77 citations as recorded by crossref.

1. Meteorological conditions during the ACLOUD/PASCAL field campaign near Svalbard in early summer 2017 E. Knudsen et al.
2. Surface warming in Svalbard may have led to increases in highly active ice-nucleating particles Y. Tobo et al.
3. Investigating Wintertime Cloud Microphysical Properties and Their Relationship to Air Mass Advection at Ny-Ålesund, Svalbard Using the Synergy of a Cloud Radar–Ceilometer–Microwave Radiometer Y. Cho et al.
4. Aerosol and dynamical contributions to cloud droplet formation in Arctic low-level clouds G. Motos et al.
5. Evaluation of the CAM6 Climate Model Using Cloud Observations at McMurdo Station, Antarctica J. Yip et al.
6. Mixed‐Phase Clouds and Precipitation in Southern Ocean Cyclones and Cloud Systems Observed Poleward of 64°S by Ship‐Based Cloud Radar and Lidar S. Alexander et al.
7. Microwave Radar/radiometer for Arctic Clouds (MiRAC): first insights from the ACLOUD campaign M. Mech et al.
8. Variability and properties of liquid-dominated clouds over the ice-free and sea-ice-covered Arctic Ocean M. Klingebiel et al.
9. Cloud vertical distribution from combined surface and space radar–lidar observations at two Arctic atmospheric observatories Y. Liu et al.
10. Low-level mixed-phase clouds in a complex Arctic environment R. Gierens et al.
11. Can rime splintering explain the ice production in Arctic mixed-phase clouds? T. Raatikainen et al.
12. The Relationship between Clouds Containing Multiple Layers 7.5–30 m Thick and Surface Weather Conditions E. McCullough et al.
13. Antarctic clouds, supercooled liquid water and mixed phase, investigated with DARDAR: geographical and seasonal variations C. Listowski et al.
14. New Insights Into the Vertical Structure of Clouds in Polar Lows, Using Radar‐Lidar Satellite Observations C. Listowski et al.
15. Combined retrieval of Arctic liquid water cloud and surface snow properties using airborne spectral solar remote sensing A. Ehrlich et al.
16. Using in situ airborne measurements to evaluate three cloud phase products derived from CALIPSO G. Cesana et al.
17. Microphysical and thermodynamic phase analyses of Arctic low-level clouds measured above the sea ice and the open ocean in spring and summer M. Moser et al.
18. Exploring relations between cloud morphology, cloud phase, and cloud radiative properties in Southern Ocean's stratocumulus clouds J. Danker et al.
19. Theoretical Analysis of Liquid–Ice Interaction in the Unsaturated Environment with Application to the Problem of Homogeneous Mixing M. Pinsky et al.
20. Cloud Identification and Phase Classification by Submillimeter and Infrared Synergistic Observations in the Arctic S. Li et al.
21. Rapid growth of Aitken-mode particles during Arctic summer by fog chemical processing and its implication S. Kecorius et al.
22. Seasonal variations of Arctic cloud in recent 14 years using CALIPSO-GOCCP Z. Jiang et al.
23. The classification of atmospheric hydrometeors and aerosols from the EarthCARE radar and lidar: the A-TC, C-TC and AC-TC products A. Irbah et al.
24. Investigating the vertical extent and short-wave radiative effects of the ice phase in Arctic summertime low-level clouds E. Järvinen et al.
25. Evidence for Changes in Arctic Cloud Phase Due to Long‐Range Pollution Transport Q. Coopman et al.
26. Aerosol indirect effects on the nighttime Arctic Ocean surface from thin, predominantly liquid clouds L. Zamora et al.
27. Properties of Arctic liquid and mixed-phase clouds from shipborne Cloudnet observations during ACSE 2014 P. Achtert et al.
28. A systematic assessment of water vapor products in the Arctic: from instantaneous measurements to monthly means S. Crewell et al.
29. Cloud Top Thermodynamic Phase from Synergistic Lidar-Radar Cloud Products from Polar Orbiting Satellites: Implications for Observations from Geostationary Satellites J. Mayer et al.
30. Regional and seasonal distribution of Arctic low-level cloud types and their relationship to large-scale environmental conditions A. Dziduch et al.
31. WRF Hindcasts of Cold Front Passages over the ARM Eastern North Atlantic Site: A Sensitivity Study F. Lamraoui et al.
32. Impacts of Drop Clustering and Entrainment‐Mixing on Mixed Phase Shallow Cloud Properties Over the Southern Ocean: Results From SOCRATES J. D’Alessandro & G. McFarquhar
33. Glacially sourced dust as a potentially significant source of ice nucleating particles Y. Tobo et al.
34. Cloud Properties Observed From the Surface and by Satellite at the Northern Edge of the Southern Ocean S. Alexander & A. Protat
35. Application of the shipborne remote sensing supersite OCEANET for profiling of Arctic aerosols and clouds during Polarstern cruise PS106 H. Griesche et al.
36. Assessing Arctic low-level clouds and precipitation from above – a radar perspective I. Schirmacher et al.
37. Enhanced MODIS Atmospheric Total Water Vapour Content Trends in Response to Arctic Amplification D. Alraddawi et al.
38. Vertical distribution of microphysical properties of Arctic springtime low-level mixed-phase clouds over the Greenland and Norwegian seas G. Mioche et al.
39. Highly supercooled riming and unusual triple-frequency radar signatures over McMurdo Station, Antarctica F. Tridon et al.
