Development Status and Prospect of Photoelectric Measurement Equipment in Range

Yi Yu; Zhenyu Liu; Zhiyuan Sun; Haibo Liu

doi:10.3788/AOS221583

[1] Wei H, Ge J, Zhou Q B. Multi-band infrared tracking and measuring system[J]. Infrared Technology, 28, 74-76(2006).

[2] Li M L, Hu X C, Zhen X L et al. Research on outfield calibration technology of infrared radiation[J]. Journal of Telemetry, Tracking and Command, 35, 61-66(2014).

[3] Chen W, Wang Z X, Ma D H et al. Calculation and simulation of infrared radiation characteristics of non-uniform hot gas[J]. Infrared and Laser Engineering, 39, 17-21(2010).

[4] Chang S T. Research on infrared theodolite design and key technologies to improve the radiometry precision[D](2015).

[5] Sun Z Y, Chang S T, Zhu W. Radiometric calibration method for large aperture infrared system with broad dynamic range[J]. Applied Optics, 54, 4659-4666(2015).

[6] Chang S T, Li Z. Calibration algorithm for cooled mid-infrared systems considering the influences of ambient temperature and integration time[J]. Applied Optics, 58, 8118-8125(2019).

[7] Chang S T, Zhang Y Y, Sun Z Y et al. Method to remove the effect of ambient temperature on radiometric calibration[J]. Applied Optics, 53, 6274-6279(2014).

[8] Yu Y, Wang M, Chang S T et al. Drift compensation of infrared imaging system using ambient temperature[J]. Acta Optica Sinica, 34, 1004002(2014).

[9] Sun Z Y, Wang M, Chang S T. Effect and correction of environmental temperature on infrared radiation measurement precision[J]. Laser & Infrared, 44, 522-527(2014).

[10] Sun Z Y, Chang S T, Zhu W. Simplifying method of radiance calibration for MWIR detector[J]. Infrared and Laser Engineering, 43, 2132-2137(2014).

[11] Zhang Z, Wan Z, Sun J X et al. Development and calibration of dual-waveband infrared radiometer for Jones calibration method[J]. Acta Optica Sinica, 36, 0623002(2016).

[12] Yang Z H, Guo J G, Tong H Y et al. Analysis of impact on infrared radiation calibration caused by stray radiation of collimator[J]. Infrared and Laser Engineering, 43, 3199-3204(2014).

[13] Sun Z Y, Chang S T, Zhu W. Radiation calibration method for infrared system with large aperture and broad dynamic range[J]. Acta Optica Sinica, 34, 0712006(2014).

[14] Sun Z Y, Chang S T, Zhu W et al. Radiation calibration of infrared system by amendment of inner and outer calibrations[J]. Optics and Precision Engineering, 23, 356-362(2015).

[15] Tian Q J, Chang S T, Qiao Y F et al. Radiometric calibration based on low-temperature area blackbody for infrared systems with high dynamic range[J]. Acta Photonica Sinica, 46, 0412003(2017).

[16] Wei H L, Chen X H, Rao R Z. Introduction to the combined atmospheric radiative transfer software CART[J]. Journal of Atmospheric and Environmental Optics, 2, 446-450(2007).

[17] Chen X H, Wei H L, Xu Q S. Infrared atmospheric transmittance calculation model[J]. Infrared and Laser Engineering, 40, 811-816(2011).

[18] Liu J C, Li H W, Wang J L et al. Measurement of mid-infrared total atmospheric transmittance and its error analysis[J]. Optics and Precision Engineering, 23, 1547-1557(2015).

[19] Yang C Y, Cao L H, Zhang J P. Measurement of infrared radiation for target airplane based on real-time atmospheric correction[J]. Optics and Precision Engineering, 22, 1751-1759(2014).

[20] Yang C Y, Zhang J P, Cao L H. Infrared radiation measurement based on proportional corrected atmospheric transmittance[J]. Optics and Precision Engineering, 20, 1626-1635(2012).

[21] Tian Q J, Li Z, Chang S T et al. Measurement method of infrared radiometric characteristics for high-temperature small targets[J]. Acta Optica Sinica, 37, 1012004(2017).

[22] Yang G Q, Li Z, Zhao C et al. Nonlinear atmospheric correction based on neural network for infrared target radiometry[J]. Infrared and Laser Engineering, 49, 20190413(2020).

[23] Yoder P, Vukobratovich D[M]. Opto-mechanical systems design(2015).

[24] Doyle K B, Genberg V L, Michels G J[M]. Integrated optomechanical analysis(2002).

[25] Guo X Q, Wang Y Y. Analysis of structural forms of lightweight hole for heavy caliber mirror[J]. Optics and Precision Engineering, 8, 518-521(2000).

[26] Zhang Y T. Dynamic performance analysis and support structure design of light-weight mirror[D](2013).

[27] Hou J M, Zhuo R S, Sun N. Lightweight design and analysis for a theodolite based on finite element method[J]. Journal of Changchun University of Science and Technology (Natural Science Edition), 31, 77-80(2008).

[28] Liu Y M, Xie J, Tian W et al. Inverse modeling of mirror surface figure based on finite element contact analysis[J]. Acta Photonica Sinica, 43, 0812001(2014).

[29] Xie J, He F Y, Wang J et al. Simulation and optimization of axial supporting structures for theodolite primary mirror[J]. Infrared and Laser Engineering, 45, S118001(2016).

