Device for setting or determining the direction of travel, forming an optical or radio astronomical telescope

• 1. 行进方向计算装置、行进方向确定方法及记录介质 [P] . 中国专利： CN110388915A . 2019-10-29
• 2. 可透射电光学元件和设置可透射电光学元件的玻璃装置 [P] . 中国专利： CN1653379A . 2005-08-10
• 3. device for setting or determining the direction or radioastronomischer bigger optical telescopes [P] . 德国专利： DE000001463009A . 1969-04-10

  机译： 设置或确定方向的设备或射电天文学者更大的光学望远镜

• 4. Form variable mirror and compensating optical device and astronomical telescope and laser isotope separable device and laser beam machine [P] . 日本专利： JP3070892B2 . 2000-07-31

  机译： 形成可变镜和补偿光学装置及天文望远镜和激光同位素分离装置及激光束机

• 5. the optical device is applicable to any type of telephoto lens in the end of its transformation in astronomical telescope or land [P] . IT1053397B . 1981-08-31

  机译： 该光学设备在天文望远镜或陆地上转换结束后可适用于任何类型的远摄镜头

• 1. Cryogenic optical performance of a lightweighted mirror assembly for future space astronomical telescopes: correlating optical test results and thermal optical model [C] . Ron Eng, William R. Arnold, Marcus A. Baker, Material technologies and applications to optics, structures, components, and sub-systems . 2013
• 2. AN ATTEMPT TO DETERMINE A BASIS OF JOHANNES VERMEER'S METHOD OF PAINTING BY A COMPARISON OF THE IMAGES FORMED BY THE SIMPLE LENSES OF SEVENTEENTH CENTURY OPTICAL DEVICES WITH THE IMAGES IN MOST OF VERMEER'S PAINTINGS. [D] . FINK II, DANIEL ALFRED. 1968
• 3. Correction to ‘Spatial transformation-enabled electromagnetic devices: from radio frequencies to optical wavelengths’ [O] . Zhi Hao Jiang, Jeremy P. Turpin, Kennith Morgan, -1
• 4. A new astronomical facility for Peru: transforming a telecommunication's 32-metre antenna into a radio-telescope [O] . Ishitsuka, Jos K., Ishitsuka, M., Kaifu, N., 2007
• 5. Cryogenic Optical Performance of a Lightweighted Mirror Assembly for Future Space Astronomical Telescopes: Correlating Optical Test Results and Thermal Optical Model [R] . Eng, R, Arnold, W R, Kegley, J R, 2013

• 1. A fiber bundle structure with uniform transmission characteristics for high-density astronomical optical cables [J] . Qi Yan ,Chun-Lian Lu ,Liang Wang . 天文和天体物理学研究 . 2019,第008期
• 2. Simulation analysis of a method to improve data-transmission performance of Nanshan 26 m Radio Telescope based on Software-Defined Networks [J] . Jie Wang ,Hai-Long Zhang ,Na Wang . 天文和天体物理学研究:英文版 . 2021,第11期
• 3. Non-uniform temperature distribution of the main reflector of a large radio telescope under solar radiation [J] . Shan-Xiang Wei ,De-Qing Kong ,Qi-Ming Wang . 天文和天体物理学研究:英文版 . 2021,第11期
• 4. Developing an Advanced Prototype of the Acousto-Optical Radio-Wave Spectrometer for Studying Star Formation in the Milky Way [J] . Alexandre S. Shcherbakov ,Abraham Luna . 天文学与天体物理学国际期刊（英文） . 2014,第1期
• 5. 天文学家启动Atacama大型毫米级射电天文望远镜组(ALMA)项目——世界上最大的观测波长为毫米级的望远镜——译自美国国家射电天文台(NRAO)网页 [C] . 李国营 . 2004年重力学与固体潮学术研讨会暨祝贺许厚泽院士70寿辰研讨会 . 2004
• 6. 高灵敏度超宽带射电天文望远镜馈源的设计研究 [A] . 孙之捷 . 2019