40. Bayesian cloud-top phase determination for Meteosat Second Generation J. Mayer et al.
41. Case studies of different types of precipitation at Ny-Ålesund, Arctic L. Saini et al.
42. Small-scale structure of thermodynamic phase in Arctic mixed-phase clouds observed by airborne remote sensing during a cold air outbreak and a warm air advection event E. Ruiz-Donoso et al.
43. Evaluation of downward and upward solar irradiances simulated by the Integrated Forecasting System of ECMWF using airborne observations above Arctic low-level clouds H. Müller et al.
44. Greenland Clouds Observed in CALIPSO-GOCCP: Comparison with Ground-Based Summit Observations A. Lacour et al.
45. The Arctic Low-Level Mixed-Phase Haze Regime and its Microphysical Differences to Mixed-Phase Clouds M. Moser et al.
46. A long-term study of cloud residuals from low-level Arctic clouds L. Karlsson et al.
47. The Impacts of Immersion Ice Nucleation Parameterizations on Arctic Mixed-Phase Stratiform Cloud Properties and the Arctic Radiation Budget in GEOS-5 I. Tan & D. Barahona
48. Marine Boundary Layer Cloud Boundaries and Phase Estimation Using Airborne Radar and In Situ Measurements During the SOCRATES Campaign over Southern Ocean A. Das et al.
49. Ice Aggregation in Low‐Level Mixed‐Phase Clouds at a High Arctic Site: Enhanced by Dendritic Growth and Absent Close to the Melting Level G. Chellini et al.
50. Occurrence of seeding multi-layer clouds in the Arctic from ground-based observations P. Achtert et al.
51. Statistics on clouds and their relation to thermodynamic conditions at Ny-Ålesund using ground-based sensor synergy T. Nomokonova et al.
52. Microphysical processes involving the vapour phase dominate in simulated low-level Arctic clouds T. Kiszler et al.
53. Arctic warming by cloud radiation enhanced by moist air intrusion observed at Ny-Ålesund, Svalbard T. Yamanouchi
54. Characterization of the Spatial Distribution of the Thermodynamic Phase Within Mixed‐Phase Clouds Using Satellite Observations Q. Coopman & I. Tan
55. Arctic mixed-phase clouds simulated by the WRF model: Comparisons with ACLOUD radar and in situ airborne observations and sensitivity of microphysics properties D. Arteaga et al.
56. Retrieval of cloud thermodynamic phase partitioning from multi-angle polarimetric imaging of Arctic mixed-phase clouds A. Weber et al.
57. Impact of Siberian Wildfires on Ice-Nucleating Particle Concentrations over the Northwestern Pacific F. Taketani et al.
58. Asymmetries in cloud microphysical properties ascribed to sea ice leads via water vapour transport in the central Arctic P. Saavedra Garfias et al.
59. In situ characterization of mixed phase clouds using the Small Ice Detector and the Particle Phase Discriminator P. Vochezer et al.
60. MODIS-Derived Arctic Melt Season Fog and Low Stratus over East Greenland Glaciers and the Ice Sheet H. Jiskoot et al.
61. The correlation between Arctic sea ice, cloud phase and radiation using A-Train satellites G. Cesana et al.
62. Low-level mixed-phase clouds at the high Arctic site of Ny-Ålesund: a comprehensive long-term dataset of remote sensing observations G. Chellini et al.
63. Low-level Arctic clouds: a blind zone in our knowledge of the radiation budget H. Griesche et al.
64. Utilizing sentinel-1 SAR for delineation of narrow intertidal zones and habitat types in Svalbard J. Gintauskas et al.
65. Aerosol Effect on the Cloud Phase of Low‐Level Clouds Over the Arctic M. Filioglou et al.
66. Detection of Mixed‐Phase Convective Clouds by a Binary Phase Information From the Passive Geostationary Instrument SEVIRI Q. Coopman et al.
67. Comparing Satellite‐ and Ground‐Based Observations of Cloud Occurrence Over High Southern Latitudes C. McErlich et al.
68. Spatial and seasonal variability of clouds over the southwest Indian Ocean based on the DARDAR mask product H. Vérèmes et al.
69. Comparison of Antarctic and Arctic Single‐Layer Stratiform Mixed‐Phase Cloud Properties Using Ground‐Based Remote Sensing Measurements D. Zhang et al.
70. Synoptic Conditions, Clouds, and Sea Ice Melt Onset in the Beaufort and Chukchi Seasonal Ice Zone Z. Liu & A. Schweiger
71. Impacts of active satellite sensors' low-level cloud detection limitations on cloud radiative forcing in the Arctic Y. Liu
72. Dominant Role of Arctic Dust With High Ice Nucleating Ability in the Arctic Lower Troposphere K. Kawai et al.
73. Mixed-Phase Clouds: Progress and Challenges A. Korolev et al.
74. Contribution of fluorescent primary biological aerosol particles to low-level Arctic cloud residuals G. Pereira Freitas et al.
75. Moderate climate sensitivity due to opposing mixed-phase cloud feedbacks I. Tan et al.
76. Characterisation of the artificial neural network CiPS for cirrus cloud remote sensing with MSG/SEVIRI J. Strandgren et al.
77. Observation of Cloud Base Height and Precipitation Characteristics at a Polar Site Ny-Ålesund, Svalbard Using Ground-Based Remote Sensing and Model Reanalysis A. Asutosh et al.