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Registered Users at US Universities

 

 

 

Arizona State University

 

 

 

Boise State University

 

Mechanical Engineering Department

 

Paul J. Dawson

pdawson@boisestate.edu

 

I intend to use the model to simulate and analyze deep-layer winter inversion episodes in the Boise Valley of Idaho. This is the subject of a recently awarded EPA EPSCoR grant awarded to me at Boise State University. I intend to study the meteorology associated with these episodes and to use the EPA Models 3 system (MM5 and CMAQ) to model the PM10 concentrations in the valley. The 2-year study, which will include 2 graduate students, is just starting now. This winter season, we will focus on observations and data collection, analysis, and initial modeling.
 

Colorado State University

 

Co-operative Institute for Research in the Atmosphere (CIRA)

 

Michael Barna

barna@cira.colostate.edu

 

Currently using MM5 output created by Nelson Seaman at Penn State for input into the REMSAD air quality model. This is part of the BRAVO Study, which focuses on air pollution and visibility in Big Bend National Park in Texas. Model domain is the conterminous US, and the simulation runs between July-October 1999. Also, we'd like to convert these MM5 output files to a format that the Lagrangian particle model Hysplit can read.
 

Cornell University

 

Corinne M. Carter

cmc@athena.cit.cornell.edu

 

Interaction between climate and mountain glaciers.
 

 

Katharine Carlino

kec26@cornell.edu

 

To get a daily run of the model for Ithaca, NY and surrounding areas
 

Desert Research Institute

 

Atmospheric Sciences Center

 

Melanie Wetzel

wetzel@sage.dri.edu

 

Use of satellite data and other remote sensing observations in model evaluation and data assimilation.
Regional climate simulations and orographic cloud system studies.   
 

Florida State University

 

Department of Meteorology

 

Chris Herbster

herbster@met.fsu.edu

 

Florida panhandle sea-breeze studies.
 

 

Michey Wai

wai@huey.met.fsu.edu

 

Surface flux parameterization.  
 

 

Dr. Kevin A. Kloesel

kloesel@met.fsu.edu

 

Develop meteorological forecast capability for the Florida Forest Fire Management System.  
 

 

Mr. Chris Kiley

ckiley@met.fsu.edu

 

NASA GTE Missions
 

 

Sandeep Pattnaik

sandeep@earl.met.fsu.edu

 

Do the error estimates in regional models.
 

Georgia Institute of Technology

 

Ms Sun-Kyoung Park

gte656q@prism.gatech.edu

 

My model period: from Jan 1, 2001 to Jan 31, 2002
Model domain: Eastern United State
 

Harvard University Center for Environment

 

China Project

 

Dr. Shuxiao Wang

shxwang@deas.harvard.edu

 

I am trying to simulate the air quality in China.
 

Institute of Marine and Coastal Science Rutgers University

 

Louis Bowers

bowers@imcs.rutgers.edu

 

Met Research involving the coastal sea breeze and some real-time forecasting
 

Jackson State University

 

Department of Atmospheric Science

 

Remata Reddy

rsreddy@ccaix.jsums.edu

 

Study of weather patterns on the Mississippi Gulf Coast.
 

Johns Hopkins University

 

Applied Physics Lab

 

Michael A. Kelly

Michael.Kelly@jhuapl.edu

 

We are using MM5 to generate data for use in the CARMA dust model. We are calculating dust transport using output from 24-h MM5 runs over Africa during July 2000.  
 

Lamar University

 

Jimena Mojica

mojica@MM5.lamar.edu

 

Air emission Inventory
 

Massachusetts Institute of Technology

 

Dara Entekhabi

dara@alborz.mit.edu

 

 

 

 

Elfatih Eltahir

eltahir@storm.mit.edu

 

Amazon climate
 

 

Rob Martello

rmartell@athena.mit.edu

 

 

 

Benjamin de Foy

foy@mit.edu

 

Air Pollution Modelling in Mexico City
 

 

Arnico Panday

arnico@mit.edu

 

To model the ventilation and photochemistry of the Kathmandu Valley in Nepal
 

Naval Postgraduate School

 

Department of Meteorology

 

Dr. Douglas K. Miller

dmiller@met.nps.navy.mil

 

Study synoptic-scale land falling cyclones; Real-time forecasting.
 

 

Wendell Nuss

nuss@arashi.met.nps.navy.mil

 

Wind-generated ocean waves on the development of the extratropical cyclones.
Use MM5 as a diagnostic tool for the examination of oceanic cyclogenesis during the Experiment on Rapidly Intensifying Cyclones over the Atlantic (ERICA).
 

 

Kevin Cheung

kwcheung@nps.navy.mil

 

Ensemble forecasting of tropical cyclones
Tropical cyclone formation studies
 

North Carolina State University

 

Department of Marine, Earth, and Atmospheric Sciences

 

Yuh-Lang Lin

linyl@meavax.nrrc.ncsu.edu

 

Simulations of southeast severe storms and tornadoes and their environments.
Orographic effects on fronts and cyclones.
Theoretical modeling of critical level effects on orographically and thermally forced flows.
 

