光栅谐振子检测地震波的理论和方法研究
|
摘要
地震勘探工作中,地震勘探仪器通过地震检波器接收地震波信号。地震检波器的性能好坏,直接影响着地震记录质量和地震资料的解释工作。本课题在深入地分析与研究地震波特性和现有地震波检测方法的基础上,以光栅谐振子作敏感元件,完成了光栅谐振子检测地震波的理论研究、方法研究和检测装置的设计与实验研究。主要包括:
1.设计了光栅谐振子检测地震波装置。主要包括结构设计、光栅谐振子设计、光学系统设计、阻尼系统设计等。外壳采用轻质铝合金材料,光栅谐振子的“弹簧——质量系统”由主光栅、横向限振片和阻尼筒组成。光栅谐振子采用铝制光栅支架固定主光栅,通过具有横向限振功能的弹簧片与外壳连接,拾取被测地震波信号。光学系统由源系统、指示光栅和光电接收元件组成。光学系统采用白光灯加准直镜,以平行光照射光栅面,通过光栅副产生莫尔条纹。
2.对阻尼系统进行了深入地研究。采用涡流阻尼原理,将阻尼筒与谐振子光栅支架进行一体化设计,磁钢则固定于与外壳相连的阻尼调节机构上,根据需要可准确调整阻尼比大小,实现了弹性系统阻尼的连续可调。
3.研究了基于光栅倍增技术的提高系统灵敏度方法。采用不同参数的主光栅和指示光栅组成谐振子,指示光栅采用闪耀光栅以提高莫尔条纹的对比度,主光栅为振幅型粗光栅。
4.实现了光栅振动检测系统构成与信号再现,将光栅传感器、硬件辨向与细分电路、PIC单片机细分单元和计算机相结合,构成了测试系统,利用软件实现被测振动信号的再现,并完成了对光栅测振系统的性能分析。
5.对光栅谐振子检测地震波装置进行了实验研究。光栅地震检波器性能测试系统是保证检波器性能分析的必要手段,本文设计了光栅数字地震检波器静态和动态特性测试系统,对光栅谐振子检测地震波装置进行了性能测试与分析。为了验证该检测装置能够真实再现地震波信号,本文完成了被测信号重构系统及与现有地震采集站的衔接技术。
本研究成果可用于石油、矿藏、地热、工程和水文地质等地震勘探领域。特别是应用于高精度、高分辨力地球物理勘探。
In seismic prospecting, seismograph receives geological information carried by seismic waves through geophone. The quality of seismic data records and precision of geological target interpretation are directly dependent on the characteristics of geophone. Based on analyzing and researching the characteristics of seismic wave and current seismic wave detected method in more detail, adopting a grating vibrator as sensor element, the topic has completed the fundamental research on seismic wave detection and the method with grating vibrator to detect, as well as designing a device and the experimental study of the detector. It mainly contains:
1. A device on detecting seismic wave by grating vibrator is designed. It mainly includes: 1) a structure case; 2) grating vibrator; 3) optical system; 4) damping system and so on. The case is designed with light aluminum alloy material,“spring-quality system”of grating vibrator is composed of the main grating, spring with limited on lateral and cylinders. The grating vibrator uses the aluminous grating bracket to fix the main grating and detects the measured signal of seismic wave through a moment on case and spring that with limited on lateral. The optical system is made of source system, indicative gratings and photovoltaic devices. The optical system uses the fluorescent lamp with the collimation mirror, incident the grating surface by the parallel light, in order to produce the moiréfringe through the grating.
2. Using the principle of eddy drag, a damping system is designed by studied thoroughly. It is integrated design on damping tube and vibrator grating support bracket, the magnet steel is fixed on the damping adjustment device connected with the case, according to the requirement, the ratio of damping can be adjusted precisely, the system has realized adjustment of the elastic system damping continuously.
3. The method of enhancing the system sensitivity based on the grating multiplication technology is studied. Using the main grating with different parameters and the indicative grating to compose the vibrator, a blazed grating is used in indicative grating to enhance contrast of the moiréfringe, the main grating is amplitude with thick grating.
4. The constitution of grating vibration detection system and the signal recovery is realized. The test system is constituted combining the grating sensor, the hardware differentiation, the segmentation circuit, the PIC microcontroller subdivided unit and the computer, using the software to realize the recovery of the measured vibration signal, and completed performance analysis of the grating vibration system.
5. The experimental study on the device of grating vibrator detection seismic wave is implemented. The performance test system of the grating geophone is the essential method to guarantee the detector performance analysis. In this article, the static state and the dynamic characteristic test system of grating digital seismic detector have been designed, and the performance of grating digital seismic detector can be tested. In order to confirm that the device of the grating vibrator detected seismic wave can be re-constructed back to the seismic wave signal without distortion, this article has completed the measured signal reconstruction system and the data telemetry technology with the existing seismic data acquisition station.
The achievement of this topic can be widely used in seismic exploration such as oil, mineral resources, terrestrial heat, engineering and hydrogeology, etc. especially in geophysical prospecting of high precision and resolution.
