| A |
Alam, A. |
A Parameterization of the Lead-Width Distribution and Surface
Turbulent Heat Flux for sea ice |
| |
| B |
Benner, T. |
Radiative Transfer in the Summertime Arctic |
| Bretherton, C. |
A comparison of the ECMWF forecast model with observations over the annual
cycle at SHEBA |
| |
| C |
Cripe, D. |
SCM analysis of SHEBA data |
| |
| D |
Dong, X. |
Arctic Stratus Cloud Properties and Their Effect on the Surface radiation
Budget: Selected Cases From FIRE ACE |
| |
| F |
Fairall, C. |
Surface Energy Budgets and Cloud Forcing on the Arctic Ice Cap from the SHEBA
Experiment |
| |
| G |
Garrett, T. |
Shortwave, Single-Scattering Properties of Arctic Ice Clouds |
| Girard, E. |
Simulation of arctic low-level clouds observed during the FIRE Arctic Cloud
Experiment using a new bulk microphysics scheme |
| Grenfell, T. |
The Distribution of Soot Contamination in the Vicinity of the SHEBA Ice Station
and Implications for Radiative Energy Balance |
| Gultepe, I. |
Dynamical and Microphysical Characteristics of Arctic Clouds Obtained From
Observations Collected During FIRE.ACE Flights Over SHEBA in April 1998 |
| |
| H |
Haggerty, J. |
Estimation of Microwave Surface Emissivity at SHEBA for use in Cloud Retrievals |
| Halle, C. |
Shear Variance and Associated Heat Flux in the Upper Arctic Ocean During SHEBA |
| Hallett, J. |
On the Density of Atmospheric Ice Particles |
| Holt, B. |
Satellite Analysis of the SHEBA Summer Sea Ice Cover |
| Hudson, J. |
Cloud Condensation Nuclei over the Springtime Arctic |
| |
| ^ Top of Page |
| |
| I |
Intrieri, J. |
Annual Cycle of Arctic Cloud Statistics from Lidar and Radar at SHEBA |
| |
| J |
Jiang, H. |
Large-Eddy Simulations of Entrainment of Cloud Condensation Nuclei into the
Arctic Boundary Layer: 18 May 1998 FIRE/SHEBA Case Study |
| |
| K |
Key, J. |
Cloud and Surface Properties from Space During SHEBA: Validation and
Analysis |
| |
| L |
LaFontaine, F. |
AMPR Monitoring of Sea-Ice During FIRE-III/ACE |
| Lawson, R. |
Overview of Microphysical Properties of Summertime Boundary Layer Clouds
Observed During FIRE.ACE |
| Light, B. |
Effects of Temperature on the Optical Properties of Sea Ice |
| Light, B. |
Effects of Temperature on the Microstructure of Sea Ice |
| |
| M |
Mahesh, A. |
Night-Time Cloud Detection in the Arctic from AVHRR Data |
| Mailhot, J. |
Observation and Simulation of Arctic Boundary Layer Clouds Associated With
a Polynya During FIRE.ACE |
| Makshtas, A. |
Experimental Investigations of Total Ozone Content and Surface Ozone
Concentration During SHEBA |
| Maslanik, J. |
Surface and Cloud Conditions During SHEBA: Variability and Characteristics
over the Western Arctic |
| Matrosov, S. |
Comparisons of remote and in situ measurements of ice cloud parameters
during April 29, 1998 FIRE ACE case |
| McPhee, M. |
Turbulence Under Thin Ice at SHEBA |
| Mechem, D. |
Implementation of a new Microphysical Parameterization for Marine
Stratocumulus Clouds in Regional Forecast Models |
| Minnis, P. |
Cloud Properties Over the Arctic During SHEBA/FIRE ACE From ATSR-2 and
AVHRR Data |
| Moore, J. |
SHEBA Project Data Archive: Status and Update |
| Moritz, R. |
Standard Measurements and Standard Data Sets for SHEBA |
| Morrison, H. |
Another Look at MWR-Derived Values of Liquid Water Path During SHEBA |
| |
| ^ Top of Page |
| |
| P |
Pegau, W. |
The Summertime Evolution of Temperature and Salinity in an Arctic Lead |
| Perovich, D. |
Observations of sea ice albedo and mass balance observations at SHEBA |
| Persson, O. |
Measurements of Processes Affecting the Surface Energy Budget Components at
SHEBA |
| Pilewskie, P. |
The Solar Radiative Energy Budget in the Arctic |
| Pinto, J. |
Characteristics and atmospheric footprint of springtime freezing leads at
SHEBA |
| Pope, S. |
Measured and Modeled Radiometric Fluxes in the Arctic During FIRE-ACE |
| |
| R |
Richter-Menge, J. |
The Impact of Summer Ice Dynamics on the Surface Heat Budget of the Arctic
Ocean |
| Rogers, D. |
Airborne Measurements of Atmospheric Ice Nuclei in the Arctic |
| Rozwadowska, A. |
Plane parallel biases for atmospheric reflectance and transmittance in the
Arctic |
| |
| S |
Shupe, M. |
Cloud Water Contents and Hydrometeor Sizes During the FIRE-Arctic Clouds
Experiment |
| Spangenberg, D. |
Cloud Radiative Forcing From AVHRR Data Over the Arctic During FIRE ACE |
| Stern, H. |
Ice Motion and Deformation in the SHEBA Region: Images, Data Sets, and
Results from RADARSAT SAR |
| Stern, H. |
RADARSAT SAR Images of SHEBA and Derived Products |
| Sun, W-Y. |
Numerical Study for SHEBA in November and December of 1997 |
| |
| T |
Tschudi, M. |
Characterization of Leads at SHEBA Derived From Passive Microwave
Observations |
| |
| ^ Top of Page |
| |
| U |
Uttal, T. |
Interpretation of Radar and Lidar Cloud Data Sets during SHEBA - Beware of
Remote Sensors Bearing Gifts |
| |
| W |
Wang, J. |
Cirrus Cloud Observations by the Millimeter-wave Imaging Radiometer During
FIRE-ACE |
| Wang, Q. |
Clouds and Turbulence in the Arctic Autumnal Boundary Layers |
| Wang, S. |
Interactions Among Longwave Radiation of Clouds, Turbulence and Snow
Surface Temperature in the Arctic: A Model Sensitivity Study |
| Wylie, D. |
Comparison of Wind Trajectories, Cloud Frequency, and Weather During the
FIRE/ACE Flights to Climatologies |
| |
| X |
Xiong, X. |
Validation of AVHRR Cloud Retrievals with ARM NSA and SHEBA Data |
| |
| Z |
Zhang, Q. |
Modeling the Structure of an Arctic Stable Cloudy Boundary Layer Using a
Large Eddy Simulation Model |
| Zhang, Y. |
Preliminary Calculation of Radiative Flux for SHEBA using Observed Detailed
Cloud Information and New NASA GISS Model |
| Zulauf, M. |
Two-Dimensional Cloud Resolving Modeling of Arctic Leads Based Upon
Mid-Winter SHEBA Conditions |
