test .<br />
Takeshi Itah, Hiroaki Itoh,Yoshihiro Tachibana (Kawada Industries Inc" Japan)<br />
and Mitsuhiro Shigeishi (Kumamoto Unlv.• Japan)<br />
. 315<br />
Secondary AE Technique for Seismic Diagnosis <strong>of</strong> Railway Substructures .... 321<br />
Xiu Luo, Hiroshi Haya, Tomoaki Inaba (Railway Technical Research Institute, Japan),<br />
and Tomoki Shiotani (Tobishima Corporation, Japan)<br />
Diagnostics <strong>of</strong> Large-scale Equipment _ 329<br />
V. S. Kuksenko, V. N. Savelev, N. G. Tomilin (AP. l<strong>of</strong>fe Physico-Technical Institute <strong>of</strong><br />
Russian Academy <strong>of</strong>Sciences, Russia)<br />
and S.V. Elizarov (Interunis Ltd, Russia)<br />
Rocks<br />
Application <strong>of</strong> Moment Tensor Method on Microcracks in a Salt Rock Specimen<br />
Under Triaxial Load _......................... _ 333<br />
Gerd Man<strong>the</strong>i (Gesellschaftfur Materialprufung und Geophysik, Germany)<br />
Hierarchical Faulting Process in Brittle Rocks - by Means <strong>of</strong> High-speed AE<br />
Hypocenter Monitoring _ _ 345<br />
Xinglin Lei, Osamu Nishizawa, Andre Moura<br />
and Takeshi Satoh (Geological Survey <strong>of</strong>Japan, AIST, Japan)<br />
AModeling Method on Fractal Distribution <strong>of</strong> Cracks in Rocks Using AE Monitoring 353<br />
Yoshinori Watanabe, Ken-ichi Itakura,<br />
Kazuhiko Sato (Muroran Institute <strong>of</strong>Technology, Japan),<br />
Yoshiaki Fujii (Hokkaido University, Japan), Rao Balusu, Hua Guo<br />
and Xun Luo (CSlRO, Australia)<br />
AE Monitoring <strong>of</strong> <strong>the</strong> Rock Mass During Backfilling <strong>of</strong>a Large Room with Concrete _ _ 361<br />
Thomas Spies, Jiirgen Hesser (Federal Institute for Geosciences and<br />
Natural Resources BGR, Germany),<br />
Jugen Eisenblatter (Gesellschaft fur Materialprufung und Geophysik (GMuG). Germany)<br />
and Gernot Eilers (Federal Office for Radiation Protection (BfS), Germany)<br />
- ix-
Study on Fracturing Process <strong>of</strong> Rock Using Acoustic Emission Tequnique .. 369<br />
Yukio Imaizumi, Takayoshi Nagano, Toshihiko Furue (Kyushu Electric Power Co., Inc., Japan),<br />
Takahiro Ebuchi, Makoto Shindo, Takuichi Imanaka (Non-Destructive Inspection Co., Ltd., Japan)<br />
and Osamu Yoshie (Waseda Univ., Japan)<br />
The Hierarchical Model <strong>of</strong> Rock Fracture 375<br />
N.G.Tomilin,V.S Kuksenko (A. F. I<strong>of</strong>fe Physico-Technical Institute <strong>of</strong>Russian<br />
Academy <strong>of</strong>Sciences, Russia)<br />
and S.G./Azarev (Russian Federal Nuclear Center ·All·Russian Scientific Research,<br />
Institute <strong>of</strong>Experimental Physics (RFNC·VNllEF), Russia)<br />
Coating & Films<br />
AE and Electrochemical Noise Analysis for Fracture Study <strong>of</strong> Hard Surface Film 383<br />
Akio Yonezu, Hideo Cho, Takeshi Ogawa<br />
and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
Acoustic Emission from <strong>the</strong> Diamond Films Subjected to Spherical Indentation 389<br />
Masahito Hayashi (Aoyama Gakuin Univ., Japan),<br />
Ryuji Ikeda (Asahi Diamond Industrial Co., Japan),<br />
Akio Yonezu, Takeshi Ogawa, Hideo Cho<br />
and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
Rolling Contact Fatigue Damage <strong>of</strong> WC-Co Cennet Sprayed Coating and Its AE<br />
Analysis . 395<br />
Junichi Uchida, Takeshi Ogawa, Mikio Takemoto (Aoyama Gakuin Univ., Japan),<br />
Yoshifumi Kobayashi and Yoshio Harada (Tocalo Co., Japan)<br />
Fracture Type Classification <strong>of</strong> Hard Coatings during Torsional Loading by AE<br />
Analysis .. 403<br />
Ryuji Ikeda (Asahi Diamond lndustrial Co., Ltd., Japan),<br />
Hideo Cho and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
Structure (3)<br />
Pattern Recognition Techniques for Acoustic Emission Based Condition Assessment<br />
<strong>of</strong>Static Equipment in <strong>the</strong> Refining Industry<br />
Athanasios Anastasopoulos (Envirocoustics SA., Greece)<br />
41 I<br />
Evaluation <strong>of</strong> Reinforcement in Damaged Railway Concrete Piers by Means <strong>of</strong><br />
Acoustic Emission ~ ~ ~.................................................................................................. . 419<br />
Tomoki Shiotani, Yasuhiro Nakanishi, Keisuke lwaki (Tobishima Corp., Japan),<br />
XiuLuo and Hiroshi Haya (Railway Technical Research Institute, Japan)<br />
Integrity Evaluation <strong>of</strong> Glass-Fiber Reinforced Plastic Vessels by Lamb Wave AE<br />
Analysis............................................................... . 427<br />
Takashi Futatsugi (Ajinomoto Co. Inc., Japan)
Acoustic Emission Evaluation <strong>of</strong> Tubular Reactor in Low Density Poly-Ethylene<br />
Plant During Repeated Pressurization ...<br />
Shigenori Yuyama, Zhengwang Li (Nippon Physical Acoustics Ltd),<br />
Mike Jean and Hi Sung Lee (Samsung AlOfina Co., Ltd, Korea)<br />
. 435<br />
Relationship between Damage Caused by Collision <strong>of</strong> Steam Oxidized Scales in<br />
Electric Generation Steam Turbine and Acoustic Emission Signal Parameters ..<br />
Yukio Imaizumi, Toshihiko Furue (Kyushu Electric Power Co., Inc., Japan),<br />
Morihiko Maeda, Toshikatsu Yoshiara, Takuichi Imanaka<br />
(Non-Destructive Inspection Co., Ltd., Japan) and Osamu Yoshie (Waseda Univ., Japan)<br />
...... 443<br />
Materials (5) - Metals -<br />
Evaluation <strong>of</strong> Fracture Behavior <strong>of</strong> SA-516 Steel Welds Using Acoustic Emission<br />
Analysis . :....... . ~..<br />
Na Eui Gyun (Kunsan National Univ., Korea) and Kanji Ono (UCLA, USA)<br />
. .451<br />
Effect <strong>of</strong> Structure Anisotropy on <strong>the</strong> Delayed Fracture Susceptibility <strong>of</strong> Inner<br />
Diameter Blade.................... .............................................................•. . 459<br />
Yuichi Haketa, Hideo Cho (Aoyama Gakuin Univ., Japan),<br />
Ryuji Ikeda (Asahi Daiamond Co., Japan) and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
AE Monitoring <strong>of</strong> Bearings Integrity Under Rolling I Sliding Condition 465<br />
Yoshihiro Ono (Koyo Seiko Co., Ltd., Japan),<br />
Alexei Vinogradov (Osaka City University, Japan),<br />
Kenji Asano (Kayo Seiko Co., Ltd.)<br />
and Satoshi Hashimoto (Osaka City University, Japan)<br />
AE and Corrosion Potential Fluctuation from Chloride SCC <strong>of</strong> Weld AISI<strong>30</strong>4 Pipe<br />
under Heat Flux ~ _ 473<br />
Akio Yonezu, Hideo Cho and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
Acoustic Emission for Fatigue Damage Detection <strong>of</strong> Stainless Steel Bellows 481<br />
Koji Kagayama, Akio Yonezu, Hideo Cho, Takeshi Ogawa<br />
and Mikio Takemoto (Aoyama Gakuin Univ., Japan)<br />
-xi-
Sensor I<br />
<strong>Contents</strong><br />
Development <strong>of</strong> Measurement System Using Optical Fiber AE Sensors for Actual Piping 3<br />
S. Nishinoiri, P. Chivavibul, H. Fukutomi and T. Ogata (Central Research Institute <strong>of</strong><br />
Electric Power Industry, Japan)<br />
Simultaneous Measurement <strong>of</strong> Acoustic Emission and Strain Using a Hybrid Optical<br />
Fiber Sensor 11<br />
H. Yuki and Y. Mine (The Univ. <strong>of</strong>Electro-Communications, Japan)<br />
Development <strong>of</strong> a New Cascade Multi-Sensor Optical Fiber AE System 19<br />