1.设计了光栅谐振子检测地震波装置。主要包括结构设计、光栅谐振子设计、光学系统设计、阻尼系统设计等。外壳采用轻质铝合金材料,光栅谐振子的“弹簧——质量系统”由主光栅、横向限振片和阻尼筒组成。光栅谐振子采用铝制光栅支架固定主光栅,通过具有横向限振功能的弹簧片与外壳连接,拾取被测地震波信号。光学系统由源系统、指示光栅和光电接收元件组成。光学系统采用白光灯加准直镜,以平行光照射光栅面,通过光栅副产生莫尔条纹。
2.对阻尼系统进行了深入地研究。采用涡流阻尼原理,将阻尼筒与谐振子光栅支架进行一体化设计,磁钢则固定于与外壳相连的阻尼调节机构上,根据需要可准确调整阻尼比大小,实现了弹性系统阻尼的连续可调。
3.研究了基于光栅倍增技术的提高系统灵敏度方法。采用不同参数的主光栅和指示光栅组成谐振子,指示光栅采用闪耀光栅以提高莫尔条纹的对比度,主光栅为振幅型粗光栅。
4.实现了光栅振动检测系统构成与信号再现,将光栅传感器、硬件辨向与细分电路、PIC单片机细分单元和计算机相结合,构成了测试系统,利用软件实现被测振动信号的再现,并完成了对光栅测振系统的性能分析。
5.对光栅谐振子检测地震波装置进行了实验研究。光栅地震检波器性能测试系统是保证检波器性能分析的必要手段,本文设计了光栅数字地震检波器静态和动态特性测试系统,对光栅谐振子检测地震波装置进行了性能测试与分析。为了验证该检测装置能够真实再现地震波信号,本文完成了被测信号重构系统及与现有地震采集站的衔接技术。
本研究成果可用于石油、矿藏、地热、工程和水文地质等地震勘探领域。特别是应用于高精度、高分辨力地球物理勘探。
In seismic prospecting, seismograph receives geological information carried by seismic waves through geophone. The quality of seismic data records and precision of geological target interpretation are directly dependent on the characteristics of geophone. Based on analyzing and researching the characteristics of seismic wave and current seismic wave detected method in more detail, adopting a grating vibrator as sensor element, the topic has completed the fundamental research on seismic wave detection and the method with grating vibrator to detect, as well as designing a device and the experimental study of the detector. It mainly contains:
1. A device on detecting seismic wave by grating vibrator is designed. It mainly includes: 1) a structure case; 2) grating vibrator; 3) optical system; 4) damping system and so on. The case is designed with light aluminum alloy material,“spring-quality system”of grating vibrator is composed of the main grating, spring with limited on lateral and cylinders. The grating vibrator uses the aluminous grating bracket to fix the main grating and detects the measured signal of seismic wave through a moment on case and spring that with limited on lateral. The optical system is made of source system, indicative gratings and photovoltaic devices. The optical system uses the fluorescent lamp with the collimation mirror, incident the grating surface by the parallel light, in order to produce the moiréfringe through the grating.
2. Using the principle of eddy drag, a damping system is designed by studied thoroughly. It is integrated design on damping tube and vibrator grating support bracket, the magnet steel is fixed on the damping adjustment device connected with the case, according to the requirement, the ratio of damping can be adjusted precisely, the system has realized adjustment of the elastic system damping continuously.
3. The method of enhancing the system sensitivity based on the grating multiplication technology is studied. Using the main grating with different parameters and the indicative grating to compose the vibrator, a blazed grating is used in indicative grating to enhance contrast of the moiréfringe, the main grating is amplitude with thick grating.
4. The constitution of grating vibration detection system and the signal recovery is realized. The test system is constituted combining the grating sensor, the hardware differentiation, the segmentation circuit, the PIC microcontroller subdivided unit and the computer, using the software to realize the recovery of the measured vibration signal, and completed performance analysis of the grating vibration system.
5. The experimental study on the device of grating vibrator detection seismic wave is implemented. The performance test system of the grating geophone is the essential method to guarantee the detector performance analysis. In this article, the static state and the dynamic characteristic test system of grating digital seismic detector have been designed, and the performance of grating digital seismic detector can be tested. In order to confirm that the device of the grating vibrator detected seismic wave can be re-constructed back to the seismic wave signal without distortion, this article has completed the measured signal reconstruction system and the data telemetry technology with the existing seismic data acquisition station.
The achievement of this topic can be widely used in seismic exploration such as oil, mineral resources, terrestrial heat, engineering and hydrogeology, etc. especially in geophysical prospecting of high precision and resolution.
引文
[1]刘光林,刘泰生等.地震检波器的发展方向[J].勘探地球物理进展,2003,26(3):178-185.
[2]陶知非,可控震源与高分辨率,石油物探装备,1998;Vol.2
[3]陈祖传,发展适应我国需要的新一代物探仪器,石油仪器,1997,11(5)
[4]李淑清,陶知非,未来地震检波器理论分析,物探装备,2003,3, 152~156
[5]凌云,大地吸收衰减分析,石油地球物理勘探,2001,36 (1)
[6]徐伯勋.地震勘探信息技术[M].北京:地质出版社,2001:1-20.
[7]潘中印,浅谈国产地震勘探仪器的技术现状及发展,石油仪器,2000;14(5)
[8]陆基孟.地震勘探原理[M].北京:石油工业出版社,1993:44-78.
[9]李庆忠,高分辨率中的误区与对策,石油地球物理勘探,1997,32(6),751~783
[10]张善锺等.计量光栅技术[M].北京:机械工业出版社,1985:181-240.
[11] Lu Haibao,Cao Juliang,Su Shaojing,etal,Research on displacement sensor with nonsymmetrical double gratings[C].Proceedings of SPIE - The International Society for Optical Engineering,v 4077,2000:40-43.
[12]周绪文,反射波地震勘探方法,北京:石油工业出版社,1989
[13]湘赣,地震勘探仪器的现状与发展,物探装备,2001,11(1)
[14]李庆忠.定向精确勘探的道路.北京:石油工业出版社,1993
[15] R.E.Sherriff,Structural Interpretation of Seismic Data AAPG 1981
[16]王燮培等,石油勘探构造分析,北京:中国地质大学出版社,1990
[17] 2000F J Barr Seismic Data Acquisition Recent Advances and the Road Ahead.63 Annual International Meeting S.E.G, Expanded Abstracts, 1993
[18]肖忠样,数据采集原理,西安:西北工业大学出版社,2001
[19]董敏煜,地震勘探,东营:石油大学出版社,
[20]俞寿朋,高分辨率地震勘探,北京:石油工业出版杜,1993
[21]王文良,地震勘探仪器的发展、时代划分及其技术特征,石油仪器,2004,18(1)
[22]袁子龙,狄帮让,肖忠祥,地震勘探仪器原理,石油工业出版社,2006年5月
[23]刘丽萍,李淑清,均匀磁场对检波器失真度的影响,1998年; 12(1)
[24]薛立武等,浅谈稀土磁体地震检波器的发展,石油仪器,2000年;14(6)
[25]唐文彦,传感器,机械工业出版社,2007年8月
[26]张国雄,测控电路,机械工业出版社,2001,313~315
[27]单成祥,传感器的理论与设计基础及其应用,国防工业出版社,1999
[28]颜永安等,石油勘探MEMS传感器的研究[J],物探装备,2005,15(1):1-5.
[29] Pepe Davis, Jeff Bush. Non-contact fiber optic vibrometer, Part of the SPIE Conference on Fiber Optic Technology and Applications, Boston, Massachusetts, Sep, 1999, SPIE Vol.3860, pp390~399
[30] Nobuaki Takahashi, Kazuto Yoshimura, et al. Vibration sensing with fiber Bragg grating, SPIE Vol.4513, pp1~6
[31] Jinsong Leng, A.K.Asundi, et al. Vibration measurement of smart composite structures by using the new intensity modulated optical fiber sensor, SPIE Vol3541, pp110~115.
