摘要
针对海态水平度测量的需求,本文论述了一种海态水平度测量方法。
本文根据海态运动的变化以及远距离测量的要求,采用岸、海对瞄内错角相等的测量原理组成了一套测量装置,装置分成三部分:对瞄跟踪;同步采样和激光测距。在对瞄跟踪系统中,采取了投射法,在远距离同步采样中,采用光信号传输,大大缩短了采样时间。并分析了在远距离测量水平度时,地球曲率影响修正量的计算。并为减小对准误差设计了2倍消色差显微物镜;在同步采样方案中,使激光传输达到更好的效果,设计了激光准直系统。
经过陆态实验,测量设备的对准精度为σ=2.5″,采用航天标准2.7σ=6.8″。满足测量要求。
According to the demand of the sea level measurement, A method for measuring the sea level is introduced in his paper. Based on the change of the sea level and the requirement of the long-distance measurement, we have invented a metrology equipment by the bank-sea pointing theory, this equipment includes three parts, which are aiming-tracking system, synchronous sampling system and laser ranging system. The projection method has been taken in the aiming-tracking system and the optical signal propagation method has been taken in the long-distance synchronous sampling system to shorten the time of the sampling. The correction of the earth curvature contribution has been calculated while analyzing the long-distance measuring levelness. A 2~x achromatic microscope has been also designed to reduce the aiming error. For a better propagation of the laser, there is a laser alignment system designed to serve this purpose in the synchronous sampling method.
By the terrestrial experiment, we can achieve a aiming errorσ= 2.5", according to the aero standard 2.7σ= 6.8", it meets the challenge of the measurement.
引文
[1]王志坚,刘冬梅,付跃刚.光工程基础.北京:兵器工业出版社,2005.
[2]国防科工委科技与质量司组织编写.几何量计量.北京:原子能出版社,2002.
[3]王大珩.现代仪器仪表设计.北京:科学出版社,2003.
[4]Richard Ditteon.现代几何光学.湖南大学,2004.
[5]袁旭沧.现代光学设计方法.北京:北京理工大学出版社,1995。
[6]袁旭沧.光学设计.北京;科学出版社,1983.
[7]李士贤,郑乐年.光学设计手册.北京:北京理工大学出版社,1990.
[8]王鹏,李润顺,王志坚.P.W法中的问题。光学学报.16卷10期1996.
[9]李相银,姚敏玉,李卓等.激光原理技术及应用.哈尔滨:哈尔滨工业大学出版社,2004.
[10]郁道银.谈恒英.工程光学.北京:机械工业出版社,1999.
[11]钟锡华,赵凯华.光学.北京:北京大学出版社,1984
[12]王之江 顾培森.实用光学技术手册.北京:机械工业出版社,2006.
[13]刘钧,高明.光学设计.西安:西安电子科技大学出版社,2006.
[14]杨振禁,邱炎春.光学工程原理.天津:南开大学出版社,1995.
[15] 《光学仪器设计手册》编辑组.光学仪器设计手册.北京:国防工业出版社,1971.
[16]福建光学技术研究所,国营红星机电厂编译.光学镜头手册.北京:国防工业出版社,1992.
[17]国防科工委科技与质量司组织编写.计量技术基础.北京:原子能出版社,2002.
[18]杨志文.光学测量.北京理工大学出版社,2002.
[19]李林等.APPLIED OPTICS.北京:北京理工出版社.2005.
[20]陆元九.惯性器件.北京:中国宇航出版社.2005.
[21]高扬.CCD动态光电自准直仪的研究.硕士论文.2007.
[22]杜宝勋.半导体激光器原理.北京:兵器工业出版社.2001.
[23]江剑平.半导体激光器.北京:屯子工业出版社,2000.
[24]王鹏.像差理论与光学设计的研究.硕士学位论文.1996.
[25] George R. Armstrong Submarine periscope thermal imaging : its evolution in the UK .SPIE Vol. 2744.
[26] Toshiyasu NAKAO, Atsushi KASHITANI .A 360-degree Panoramic Camera using a Mirror RotationMechanism . SPIE Vol. 4310.
[27] Stan Rollins. AUTONOMOUS MOBILE PERISCOPE SYSTEM (AMPS) IEEE.