T. Matsuo, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Effect <strong>of</strong> Plate Thickness on Acoustic Emission Wave Propagation during Single Pulse<br />
Discharge 27<br />
Y. Akematsu, K. Kageyama, N.Mohri and H. Murayama (The Univ. <strong>of</strong> Tokyo, Japan)<br />
Fracture<br />
Study on Evaluation <strong>of</strong> Defonnation Behaviors for <strong>the</strong> Weldment <strong>of</strong> Pressure Vessel Steel<br />
Using AE Technique 35<br />
G. Na Eui (Kunsan National Univ., Korea), H. Kim (Chonnam Univ., Korea)<br />
and K. Ono (Univ. <strong>of</strong>California, Los Angels, USA)<br />
Flaw Development in High Chromium Steels and Associated Acoustic Emission 41<br />
G. Muravin, B. Muravin and L. Lezvisky (Margan Physical Diagnostics Ltd., Israel)<br />
Acoustic Emission <strong>of</strong> Sensitized <strong>30</strong>4 Stainless Steel with Simultaneous Hydrogen<br />
Charging 55<br />
S. H. Catpenter (Univ. <strong>of</strong>Denver, USA), K. Ono (Univ. <strong>of</strong>California, Los Angels, USA)<br />
and D. Armentrout (Univ. <strong>of</strong>Denver, USA)<br />
Quantitative Detection <strong>of</strong> Microcracks in Fracture Process <strong>of</strong> Bioceramics by Acoustic<br />
Emission Source Characterization 61<br />
T. Jibiki, S. Wakayama (Tokyo Metropolitan Univ., Japan)<br />
and J. Ikeda (Japan Medical Material, Japan)<br />
Sensor II<br />
High-Temperature Acoustic Emission Sensor Using Thin Film 69<br />
H. Noma, E. Ushijima, Y. Ooishi, MAkiyama, N. Miyoshi, T. Tabaru, K. Kishi, A. Kakami,<br />
I. Ohshima, T. Kamohara (National Institute <strong>of</strong>Advanced Industrial Science and Technology,<br />
Japan), Y. Imaizumi and T. Furue (Kyushu Electric Power Co., Inc., Japan)<br />
Molecular Dynamics Study on Acoustic Emission in Carbon Nanotube Probe and Metal<br />
Surface System 75<br />
H. Takeshita, K. Saitoh, N. Shinke and M. Takuma (Kansai Univ., Japan)<br />
-v-
Evaluation <strong>of</strong>AE Behavior <strong>of</strong> Pure Copper for Smart Stress Memory Patch 83<br />
S. Nambu and M. Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
AE-Testing in Potentially Explosive Atmospheres Using Intrinsically Safe Certified<br />
Equipment 91<br />
H. Vallen, J. Vallen and J. Forker (Vallen-Systeme GmbH, Germany)<br />
Manufacturing<br />
Application <strong>of</strong>Acoustic Emission Technique in Punch Press Process Monitoring 103<br />
S. Zhang, S. Nishimoto and S. Yuyama (Nippon Physical Acoustics Ltd., Japan)<br />
Study on Evaluation System <strong>of</strong>Tool Life for Shearing - Wavelet Transform and Chaos<br />
Time Series Analysis <strong>of</strong>AE signals - 109<br />
M. Takuma, N. Shinke (Kansai Univ., Japan), T. Nishiura (AISIN AW Co., Ltd, Japan)<br />
and K. Akamatu (Sankyo Seiki Industry Co., Ltd, Japan)<br />
Monitoring <strong>of</strong> Die Cutting with Wide Band Type Acoustic Emission Sensors<br />
- Description <strong>of</strong> Machining Environment, Down Cutting and Up Cutting - 117<br />
K. Muto (The Polytechnic Univ., Japan), T. Takagi (Mitsubishi Motors Corporation, Japan)<br />
and M. Tsutsumi (Tokyo Univ. <strong>of</strong>Agriculture and Technology, Japan)<br />
Concrete & Rock<br />
Determination <strong>of</strong>Wave Attenuation in Rock Salt in <strong>the</strong> Frequency Range 1-100 kHz<br />
Using Located Acoustic Emission Events 129<br />
G. Man<strong>the</strong>i, J. Eisenbliitter (Gesellschaftfur Materialprufung und Geophysik mbH, Germany)<br />
and T. Spies (Federal Institutefor Geosciences and Natural Resources, Germany)<br />
Multiplet Analysis for Estimation <strong>of</strong> Structures inside an AE Cloud Associated with<br />
a Compression Test <strong>of</strong> a Salt Rock Specimen 137<br />
H. Moriya (Tohoku Univ., Japan), G. Man<strong>the</strong>i (Gesellschaft fur Materialprufung und<br />
Geophysik mbH, Germany), H. Niitsuma (Tohoku Univ., Japan)<br />
and J. Eisenbliitter (Gesellschaftfur Materialprufung und Geophysik mbH, Germany)<br />
Acoustic Emission Behavior <strong>of</strong> Prestressed Concrete Girder During Pro<strong>of</strong> Loading 145<br />
L. Golaski, G. Swit (Kielce Univ. <strong>of</strong>Technology, Poland)<br />
and K. Ono (Univ. <strong>of</strong>California, Los Angels, USA)<br />
Damage Diagnosis <strong>of</strong> Railway Concrete Structures by Means <strong>of</strong> One-Dimensional AE<br />
Sources 153<br />
T. Shiotani (Tobishima Corporation, Japan),<br />
X. Luo and H. Haya (Railway Technical Research Institute, Japan)<br />
Industrial Application<br />
Application <strong>of</strong>Acoustic Emission Technology in Rotary Machine Process Monitoring 163<br />
S. Zhang, S. Nishimoto and S. Yuyama (Nippon Physical Acoustics Ltd., Japan)<br />
- vi-
Acoustic Emission Pattern Recognition Analysis Applied to <strong>the</strong> Over-strained Pipes in A<br />
Polyethylene Reactor 169<br />
M. Nowak, I. Baran (Foundry Research Institute, Poland) and K. Ono (Univ. o/California, Los Angels,<br />
USA)<br />
Crack Initiation and Propagation Monitoring Using Acoustic Emission Technique (AET)<br />
During Ratcheting Tests on Elbow Pipes <strong>of</strong> PHWRs 175<br />
S. Bhattacharya, H. R. Mehta, A. K. Singh, K. G. Menon, V. S. Mageshkumar,<br />
H. S. Kushwaha, K. K. Vaze, V. Bhasin and S. K. Gupta (Bhabha Atomic Research Center, India)<br />
Quantitative Acoustic Emission Experience in Power Industry 183<br />
B. Muravin, G. Muravin, G. Kravetz and Y. Duchin (Margan Physical Diagnostics Ltd., Israel)<br />
Deformation<br />
Evaluation <strong>of</strong> Two Types <strong>of</strong> Martensitic Transformations in Cu-AI-Ni Shape Memory<br />
Alloy Single Crystal by Acoustic Emission Waveform Analysis 197<br />
T. Yasuda, D. Tani, H. Nishino and K. Yoshida (The Univ. o/Tokushima, Japan)<br />
Optical Fiber System for AE Monitoring from High Temperature Damages <strong>of</strong>Tube 205<br />
T. Hayano, T. Matsuo, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Plastic-region Bolt Tightening Using AE-Wrench 213<br />
Y. Mizutani, T. Onishi and M. Mayuzumi (Tokyo Institute o/Technology, Japan)<br />
Analysis <strong>of</strong> Recovery Process <strong>of</strong> Pure Metals at Room Temperature by Acoustic Emission <strong>22</strong>1<br />
Y. Li and M. Enoki (The Univ. o/Tokyo, Japan)<br />
Advanced AE I<br />
Frequency Filtering Algorithms <strong>of</strong> Plate Wave AE for Source Location 231<br />
Y. Kurokawa, Y. Mizutani and M. Mayuzumi (Tokyo Institute o/Technology, Japan)<br />
Moment Tensors <strong>of</strong> In-Plane AE Waves Analyzed by SiGMA-2D 239<br />
K. Ohno (Kumamoto Univ., Japan), T. Suzuki (Nihon Univ., Japan), S. Shimozono<br />
and M. Ohtsu (Kumamoto Univ., Japan)<br />
A New "Embedded Code Processor" Combines Any User-Written Analysis Algorithm<br />
with a Versatile Commercial AE S<strong>of</strong>tware Package 247<br />
H. Vallen, J. Vallen and J. Forker (Vallen-Systeme GmbH, Germany)<br />
Damage Evaluation<br />
Damage Evaluation <strong>of</strong> Existing Asbestos-Cement Pipe by Acoustic Emission 257<br />
T. Suzuki (Nihon Univ., Japan), K. Ohno and M. Ohtsu (Kumamoto Univ., Japan)<br />
AE Monitoring <strong>of</strong> Microdamage during Pro<strong>of</strong>Test <strong>of</strong> Bioceramics for Artificial Joints 263<br />
C. Ikeda, S. Wakayama (Tokyo Metropolitan Univ., Japan)<br />
and J. Ikeda (Japan Medical Materials Corporation, Japan)<br />
