84 citations as recorded by crossref.

1. Review of the accomplishments of mid-latitude Super Dual Auroral Radar Network (SuperDARN) HF radars N. Nishitani et al.
2. Case study on nightside polar ionospheric convection response to interplanetary shock (in Chinese) Q. LIU et al.
3. Radio wave propagation aspects of the CUTLASS radar T. Jones et al.
4. First observations of the midlatitude evening anomaly using Super Dual Auroral Radar Network (SuperDARN) radars S. de Larquier et al.
5. Dynamic subauroral ionospheric electric fields observed by the Falkland Islands radar during the course of a geomagnetic storm A. Grocott et al.
6. Key Ground-Based and Space-Based Assets to Disentangle Magnetic Field Sources in the Earth’s Environment A. Chulliat et al.
7. Seasonal variation of HF radar F region echo occurrence in the midnight sector A. Koustov et al.
8. A Ray Tracing Simulation of HF Ionospheric Radar Performance at African Equatorial Latitudes C. Michael et al.
9. High resolution bistatic HF radar observations of ULF waves in artificially generated backscatter D. Wright & T. Yeoman
10. Optimal F Region Electron Density for the PolarDARN Radar Echo Detection Near the Resolute Bay Zenith A. Koustov et al.
11. Coordinated radar observations of plasma wave characteristics in the auroral F region R. Makarevich & W. Bristow
12. Electron density and electric field over Resolute Bay andFregion ionospheric echo detection with the Rankin Inlet and Inuvik SuperDARN radars A. Koustov et al.
13. Modeling and Validating a SuperDARN Radar's Poynting Flux Profile G. Perry et al.
14. Simultaneous measurement of duskside subauroral irregularities from the CUTLASS Finland radar and EISCAT UHF system K. Hosokawa et al.
15. Ion acoustic HF radar echoes at high latitudes and far ranges P. Lacroix & D. Moorcroft
16. Upwelling Ion Observation from the Earth's Upper Atmosphere During EISCAT Svalbard Radar and FAST Satellite Conjunctions T. David et al.
17. Separation and Quantification of Ionospheric Convection Sources: 2. The Dipole Tilt Angle Influence on Reverse Convection Cells During Northward IMF J. Reistad et al.
18. First results of the high-resolution multibeam ULF wave experiment at the Ekaterinburg SuperDARN radar: Ionospheric signatures of coupled poloidal Alfvén and drift-compressional modes P. Mager et al.
19. Dawn and dusk sector comparisons of small‐scale irregularities, convection, and particle precipitation in the high‐latitude ionosphere R. Greenwald et al.
20. On the spatial distribution of decameter‒scale subauroral ionospheric irregularities observed by SuperDARN radars S. de Larquier et al.
21. Phase calibration of interferometer arrays at high‐frequency radars A. Burrell et al.
22. Dynamic Properties of a Sporadic Sodium Layer Revealed by Observations Over Zhongshan, Antarctica: A Case Study X. Chen et al.
23. An interpretation of spacecraft and ground based observations of multiple omega band events J. Weygand et al.
24. Solar Influences on the Return Direction of High‐Frequency Radar Backscatter A. Burrell et al.
25. The dayside auroral zone as a hard target for coherent HF radars S. Milan et al.
26. Simultaneous ground-based optical and SuperDARN observations of the shock aurora at MLT noon J. Liu et al.
27. How Much Flux Does a Flux Transfer Event Transfer? R. Fear et al.
28. High‐latitude pump‐induced optical emissions for frequencies close to the third electron gyro‐harmonic M. Kosch et al.
29. F region ionosphere effects on the mapping accuracy of SuperDARN HF radar echoes X. Chen et al.
30. Determination of ionospheric parameters in real time using SuperDARN HF Radars E. Bland et al.
31. What controls the local time extent of flux transfer events? S. Milan et al.
32. Source of field‐aligned irregularities in the subauroral F region as observed by the SuperDARN radars K. Hosokawa et al.
33. On the importance of interplanetary magnetic field ∣By∣ on polar cap patch formation Q. Zhang et al.
34. SuperDARN CUTLASS Finland radar observations of high-latitude magnetic reconnections under northward interplanetary magnetic field (IMF) conditions Q. Zhang et al.
35. Statistical Analysis of the Electron Density Gradients in the Polar Cap F Region Using the Resolute Bay Incoherent Scatter Radar North V. Forsythe & R. Makarevich
36. An Improved Estimation of SuperDARN Heppner‐Maynard Boundaries Using AMPERE Data A. Fogg et al.
37. The excitation of convection in the cusp region as observed by the SuperDARN radars S. Milan et al.
38. An interhemispheric study of the ground magnetic and ionospheric electric fields during the substorm growth phase and expansion phase onset T. Yeoman et al.
39. On the spatiotemporal evolution of the ionospheric backscatter during magnetically disturbed periods as observed by the TIGER Bruny Island HF radar V. Kumar et al.