[28] Gerrit M. van der Molen and Michael J. Grimble & Submarine Depth and Pitch Control IEEE, 1993.
[29] Eduardo Liceaga-Castro and Gerrit M. van der Molen, Associate Member Submarine Hm Depth ControlUnderWave Disturbances IEEE TRANSACTIONS ON CONTROL SYSTEMS TECHNOLOGY, VOL. 3, NO. 3, SEPTEMBER 1995.
[30] Anthony J. Grehanl, Mark McKillen .CUSTOMISATION OF RAPID VISUAL RECONNAISSANCESEDIMENT PROFILEIMAGERY. TECHNOLOGY FOR USE WITHIN THE DEEP SEA 0-7803-5045-6/98/$10. 00 01 998 IEEE.
[31] Max Born and Emil Wolf Principles of Optics. CAMBRIDGE UNIVERSITY PRESS, 2001.
[32] OSHEA D C. Elements of Modern Design. New York John Wiley, 1985.
[33] Fr' ed' eric Cassaing, B' eatrice Sorrente . Optical design of a Michelson ride-field multiple-aperture.Proc. of SPIE Vol. 5249
[34] Omer L. Hageniers. Inspection Methodology and Data Structure for Large Area ND! SPIE Vol, 2945.
[35] Steve Robbins. Simulation and Flight Trials of a Simple Helmet Mounted SightSystem Incorporating an Optical Helmet Tracking System. SPIE Vol, 3689.
[36] Chris Bigwood, Lee Eccles. Thermal Imager for Dismounted Infantry. SPIE Vol,5612.
[37] James C. DeBruin. Derivation of line-of-sight stabilization equations for gimbaled-mirror optical systems. SPIE Vol. 1543.
[38] Joseph Kostrzewa, William Terre. A Miniature Infrared Sight for both Weapon-Mounted and Handheld Security Applications. SPIE Vol, 5406.
[39] Arnott Hamilton. Strapdown optical stabilisation system for EO sensors on moving platforms. SPIE Vol, 2774.
[40] Toshifurni Shimizu, shinichi, Nagata, Chris Edwards. Image stabilization system on SOLAR-B Solar Optical Telecope. Proc. SPIE. 1998, (7) :1199-2004.
[41] Sung-Hee, Lee, kyung-Hee, Sung-Jea Ko. Digital Image Stabilizer Algorithms based on Bit-Plane Matching. Comsumer Electronics. 1998, 44 (3) :55-60.
[42] D.Holder,W.R.Philips. Electronic Image Stabilization. U.S Patent. 1987, 11(4).
[43] M. Oshima. VHS Camcorder with electronic images Stabilizer. Consumer Electronics. 1989, 35(4);749-750.
[44] D. N. Es KOv, Yu. A. Stepin. Optical image stabilization methods and means. Sov. J. Opt. Technol, 1982,49(1).
[45] Jean Maheux, James Cruikshank, Leandre Sevigny. Vidio-Rate Image Stabilization System. 1998. 34 (14); 232-240.
[46] Koichi Sato, Shigeki Ishizuka. Control Techniques For Optical Image Stabilizing System. Transactions On Consumer Electronics. 1993, 3(3).
[47] Carlos Morimoto, Rama Chellappa. Evaluation of Image Stabilization Algorithms. IEEE 1998, 2789-2792.
[48] G.Wysocki, R.Denk, K.Piglmayer, N.Arnold, andD.Bauerle.Single-step fabricationofsilicon-conearrays. APPLIEDPHYSICSLETTERS, 2003.5(82) 1556-1559.
[49] A. Saitohand K. Tanaka. Self-developing aspherical chalcogenide-glass microlensesforsemiconductorlasers. APPLIEDPHYSICS LETTERS, 2003.9(83) 1726-1730.
[50] Huei-Min Yang, Sun-Yuan Huang, Chao-Wei Lee, Tsong-Sheng Lay, Member, IEEE andWood-Hi Cheng, Senior Member, IEEE, Member, OSA.High-Coupling Tapered Hyperbolic Fiber Microlens and Taper Asymmetry Effect. JOURNAL OF LIGHTWAVE TECHNOLOGY, VOL. 22, NO. 5, MAY 2004.789-792.
[51] Michael Lidwell Steerable zoom periscope SPIE, Vo(?). 2539/25.