- vii-
Characteristics <strong>of</strong> Damage and Fracture Process <strong>of</strong> Solid Oxide Fuel Cells under Simulated<br />
Oprerating Conditions by Using AE Method 269<br />
K. Sato, T. Hashida, H. Yugami, K. Yashiro, T. Kawada and J. Mizusaki (Tohoku Univ., Japan)<br />
Elastic Waves from Fast Heavy-Ion Irradiation on Solids 277<br />
T. Kambara, Y. Kanai, T. Kojima, Y. Nakai, A. Yoneda, Y. Yamazaki (RIKEN, Japan)<br />
and K. Kageyama (Saitama Univ., Japan)<br />
Poster Session<br />
AE Signal Analysis <strong>of</strong> Brass 286<br />
K. Ono (Univ. <strong>of</strong>California, LosAngels, USA)<br />
Acoustic Emission for Crevice Corrosion Monitoring <strong>of</strong> Stainless Steel... 287<br />
M. Kondo, T. Matsuo, A. Yonezu, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
AEs from Titanium during Thermal Twinning and Hydrogen Charging 295<br />
Y. Taniyama, T. Matsuo, H. Cho, M. Takemoto (A oyama Gakuin Univ., Japan)<br />
and G. Nakayama (Ishikawajima Harima Heavy Industry Co., Ltd., Japan)<br />
AE and Pulse Laser Spallation for Adhesive Strength <strong>of</strong> Modified Surface Layers <strong>30</strong>3<br />
T. Uchiyama (Aoyama Gakuin Univ., Japan), R. Ikeda (Asahi Diamond Co., Ltd., Japan),<br />
H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Multi-Channel Optical Fiber AE System for Water Born Acoustic Emission from Corrosion 311<br />
T. Matsuo, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Fatigue Strength Evaluation <strong>of</strong> Hard Surface Film by Indentation 319<br />
A. Yonezu, M. Hayashi, H. Cho, T. Ogawa and M.Takemoto (A oyama Gakuin Univ., Japan)<br />
Source Location <strong>of</strong> Floor Plate Corrosion <strong>of</strong> Model Tank Using Multi-sensing Optical<br />
Fiber AE System 327<br />
T. Matsuo, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Acoustic Emission Analysis <strong>of</strong> Micro Fractures in Cu/Low-K Interconnects 335<br />
K. Yoneda, J. Yei (NISSAN ARC, LTD., Japan) and T. Ohba (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Composite<br />
Acoustic Emission Detection <strong>of</strong> Damage Evolution in Short-Fiber Composites 343<br />
J. Schmidt, I. Baran, M. Nowak (Foundry Research Institute, Poland)<br />
and K. Ono (Univ. <strong>of</strong>California, Los Angels, USA)<br />
Utilization <strong>of</strong> Cascade Multi-sensing Optical Fiber AE System for Source Location <strong>of</strong><br />
Lamb Waves through Cross-ply CFRP Plate 349<br />
T. Matsuo, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Application <strong>of</strong>Acoustic Emission during Pro<strong>of</strong> Tests <strong>of</strong>Adhesive Joints 357<br />
V. Svoboda, F. Zemlit!ka (Preditest Ltd.), M. Rutit!ka (Prague Technical Univ.)<br />
- viii -
Influence <strong>of</strong> Receiver Plate on <strong>the</strong> Sensitivity for AE Measurement <strong>of</strong> Tomato Using<br />
Piezoelectric Sensor 359<br />
K. Kageyama and H. Kato (Saitama Univ., Japan)<br />
Acoustic Emission Rate Behavior <strong>of</strong>Laminated Wood Specimens under Tensile Loading 367<br />
A. J. Brunner (Empa, Switzerland), M. T. Howald and P. Niemz (ETH, Switzerland)<br />
Tank<br />
Lamb Wave Acoustic Emission for Condition Monitoring <strong>of</strong>Tank Bottom Plates 373<br />
M. Takemoto, H. Cho (Aoyama Gakuin Univ., Japan)<br />
and H. Suzuki (Chiyoda Advanced Solutions Co., Japan)<br />
Verification <strong>of</strong>AE Evaluation on Floor Conditions in Above Ground Tanks by<br />
Comparison <strong>of</strong>AE Data and Floor Scan Inspection 381<br />
S. Yuyama (Nippon Physical Acoustics Ltd., Japan),<br />
M. Yamada (National Research Institute <strong>of</strong>Fire and Disastel~Japan),<br />
K. Sekine (Yokohama National Univ., Japan)<br />
and S. Kitsukawa (High Pressure Institute <strong>of</strong>Japan, Japan)<br />
AE Analysis from Bottom Plate Corrosion <strong>of</strong> Oil Tank 389<br />
H. Cho, T. Matsuo (Aoyama Gakuin Univ. Japan),<br />
H. Suzuki (Chiyoda Advanced Solutions Co., Japan)<br />
and M. Takemoto (Aoyama Gakuin Univ. Japan)<br />
HPIS (High Pressure Institute <strong>of</strong> Japan) Recommended Practice for Acoustic Emission<br />
Evaluation <strong>of</strong> Corrosion Damages in Bottom Plate <strong>of</strong>Above Ground Tanks 397<br />
S. Yuyama (Nippon Physical Acoustics Ltd., Japan),<br />
M. Yamada (National Research Institute <strong>of</strong>Fire and Disaster, Japan),<br />
K. Sekine (Yokohama National Univ., Japan)<br />
and S. Kitsukawa (High Pressure Institute <strong>of</strong>Japan, Japan)<br />
Advanced AE II<br />
Advanced Multichannel Acoustic Emission Analysis System 407<br />
S. Bhattacharya, H. R. Mehta, A. K. Singh, K. G. Menon<br />
and V. S. Mageshkumar (Bhabha Atomic Research Center, India)<br />
Damage Evaluation during Plasma Spraying by In-situ Laser AE and Transient Heat<br />
Stress Analysis , 415<br />
K. Taniguchi (The Univ. <strong>of</strong>Tokyo, Japan),<br />
S. Nishinoiri (Central Research Institute <strong>of</strong>Electric Power Industry, Japan),<br />
M. Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
and K. Tomita (Industrial Technology <strong>of</strong>Fukui Prefecture, Japan)<br />
Damage Evaluation by Frequency Analysis <strong>of</strong> Continuous Recorded AE Waveform .423<br />
K. Ito and M. Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
-IX -
Fatigue<br />
Fatigue Crack Growth Behavior <strong>of</strong> and Recognition <strong>of</strong>AE Signal from a Composite<br />
Patch-Repaired Al Panel 431<br />
O. Kwon and S. Kim (Inha Univ., Korea)<br />
Acoustic Emission in Bending Fatigue Process <strong>of</strong> Sintered Metal Spur Gear Teeth 439<br />
K. Miyachika (Tottori Univ., Japan), Y. Zheng (Chang'an Univ., China),<br />
Y. Kanayama (Izumo Murata Manufacturing Co. Ltd., Japan),<br />
T. Koide (Tottori Univ., Japan), W. Xue (Yokohama National Univ., Japan)<br />
and S. Oda (Fukuyama Univ., Japan)<br />
Acoustic Emission Caused by Fatigue Fracture <strong>of</strong>AI-Mg-Si Alloys 447<br />
K. Yoshida, H. Miyake, N. Hamada and H. Nishino (The Univ. <strong>of</strong>Tokushima, Japan)<br />
Static and Cyclic Indentation Test <strong>of</strong> Diamond Film Using AE Analysis 455<br />
R. Ikeda (Asahi Diamond Industrial Co., Ltd., Japan), M. Hayashi, A. Yonezu,<br />
H. Cho, T. Ogawa and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Fatigue Fracture Dynamics <strong>of</strong>High Strength Steel Studied by Acoustic Emission Technique 463<br />
A. Yonezu, T. Ogawa and M.Takemoto (A oyama Gakuin Univ., Japan)<br />
Corrosion<br />
AE and Corrosion Potential Fluctuation (CPF) for Environmental Assisted Fracture 473<br />
K. Kagayama, T. Ogawa, A Yonezu, H. Cho and M. Takemoto (Aoyama Gakuin Univ., Japan)<br />
Growth Characteristics and AE Analysis <strong>of</strong> Hydrogen Enbrittlement Cracking <strong>of</strong> Sensitized<br />
Dual Phase Stainless Steel 481<br />
T. Ogawa, K. Kagayama and M. Takemoto (A oyama Gakuin Univ., Japan)<br />
AE for Susceptibility Evaluation <strong>of</strong>Type <strong>30</strong>4 Steel to Polythionic Acid Stress Corrosion<br />
Cracking 489<br />
A Yonezu, H. Cho and M. Takemoto (A oyama Gakuin Univ., Japan)
Special Lecture<br />
<strong>Contents</strong><br />
New Trend in Materials Research and Nondestructive Evaluation _..· _ -.. ····.. ·.. (1)<br />