 

Ryan Boyles

ryan_boyles@ncsu.edu

 

Regional climate modeling at seasonal scale
 

Ohio State University

 

Atmospheric Science Program and Byrd Polar Res. Ctr

 

Jorge Carrasco

jcarrasc@magnus.acs.ohio-state.edu

 

 

 

 

Keith Hines

osu1186@osca.osc.edu

 

 

 

 

Brendon Hoch

bhoch@magnus.acs.ohio-state.edu

 

 

 

 

John Rayner

jrayner@magnus.acs.ohio-state.edu

 

 

 

 

Zhong Liu

liu@polarmet1.mps.ohio-state.edu

 

Lake effect snow events, and katabatic winds over Antarctica.
 

 

Chieh-Cheng Yen

yen@glfs.eng.ohio-state.edu

 

 

Dr. Moti Lal Mittal

moti@osc.edu

 

To study the transport of pollutants and emissions over the Indian region.
 

Oregon State University

 

Colloge of Oceanography and Atmospheric Science

 

Dr. Young-Hee Lee

ylee@coas.oregonstate.edu

 

My scientific objectives is to investigate spatial variation of CO2 and latent heat flux over Central oregon area and I am using model over the summertime forest region(July 9 2000). The Date is changeable within summer time.
 

 

Phil Barbour

barbourp@engr.orst.edu

 

Current to model Gap Winds in arctic
 

Penn State University

 

Department of Meteorology

 

Glenn Hunter

hunter@mail.meteo.psu.edu

 

 

 

 

Annette Lario

lario@mail.meteo.psu.edu

 

The representation of weakly convective environments with high CAPE in anticyclonic flow.
The role of boundary layer processes on low-level flow in complex terrain.
Improved understanding of the cause of diffluent winds in the Sacramento River Delta region.
 

 

Nelson Seaman

seaman@ems.psu.edu

 

Influence of coastal orography on land falling cyclones.
 

 

Dave Stauffer

stauffer@mail.meteo.psu.edu

 

Improving the multi-scale FDDA for applications in both dynamic initialization and dynamic analysis.
Coastal meteorology.
Marine PBL and stratus.
Complex terrain, aviation-sensitive weather events.
Tropical cyclogenessis and the westerly wind burst.
 

 

Robert Vislocky

vislocky@psumeteo.psu.edu

 

 

 

 

Mr.Song-lak Kang

szk111@psu.edu

 

 

 

 

Jung Hee Ryu

jhr134@psu.edu

 

To understand the horizontal and vertical transport process of the tropospheric ozone using the coupled MM5/chemical transport model
 

Princeton University

 

Xiaoping Wang

xwang@princeton.edu

 

I am using MM5 to drive the air quality model called Models/CMAQ for eastern
China.
 

Purdue University

 

Department of Earth and Atmospheric Sciences

 

Douglas Miller

dmiller@meteor.atms.purdue.edu

 

The role of moist processes in explosively deepening cyclones.  
 

 

Wen-Yih Sun

mn1@mace.cc.purdue.edu

 

Cloud Bands and mesoscale convection.
 

Saint Louis University

 

Department of Earth and Atmospheric Sciences

 

Charles Graves

graves@eas.slu.edu

 

Climate spreading possibilities of a mesoscale numerical model.
 

 

Jason Martinelli

martinel@eas.slu.edu

 

Our objectives are to successfully assimilate WSR-88D data into numerical simulations of cool season convection in the Midwest. In particular, we are attempting to more accurately simulate convective-scale vorticies while reducing spin-up time.  
 

San Francisco State University

 

Department of Geosciences

 

Dave Dempsey

ddempsey@sundog.sfsu.edu

 

San Jose State University

 

Department of Meteorology

 

Cristina Lozej

lozej@metsun1.sjsu.edu

 

Topographic effects on the 11 March 96 wave cyclone precipitation event in central California.  
 

 

Rochelle Therese Balmori

balmori@met.sjsu.edu

 

 
 

 

Shoukri Kasakseh

shouk_mcsd@yahoo.com

 


 

South Dakota School of Mines

 

Mr. Joseph Dreher

weatherboy80@aol.com

 

My scientific objectives is to model the aspects of influence of Lake Michigan on mesoscale bands of precipitation, such as frontal bands. Basically, a numerical simulation of Lake Effect Snow.
 

 

Ms. Katy Fitzpatrick

Katy.Fitzpatrick@gold.sdsmt.edu

 

Simulation of the enhancement of lake effect snow over Lake Michigan on 5 December 1997 due to the interaction between a low-pressure system and the previously developed snowbands.
 

 

Institute of Atmospheric Sciences

 

William J. Capehart

William.Capehart@sdsmt.edu

 

Modeling the effects of surface moisture on Northern Great Plains Weather Systems.  
 

State University of New York at Albany

 

Department of Atmospheric Science and Atmospheric Science Research Center

 

Michael J. Dickinson

mjd@atmos.albany.edu

 

Investigate the role of topography in the initiation of tropical cyclones in the eastern Pacific ocean (Mexican-Central American coast).
 