[32] R. Daniel Costley, Vincent Valeau, Ning Xiang. Continuous scanning laser Doppler vibrometer for mine detection, SPIE Vol.4038, pp711~718
[33]刘彬吕宏诗,一种激光多普勒扭矩传感器的设计原理研究,传感技术学报.2004,17(2).-252-254
[34]杜振辉等,激光光栅多普勒效应微小振动测量,光学学报,2004,6 P834-837
[35]郁道银,谈恒英,工程光学[M],北京:机械工业出版社,2000:75-90
[36] Su Shaojing,Liu Hui,Wang Yueke,l_u Haibao.A NovelVirtual Instnunent for Displacement Measure by Procmoir6 signals[C J.2ne International Symposium on Instrume ntation Science and Technology,2002,1:436～440
[37] Song Kongjie, Zhang Weibo, Niu Junchuan. Application and development of power flow theories in the field of the vibration control for flexible systems. Chinese Journal of Mechanical Engineering, v 39, n 9, September, 2003, p 23-28
[38]孙义雁,国内外用于位置和振动测量的激光干涉测量法,测控技术,1990年第3期,pp28~30
[39] Chu, Xingchun; Lu, Haibao; Chen, Tinzheng; et al. Investigation on long-range nanometer resolution grating moire interferometer. Proceedings of SPIE - The International Society for Optical Engineering, v 5635, Nanophotonics, Nanostructure, and Nanometrology, 2005, p 333-341
[40] Lu Haibao, Cao Juliang, Chen Jianyun, Research for wide range and high resolution displacement measurement with grating, Proceedings of SPIE - The International Society for Optical Engineering, v 4222, 2000, pp 323-326.
[41] Rosvold, Geir Ove. Video-based vibration analysis using projected fringes. Applied Optics, v 33, n 5, Feb 10, 1994, p 775-786.
[42] Cao, Xiangqun; Xu, Jin; Tang, Tianjin; Lu, Zukang, Research on parameter of grating digital subdivision. Proceedings of SPIE - The International Society for Optical Engineering, v 6150 I, 2nd International Symposium on Advanced Optical Manufacturing and TestingTechnologies: Optical Test and Measurement Technology and Equipment, 2006, p 615019
[43] Cui, Ji; Li, Huaiqiong; Chen, Qian. New digital subdividing and rester-sensing technique for Moire fringes of grating. Optical Technique, v 26, n 4, Jul, 2000, p 294-296
[44] Li, H.; Chen, Q.; Wang, Y. A new digital subdividing technique for grating signal and its error analysis. Acta Metrologica Sinica, v 22, n 4, 2001, p 281-283
[45] Yu, Fangping; Li, Heming, Subdivision of grating signal and the error-compensation by microcomputer. Journal of Wuhan Transportation University, v 21, n 2, Apr, 1997, p 207-210
[46] Von Martens, Hans-Juergen. Investigations into the uncertainties of interferometric measurements of linear and circular vibrations. Shock and Vibration, v 4, n 5-6, 1997, p 327-340.
[47]祝绍箕,黄宣劭等.光栅数字显示技术及其应用[M].北京:机械工业出版社,1992:90-111
[48]祝绍箕,邹海兴等.衍射光栅[M].北京:机械工业出版社,1988:343-371.
[49]郑伟,基于FPGA的光栅检测片上系统(SOC)的研制[D].沈阳:沈阳工业大学,2007.
[50]王荣秀.基于单片机和CPLD的粗光栅位移测量系统研究[D].重庆:重庆大学,2006.
[51]张金龙,刘京南.莫尔条纹信号在精密检测与定位中的应用[J].测控技术,2003,22(6):8-10.
[52] Ragulskis, M.; Maskeliunas, R.; Saunoriene, L. Identification of in-plane vibrations using time average stochastic moiré. Experimental Techniques, v29, n6, November/December, 2005, p 41-45.
[53] Hopstone, P; Katz, A.; Politch, Jacob. Variation in displacement values along projection moire fringes in contour difference and vibration analysis of structures. Optical Engineering, v 29, n 1, Jan, 1990, p 6-8.
[54] Asundi, anand. Novel techniques in reflection moiré. Experimental mechanics, v 34, n 3, sept, 1994, p 230-242.
[55]南忠良,叶声华.数字光栅测振传感器性能分析与测试[J].天津大学学报,2005,38(10):919-922.
[56]李晖,刘庭欣,光栅莫尔条纹的辨向和细分电路研究,辽宁大学学报(自然科学版)第30卷第2期2003年,p127-128
[57]袁小滨,李怀琼,光栅莫尔条纹数字细分技术及其误差分析,西安公路交通大学学报,2001年1月,第21卷第1期,p113-115
[58]李欣,黄世涛,张云,冯之敬,光栅莫尔条纹细分技术的研究,现代制造工程2004年第6期,p83-85
[59]欧阳航空,陆林海,侯彦丽,基于DSP的光栅莫尔条纹信号辨向与细分电路研究,制造业自动化,第27卷第5期2005-05,p5-7(47)
[60]王君立,李大一,刘琳,莫尔条纹快速细分在光电轴角编码器中的应用,微细加工技术,2005年12月第4期,p16-20
[61]吕海宝,曹聚亮,苏绍景,莫尔条纹软件计数法,光学技术,2000年11月第26卷第6期,p543-545
[62]李怀琼,陈钱,王钰,新型光栅信号数字细分技术及其误差分析,计量学报,2001年l0月第22卷第4期,p281-283
[63]余文新,胡小唐,邹自强,一种高分辨率和高频响的光栅纳米测量细分方法,天津大学学报,第35卷第l期,2002年1月,p1-4
[64]刘清,用DSP实现光栅高准确度细分技术,传感器技术,2003年第22卷第7期,p25-27
[65]卢国纲,位移测量技术及其传感器的最新发展,WMEM专访专论,2005,8(4):72-73.