40. SuperDARN: An example of a network approach to geospace science in the twenty-first century M. Lester
41. Radar ACFs and turbulence characteristics from artificially generated field‐aligned irregularities R. Dhillon et al.
42. A seasonal variation in the convection response to IMF orientation S. Milan et al.
43. Statistical study of midlatitude E region echoes observed by the Hokkaido SuperDARN HF radar K. Yakymenko et al.
44. Outstanding issues in the theory of radar aurora: Evidence from the frequency dependence of spectral characteristics D. Moorcroft
45. Characteristics of medium‐scale traveling ionospheric disturbances observed near the Antarctic Peninsula by HF radar A. Grocott et al.
46. A comparison of SuperDARN-derived plasma convection and DMSP ion drift measurements L. Xu et al.
47. Plasma irregularities in the duskside subauroral ionosphere as observed with midlatitude SuperDARN radar in Hokkaido, Japan K. Hosokawa & N. Nishitani
48. A Review of Over-the-Horizon Radar Systems: Global Perspectives on Design, Operational Principles, and Performance A. Raj et al.
49. Algorithm for the estimation of ionosphere parameters from ground scatter echoes of SuperDARN D. Huang et al.
50. Identifying ground scatter and ionospheric scatter signals by using their fine structure at Ekaterinburg decametre coherent radar I. Lavygin et al.
51. Echo occurrence in the southern polar ionosphere for the SuperDARN Dome C East and Dome C North radars M. Marcucci et al.
52. An adjusted location model for SuperDARN backscatter echoes E. Liu et al.
53. Occurrence Rates of SuperDARN Ground Scatter Echoes and Electron Density in the Ionosphere A. Koustov et al.
54. Zhongshan Conjugate Point Study During Auroral Substorms
55. An Examination of SuperDARN Backscatter Modes Using Machine Learning Guided by Ray‐Tracing B. Kunduri et al.
56. HF radar observations of ionospheric backscatter during geomagnetically quiet periods T. Kane et al.
57. Velocity of SuperDARN Echoes at Intermediate Radar Ranges A. Koustov et al.
58. Comparison of SuperDARN irregularity drift measurements and F-region ion velocities from the resolute bay ISR H. Bahcivan et al.
59. Variations in the occurrence of SuperDARN F region echoes M. Ghezelbash et al.
60. Energetic Electron Precipitation Occurrence Rates Determined Using the Syowa East SuperDARN Radar E. Bland et al.
61. Determination of the parameters of travelling ionospheric disturbances in the high-latitude ionosphere using CUTLASS coherent scatter radars T. Karhunen et al.
62. Comparison of Digisonde derived ion drifts and SuperDARN line-of-sight velocities over Zhongshan Station, Antarctica X. Chen et al.
63. Occurrence of F region echoes for the polar cap SuperDARN radars A. Koustov et al.
64. On the collocation of the cusp aurora and the GPS phase scintillation: A statistical study Y. Jin et al.
65. Unusual ionospheric echoes with high velocity and very low spectral width observed by the SuperDARN radars in the polar cap during high geomagnetic activity N. Nishitani et al.
66. Solar control of F region radar backscatter: Further insights from observations in the southern polar cap L. Lamarche & R. Makarevich
67. Case studies of drivers of ionospheric upwellings T. David et al.
68. Field‐aligned currents in the polar cap at small IMF Bz and By inferred from SuperDARN radar observations A. Kustov et al.
69. High-latitude MSTIDs over the EISCAT-3D site: solar activity and seasonal dependency R. Rathi et al.
70. Coherent HF radar backscatter characteristics associated with auroral forms identified by incoherent radar techniques: A comparison of CUTLASS and EISCAT observations S. Milan et al.
71. Observations of field-aligned ionospheric irregularities during quiet and disturbed conditions with EKB radar: first results O. Berngardt et al.
72. An evaluation of range accuracy in the Super Dual Auroral Radar Network over‐the‐horizon HF radar systems T. Yeoman et al.
73. Traveling ionospheric disturbances in the Weddell Sea Anomaly associated with geomagnetic activity S. Milan et al.
74. Statistical Distribution of Decameter Scale (50 m) Ionospheric Irregularities at High Latitudes Y. Jin et al.
75. Seasonal and diurnal variations of PolarDARN F region echo occurrence in the polar cap and their causes M. Ghezelbash et al.
76. Ionospheric electron heating, optical emissions, and striations induced by powerful HF radio waves at high latitudes: Aspect angle dependence M. Rietveld et al.
77. Simultaneous Cluster and CUTLASS Observations of FTEs on 11 February 2004
78. Bridging the gap between ground- and space-based investigations of magnetosphere–ionosphere coupling processes D. Wright
79. Observations of double‐peaked E region coherent spectra with the CUTLASS Finland HF radar D. Danskin et al.
80. Plasma density suppression process around the cusp revealed by simultaneous CUTLASS and EISCAT Svalbard radar observations T. Ogawa et al.
81. Nightside flow enhancement associated with solar wind dynamic pressure driven reconnection A. Boudouridis et al.
82. SuperDARN Observations During Geomagnetic Storms, Geomagnetically Active Times, and Enhanced Solar Wind Driving M. Walach & A. Grocott
83. Solar wind modulation of cusp particle signatures and their associated ionospheric flows I. Rae et al.
84. Comparison of Characteristics of F-region Irregularities Scattering Occurrence Rate Based on the Observation of the Jiamusi Radar and Hokkaido East Radar W. WANG et al.