[30] Bao Q H, Sha W, Chen C Z et al. Ultra-lightweight design of ϕ610 mm circular primary mirror supported in Centre[J]. Acta Photonica Sinica, 45, 0912007(2016).

[31] Wang C J, Wang D, Huang X et al. Optimization and finite element analysis of large-aperture SiC lightweight primary mirror[J]. Acta Optica Sinica, 41, 1122002(2021).

[32] Wang X. Research on optimized design of large-diameter mirrors and support structures[D](2018).

[33] Xie J, Pan F M, Liu J C et al. Lightweight structure design and performance analysis of primary mirror based on finite element method[J]. Optoelectronic Technology, 37, 211-215(2017).

[34] Zhao Y, Su C Z, Zhao G J et al. Structural optimization for the design of an ultra-lightweight SiC mirror with a diameter of 500 mm[J]. Chinese Optics, 13, 1352-1361(2020).

[35] Hu R, Chen Z Q, Zhang Y Y et al. Design and manufacture of Φ1.05 m lightweight mirror[J]. Opto-Electronic Engineering, 47, 200317(2020).

[36] Wang C, Wang Q L, Chen Y S et al. Design of metal mirror based on topology optimization and additive manufacturing[J]. Journal of Changchun University of Science and Technology (Natural Science Edition), 44, 13-18(2021).

[37] Xie J. Research on structural design and weight reduction of theodolite based on contact and vibration simulation[D](2017).

[38] Shi Y C, Yan H D, Gong P et al. Topology optimization design method for supporting structures of optical reflective mirrors based on Zernike coefficient optimization model[J]. Acta Photonica Sinica, 49, 0622001(2020).

[39] Woodard K S, Myrick B H. Progress on high-performance rapid prototype aluminum mirrors[J]. Proceedings of SPIE, 10181, 101810T(2017).

[40] Woodard K S, Comstock L E, Wamboldt L et al. Optimum selection of high performance mirror substrates for diamond finishing[J]. Proceedings of SPIE, 9822, 98220C(2016).

[41] Scheiding S, Gebhardt A, Damm C et al. Method for manufacturing a mirror comprising at least one cavity and optical mirror[P].

[42] Hilpert E, Hartung J, von Lukowicz H et al. Design, additive manufacturing, processing, and characterization of metal mirror made of aluminum silicon alloy for space applications[J]. Optical Engineering, 58, 092613(2019).

[43] Liu D, Jiang Y H, Dong D Y et al. Topological optimization design of space mirror based on additive manufacturing[J]. Journal of Mechanical & Electrical Engineering, 39, 1010-1016(2022).

[44] Gao G, Liu Z Y, Li Y B et al. A new method to generate the ground structure in truss topology optimization[J]. Engineering Optimization, 49, 235-251(2017).

[45] Shi H, Gao G, Xie J et al. A ground structure generation method for truss topology optimization on non-convex design domain[J]. Chinese Journal of Computational Mechanics, 35, 540-546(2018).

[46] Gao G. Research on theory and application of topology optimization of truss structures[D](2017).

[47] San X G, Wang J, Xue Y. A method of lightweight design for turntable of large photoelectric theodolite[J]. Journal of Changchun University of Science and Technology (Natural Science Edition), 33, 31-35(2010).

[48] San X G. Research on optimization design and simulation analysis for the key components of 1 m aperture photoelectric theodolite[D](2013).

[49] Shi H. The method for topology optimization of coupling structure of frames and shell[D](2018).

[50] Wu D, Wang C, Chen Y S et al. Topology optimization design of theodolite pedestal under multiple working conditions[J]. Journal of Changchun University of Science and Technology (Natural Science Edition), 43, 63-66, 111(2020).

[51] Xie J, Wang X M, Liu Z Y et al. Vehicle-mounted theodolite supporting platform[P].

[52] Duan Y P. Research and application on fusion photoelectric theodolite-radar measuring data[J]. Electronic Measurement Technology, 37, 47-49, 53(2014).

[53] Ma Y M, Han X. Optimization of disposition of radar and electro-optic theodolite stations based on genetic algorithm[J]. Computer Measurement & Control, 21, 3399-3401(2013).

[54] Li H. The exterior trajectory measuring method based on coordinate operation of radar and electro-optic theodolite[J]. Journal of Projectiles, Rockets, Missiles and Guidance, 30, 134-136(2010).

[55] Guo T J, Gao H B, Song L W et al. Resonant characteristic and hybrid compensation of OE-radar integrative measuring system[J]. Optics and Precision Engineering, 22, 926-933(2014).

[56] Liu J H, Lin Y N, Sun Z Y. Study on the co-aperture technology of millimeter wave/dual waveband infrared detective system[J]. Optical Technology, 30, 41-43(1998).

[57] Lu Q, Shen W M, Pan J H et al. Design of a coaxial microwave/IR dual mode antenna[J]. Infrared and Laser Engineering, 40, 2229-2232(2011).

[58] Zhang J. Design and implementation of milli-meter wave sensor and infrared imaging multiplex detection system[D](2012).

[59] Qu Z J. Key technology analysis and design of dual-mode simulation[D](2007).

[60] Zhou F. The research of dual-mode MW/IR simulation system[D](2006).

[61] Liu H S, Yu J H, Leng J et al. Millimeter-wave propagation characteristics in SiO2 fundus materials[J]. Infrared and Laser Engineering, 43, 1145-1149(2014).