Teruo Kishi (president, National institutefor Materials Science, Japan)<br />
Keynote Lecture<br />
Monitoring <strong>the</strong> Civil Infrastructure with Acoustic Emission: Bridge Case Studies (7)<br />
Robert Hay, Vasile Mustafa (president, TISEC Inc., Canada)<br />
and Jose A.Cavaco (Canadian National Railways, Canada)<br />
Senser 1<br />
Measurement <strong>of</strong>Plate Thickness by Using Optical Fiber Sensor<br />
_········1<br />
Yoshiaki Akematsu (Niihama National College <strong>of</strong>Technology, Japan),<br />
Kazuro Kageyama, Haotalee Mohri and Hideaki Murayama (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Wireless Acoustic Emission Sensors and Applications· ·- ··· ·· · ···-7<br />
Sotirios Vahaviolos (Mistras Holdings Group, USA),<br />
Mark Carlos, Ed Lowenhar (physical Acoustics Corp., USA)<br />
and Phil Cole (physical Acoustics Ltd., UK)<br />
Influence <strong>of</strong>Selected Sources <strong>of</strong>Uncertainty on AE Sensor Primary Calibration ·15<br />
Jiri Keprt and Petr Benes (Brno Univ. <strong>of</strong>Technology, Czech Republic)<br />
Development <strong>of</strong>Non-Resonant Optical Fiber AE Sensors for Measuring<br />
Low-Frequency Signals ···························23<br />
Tatsuro Kosaka, Nobuyuki Koyanagi, Katsuhiko Osaka<br />
and Yoshihiro Sawada (Osaka City Univ., Japan)<br />
Electromagnetic Method <strong>of</strong>Elastic Wave Generation for Acoustic Emission<br />
Sensor Cal.ibration ·29<br />
Sergey Lazarev, Andrey Shvedov (Microsensors Ae, Ltd., Russia) ,<br />
Alexei Vinogradov (Osaka City Univ., Japan)<br />
and Alexander Mozgovoi (Institute <strong>of</strong>Experimental Physics, Russia)<br />
Corrosion Detection by Fiber Optic AE Sensor -···· ············.. ·············37<br />
Yuichi Machijima, Masahiro Azemoto (Lazoc Inc., Japan)<br />
Toyokazu Tada and Hisakazu Morl (Sumitomo Chemical Co. & Ltd., Japan)<br />
Senser 2<br />
Blockage Monitoring <strong>of</strong>Pipes by Shellfishes Utilizing an Optical Fiber AE System ·········45<br />
Takuma Matsuo, Yuta Mizuno andHideo Cho (Aoyama Gakuin Univ., Japan)<br />
Durability Improvement <strong>of</strong>Heat-Resistant Optical Fiber Sensor and<br />
Estimation <strong>of</strong>Its AE Detectability ·····················································-···············53<br />
Satoshi Nishinoiri, Hiroyuki Fukutomi<br />
and Takashi Ogata (Central Research Institute <strong>of</strong>Electric Power Industry, Japan)
Improvement <strong>of</strong>Sensing Ability <strong>of</strong><strong>the</strong> Hybrid Optical Fiber Sensor for<br />
Acoustic Emission and S1:ra.in 61<br />
Hiroyuki Ohkoshi and Hironobu Yuki (The Univ. <strong>of</strong>Electro-Communications, Japan)<br />
AE Behavior <strong>of</strong>Smart Stress Memory Patch Applied to Steel Bar······ ·67<br />
Takayuki Shiraiwa and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Materials 1<br />
Wavelet Transform Analysis <strong>of</strong>AE in Layer-Integrated Steels during<br />
Tensile Defonn..ation --_ -75<br />
Yuichiro Hirose, Shoichi Nambu and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Development <strong>of</strong>Diagnostic Equipment Based on Acoustic Emission Measurements during Ion<br />
Beam. Material Processing ··············································································83<br />
M. Silkin andN. Styervoyedov (Kharkov National University named after Jl: N. Karazin,<br />
Ukraine)<br />
Evaluation <strong>of</strong>Fatigue Crack Growth Characteristics <strong>of</strong>Cermet Studied<br />
by Acoustic Emission Technique·· ···-··································································89<br />
Tatsunori Sunouchi, Hideo Cho, Takeshi Ogawa (Aoyama Gakuin Univ., Japan)<br />
and Yoshifumi Kobayashi (TOKALO Co., Ltd., Japan)<br />
Study on Crack Repair <strong>of</strong>AL03 Ceramics by YAG Laser Irradiation-Evaluation<br />
for Recovery Condition <strong>of</strong>Bending Strength Based on Chaos Analysis Results<br />
<strong>of</strong>AE Signal ,. ··95<br />
Masanori Takuma, Noboru Shinke, Yutaka Matui and Yusuke Tomatsu (Kamai Univ., Japan)<br />
Materials 2<br />
Liquid Boiling and Liquid Drop Evaporation as Acoustic Emission Sources ··················103<br />
Petr Benes and Jiri Keprt (Brno Univ. <strong>of</strong>Technology, Czech Republic)<br />
Identification <strong>of</strong>Defects Under Loading by Wavelet Analysis <strong>of</strong><br />
Acoustic Emission Signals ······················· ,. ········ ,. ··········································109<br />
Oleg ~ Bashkov, Nikolay A. Smashko, Dimiotri A, Shpak<br />
(Komsomolsk-on-Amur State Technical Univ., Russia)<br />
and Sergey "V: Panin (Institute <strong>of</strong>Strength Physics and Materials Science <strong>of</strong>SB RAS, Russia)<br />
Early Identification <strong>of</strong>Hydrogen Embrittlement by Indentation with<br />
Acoustic Emission Measurements ·····································································115<br />
Dmitry. L. Merson, Denis E, Mesheryakov (Togliatti State Univ., Russia)<br />
and Alexei Vinogradov (Osaka City Univ., Japan)<br />
Materials 3<br />
Effect <strong>of</strong>Sensitization Treatment on Hydrogen Embrittlement Cracking <strong>of</strong><br />
Duplex S1:ainless Steel ··121<br />
Keisuke Kurose, Hideo Cho, Takeshi Ogawa<br />
and Mildo Takemoto (Aoyama Gakuin Univ., Japan)
Continuous and Burst AE Signal Analyses during Chloride Droplet SCC on<br />
Thin Plate <strong>of</strong>SUS<strong>30</strong>4 Steel ···.. ·.. ··.. ·.. · · · ···· · ··129<br />
Mitsuharu Shiwa, Hisashi Yamawaki, Hiroyuki Matsuda (National Institutefor Materials<br />
Science, Japan),<br />
Kaita Ito and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Effect <strong>of</strong>Shot Peening on <strong>the</strong> Delayed Fracture Using <strong>the</strong> AImen Strip and<br />
AE Technique ·135<br />
Mikio Takemoto, Motoaki Nakamura, Seiji Masano<br />
and Shuichi Ueno (Kanmeta Engineering Co., Ltd., Japan)<br />
Materials 4<br />
Evaluation <strong>of</strong>Deformation and Recovery Mechanism <strong>of</strong>Mg Alloys by<br />
AE Frequency Analysis ·················································································143<br />
Nobuhito Tsurui and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Acoustic Emission Behavior during Deformation <strong>of</strong>Al-Mg-Si Alloys ····...·....·.. ·.. ······151<br />
Masaki Numaue, Yusuke Kuniyasu, Hideo Nishino<br />
and Kenichi Yoshida (The Univ. <strong>of</strong>Tokushima, Japan)<br />
Frequency Analysis <strong>of</strong>Acoustic Emission during Deformation Process<br />
in Electrical Steel .. ·····················································································157<br />
Sabrina A. Khan, Petr Sedlak and Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan)<br />
Acoustic Emission during Tensile and Fatigue Test <strong>of</strong>Balloon-Expanding<br />
Cardiovascul.ar Stents· ···················································································163<br />
Lei Shen, Manabu Enoki (The Univ. <strong>of</strong>Tokyo, Japan),<br />
Kumi Salalrai, Seigo Ohnishi (Medtronic Japan Co., Ltd., Japan)<br />
and Masato Nakamura (Toho Univ. Ohashi Medical Center, Japan)<br />
Materials 5<br />
Growth Development <strong>of</strong>Martensitic Transformation Behavior in<br />
Cu-Al-Ni Shape Memory Alloy Based on Experimental AE Simulation ·171<br />
