ARLEN W. HUGGINS

Associate Research Scientist
Division of Atmospheric Sciences

Resume


Arlen Huggins
EDUCATION:

B.S., Physics, Kansas State University
Graduate Study (36 hours), Atmospheric Science, Colorado State University

PROFESSIONAL INTERESTS:

Mr. Huggins has an active interest in applied research in both summer convective storms and wintertime storms. He has used ground-based microwave radiometers and radars, aircraft data and precipitation data to study the evolution of winter storms over mountainous terrain, including field projects in the Sierra Nevada of California and Nevada, the Wasatch Mountains of Utah and the Victorian Alps of Australia. As a researcher on U.S. Bureau of Reclamation and NOAA-sponsored weather modification projects, Mr. Huggins has studied the physical effects of both airborne and ground-based cloud seeding on winter storm clouds, and produced several publications documenting the effects of seeding from cloud to ground. He is the Director of the Nevada State Weather Modification Program, which is designed to augment snowfall in selected mountainous regions of Nevada. Recent work includes evaluation of the Nevada program using plume dispersion modeling, radiometric measurements, ultra trace chemistry analysis of snowfall and hydrologic modeling to assess the impacts of snowfall enhancement on streamflow.

RESEARCH AREAS:

Large-Scale Dynamic Meteorology, Mesoscale Dynamic Meteorology, Physical Meteorology

SELECTED PUBLICATIONS:

Huggins, A. W., 2007:
Another wintertime cloud seeding case study with strong evidence of seeding effects. J. Weather Mod., 39, 9-36.

Mitchell, D.L., A.W. Huggins and V. Grubišic, 2006:
A new snow growth model with application to radar precipitation estimates. Atmos. Res., 82, 2-18.

Boyle, D. P., G. W. Lamorey and A. W. Huggins, 2006:
Application of a hydrologic model to assess the effects of cloud seeding in the Walker River Basin of Nevada. J. Weather Mod., 38, 66-76.

Huggins, A.W., 1995:
Mobile microwave radiometer observations: Spatial characteristics of supercooled cloud water and cloud seeding implications. J. Appl. Meteor., 34, 432-446.

Super, A.B. and A.W. Huggins, 1993:
Relationships between storm total supercooled liquid water flux and precipitation on four mountain barriers. J. Wea. Mod., 25, 82-92.

Long, A.B. and A.W. Huggins, 1992:
Australian winter storms experiment (AWSE) I: Supercooled liquid water and precipitation-enhancement opportunities. J. Appl. Meteor., 31, 1041-1055.

Long, A.B., B.A. Campistron and A.W. Huggins, 1990:
Investigations of a winter mountain storm in Utah. Part 1: Synoptic analyses, mesoscale kinematics, and water release rates. J. Atmos. Sci., 47, 1302-1322.

Sassen, K., A.W. Huggins, A.B. Long, J.B. Snider and R.J. Meitin, 1990:
Investigations of a winter mountain storm in Utah. Part II: Mesoscale structure, supercooled liquid water development, and precipitation processes. J. Atmos. Sci., 47, 1323-1350.

Deshler, T., D.W. Reynolds and A.W. Huggins, 1990:
Physical response of winter orographic clouds over the Sierra Nevada to airborne seeding using dry ice or silver iodide. J. Appl. Meteor., 29, 288-330.


Division of Atmospheric Sciences
Desert Research Institute
2215 Raggio Parkway
Reno, NV 89512
(775) 674-7140
Email: huggins@dri.edu