·468* 工程科学学报，第40卷，第4期 (5):95) Steel Res,2003,59(6):679 B]Ennaceur C.Laksimi A,Herve C,et al.Monitoring crack growth [14]Rabiei M,Modarres M.Quantitative methods for structural health in pressure vessel steels by the acoustic emission technique and the management using in situ acoustic emission monitoring.Int Fa- method of potential difference.Int J Press Vessels Pip,2006,83 igue,2013,49:81 (3):197 [15]Gagar D,Foote P,Irving P E.Effects of loading and sample ge- 14]Zhou J.Research on Acoustic Emission Source Location and Prelim- ometry on acoustic emission generation during fatigue crack inary Study on the Crack Propagation [Dissertation].Nanning: growth:Implications for structural health monitoring.Int J Fa- Guangxi University,2006 igue,2015,81:117 (周洁.裂纹声发射源定位研究及发展趋势预估初探[学位论 [16]Keshtgar A,Modarres M.Probabilistic approach for nondestruc- 文].南宁：广西大学，2006) tive detection of fatigue crack initiation and sizing.Int Prognost Han Z Y,Luo H Y,Zhang Y B,et al.Effects of micro-structure Health Manage,2016,7:19 on fatigue crack propagation and acoustic emission behaviors in a [7]Chai M Y,Duan Q,Hou X L,et al.Fracture toughness evalua- micro-alloyed steel.Mater Sci Eng A,2013,559:534 tion of 3161N stainless steel and weld using acoustic emission [6]Li L F,Zhang Z,Shen G T.Influence of grain size on fatigue technique.ISIJ Int,2016,56(5):875 crack propagation and acoustic emission features in commercial-pu- [18]Zhang Y B,Luo H Y,Li J R,et al.An integrated processing rity zirconium.Mater Sci Eng A,2015,636:35 method for fatigue damage identification in a steel structure based ]Moorthy V,Jayakumar T,Raj B.Influence of microstructure on on acoustic emission signals.J Mater Eng Perform,2017,26 acoustic emission behavior during stage 2 fatigue crack growth in (4):1784 solution annealed,thermally aged and weld specimens of AlSl type [19]Li G H,Liu Z Y.Inspection of metal high frequency cyelic fa- 316 stainless steel.Mater Sci Eng A,1996,212(2):273 tigue behavior utilizing acoustic emission technique.China Mech [8]Chai M Y,Zhang J,Zhang Z X,et al.Acoustic emission studies Eng,2004,15(13):1205 for characterization of fatigue crack growth in 316LN stainless steel (李光海，刘正义.基于声发射技术的金属高频疲劳监测.中 and welds.Appl Acoust,2017,126:101 国机械工程，2004,15(13)：1205) 9]Chai M Y,Zhang Z X,Song Y,et al.Assessment of fatigue crack 20] Kahirdeh A,Sauerbrunn C,Yun H,et al.A parametric ap- growth in 316LN stainless steel based on acoustic emission entro proach to acoustie entropy estimation for assessment of fatigue py.Int J Fatigue,2018,109:145 damage.Int J Fatigue,2017,100:229 [10]Strantza M,Hemelrijck D V,Guillaume P,et al.Acoustic emis- 1]Wang Z J,Hu G H,Yu H R,et al.Fatigue crack growth of sion monitoring of crack propagation in additively manufactured Q345B using acoustic emission technique.I Nanchang Hangkong and conventional titanium components.Mech Res Commun, Univ Nat Sci,2016,30(4):99 2017,84:8 (王振京，胡国华，喻海荣，等.基于声发射技术的0345B疲 [1]Morton T M,Smith S,Harrington R M.Effect of loading varia- 劳裂纹扩展研究.南昌航空大学学报（自然科学版），2016， bles on the acoustic emissions of fatiguecrack growth.Exp Mech, 30(4):99) 1974,14(5):208 22]Paris P,Erdogan F.A critical analysis of crack propagation [12]Roberts T M,Talebzadeh M.Acoustic emission monitoring of fa- laws.J Basic Eng,1963,85(4):528 tigue crack propagation.J Constr Steel Res,2003,59(6):695 23]Yu J G,Ziehl P,Zarate B,et al.Prediction of fatigue crack [13]Roberts T M,Talebzadeh M.Fatigue life prediction based on growth in steel bridge components using acoustic emission. crack propagation and acoustic emission count rates.I Constr Constr Steel Res,2011,67(8):1254工程科学学报，第 40 卷，第 4 期 ( 5) : 95) ［3］ Ennaceur C，Laksimi A，Hervé C，et al． Monitoring crack growth in pressure vessel steels by the acoustic emission technique and the method of potential difference． Int J Press Vessels Pip，2006，83 ( 3) : 197 ［4］ Zhou J． Ｒesearch on Acoustic Emission Source Location and Prelim￾inary Study on the Crack Propagation ［Dissertation］． Nanning: Guangxi University，2006 ( 周洁． 