中国科学院机构知识库网格
Chinese Academy of Sciences Institutional Repositories Grid
首页
机构
成果
学者
登录
注册
登陆
×
验证码:
换一张
忘记密码?
记住我
×
校外用户登录
CAS IR Grid
机构
云南天文台 [5]
国家天文台 [3]
长春光学精密机械与物... [1]
紫金山天文台 [1]
采集方式
OAI收割 [10]
内容类型
期刊论文 [7]
学位论文 [2]
会议论文 [1]
发表日期
2020 [1]
2018 [1]
2017 [2]
2016 [2]
2014 [2]
2012 [1]
更多
学科主题
天文学 [4]
信息科学与系统科学:... [1]
天文学::天体物理学 [1]
天文学::天体物理学... [1]
天文学::天文学其他... [1]
筛选
浏览/检索结果:
共10条,第1-10条
帮助
条数/页:
5
10
15
20
25
30
35
40
45
50
55
60
65
70
75
80
85
90
95
100
排序方式:
请选择
提交时间升序
提交时间降序
发表日期升序
发表日期降序
题名升序
题名降序
作者升序
作者降序
Astronomical Site Monitoring System at Lijiang Observatory
期刊论文
OAI收割
RESEARCH IN ASTRONOMY AND ASTROPHYSICS, 2020, 卷号: 20, 期号: 9, 页码: 18
作者:
Xin YX(辛玉新)
;
Bai JM(白金明)
;
Lun BL(伦宝利)
;
Fan YF(范玉峰)
;
Wang CJ(王传军)
  |  
收藏
  |  
浏览/下载:30/0
  |  
提交时间:2020/11/30
Astronomical Site Monitoring System
Lijiang Observatory
Cloud Sensor
Autonomous-DIMM
Estimating the mirror seeing for a large optical telescope with a numerical method
期刊论文
OAI收割
RESEARCH IN ASTRONOMY AND ASTROPHYSICS, 2018, 卷号: 18, 期号: 5, 页码: 6
作者:
Zhang, En-Peng
;
Cui, Xiang-Qun
;
Li, Guo-Ping
;
Zhang, Yong
;
Shi, Jian-Rong
  |  
收藏
  |  
浏览/下载:4/0
  |  
提交时间:2020/03/10
astronomical instrumentation
methods: numerical
telescopes
丽江站台址信息监测系统
期刊论文
OAI收割
天文学进展(Progress in Astronomy), 2017, 卷号: 35, 期号: 3, 页码: 367-380
作者:
辛玉新
;
王传军
;
范玉峰
;
伦宝利
;
白金明
  |  
收藏
  |  
浏览/下载:22/0
  |  
提交时间:2017/10/18
天文台址监测系统
天文气象站
云量
大气视宁度
带自定标的自动电磁环境频谱监测系统
期刊论文
OAI收割
天文研究与技术(Astronomical Research & Technology), 2017, 卷号: 14, 期号: 3, 页码: 392-400
作者:
乐林株
;
董亮
;
汪敏
收藏
  |  
浏览/下载:50/0
  |  
提交时间:2017/08/24
大型射电望远镜
脉冲星
电磁干扰
自定标
电磁环境
Optical Observing Conditions at Delingha Station
期刊论文
OAI收割
PUBLICATIONS OF THE ASTRONOMICAL SOCIETY OF THE PACIFIC, 2016, 卷号: 128, 期号: 968
作者:
Tian, J. F.
;
Deng, L. C.
;
Zhang, X. B.
;
Lu, X. M.
;
Sun, J. J.
收藏
  |  
浏览/下载:28/0
  |  
提交时间:2017/03/01
instrumentation: miscellaneous
methods: miscellaneous
site testing
Optical Observing Conditions at Delingha Station
期刊论文
OAI收割
PUBLICATIONS OF THE ASTRONOMICAL SOCIETY OF THE PACIFIC, 2016, 卷号: 128, 期号: 968, 页码: 105003
作者:
Tian, J. F.
;
Deng, L. C.
;
Zhang, X. B.
;
Lu, X. M.
;
Sun, J. J.