[66]李庆忠,高分辨率地震勘探对地震仪器的技术改进要求,石油物探装备,1992,2(1)
[67]袁子龙,胡亚华,曹广华,高分辨率地震数据采集中的高频补偿,大庆石油学院学报2002,26(3)
[68]袁子龙,李婷婷,地层吸收衰减与地震仪器记录性能,石油物探,2004,43(5)
[69]陶知非,可控震源与高分辨率,石油物探装备,1998;Vol.2
[70] U.S Patent Nov.21,1995 sheet 3 0f 6 5,469,408 HIGH RESOLUTION GEOPHONE
[71]李淑清.新型高精度地震检波器.物探装备.2002年;第12卷,第2期
[72] Input/Output Inc. VectorSeisR System FourTM VC Field Development Giude.2003
[73]陈才和,李淑清等,光纤加速度地震检波器的研究,光子学报,1996.5(Z1),364
[74]丁桂兰,刘振富等.顺变柱体型全光纤加速度检波器敏感元件,光子学报,2000,Vol.29(Z1)
[75]唐建人,李勤学高分辨率地震勘探理论与实践.北京:石油工业出版社,2001
[76] Xue Yuan, Ling Xian-Zhang, Lu Nian-Li, et al. Progress of application and research on mechanical vibration technology in engineering. Chinese Journal of Rock Mechanics and Engineering, v 24, n SUPPL. 2, November, 2005, p 5901-5908
[77] Tang K.Z., Tan K.K., De Silva C.W., et al. Application of vibration sensing in monitoring and control of machine health. IEEE/ASME International Conference on Advanced Intelligent Mechatronics, AIM, v 1, 2001, p 377-382.
[78] Li C., Hu S.,Li J.. Application of modal analysis to cylinder structure based on random vibration test. Applied Mechanics and Materials, v 5-6, Modern Practice in Stress and Vibration Analysis VI - Proceedings of the 6th Internaional Conference on Modern Practice in Stress and Vibration Analysis, 2006, p 225-230.
[79] Reynders E., De Roeck G... Measurement of modal curvatures using optical fiber strain sensors and application to damage identification using vibration monitoring. Proceedings of SPIE - The International Society for Optical Engineering, v 5855 PART II, Fonds voor Wetenschappelijk Onderzoek - Vlaanderen, FWO, 2005, p 1076-1079.
[80] Zeng Yigen, Forssberg Eric. Application of vibration signals to monitoring crushing parameters. Powder Technology, v 76, n 3, Sept, 1993, p 247-252.
[81] Fein Howard. An application of holographic interferometry for dynamic vibration analysis of a jet engine turbine compressor rotor. Proceedings of SPIE - The International Society for Optical Engineering, v 5005, 2003, p 307-315.
[82] Ross R.G. Jr., Johnson,D.L., Kotsubo,V.. Vibration characterization and control of miniature Stirling-cycle cryocoolers for space application. Advances in Cryogenic Engineering, v 37, n pt B, 1991, p 1019-1027.
[83] Siddique Abu B., Wegner Leon D., Sparling Bruce F.. Application of vibration-based damage detection to an integral abutment bridge. Proceedings of SPIE - The International Society for Optical Engineering, v 5767, Nondestructive Evaluation and Health Monitoring of Aerospace Materials, Composites, and Civil Infrastructure IV, 2005, p 225-235.
[84]曾为,陈培峰,朱明珠,激光振动测量的发展与展望,光机电信息,2005.5,pp16-19
[85] Ph.Delaye, S.de Rossi, G.Roosen Detection of High Ampltude Vibrations on Rough Sufaces Using a Photorefractive Velocimeter. Fouth international Conference on Vibration Measurements by Laser.techniques:Advances and Applications. SPIE Vol.4.72(2000),44~p52
[86]张毅,张书练,光电振动传感技术新进展,激光技术,2001年6月第3期,p161-165。
[87]孙传友,潘正良,地震勘探仪器原理东营:石油大学出版社,1996
[88]朱广生,地震资料储层预测方法,北京,石油工业出版杜,1995
[89]张海明,陈晓非.地震波研究[J].地震学报,2003,25(5):465-470
[90]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p10-15
[91]大港油田科技丛书编委会.地震勘探资料采集技术[M].北京:石油工业出版社,1999:1-76
[92]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p77-79
[93]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p79-80
[94]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p85-91
[95]郝钧等,三维地震勘探技术[M],北京:石油工业出版社,1992,1-52
[96]孙洁娣,温江涛,靳世久,基于地震动信号的管道安全监测系统的研究,侧试技术学报,2008年3月,p211-214
[97]牛玉森,田书林,一种地震波信号检测与处理方法[J].测控技术,2005,24(9):12-14.
[98]边肇祺等.模式识别.清华大学出版社, 1988
[99]易宗富,庄有志等,油气藏模式识别方法,西南石油学院学报,1996年2月,p10-20
[100] F.阿迈拉登著,李衍达等译.模式识别与图象处理.石油工业出版社, 1991
[101] J. Duchene, S. L eclercq . A n op t imal t ransfo rmat ion fo r discrim inant and p rincipal component analysis, IEEE PAM I210,No. 6, 1988
[102]陶知非,新世纪物探装备技术综述,物探装备,2001年6月p77-83
[103]雷孔成,余海波,光栅传感器的优化设计,世界制造技术与装备市场,2001,(1),63~64
[104]王玉富,王开颜,动态莫尔条纹在转镜式激光照排机中的应用,传感器技术,2002年第21卷第9期,p51-53
[105]李德葆,沈观林,冯仁贤,振动测量与应用基础,北京,清华大学出版社,1987
[106]张维屏,机械振动学,冶金工业出版社,1983,27~38
[107]张思,振动测试与分析技术,清华大学出版社,1992
[108]俞本立,孟军,微振动的高精度测量,光电工程,2006年1月,第33卷第1期,120-122。
[109]雷孔成,余海波,光栅传感器的优化设计,世界制造技术与装备市场,2001,(1),63~64
[110]纪纲,叶军,光栅传感器的设计要点分析,仪表技术与传感器,1995,(4),11~13,
[111]董荣生,王正岭,莫尔条纹在微小振动测量中的应用,激光杂志,2004年第25卷第2期,p64-65
[112]李丰而钟金刚,位移的莫尔条纹测量技术,实验技术与管理, V01.19 Xo.3 2002
[113]静波,陈之炎,机械振动测量的激光干涉技术原理及其应用,噪声与振动控制,1995年10月,第5期,pp40~43
[114]林超,钢筋混凝土桥梁的振动测量,华南地震,2003年3月第23卷第1期,82-86.