Takeshi Yasuda, Shinya Kondo, Hideo Nishino<br />
and Kenichi Yoshida (The Univ. <strong>of</strong>Tokushima, Japan)<br />
Relation between Plastic Instabilities in Iron and Power Spec1nun <strong>of</strong><br />
Acoustic Emission ···································································179<br />
Alexey Lazarev, Alexei Vinogradov and Satoshi Hashimoto (Osaka City Univ., Japan)<br />
Threshold Parameteres and Damage Accumulation Pr<strong>of</strong>ile in C/C Composites<br />
Monitored by Acoustic Emission Response .... 10<br />
Arie Bussiba, Moshe Kupiec, Rami Carmi, Igal Alon (Nuclear Reserch Centre Negev, Israel),<br />
Romana Piat and Thomas bOhlke (Univ. <strong>of</strong>Karlsruhe, Germany)<br />
• • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • • ·187<br />
Fundamental Study on Integrity Evaluation Method for COPVs by<br />
Means <strong>of</strong>Acoustic Emission Testing···········~······················································195<br />
Yoshihiro Mizutani, Ryosuke Matsuzaki andAkira Todoroki (Tokyo Institute <strong>of</strong>Technology,<br />
Japan)
Acoustic Emission Behavior <strong>of</strong>Metal-Fiber Laminates ·..· ····· ·· ·· ·203<br />
Kanji Ono (Univ. <strong>of</strong>California, Los Angeles, USA)<br />
Materials 6<br />
Fracture Behavior in Bone Characterized by AE Wavelet Analysis ·209<br />
Shuichi Wakayama, Keisuke Mogi<br />
and Tetsuya Suemune (Tokyo Metropolitan Univ., Japan)<br />
Influence <strong>of</strong>Drought Stress Induced by Cutting Stem on AE Behavior<br />
in Miniature Tomato 215<br />
Kensuke Kageyama, Yosuke Inoue andHiroshi Kato (Saitama Univ., Japan)<br />
Non-Destructive Evaluation <strong>of</strong>Termite Attack in Wood Using<br />
Acoustic Emission Monitoring and Ceramic Gas Sensor -··········<strong>22</strong>3<br />
Yoshiyuki Yanase, Yoshihisa Fujii, Shogo Okumura, Tsuyoshi Yoshimura<br />
and Yuji Imamura (Kyoto Univ., Japan)<br />
Acoustic Emission Techniques for Wood Dryings - A Review··· .. ·.. · ··231<br />
Sumire Kawamoto (Foresty and Forest Products Research Institute, Japan)<br />
and Shogo Okumura (Kyoto Univ., Japan)<br />
Signal Processing<br />
A Method for Locating Acoustic Emission Signal Sources by a Single Sensor ···············237<br />
Oleg ~ Bashkov, Nikolay A. Smashko, Dimiotri A, Shpak<br />
(Komsomolsk-on-Amur State Technical Univ., Russia)<br />
and Sergey ~ Panin (Institute <strong>of</strong>Strength Physics and Materials Science <strong>of</strong>SB RAS, Russia)<br />
Crack Localization Using Wavelet Transformation <strong>of</strong>Dispersive Waves<br />
in Steel Plates·········· _ -. _ _ -243<br />
Petr Sedlak, Sabrina A. Khan, Yuichiro Hirose and Manabu Enoki (Fhe Univ. Tokyo, Japan)<br />
New Dual AE Signal Processor with Digital Filter Capabilities ·251<br />
Hartmut Vallen and Jochen Vallen (Vallen Systeme GmbH, Germany)<br />
Manufacturing<br />
In-Situ Detection <strong>of</strong>Delamination Cracks during Plasma Coating Process<br />
by Laser AE Method ······························257<br />
Kaita Ito, Satoshi Ohmata, Manabu Enoki (Fhe Univ., Tokyo, Japan),<br />
Makoto Watanabe and Seiji Kuroda (National Institutefor Materials Science, Japan)<br />
Source Analysis <strong>of</strong>AE inThermal Barrier Coating during Air Plasma<br />
Spraying Process ·265<br />
Satoshi Ohmata, Kaita Ito, Manabu Enoki (Fhe Univ. <strong>of</strong>Tokyo, Japan),<br />
Makoto Watanabe and Seiji Kuroda (National Institutefor Materials Science, Japan)<br />
Effects <strong>of</strong>Coated Layer during Die Cutting Process on <strong>the</strong> AE and<br />
Cutting Properties <strong>of</strong>Paperboard ········· .. ···273<br />
Ippei Kohsaka, Yasushi Fukuzawa, Shigeru Nagasawa (Nagaoka Univ. <strong>of</strong>Technology, Japan)<br />
and Shigekazu Suzuki (Fukushima National College <strong>of</strong>Technology, Japan)
AE Analysis on Blade Cutting Pressure Adjustment in Dynamic Cutting<br />
<strong>of</strong>Paperboard·····························································································281<br />
Darulihsan A. Hamid, Shigeru Nagasawa, Yasushi Fukuzawa<br />
(Nagaoka Univ. <strong>of</strong>Technology, Japan)<br />
andAkira Hine (Katayama Steel Rule Die Inc., Japan)<br />
Concrete 1<br />
Acoustic Emission Monitoring <strong>of</strong>Steel Fibre Reinforced Concrete<br />
Beams Under Bending ·················································································287<br />
Dimitrios G. Aggelis, Dimitra Soulioti, Nektaria M. Barkoula, Alkiviadis S. Paipetis,<br />
Theodore E. Matikas (Univ., <strong>of</strong>Ioannina, Greece)<br />
and Tomoki Shiotani (Kyoto Univ., Japan)<br />
Study <strong>of</strong>Kaiser Effect in Concrete Material under Cyclic Loading ······························295<br />
Wen-Chung Ko and Chi-Wen Yu (Sinotech Engineering Consultants, Inc., Taiwan)<br />
AE Properties <strong>of</strong>Spalling Crack Induced by Reinforcement Corrosion ························<strong>30</strong>3<br />
Satoshi Takaya, Takashi Yamamoto and Toyoaki Miyagawa (Kyoto Univ., Japan)<br />
Acoustic Emission for Characterizing Behavior <strong>of</strong>Composite Concrete<br />
Elements under Flexme ····················<strong>30</strong>9<br />
Momoki Shohei, Hwakian Chai, Akinobu Hirama (Tobishima Corp., Japan),<br />
Dimitrios G. Aggelis (Uni"., <strong>of</strong>Ioannina, Greece)<br />
and Tomoki Shiotani (Kyoto Univ., Japan)<br />
Concrete 2<br />
Acoustic Emission Technique Based Investigation <strong>of</strong>Old Bridge Girders ·····················317<br />
Aljosa Sajna and TIna Bremec (Slovenian National Building and Civil Engineering Insitute,<br />
Slovenia)<br />
Flexural Failure Behavior <strong>of</strong>RC Beams with Rebar Corrosion and<br />
Damage Evaluation by Acoustic Emission ·························································325<br />
Minoru Kunieda, Hikaru Nakamura (Nagoya Univ., Japan ),<br />
Nobuhiro Okude (I'okai Technology Center, Japan)<br />
and Tomold Shiotani (Kyoto Univ., Japan)<br />
Weibull Distribution Analysis <strong>of</strong>Acoustic Emission in Compression Test <strong>of</strong>Concrete ······333<br />
Mika Tsukioka and Mitsuhiro Shigeishi (Kumamoto Univ., Japan)<br />
Corrosion Process <strong>of</strong>Steel Bar in Reinforced Concrete by Acoustic Emission ···············341<br />
Yuichi Tomoda and Masayasu Ohtsu (Kumamoto Univ., Japan)<br />
Concrete 3<br />
Classification <strong>of</strong>Micro-Cracks Generated in Concrete by Acoustic Emission··················347<br />
Kentaro Ohno, Yosuke Sawada, Kosuke Utsunomiya<br />
and Masayasu Ohtsu (Kumamoto Univ., Japan)<br />
Evaluation <strong>of</strong>Compressive Failure Behavior <strong>of</strong>Concrete with Coarse Aggregate<br />
Soaked in Mineral Oil by Acoustic Emission ··································355<br />
Shinya Uchida and Toshiro Kamada (Osaka Univ., Japan)
Degradation Evaluation <strong>of</strong>Recycled-Aggregate Concrete by AE Rate Process Analysis ···363<br />
Masayasu Ohtsu, Mitsuhiro Shigeishi (Kumamoto Univ., Japan)<br />
and Toshiro [soda (Oriental Shiraishi Corp., Japan)<br />
Evaluation <strong>of</strong>Cracking in Recycled Concrete Contaning Recycled Aggregate by<br />
Acoustic Emission Technique ········································································369<br />
Takeshi Watanabe, Motoyasu Bosomi, Chikanori Hashimoto (The Univ. <strong>of</strong>Tokushima, Japan)<br />