收藏
  |  
浏览/下载:21/0
  |  
提交时间:2016/12/21
中型望远镜观测系统集成
学位论文
OAI收割
博士, 北京: 中国科学院研究生院(云南天文台), 2014
作者:
范玉峰
收藏
  |  
浏览/下载:104/0
  |  
提交时间:2016/04/08
光学望远镜
天文仪器
观测系统
基于RTS2的自动DIMM系统的实现
学位论文
OAI收割
硕士, 北京: 中国科学院研究生院(云南天文台), 2014
作者:
彭焕文
收藏
  |  
浏览/下载:29/0
  |  
提交时间:2016/04/08
大气视宁度
ADIMM
RAO
RTS2
自主观测
自动寻星
指向
The photometric system of the Tsinghua-NAOC 80-cm telescope at NAOC Xinglong Observatory
期刊论文
OAI收割
RESEARCH IN ASTRONOMY AND ASTROPHYSICS, 2012, 卷号: 12, 期号: 11, 页码: 1585-1596
作者:
Huang, Fang
;
Li, Jun-Zheng
;
Wang, Xiao-Feng
;
Shang, Ren-Cheng
;
Zhang, Tian-Meng
收藏
  |  
浏览/下载:14/0
  |  
提交时间:2016/11/21
instrumentation: detectors
site testing
telescopes
Research on the support structure of the primary mirror of large-aperture telescope (EI CONFERENCE)
会议论文
OAI收割
3rd International Symposium on Advanced Optical Manufacturing and Testing Technologies, AOMATT 2007: Large Mirrors and Telescopes, July 8, 2007 - July 12, 2007, Chengdu, China
Yang W.
;
Jingxu Z.
收藏
  |  
浏览/下载:21/0
  |  
提交时间:2013/03/25
Large-aperture telescope can be used in surveying battlefield
researching landform
searching object
real-time monitoring
imaging
detecting and identifying spatial targets and so on. A large-aperture telescope for achieving high resolution power is designed to monitor spatial target and image in real time. Real-time monitoring plays an important role in military conflicts. The orbit parameter of object
quantity
geometrical shape parameter and so on can be obtained by detect spatial target. With the development of optical technology
people require larger aperture in optics-electronic (OE) system. By increasing optical aperture
the ability of collecting light and resolution power in the system can be enhanced. But the support structure of the primary mirror of large-aperture telescope will be a very difficult problem. With the increase of primary mirror aperture
the weight of the primary mirror will become larger than before. The root mean square (rms) of the primary mirror is affected by many factors
such as deadweight
deformation of heat
environment and so on. Due to the primary mirror of telescope is an important component of telescope system. By reducing the weight of primary mirror
precision of the system is ensured. During the designing phase
one can consider the supporting project of the primary mirror synthetically and analyze it roundly according to technical requirement of optical system and the effect factors. The final structural design can be reasonable. In an astronomical telescope
the surface of reflector is an important part for collecting dark radiation of celestial bodies. Its surface shape will have an effect on collecting efficiency of telescope radiant energy directly. So the rms must be very high. Optical system of large aperture
small wavelength and small focus can receive maximal light intensity. For ground-based optical astronomical telescope
the design proposed in the paper can satisfy the requirement of the possible minimum atmosphere seeing at astronomical observatory site and exert the use efficiency of the telescope adequately. So the accuracy of the traditional surface of reflector can assure that 90% of all the light energy can be focused on within the angle diameter range of the minimum atmosphere seeing
then 100% of light energy should be focused on the angle diameter range of minimum atmosphere seeing. Because the rms of mirror is very high
precise surface machining and accurate the support of mirror are very important tasks during designing and manufacturing the telescope. In the paper
various support techniques of a large-aperture telescope primary mirror are discussed and a 3.5 meter telescope system at the Starfire Optical Range (SOR) overviewed simply
which was operated by the Directed Energy Directorate of the Air Force Research Laboratory
Kirtland AFB
NM
USA from the ground-based O-E system for the observations of spatial target. We also analyze Theoretical elastic deformation of the Steward Observatory 2.3 meter mirror is analyzed.