[115]扬淑连,曾兆香,光栅传感器的研究,山东工程学院学报, 1998年6月,第12卷第2期,11~14
[116]陈勇,陈慧宝,孙桂清,陈雨仓,光栅莫尔条纹信号质量的提高及其采集方法,上海大学学报(自然科学版),2004年4月,第10卷第2期,129-132。
[117]栗合营俞梅,差动式磁电相对振动速度传感器的研制,传感器技术.2003,22(1).-25-27
[118]刘芹任建亭姜节胜等,复合材料薄壁圆柱壳热振动特性分析2006,28(5):643～648
[119]王益民,靳世久等,磁生物效应研究中圆片永磁磁源空间磁感强度的计算方法,中国医学物理学杂志,2000年10月,p249-250
[120]吕海宝,徐涛等,双级闪耀光栅位移精密测量的傅立叶分析[J],国防科技大学学报,2000,22(3):96-99
[121] Daniel Post.MoiréFringe Multiplication with a Nonsymmetrical Doubly Blazed Reference Grating[M].Applied Optics,1971,10(4):901-907
[122] Daniel Post.Analysis of MoiréFringe Multiplication Phenomena[J].Applied Optics,1967,6(11):1938-1942
[123]张绍宗,耿宝山.双级炫耀光栅在长度测量中的试验[J].计量技术,1981(4):5～8
[124]吕乃光.傅里叶光学[M].北京:机械工业出版社,1998
[125] K.Patorski. Handbook of The MoiréFringe Technique[M]. Poland :Institute for Design of Precise and Optical Instruments Warsaw University of Technology Warsaw, 1993
[126]赵博,晏磊等.闪耀光栅的傅立叶分析[J].光学技术,2001,27(2):103-108
[127] Sergio De Nicola.Fringe analysis for moiréinterferometry by modification of the local intensity histogram and use of a two-dimensional Fourier transform method[J].Measurement Science & Technology,2000,11(9):1328-1334
[128] S De Nicola,P Ferrarot.Fourier transform method of fringe analysis for moiréinterferometry[J].Journal of optics,2000,2(3):228-233
[129]孙贤颐,安维蓉,王志晓,提高光栅测距精度的四倍频判向电路,[J].北方交通大学学报,1996,20(6)
[130]崔骥,李怀琼,陈钱,光栅莫尔条纹信号的细分与辨向新技术,光学技术[J] ,2000,26(4)
[131]李晖,刘庭欣,光栅莫尔条纹的辨向和细分电路研究,辽宁大学学报自然科学版[J],2003,30(2)
[132]张英杰,海淘,一种辨别莫尔条纹移动方向的实时性辨向电路,现代电子技术,2004年第19期总第186期,29-31
[133]黄智伟等,FPGA系统设计与实践[M],北京:电子工业出版社,2005:3-78
[134]刘韬,楼兴华,FPGA数字电子系统设计与开发实例导航[M],北京:人民邮电出版社,2005:70-90
[135]徐志军,徐光辉,CPLD/FPGA的开发与应用[M],北京:电子工业出版社,2002
[136] XILINX,Using IP Cores in Spartan-3 Generation FPGAs,XILINX,2005,(6):1-6
[137] XILINX,Using Block RAM in Spartan-3 Generation FPGAs,XILINX,2005(3):1-40
[138] XILINX,Spartan 3E FPGA Family Complete Data Sheet[M],XILINX,2006:1-117
[139] Step hanie Tapp,Configuring Xilinx FPGAs with SPI Serial Flash,Xilinx,2006,(12):1-23
[140]黄任.AVR单片机与CPLD/FPGA综合应用入门[M],北京:北京航空航天大学出版社,2004:51-62
[141]袁小滨,李怀琼光栅莫尔条纹数字细分技术及其误差分析,西安公路交通大学学报,2001,Vol.21,113~115
[142]楚兴春吕海宝杜列波周卫红,莫尔条纹交点跟踪计数细分法,宇航计测技术,2OO4年12月,第24卷第6期,1-5
[143] Yan Zhang, Jing Ning, Shangming Yang, Hongliang Cui ,“Field test investigation of fiber optic seismic geophone inthe oilfield exploration”, Proc. SPIE 6770, 677005(2007).
[144] Quanming Zhang, Huijin Liu, Quanni Lan,“Power quality signal denoising based on wavelet hybrid thresholdmethod”, Electric Power Automation Equipment, Papers 28(8),158-173(2008).
[145] Daubechies I.Sweldens W.,“Factoring wavelet transform into lifting steps”, Journal of Fourier AnalysisApplication, Paper 4(3), 247-269.
[146] Jianxin Wang, [Labwindows/CVI Testing Technology and Engineering Applications], Chemical Industry HousePublishers, Beijing, 165-175(2006).
[2]陶知非,可控震源与高分辨率,石油物探装备,1998;Vol.2
[3]陈祖传,发展适应我国需要的新一代物探仪器,石油仪器,1997,11(5)
[4]李淑清,陶知非,未来地震检波器理论分析,物探装备,2003,3, 152~156
[5]凌云,大地吸收衰减分析,石油地球物理勘探,2001,36 (1)
[6]徐伯勋.地震勘探信息技术[M].北京:地质出版社,2001:1-20.
[7]潘中印,浅谈国产地震勘探仪器的技术现状及发展,石油仪器,2000;14(5)
[8]陆基孟.地震勘探原理[M].北京:石油工业出版社,1993:44-78.
[9]李庆忠,高分辨率中的误区与对策,石油地球物理勘探,1997,32(6),751~783
[10]张善锺等.计量光栅技术[M].北京:机械工业出版社,1985:181-240.
[11] Lu Haibao,Cao Juliang,Su Shaojing,etal,Research on displacement sensor with nonsymmetrical double gratings[C].Proceedings of SPIE - The International Society for Optical Engineering,v 4077,2000:40-43.