裂纹声发射源定位研究及发展趋势预估初探［学位论 文］． 南宁: 广西大学，2006) ［5］ Han Z Y，Luo H Y，Zhang Y B，et al． Effects of micro-structure on fatigue crack propagation and acoustic emission behaviors in a micro-alloyed steel． Mater Sci Eng A，2013，559: 534 ［6］ Li L F，Zhang Z，Shen G T． Influence of grain size on fatigue crack propagation and acoustic emission features in commercial-pu￾rity zirconium． Mater Sci Eng A，2015，636: 35 ［7］ Moorthy V，Jayakumar T，Ｒaj B． Influence of microstructure on acoustic emission behavior during stage 2 fatigue crack growth in solution annealed，thermally aged and weld specimens of AISI type 316 stainless steel． Mater Sci Eng A，1996，212( 2) : 273 ［8］ Chai M Y，Zhang J，Zhang Z X，et al． Acoustic emission studies for characterization of fatigue crack growth in 316LN stainless steel and welds． Appl Acoust，2017，126: 101 ［9］ Chai M Y，Zhang Z X，Song Y，et al． Assessment of fatigue crack growth in 316LN stainless steel based on acoustic emission entro￾py． Int J Fatigue，2018，109: 145 ［10］ Strantza M，Hemelrijck D V，Guillaume P，et al． Acoustic emis￾sion monitoring of crack propagation in additively manufactured and conventional titanium components． Mech Ｒes Commun， 2017，84: 8 ［11］ Morton T M，Smith S，Harrington Ｒ M． Effect of loading varia￾bles on the acoustic emissions of fatigue-crack growth． Exp Mech， 1974，14( 5) : 208 ［12］ Ｒoberts T M，Talebzadeh M． Acoustic emission monitoring of fa￾tigue crack propagation． J Constr Steel Ｒes，2003，59( 6) : 695 ［13］ Ｒoberts T M，Talebzadeh M． Fatigue life prediction based on crack propagation and acoustic emission count rates． J Constr Steel Ｒes，2003，59( 6) : 679 ［14］ Ｒabiei M，Modarres M． Quantitative methods for structural health management using in situ acoustic emission monitoring． Int J Fa￾tigue，2013，49: 81 ［15］ Gagar D，Foote P，Irving P E． Effects of loading and sample ge￾ometry on acoustic emission generation during fatigue crack growth: Implications for structural health monitoring． Int J Fa￾tigue，2015，81: 117 ［16］ Keshtgar A，Modarres M． Probabilistic approach for nondestruc￾tive detection of fatigue crack initiation and sizing． Int J Prognost Health Manage，2016，7: 19 ［17］ Chai M Y，Duan Q，Hou X L，et al． Fracture toughness evalua￾tion of 316LN stainless steel and weld using acoustic emission technique． ISIJ Int，2016，56( 5) : 875 ［18］ Zhang Y B，Luo H Y，Li J Ｒ，et al． An integrated processing method for fatigue damage identification in a steel structure based on acoustic emission signals． J Mater Eng Perform，2017，26 ( 4) : 1784 ［19］ Li G H，Liu Z Y． Inspection of metal high frequency cyclic fa￾tigue behavior utilizing acoustic emission technique． China Mech Eng，2004，15( 13) : 1205 ( 李光海，刘正义． 基于声发射技术的金属高频疲劳监测． 中 国机械工程，2004，15( 13) : 1205) ［20］ Kahirdeh A，Sauerbrunn C，Yun H，et al． A parametric ap￾proach to acoustic entropy estimation for assessment of fatigue damage． Int J Fatigue，2017，100: 229 ［21］ Wang Z J，Hu G H，Yu H Ｒ，et al． Fatigue crack growth of Q345B using acoustic emission technique． J Nanchang Hangkong Univ Nat Sci，2016，30( 4) : 99 ( 王振京，胡国华，喻海荣，等． 基于声发射技术的 Q345B 疲 劳裂纹扩展研究． 南昌航空大学学报( 自然科学版) ，2016， 30( 4) : 99) ［22］ Paris P，Erdogan F． A critical analysis of crack propagation laws． J Basic Eng，1963，85( 4) : 528 ［23］ Yu J G，Ziehl P，Zrate B，et al． Prediction of fatigue crack growth in steel bridge components using acoustic emission． J Constr Steel Ｒes，2011，67( 8) : 1254 · 864 ·