and Masayasu Ohtsu (Kumamoto Univ., Japan)<br />
Behaviors <strong>of</strong>AE Parameters Due to Increase in Damage Variable <strong>of</strong>Mortar<br />
Degraded by Mixing with Expanded Polystyrene Beads ·377<br />
Kiyohito Yamamoto, Akira Kobayashi (Kyoto Univ., Japan)<br />
and Shigeyasu Aoyama (Ishikawa Prefectural Univ., Japan)<br />
RocklGoo 1<br />
Identification <strong>of</strong>AE Multiplets in <strong>the</strong> Time and Frequency Domains 385<br />
Hiroshi Asanuma, Yusuke Kumano, Hiroaki Niitsuma, Doone Wyborn<br />
and Ulrich Scanz (l'ohoku Univ., Japan)<br />
Acoustic Emission as Displacement Discontinuities·········· ···391<br />
Chu-Shu Kao, Fernanda C. S. Carvalho and Joseph R Labuz (Univ. <strong>of</strong>Minnesota, USA)<br />
Acoustic Emission Monitoring during In-Situ Direct Shear Test <strong>of</strong>Rock ·····················399<br />
Tsuyoshi Ishida (Kyoto Univ., Japan)<br />
and Tadashi Kanagawa (Nittoc Construction Co., Ltd, Japan)<br />
Distinct Element Analysis for Rock Failure Considering AE Events Generated<br />
by <strong>the</strong> Slip at Crack Surfaces ·· ·· · · · ·.. ·.. ·· ·· · ·· ·.. ···407<br />
Hiroyuld Shimizu, Sumihiko Murata and Tsuyoshi Ishida (Kyoto Univ., Japan)<br />
RocklGoo2<br />
Estimation <strong>of</strong>Crustal Structure in Horonobe Area, Hokkaido, Japan, by Using Multiplet-<br />
Clustering Analysis ····················································································415<br />
Hirokazu Moriya (l'ohoku Univ., Japan),<br />
Koichi Asamori , Hidefumi Ohara, Tadafumi Niizato<br />
(Horonobe Underground Research Unit, Japan),<br />
[taru Kitamura (construction Project consultants, Inc., Japan)<br />
and Hikaru Hotta (Kumagai Gumi Co., Ltd., Japan)<br />
Acoustic and Electromagnetic Emission from Crack Created in<br />
Rock Sample Under Deformation ·423<br />
Keita Fukushima, Yasuhiko Morl, Yoshihiko Obata (Nihon Univ., Japan)<br />
andJosefSikula (Brno Univ. <strong>of</strong>Technology, Czech Republic)<br />
Mechanisms <strong>of</strong>Humidity Induced Deformation <strong>of</strong>Rock Salt ·431<br />
Thomas Spies and Jurgen Hesser (Federal Institute for Geosciences and Natural Resoures,<br />
Germany)
Continnous~onitoring<br />
On-Line Asset Monitoring············ ·········439<br />
Phillip Cole (physical Acoustics Ltd., UK),<br />
Sotirios Vahaviolos (Mistras Group, USA),<br />
Mark Carlos, Arturo Nunez (physical Acoustics Corp., USA),<br />
Pedro Feres (physical Acoustics South America Ltda, Brazil)<br />
and Jean-Claude Lenain (Euro Physical Acoustics, France)<br />
Crack Growth Inspection with Acoustic Emission Sensors and<br />
Hierarchical Clustering for Bridge Health Monitoring ·445<br />
N. F: [nce, M Kaveh, A. Tewfik, Chu-Shu Kao and J. F. Labuz<br />
(Univ. <strong>of</strong>Minnesota, USA)<br />
Acoustic Emission as a Smart Element in Prestressed Concrete<br />
Bridges Health. Evaluation··············································································453<br />
Malgorzata Kalicka (Kielce Univ. <strong>of</strong>Technology, Poland)<br />
Acoustic Emission Use for Stress Corrosion Cracking Detection in<br />
Prestressing Strands <strong>of</strong>Bridge Structures ·461<br />
Perrin Marianne, Gaillet Laurent, Tessier Christian and [drissi Hassane (Laboratoire Central<br />
des Ponts et Chaussees, France)<br />
Identification <strong>of</strong><strong>the</strong> Health <strong>of</strong>Rotating Machinery with AE Neural<br />
Network Classifiers ·····469<br />
Eraldo Pomponi (Universita Politechnica delle Marche, Italy)<br />
andAlexei Vinogradov (Osaka City Univ., Japan)<br />
Structure<br />
Acoustic Emission Inspection <strong>of</strong>Operating Steam Piping for Detection and<br />
Assessment <strong>of</strong>Caustic Corrosion Cracking ··477<br />
Gregory Muravin, Boris Muravin and Ludmila Lezvinsky<br />
(Margan Physical Diagnostics Ltd., Israel)<br />
Monitoring <strong>of</strong>Corrosion Under Insulation by Measurement <strong>of</strong><br />
~COllStiC ~IDdssioIlaulciIl1UOOidit)r ···············487<br />
Hideo Cho, Yashushi Takura and Takuma Matsuo (Aoyama Gakuin Univ., Japan)<br />
Study <strong>of</strong>Identification and Removal Method for Drop Noise at<br />
AE Measurement <strong>of</strong>a Tank ·····················493<br />
Hideyuki Nakamura, Takahiro Arakawa (IHI Inspection & Instrumentation Co., Ltd., Japan),<br />
Kazuyoshi Seldne andNaoya Kasai (Yokohama National Univ., Japan)<br />
The Progress <strong>of</strong>AcollStic Emission Testing for Pressure Vessel in China · ·499<br />
Gongtian Shen (China Special EqUipment Inspection Institute, China)<br />
and Shifeng Liu (Soundwel Corp., China)
A Systematic Academic Program for Preparation <strong>of</strong><br />
Acoustic Emission Specialists ········································································507<br />
Boris Muravin, Gregory Muravin and Ludmila Lezvinsky<br />
(Margan Physical Diagnostics Ltd., Israel)<br />
Acoustic Emission Method for Solving Problems in Double-Bottom Storage Tanks ... ······515<br />
MarekNowak, Ireneusz Baran, Jerzy Schmidt (Cracow Univ. <strong>of</strong>Technology, Poland)<br />
and Kanji Ono (Univ. <strong>of</strong>California, Los Angeles, USA)<br />
Leak<br />
Frequency Variations and Surface Loss Analysis <strong>of</strong>Generated AE Signals during<br />
Gas Leakage on Artificially Damaged Pipe ···················································523<br />
Rem Nunez Laodeno, Hideo Nishino and Kenichi Yoshida (The Univ. <strong>of</strong>Tokushima, Japan)<br />
Acoustic Emission Leak Detection <strong>of</strong>Buried Pipeline 531<br />
Athanasios Anastasopoulos, Dimitrios Kourousis, Konstantinos Bollas<br />
and Apostolos Tsimogiannis (Envirocoustics ABEE, Greece)<br />
Evaluation <strong>of</strong>Water-Tightness in Repaired Pipeline Using Acoustic Emission Method ······539<br />
Teisuya Suzuki, Masao Aoki (Nihon Univ., Japan),<br />
Tatsuo Naka, Hiroyuki Taruya, Yoshikazu Tanaka<br />
(National Institute for Rural Engineering, Japan),<br />
Koichi Miharu (Sanyu Consultants Inc., Japan)<br />
and Masayasu Ohtsu (Kumamoto Univ., Japan)
contents<br />
OCnvited Papeij<br />
Condition Monitoring <strong>of</strong>Material Processing by AE 1<br />
by Pr<strong>of</strong>. Manabu ENOKI,University <strong>of</strong>Tokyo, Japan<br />
Dawn <strong>of</strong>AE Research(ExtendedAbstract) .~....................................................................................................................................... 9<br />
by Dr. Mono ONOE, Pr<strong>of</strong>essor Emeritus, University <strong>of</strong>Tokyo, Japan<br />
New Trends and Applications in <strong>the</strong> AE Testing <strong>of</strong>Construction Materials and <strong>the</strong> Monitoring <strong>of</strong>Structures··..••·•..•..••..•• 11<br />
by Prot: Christian U. GROSSE, Technical University Munich, Germany<br />
!Sensor Devicesl<br />
Characterization <strong>of</strong>AE Sensors for Moment TensorAnalysis 19<br />
by Gerd MANTHEI,University <strong>of</strong>Applied Sciences,Giessen-Friedberg, Germany<br />
GPU Acceleration <strong>of</strong>AE Signal Processing Algorithms<br />
by Lubomir RIllA, R. SMID,H. EL-SAYED,and A. DOCEKAL,Bowie State University,U.S.A.<br />
2S<br />