[12]周绪文,反射波地震勘探方法,北京:石油工业出版社,1989
[13]湘赣,地震勘探仪器的现状与发展,物探装备,2001,11(1)
[14]李庆忠.定向精确勘探的道路.北京:石油工业出版社,1993
[15] R.E.Sherriff,Structural Interpretation of Seismic Data AAPG 1981
[16]王燮培等,石油勘探构造分析,北京:中国地质大学出版社,1990
[17] 2000F J Barr Seismic Data Acquisition Recent Advances and the Road Ahead.63 Annual International Meeting S.E.G, Expanded Abstracts, 1993
[18]肖忠样,数据采集原理,西安:西北工业大学出版社,2001
[19]董敏煜,地震勘探,东营:石油大学出版社,
[20]俞寿朋,高分辨率地震勘探,北京:石油工业出版杜,1993
[21]王文良,地震勘探仪器的发展、时代划分及其技术特征,石油仪器,2004,18(1)
[22]袁子龙,狄帮让,肖忠祥,地震勘探仪器原理,石油工业出版社,2006年5月
[23]刘丽萍,李淑清,均匀磁场对检波器失真度的影响,1998年; 12(1)
[24]薛立武等,浅谈稀土磁体地震检波器的发展,石油仪器,2000年;14(6)
[25]唐文彦,传感器,机械工业出版社,2007年8月
[26]张国雄,测控电路,机械工业出版社,2001,313~315
[27]单成祥,传感器的理论与设计基础及其应用,国防工业出版社,1999
[28]颜永安等,石油勘探MEMS传感器的研究[J],物探装备,2005,15(1):1-5.
[29] Pepe Davis, Jeff Bush. Non-contact fiber optic vibrometer, Part of the SPIE Conference on Fiber Optic Technology and Applications, Boston, Massachusetts, Sep, 1999, SPIE Vol.3860, pp390~399
[30] Nobuaki Takahashi, Kazuto Yoshimura, et al. Vibration sensing with fiber Bragg grating, SPIE Vol.4513, pp1~6
[31] Jinsong Leng, A.K.Asundi, et al. Vibration measurement of smart composite structures by using the new intensity modulated optical fiber sensor, SPIE Vol3541, pp110~115.
[32] R. Daniel Costley, Vincent Valeau, Ning Xiang. Continuous scanning laser Doppler vibrometer for mine detection, SPIE Vol.4038, pp711~718
[33]刘彬吕宏诗,一种激光多普勒扭矩传感器的设计原理研究,传感技术学报.2004,17(2).-252-254
[34]杜振辉等,激光光栅多普勒效应微小振动测量,光学学报,2004,6 P834-837
[35]郁道银,谈恒英,工程光学[M],北京:机械工业出版社,2000:75-90
[36] Su Shaojing,Liu Hui,Wang Yueke,l_u Haibao.A NovelVirtual Instnunent for Displacement Measure by Procmoir6 signals[C J.2ne International Symposium on Instrume ntation Science and Technology,2002,1:436～440
[37] Song Kongjie, Zhang Weibo, Niu Junchuan. Application and development of power flow theories in the field of the vibration control for flexible systems. Chinese Journal of Mechanical Engineering, v 39, n 9, September, 2003, p 23-28
[38]孙义雁,国内外用于位置和振动测量的激光干涉测量法,测控技术,1990年第3期,pp28~30
[39] Chu, Xingchun; Lu, Haibao; Chen, Tinzheng; et al. Investigation on long-range nanometer resolution grating moire interferometer. Proceedings of SPIE - The International Society for Optical Engineering, v 5635, Nanophotonics, Nanostructure, and Nanometrology, 2005, p 333-341
[40] Lu Haibao, Cao Juliang, Chen Jianyun, Research for wide range and high resolution displacement measurement with grating, Proceedings of SPIE - The International Society for Optical Engineering, v 4222, 2000, pp 323-326.
[41] Rosvold, Geir Ove. Video-based vibration analysis using projected fringes. Applied Optics, v 33, n 5, Feb 10, 1994, p 775-786.
[42] Cao, Xiangqun; Xu, Jin; Tang, Tianjin; Lu, Zukang, Research on parameter of grating digital subdivision. Proceedings of SPIE - The International Society for Optical Engineering, v 6150 I, 2nd International Symposium on Advanced Optical Manufacturing and TestingTechnologies: Optical Test and Measurement Technology and Equipment, 2006, p 615019
[43] Cui, Ji; Li, Huaiqiong; Chen, Qian. New digital subdividing and rester-sensing technique for Moire fringes of grating. Optical Technique, v 26, n 4, Jul, 2000, p 294-296
[44] Li, H.; Chen, Q.; Wang, Y. A new digital subdividing technique for grating signal and its error analysis. Acta Metrologica Sinica, v 22, n 4, 2001, p 281-283
[45] Yu, Fangping; Li, Heming, Subdivision of grating signal and the error-compensation by microcomputer. Journal of Wuhan Transportation University, v 21, n 2, Apr, 1997, p 207-210
[46] Von Martens, Hans-Juergen. Investigations into the uncertainties of interferometric measurements of linear and circular vibrations. Shock and Vibration, v 4, n 5-6, 1997, p 327-340.
[47]祝绍箕,黄宣劭等.光栅数字显示技术及其应用[M].北京:机械工业出版社,1992:90-111
[48]祝绍箕,邹海兴等.衍射光栅[M].北京:机械工业出版社,1988:343-371.
[49]郑伟,基于FPGA的光栅检测片上系统(SOC)的研制[D].沈阳:沈阳工业大学,2007.
[50]王荣秀.基于单片机和CPLD的粗光栅位移测量系统研究[D].重庆:重庆大学,2006.
[51]张金龙,刘京南.莫尔条纹信号在精密检测与定位中的应用[J].测控技术,2003,22(6):8-10.
[52] Ragulskis, M.; Maskeliunas, R.; Saunoriene, L. Identification of in-plane vibrations using time average stochastic moiré. Experimental Techniques, v29, n6, November/December, 2005, p 41-45.
[53] Hopstone, P; Katz, A.; Politch, Jacob. Variation in displacement values along projection moire fringes in contour difference and vibration analysis of structures. Optical Engineering, v 29, n 1, Jan, 1990, p 6-8.
[54] Asundi, anand. Novel techniques in reflection moiré. Experimental mechanics, v 34, n 3, sept, 1994, p 230-242.
[55]南忠良,叶声华.数字光栅测振传感器性能分析与测试[J].天津大学学报,2005,38(10):919-922.
