Measuring device the total electron content of the ionosphere AT WORK dual-frequency mode of satellite navigation systems

• 1. 一种全球卫星导航系统测量装置 [P] . 中国专利： CN211180219U . 2020.08.04
• 2. 一种基于北斗卫星导航系统的车速测量装置 [P] . 中国专利： CN208172032U . 2018.11.30
• 3. Measuring device the total electron content of the ionosphere AT WORK single-frequency satellite navigation systems [P] . 俄罗斯专利： RU76462U1 . 2008-09-20

  机译： 测量设备AT WORK单频卫星导航系统电离层的总电子含量

• 4. system and method for measuring the total electron content in ionosphere and the differential code bias using global navigation satellite system and recording medium thereof [P] . 韩国专利： KR101387659B1 . 2014-04-21

  机译： 全球导航卫星系统测量电离层总电子含量和微分代码偏差的系统和方法及其记录介质

• 5. SYSTEM AND METHOD FOR MEASURING TOTAL ELECTRON CONTENT IN IONOSPHERE AND DIFFERENTIAL CODE BIAS USING GLOBAL NAVIGATION SATELLITE SYSTEM AND RECORDING MEDIUM THEREOF [P] . 韩国专利： KR20130135636A . 2013-12-11

  机译： 利用全球导航卫星系统并记录其中的介质来测量电离层总电子含量和微分代号偏差的系统和方法

• 1. Anomaly distribution of ionospheric total electron content responses to some solar flares [J] . HuiJun Le, LiBo Liu, YiDing Chen, 地球与行星物理（英文） . 2019,第006期
• 2. Anomaly distribution of ionospheric total electron content responses to some solar flares [J] . HuiJun Le, LiBo Liu, YiDing Chen, 地球与行星物理:英文版 . 2019,第006期
• 3. Global empirical modelling of the total electron content of the ionosphere for satellite radio navigation systems [J] . Ivanov V.B., Gefan G.D., Gorbachev O.A. Journal of atmospheric and solar-terrestrial physics . 2011,第13期
• 4. New results of ionospheric total electron content measurements from a low-cost global navigation satellite system receiver and comparisons with other data sources [J] . Daniel Okoh, Aderonke Obafaye, Babatunde Rabiu, Advances in space research . 2021,第9期
• 5. Short-term forecasting of ionospheric total electron content over a low-latitude global navigation satellite system station [J] . Gampala Sivavaraprasad, D. Venkata Ratnam Radar, Sonar & Navigation, IET . 2017,第8期
• 6. Total electron content mapping using global navigation satellite systems [C] . Kunitsyn V.E., Andreeva E.S., Nesterov I.A., Ionospheric Radio Systems and Techniques (IRST 2012), 12th IET International Conference on . 2012
• 7. On the treatment of noise and conspiring bias in dual-frequency differential Global Navigation Satellite Systems [D] . Bruckner, Dean C. 2010
• 8. Study of Spatial and Temporal Variations of Ionospheric Total Electron Content in Japan during 2014–2019 and the 2016 Kumamoto Earthquake [O] . Tianyang Hu, Yibin Yao, Jian Kong 2021
• 9. Local ionosphere model estimation from dual-frequency global navigation satellite system observables [O] . R. H. Mitch, M. L. Psiaki, D. M. Tong 2013
• 10. Automated Daily Process for Global Ionospheric Total Electron Content Maps and Satellite Ocean Altimeter Ionospheric Calibration Based on Global Positioning System Data [R] . Iijima, B., Harris, I., Ho, C., 1999

• 1. Total Electron Content and Anomalous Appearance of GPS Satellites as Pointers to Epicentre Identification of Major Japan Earthquake of 2011 [J] . Minakshi Devi ,Ananda Kumar Barbara . 导航（英文） . 2012,第1期
• 2. Questions on Optimization of Measurement of Total Electron Content in Ionosphere with GPS [J] . Arif Shafayat Mehdiyev ,Ramiz Ahmed Eminov ,Hikmat Hamid Asadov . 导航（英文） . 2014,第3期
• 3. A Statistical Study on Seismo-Ionospheric Anomalies of the Total Electron Content for the Period of 56 M ≥ 6.0 Earthquakes Occurring in China During 1998-2012 [J] . Liu J Y ,Chen C H ,Tsai H F . 空间科学学报 . 2013,第003期
• 4. 用比率法测量电离层的总电子含量 [C] . 马安新 . 中国天文学会日地关系物理机制讨论会 . 1988
• 5. 利用全球导航卫星研究电离层总电子含量特性 [A] . 武业文 . 2013