Real-Time and Continuous Waveform Calibration to uniform <strong>the</strong> Sensitivity Frequency Characteristics <strong>of</strong>AE Sensors and<br />
Amplifien················································............................................................................................................................................... 31<br />
by Kaita ITO and M. ENOKl,University <strong>of</strong>Tokyo, Japan<br />
Fundamental Study on Interferometer Type Optical FiberAE Sensor for Underwater Measurement···..•..•..·•··......••···•..•••· 37<br />
by Daisuike KAIand H. YUK.I,University <strong>of</strong>Electro-Communications, Japan<br />
Dependence <strong>of</strong>AE Parameters on <strong>the</strong> Propagation Distance·..•....••·•••..••••••••....·•••••••••••••••••••..····.................................................. 43<br />
by Demos<strong>the</strong>nes POLYZOS, A. PAPACHARA-LAMPOPOULOS, T. SmOTANI and D. G. AGGELIS,University <strong>of</strong><br />
Patras, Greece<br />
Materials CharacterizatioDt<br />
AE Technique for Detecting <strong>the</strong> Delayed Cracks Under Thermal Sprayed Coating······..•·•••..••••••••••••....•..·..••..···············......... 49<br />
by Mikio TAKEMOTO, G, VENO,S. VENO,S. MASANO and M. NAKAMURA,Kanmeta Engineering Co., Japan<br />
Evaluation <strong>of</strong>AE Behavior during <strong>the</strong> Tensile Deformation <strong>of</strong>Al-Mg-Si Alloys with Different Heat Treatment<br />
by Yusuke KUNIYASU, Y. TOKUYAMA, H. NISHINO and K. YOSIllDA,University <strong>of</strong>Tokushima, Japan<br />
SS<br />
Growth Behavior Monitoring <strong>of</strong>Martensitic Transformation in Cu-A1-Ni Shape Memory Alloy based on AE Waveform<br />
Simulation utilizing FEM •••••.•••••••••••••••••••••••••••..•••••••••••••••••••••••••.••.••••••.••••••••••.••••••••••••••••••••••••••••••••••••••••••••••••.•.•••••.••.••••••••••.••.•••••••• 61<br />
by Takeshi YASUDA,B. PANG, H. NISHINO and K. YOSIDDA,University <strong>of</strong>Tokushima, Japan<br />
Study on Evaluation <strong>of</strong>Deterioration Conditions for FRP Laminates with AE Method - Influence <strong>of</strong>Ultraviolet Ray and<br />
WaterAbsorption - •.•..•.•••.•.•..•.••.•..•.••••••.•••.••..••.••..••••.••.••.•••••••.••..••.••.••••.••••.•.•••..•..•••..•••..•••••.••.•••....•..••••••••••.•....••••••••.••.••....•........•••••• 67<br />
by Masanori TAKUMA, N. SHINKE and K. KAMIMURA, Kansai University, Japan<br />
Monitoring <strong>of</strong>AE during Fatigue <strong>of</strong>Metal Plates················································.•••...••...••••••..••..••••••.•••••.••.•.•.•••••.••.•.••......•.••.•.••.•• 73<br />
by Dimitrios G. AGGELIS, E. Z. KORDATOS and T. E. MATIKAS,University <strong>of</strong>Ioannina, Greece<br />
Damage Kinetics and Kaiser Effect under <strong>the</strong> Framework <strong>of</strong>Interactive Damage and Stress Fields in evaluating Material's<br />
Mechanical Behavior···············································............................................................................................................................. 79<br />
by Qmy.Q! and Ming FAN,University <strong>of</strong>Memphis,U.S.A.<br />
AE Measurements on PiezoelectriclFerroelectric Materials<br />
by Hideaki ABURATANI, Kitakyushu National College <strong>of</strong>Technology, Japan<br />
8S<br />
Detection <strong>of</strong> Fatigue Crack Initiation and Monitoring Crack Growth in Ti-6Al-4V Alloy using AE Technique 91<br />
by Shivanand BHAVIKATTI, M. R. BHAT and C. R. L. MUR~ Indian Institute <strong>of</strong>Science, India
The Estimation <strong>of</strong>Deformation Behavior <strong>of</strong>Coated Layer<strong>of</strong><strong>the</strong> Paperboard in <strong>the</strong> Scratching Test with AE Method······..••···.. 97<br />
by Hiroyuki KISID, T. KATO, S. KANAI, K. YAMASIDTA, S. NAGASAWA and Y FUKUZAWA,NagaokaUniversity<br />
<strong>of</strong>Technology, Japan<br />
AE Behavior <strong>of</strong>Single Crystal Fe-Si Steels with Different Si <strong>Contents</strong> during Tensile Deformation·..•..•••..•..••·•••••••..••••••..···103<br />
by Pom<strong>the</strong>p ClllVAVIBUL, S. A. KHAN, P. SEDLAK and M. ENOKI, University <strong>of</strong>Tokyo, Japan<br />
Necessary Condition for Delayed Fracture <strong>of</strong>Meta-Stable Type-<strong>30</strong>4 Stainless Steel with Strain-Induced Martensite •·•..·109<br />
by Mikio TAKEMOTO, S. UENO, M. NAKAMURA and G. UENO,Kanmeta Engineering Co., Japan<br />
Acoustic Emission Monitoring <strong>of</strong>Compression-After-Impact Test <strong>of</strong>CFRP Laminates Damaged by Simulated Lightning<br />
Strikes··················································•••••.••.•••.••.•••••••••••••.•••.••••••••.••.•••.•••••..•••••••.••••••.••••••.••.•••••••••••.•••.•.••••••••·······································115<br />
by Jae-Ha SHIN, O.-Y. KWON*and S.-W. SEO,InhaUniversity,Korea<br />
Acoustic Emission Analysis <strong>of</strong>Fracture <strong>of</strong>Metallic Glasses..•....·•••··..·....·..·•·..••••..•·....••••••••..•·••..•..·••..·•..••..··..·····....•..•..···············121<br />
by AlexeyLAZAREVand A. VINOGRADOV OsakaCity University,Japan<br />
IStructure and Manufacturinl<br />
AE Applications <strong>of</strong>Infrastructure Monitoring•••••..••.•••••.••.•••••.••••.•.••••.•.•....••.•..•••••.••••••••••••••..••.••.•••.••••.•••••••••••••••••.•••····················127<br />
by Kanji ONO, Pr<strong>of</strong>. Emeritus, UCLA,U.S.A.<br />
Detection <strong>of</strong>Gus-Liquid Flow in Service Open 'fYpe Pipeline using AE •••••••••••••••••••••••••••.••••••••••••••••••••••••••••••..·························133<br />
by Tetsuya SUZUKI, T. NAKA, H. TARUYA, M. AOKI and M. OHTSU, Nihon University, Japan<br />
Study <strong>of</strong>Application Method <strong>of</strong>AE Measurement in Full-Scale Bending Test for Blades <strong>of</strong>Wind Turbine •..·....·•••••••..······139<br />
by A. DEGUCID,H. KAWAI, M. ZAKO,Hideyuki NAKAMURAand H. KAWASAKI, Kinden Co., Japan<br />
Problem <strong>of</strong>Test <strong>of</strong>Double-Wall Storage Tank for Liquid Ethylene with AE Method •..•..•..••..•..•·•·..•..•••..•..•..•••••..•··•..•••••..······145<br />
by MarekNOWAK,I. BARAN,Z. Nicewicz,J. SCHMIDT and A. ZAGORSKI, Cracow University<strong>of</strong>Technology,<br />
Poland<br />
New AE Measurement System AMSY-6·················································••...••.•.•••••••••••••••••.••.••..•.•••••••••••••••••·····································151<br />
by Hartmut VALLEN, J. VALLEN and T. THENIKL, Vallen Systeme GmbH, Germany<br />
AE Testing (AT) <strong>of</strong>Surface 1'ransport Products···············································•..••••••..•.•••••••.••.••.•••.•••••••••.•••••.•••..••·························157<br />
by Peter TSCHELIESNIG, TUV Austria Services GmbH, Austria<br />
Degradation Process in Flexible Thin Film Solar Cells under Tensile Loading Characterized by AE..·..·..·..···••..•·..•..·••·•·..··163<br />
by Shuichi WAKAYAMAandA. MIZUTANI, Tokyo Metropolitan University, Japan<br />
A Study on Failure Behavior <strong>of</strong>CFRP Bolted Joints with Cone Washers by AE Analyses ••••••••••••••·••••••••..••••••••••••••••••..••••••..·169<br />
by Tsukasa KATSUMATA, Y. MIZUTANI, A. TODOROKI and R. MATSUZAKI,Tokyo Institute <strong>of</strong>Technology, Japan<br />
Investigation <strong>of</strong>AE Signal Characteristics <strong>of</strong>Main Spindle on Giant Wheel··..••..•..•••..•..•••••..•••••..••••••••..•..••..•......•..•..•••••••••..···175<br />