[56]李晖,刘庭欣,光栅莫尔条纹的辨向和细分电路研究,辽宁大学学报(自然科学版)第30卷第2期2003年,p127-128
[57]袁小滨,李怀琼,光栅莫尔条纹数字细分技术及其误差分析,西安公路交通大学学报,2001年1月,第21卷第1期,p113-115
[58]李欣,黄世涛,张云,冯之敬,光栅莫尔条纹细分技术的研究,现代制造工程2004年第6期,p83-85
[59]欧阳航空,陆林海,侯彦丽,基于DSP的光栅莫尔条纹信号辨向与细分电路研究,制造业自动化,第27卷第5期2005-05,p5-7(47)
[60]王君立,李大一,刘琳,莫尔条纹快速细分在光电轴角编码器中的应用,微细加工技术,2005年12月第4期,p16-20
[61]吕海宝,曹聚亮,苏绍景,莫尔条纹软件计数法,光学技术,2000年11月第26卷第6期,p543-545
[62]李怀琼,陈钱,王钰,新型光栅信号数字细分技术及其误差分析,计量学报,2001年l0月第22卷第4期,p281-283
[63]余文新,胡小唐,邹自强,一种高分辨率和高频响的光栅纳米测量细分方法,天津大学学报,第35卷第l期,2002年1月,p1-4
[64]刘清,用DSP实现光栅高准确度细分技术,传感器技术,2003年第22卷第7期,p25-27
[65]卢国纲,位移测量技术及其传感器的最新发展,WMEM专访专论,2005,8(4):72-73.
[66]李庆忠,高分辨率地震勘探对地震仪器的技术改进要求,石油物探装备,1992,2(1)
[67]袁子龙,胡亚华,曹广华,高分辨率地震数据采集中的高频补偿,大庆石油学院学报2002,26(3)
[68]袁子龙,李婷婷,地层吸收衰减与地震仪器记录性能,石油物探,2004,43(5)
[69]陶知非,可控震源与高分辨率,石油物探装备,1998;Vol.2
[70] U.S Patent Nov.21,1995 sheet 3 0f 6 5,469,408 HIGH RESOLUTION GEOPHONE
[71]李淑清.新型高精度地震检波器.物探装备.2002年;第12卷,第2期
[72] Input/Output Inc. VectorSeisR System FourTM VC Field Development Giude.2003
[73]陈才和,李淑清等,光纤加速度地震检波器的研究,光子学报,1996.5(Z1),364
[74]丁桂兰,刘振富等.顺变柱体型全光纤加速度检波器敏感元件,光子学报,2000,Vol.29(Z1)
[75]唐建人,李勤学高分辨率地震勘探理论与实践.北京:石油工业出版社,2001
[76] Xue Yuan, Ling Xian-Zhang, Lu Nian-Li, et al. Progress of application and research on mechanical vibration technology in engineering. Chinese Journal of Rock Mechanics and Engineering, v 24, n SUPPL. 2, November, 2005, p 5901-5908
[77] Tang K.Z., Tan K.K., De Silva C.W., et al. Application of vibration sensing in monitoring and control of machine health. IEEE/ASME International Conference on Advanced Intelligent Mechatronics, AIM, v 1, 2001, p 377-382.
[78] Li C., Hu S.,Li J.. Application of modal analysis to cylinder structure based on random vibration test. Applied Mechanics and Materials, v 5-6, Modern Practice in Stress and Vibration Analysis VI - Proceedings of the 6th Internaional Conference on Modern Practice in Stress and Vibration Analysis, 2006, p 225-230.
[79] Reynders E., De Roeck G... Measurement of modal curvatures using optical fiber strain sensors and application to damage identification using vibration monitoring. Proceedings of SPIE - The International Society for Optical Engineering, v 5855 PART II, Fonds voor Wetenschappelijk Onderzoek - Vlaanderen, FWO, 2005, p 1076-1079.
[80] Zeng Yigen, Forssberg Eric. Application of vibration signals to monitoring crushing parameters. Powder Technology, v 76, n 3, Sept, 1993, p 247-252.
[81] Fein Howard. An application of holographic interferometry for dynamic vibration analysis of a jet engine turbine compressor rotor. Proceedings of SPIE - The International Society for Optical Engineering, v 5005, 2003, p 307-315.
[82] Ross R.G. Jr., Johnson,D.L., Kotsubo,V.. Vibration characterization and control of miniature Stirling-cycle cryocoolers for space application. Advances in Cryogenic Engineering, v 37, n pt B, 1991, p 1019-1027.
[83] Siddique Abu B., Wegner Leon D., Sparling Bruce F.. Application of vibration-based damage detection to an integral abutment bridge. Proceedings of SPIE - The International Society for Optical Engineering, v 5767, Nondestructive Evaluation and Health Monitoring of Aerospace Materials, Composites, and Civil Infrastructure IV, 2005, p 225-235.
[84]曾为,陈培峰,朱明珠,激光振动测量的发展与展望,光机电信息,2005.5,pp16-19
[85] Ph.Delaye, S.de Rossi, G.Roosen Detection of High Ampltude Vibrations on Rough Sufaces Using a Photorefractive Velocimeter. Fouth international Conference on Vibration Measurements by Laser.techniques:Advances and Applications. SPIE Vol.4.72(2000),44~p52
[86]张毅,张书练,光电振动传感技术新进展,激光技术,2001年6月第3期,p161-165。
[87]孙传友,潘正良,地震勘探仪器原理东营:石油大学出版社,1996
[88]朱广生,地震资料储层预测方法,北京,石油工业出版杜,1995
[89]张海明,陈晓非.地震波研究[J].地震学报,2003,25(5):465-470
[90]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p10-15
[91]大港油田科技丛书编委会.地震勘探资料采集技术[M].北京:石油工业出版社,1999:1-76
[92]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p77-79
[93]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p79-80
[94]何樵登主编,地震勘探原理与方法,地质出版社,1989年10月,p85-91
[95]郝钧等,三维地震勘探技术[M],北京:石油工业出版社,1992,1-52
[96]孙洁娣,温江涛,靳世久,基于地震动信号的管道安全监测系统的研究,侧试技术学报,2008年3月,p211-214
[97]牛玉森,田书林,一种地震波信号检测与处理方法[J].测控技术,2005,24(9):12-14.
[98]边肇祺等.模式识别.清华大学出版社, 1988
[99]易宗富,庄有志等,油气藏模式识别方法,西南石油学院学报,1996年2月,p10-20
[100] F.阿迈拉登著,李衍达等译.模式识别与图象处理.石油工业出版社, 1991
[101] J. Duchene, S. L eclercq . A n op t imal t ransfo rmat ion fo r discrim inant and p rincipal component analysis, IEEE PAM I210,No. 6, 1988
[102]陶知非,新世纪物探装备技术综述,物探装备,2001年6月p77-83
[103]雷孔成,余海波,光栅传感器的优化设计,世界制造技术与装备市场,2001,(1),63~64
[104]王玉富,王开颜,动态莫尔条纹在转镜式激光照排机中的应用,传感器技术,2002年第21卷第9期,p51-53
[105]李德葆,沈观林,冯仁贤,振动测量与应用基础,北京,清华大学出版社,1987
[106]张维屏,机械振动学,冶金工业出版社,1983,27~38
[107]张思,振动测试与分析技术,清华大学出版社,1992
[108]俞本立,孟军,微振动的高精度测量,光电工程,2006年1月,第33卷第1期,120-122。
[109]雷孔成,余海波,光栅传感器的优化设计,世界制造技术与装备市场,2001,(1),63~64
[110]纪纲,叶军,光栅传感器的设计要点分析,仪表技术与传感器,1995,(4),11~13,
[111]董荣生,王正岭,莫尔条纹在微小振动测量中的应用,激光杂志,2004年第25卷第2期,p64-65
[112]李丰而钟金刚,位移的莫尔条纹测量技术,实验技术与管理, V01.19 Xo.3 2002
[113]静波,陈之炎,机械振动测量的激光干涉技术原理及其应用,噪声与振动控制,1995年10月,第5期,pp40~43
[114]林超,钢筋混凝土桥梁的振动测量,华南地震,2003年3月第23卷第1期,82-86.
[115]扬淑连,曾兆香,光栅传感器的研究,山东工程学院学报, 1998年6月,第12卷第2期,11~14
[116]陈勇,陈慧宝,孙桂清,陈雨仓,光栅莫尔条纹信号质量的提高及其采集方法,上海大学学报(自然科学版),2004年4月,第10卷第2期,129-132。
[117]栗合营俞梅,差动式磁电相对振动速度传感器的研制,传感器技术.2003,22(1).-25-27
[118]刘芹任建亭姜节胜等,复合材料薄壁圆柱壳热振动特性分析2006,28(5):643～648
[119]王益民,靳世久等,磁生物效应研究中圆片永磁磁源空间磁感强度的计算方法,中国医学物理学杂志,2000年10月,p249-250
[120]吕海宝,徐涛等,双级闪耀光栅位移精密测量的傅立叶分析[J],国防科技大学学报,2000,22(3):96-99
[121] Daniel Post.MoiréFringe Multiplication with a Nonsymmetrical Doubly Blazed Reference Grating[M].Applied Optics,1971,10(4):901-907
[122] Daniel Post.Analysis of MoiréFringe Multiplication Phenomena[J].Applied Optics,1967,6(11):1938-1942
[123]张绍宗,耿宝山.双级炫耀光栅在长度测量中的试验[J].计量技术,1981(4):5～8
[124]吕乃光.傅里叶光学[M].北京:机械工业出版社,1998
[125] K.Patorski. Handbook of The MoiréFringe Technique[M]. Poland :Institute for Design of Precise and Optical Instruments Warsaw University of Technology Warsaw, 1993
[126]赵博,晏磊等.闪耀光栅的傅立叶分析[J].光学技术,2001,27(2):103-108
[127] Sergio De Nicola.Fringe analysis for moiréinterferometry by modification of the local intensity histogram and use of a two-dimensional Fourier transform method[J].Measurement Science & Technology,2000,11(9):1328-1334
[128] S De Nicola,P Ferrarot.Fourier transform method of fringe analysis for moiréinterferometry[J].Journal of optics,2000,2(3):228-233
[129]孙贤颐,安维蓉,王志晓,提高光栅测距精度的四倍频判向电路,[J].北方交通大学学报,1996,20(6)
[130]崔骥,李怀琼,陈钱,光栅莫尔条纹信号的细分与辨向新技术,光学技术[J] ,2000,26(4)
[131]李晖,刘庭欣,光栅莫尔条纹的辨向和细分电路研究,辽宁大学学报自然科学版[J],2003,30(2)
[132]张英杰,海淘,一种辨别莫尔条纹移动方向的实时性辨向电路,现代电子技术,2004年第19期总第186期,29-31
[133]黄智伟等,FPGA系统设计与实践[M],北京:电子工业出版社,2005:3-78
[134]刘韬,楼兴华,FPGA数字电子系统设计与开发实例导航[M],北京:人民邮电出版社,2005:70-90
[135]徐志军,徐光辉,CPLD/FPGA的开发与应用[M],北京:电子工业出版社,2002
[136] XILINX,Using IP Cores in Spartan-3 Generation FPGAs,XILINX,2005,(6):1-6
[137] XILINX,Using Block RAM in Spartan-3 Generation FPGAs,XILINX,2005(3):1-40
[138] XILINX,Spartan 3E FPGA Family Complete Data Sheet[M],XILINX,2006:1-117
[139] Step hanie Tapp,Configuring Xilinx FPGAs with SPI Serial Flash,Xilinx,2006,(12):1-23
[140]黄任.AVR单片机与CPLD/FPGA综合应用入门[M],北京:北京航空航天大学出版社,2004:51-62
[141]袁小滨,李怀琼光栅莫尔条纹数字细分技术及其误差分析,西安公路交通大学学报,2001,Vol.21,113~115
[142]楚兴春吕海宝杜列波周卫红,莫尔条纹交点跟踪计数细分法,宇航计测技术,2OO4年12月,第24卷第6期,1-5
[143] Yan Zhang, Jing Ning, Shangming Yang, Hongliang Cui ,“Field test investigation of fiber optic seismic geophone inthe oilfield exploration”, Proc. SPIE 6770, 677005(2007).
[144] Quanming Zhang, Huijin Liu, Quanni Lan,“Power quality signal denoising based on wavelet hybrid thresholdmethod”, Electric Power Automation Equipment, Papers 28(8),158-173(2008).
[145] Daubechies I.Sweldens W.,“Factoring wavelet transform into lifting steps”, Journal of Fourier AnalysisApplication, Paper 4(3), 247-269.
[146] Jianxin Wang, [Labwindows/CVI Testing Technology and Engineering Applications], Chemical Industry HousePublishers, Beijing, 165-175(2006).
© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号 地址：北京市海淀区学院路29号 邮编：100083 电话：办公室：(+86 10)66554848；文献借阅、咨询服务、科技查新：66554700 |