by Zhanwen WU, G. SHEN and J. YUAN,China Special Equipment Inspection and Research Institute, China<br />
Application <strong>of</strong>AE Measurement in Damage Evaluation for CFRP Fluted Plate....•••••••••••..•••••••••••••••••••..••••••••••..•••••·••••••••..·····181<br />
by Hikaru KAWASAKI, H. NAKAMURA and T. INADA, un Inspection & Instrumentation Co. Ltd., Japan<br />
Remote Structural Health Monitoring <strong>of</strong>a Fracture Critical Bridge..•·••·•••••••••·••••..•..••••••..•..·....•••••..·..••..·••..•..••..•••••••••··••••••..···187<br />
by Richard S. GOSTAUTAS, T. VALATKA, P. BANAKIEWICZ and E. ZHOU,Mistras Group Inc.,U.S.A.<br />
Characteristics <strong>of</strong>AE from Impact-Damaged CFRP Laminates during Tensile Tests··..••••·..•·········..··..•··•···••·..••..•••..•..•••••·••..·193<br />
by Sota SUGIMOTO, Y. MIZUTANI, A.TODOROKl and R. MATSUZAKI, Tokyo Institute <strong>of</strong>Technology, Japan<br />
AE Testing <strong>of</strong>a Containership During Voyage .••••••.•..•..••.••.•.•..•.•..••.••..•••••.••.••.••.•.••••..•••••••..••.•••••..•••••.••..••••••••••••••.••.•····················199<br />
by Richard S. GOSTAUTAS, T. VALATKA, S. TERNOWCHEK, G. WANG and M. LEE, Mistras Group Inc.,U.S.A.<br />
Improvement <strong>of</strong>Localization <strong>of</strong>AE Clusters based on Similarity <strong>of</strong>AE Events<br />
by Lubomir RIHA and R. SMID,Bowie State University,U.S.A.<br />
••..·205
!Concrete and Composit~<br />
Damage Identification <strong>of</strong>RC Bridge Decks with AE Monitoring·....•••••••••·..·..•........••·•••••....•·..••..••..•••·•••......••·•....·•·•••••••••..•..····211<br />
byTomoki SIDOTANI, K. KAWAI, S. MOMOKI, H. K. CHAI, H. OHNISID and T. KAMADA, Kyoto University,<br />
Japan<br />
Verification <strong>of</strong>Promising AE Parameters for Damage Assessment <strong>of</strong>Bridge Deck using In-Situ-Sampled Specimens •••• 217<br />
byKeisuke KAWAI, T. SHIOTANl, S. MOMOKI and H. K. CHAI, Kyoto University, Japan<br />
Evaluation <strong>of</strong>Mechanical Behavior <strong>of</strong>Activated Carbon Composites by 4-Point Flexural Test using AE Technique •.•.•.• <strong>22</strong>3<br />
byTakenobu SAKAI, C. R. R. SOBERANIS, T. MASUKO, S. MATSUSlllMA, S. KOBAYASHI and S. WAKAYAMA,<br />
Tokyo Metropolitan University, Japan<br />
Failure Process in Bending <strong>of</strong>Thin Concrete Members estimated by AE..•·..•••••••••....••••....••••••••••••••..•..•••..•••..•..••••••••..•••..••..··<strong>22</strong>9<br />
byKentaro OHNO, K. un and A. UENO, Tokyo Metropolitan University, Japan<br />
Study <strong>of</strong>AE Data Analysis Tools for Structural Health Monitoring Applications 235<br />
byManindra KAPHLE, A. C. C. TAN, D. P. THAMBIRATNAM and T. H. T. CHAN, Queensland University <strong>of</strong><br />
Technology, Australia<br />
Monitoring <strong>of</strong>Corrosion Process in Reinforced Concrete due to Salt Attack by AE 241<br />
byYuma KAWASAKI, M. KITAURA, Y. TOMODA and M. OHTSU, Kumamoto University, Japan<br />
Study on <strong>the</strong> Damage Evaluation <strong>of</strong>CFRP in AE Measurement 247<br />
byHikaru KAWASAKIand H. NAKAMURA, IHI Inspection & Instrumentation Co. Ltd., Japan<br />
The Fundamentals <strong>of</strong>Structural Health Monitoring by <strong>the</strong> AE Method 253<br />
byBoris MURAVIN, G. MURAVIN and L. LEZVINSK~Margan Physical Diagnostics Ltd., Israel<br />
IGeotechnical Engineering and SysteDll<br />
Discriminatory Wavelet Packet Method for locating Damage in Stressed Rock 259<br />
by Chu-Shu KAO,N. F. INCE, Q. LIN, M. KAVEH and J. F. LABUZ,University <strong>of</strong>Minnesota,U.S.A.<br />
A Study on Application <strong>of</strong>Fiber Optical AE Sensor for Monitoring Rock Mass Failure around a Deep Underground<br />
Chamber •••••..••••••••••••..•..•••••...•••••••••••••••...•....•.••.•••••..•......•.•.••...••••.•.•.••.••.••....••••••••..........••••.•••...••••••••.•••••••••••••••••••••.•....••.•••••••.....••. 265<br />
by Hirokazu FUm, Y. SAITO, M. TANAKA, K. HATA and H. MIYAZAKI,Lazoc, Inc., Japan<br />
The A<strong>the</strong>na Temple <strong>of</strong>Syracuse: Structural Stability Investigation by AE ••••····••..·..•..•·• •••····..••••..•·•..•..•••..••·•••• 271<br />
by A. CARPINTERI, S. INVERNIZZI,Giuseppe LACIDOGNA, A. MANUELLO and G. NlCCOLINI,Politecnico di<br />
Torino, Italy<br />
Numerical Simulation to examine AE SensorArrangement onAccuracy for Source Location and Its Application 277<br />
by Tsuyoshi ISHIDA, Kyoto University, Japan<br />
On-Site Health Assessment <strong>of</strong>RC Bridge with AE Technique············································· 283<br />
by Nobuhiro OKUDE, T. IWAHARA, K KAWA and T. SHIOTANI, Tokai Technology Center, Japan<br />
Imaging <strong>of</strong>Deep Structure using Reflection Waves detected by Spectral Matrix Analysis and Confidence Levels 289<br />
by Hirokazu MORNA, Tohoku University, Japan<br />
\Monitoring and InstrumentatioD!<br />
AE Monitoring for Intergranular-Type Stress Corrosion Cracking <strong>of</strong>Sensitized AISI<strong>30</strong>4 Steel induced by Polythionic<br />
Acid··················································•••.•.....••••••••...•...•••.•••••••••....•.••..••.•...••....••••.••.•••••••••••••••.•.•••.•••••••••.•••••..······································295<br />
byHideo CHO,H. HARIYU, and T. MATSUO, Aoyama GakuinUniversity, Japan<br />
Damage Detection <strong>of</strong>Graphite Electrode in Lithium Ion Battery by AE···..··••..•• •·····••..•·••••••··..· •..••• ••••..••..•• <strong>30</strong>1<br />
byTakuma MATSUO, M. UCHIDA and H. eHO, Aoyama GakuinUniversity, Japan<br />
Experimental Study <strong>of</strong>Boiling Flow by AE·····················································•••••••.••••••••••••...•..••••••••••••......•••••.••..·······················<strong>30</strong>7<br />
byRami CARMI, A. BUSSffiA, G. WEIDENFELD, Y. AHARON, I. ALON and I. HOCHBAUM, NRCN-Israel, Israel
Revealing,Identifying and Assessing "Non-Predictable Flaws" in High Chromium Steels by QuantitativeAE<br />
Non-Destructive Inspectionand Photo-Elastic Methods..•....•..·•....•·......••........·....••••..••....••..•........•·••·..·..•....•••·..••·......•..•..••••••••••..·313<br />
byG.. MURAVIN,Itzik MIZRAHI and N. FRAGE,Margan Physical Diagnostics Ltd., Israel<br />
Fatigue Process Evaluation during Ultrasonic Fatigue Testing analyzed by using Laser Doppler Vibrometer and<br />
Continuous AE Waveform Analysis System •••••••..•.••..•.•..•••••.•.••..•..•.••.••.••.••..••.••.•...••••••••••••••••••••.••.••••••••••••••••••.•••••·························319<br />
byMitsuharu SmWA, Y. FURUYA, H. YAMAWAKI, K. ITO and M. ENOKI, National Institute for Materials Science,<br />
Japan<br />
Author's Name Index·················································••••.••.••.••••••••••.••.•..•..•..•.•••.••••••••••.•••..•••••••••••••••••••••••.••.••••••••••••••••.••••••••··············325<br />
Appendix •••••••••••.•••.••••••••••••••••••••.•••••••••.••••••.••••••••••••..••.•.••••••••••••••.•.••••.•..••...•••••••••••••••••••••••••••••••..••••••••••••..•••.••.•••••······························327<br />
Cumulative Authors Index <strong>of</strong><strong>the</strong> <strong>Proceedings</strong> <strong>of</strong>International Acoustic Emission Symposia-<strong>1972</strong> to 2008<br />
Compiled by K. ONO