 

Ming Ding

mding@climate.asrc.albany.edu

 

study cloud overlap treatment in GCM using high resolution meteorological data provided by MM5.

 

Mark Dudek

dudek@climate.asrc.albany.edu

 

Convective organization of mesoscale systems.
 

 

David Knight

knight@atmos.albany.edu

 

 

 

Kesu Zhang

kesu@mayfly.asrc.albany.edu

 

Visibility Studies.
Acid rain.
 

State University of New York at Brockport

 

Don Schleede

don@weather.brockport.edu

 

Study of the structure and dynamics of great lakes winter storms.
 

State University of New York College at Oneonta

 

Jerome Blechman

blechmjb@oneonta.edu

 

Having studied the relationship between surface wind directions and Lake-effect snow using observed hourly winds I would like to use a mesoscale model to extend this work to winds above the boundary layer.  The radiosonde network is too coarse so modeling the winds with MM5 seems promising.
 

State University of New York at Oswego

 

Bob Ballentin

ballenti@oswego.oswego.edu

 

Study of the structure and dynamics of great lakes winter storms.
 

State University of New York at Stony Brook

 

Institute for Terrestrial and Planetary Atmospheres

 

Brian Colle

colle@cyclone.msrc.sunysb.edu

 

 

Mr. Matthew S Jones

mjones@atmsci.msrc.sunysb.edu

 

MM5 Cumulus parameterization ensemble approach to convective events forecasting over the summertime Northeast United States
 

Texas A&M University

 

Mike Kay

kay@ariel.tamu.edu

 

Severe thunderstorms.
 

Texas Tech University

 

 

 

Tulane University

 

Prof. David J. Sailor

sailor@whopper.me.tulane.edu

 

 

 

University of Alabama

 

Earth System Science Lab./UAH, Global Hydrology & Climate Center

 

Dr. J. Aaron Song

asong@kueijung.atmos.uah.edu

 

Regional dynamics and pollutant dispersion simulations.
 

 

Kevin Doty

kevin.doty@nsstc.uah.edu

 

1. Improvement of initialization.  2. Improvement of surface energy balance.
 

University of Alaska - Fairbanks

 

Geophysical Institute

 

Amanda Lynch

manda@astro.gi.alaska.edu

     

 

Jeff Tilley

jeff@rathlin.gi.alaska.edu

 

 

Martha Shulski

martha@c imate.gi.alaska.edu

 

Climate sensitivity testing for Alaska
 

University of Arizona

 

Luis Farfan

farfan@atmo1.atmo.arizona.edu

     

 

Steve Mullen

slmullen@ncar.ucar.edu

 

Short-range (24-48 h) predictability of explosive oceanic cyclogenesis.
 

 

Daniel Geiszler

geiszler@air.atmo.arizona.edu

 

Easterly wave's interaction with the topography of Central America.
 

 

Jeff Schmitz

schmitz@jed.atmo.arizona.edu

     

 

Gilberto Velazequez

gilberto@air.atmo.arizona.edu

     

 

Dr. Bisher Imam

bisher@hwr.arizona.edu

 

Understanding the hydrometeorology of Arid-semiarid regions and to utilize remotely sensed data in the parameterization of models.
 

 

Wenje Hwu

wenje@hwr.arizona.edu

 

Simulation of the 1993 US Midwestern Great Flood.
 

 

James Broermann

james@hwr.arizona.edu

 

Purchase system to run MM5
 

University of California Davis

 

Tayfun Kindap

tkindap@ucdavis.edu

 

Weather forecast air pollution
 

University of California at Los Angeles

 

Dr. Robert Fovell

rfovell@ucla.edu

 

 

 

University of California at Riverside

 

Dr. Zion S. Wang

zion_wang@ucr.edu

 

Running MM5 to provide meteorological input fields to air quality models. (Eg. YR. 1996)
 

University of California at Santa Barbara

 

 

 

University of Cincinnati

 

Le Jiang

lljiang@uceng.uc.edu

 

Interaction between land surface (soil moisture) and atmosphere.
 

 

Zhenglin Hu

 

     

 

Dyi-Huey Chang

 

 

University of Colorado at Boulder

 

PAOS/AES Department

 

Elizabeth Cassano

ecassano@cires.colorado.edu

     

 

Sanja Dixit

dixit@monsoon.colorado.edu

     

 

Chien-Hui Fang

fang@monsoon.colorado.edu
janineg@monsoon.colorado.edu
li@ucsu.colorado.edu

     

 

James Pinto

pinto@monsoon.colorado.edu

     

 

Tom Warner

warner@ncar.ucar.edu

     

 

Li Zhe

zli@ucsu.colorado.edu

     

 

Yong Zheng

yzheng@monsoon.colorado.edu

     

 

Kremena Darmenova

Kremena.Darmenova@colorado.edu

 

Simulation of China dust storms, long range Asian dust transport over the Pacific for spring 2001.
 

 

Dr. Hai-Ru Chang

hrc@monsoon.colorado.edu

 

Studying meridional circulation over tropical area.

 

John Cassano

cassano@cires.colorado.edu

 


University of Delaware

 

 

 

University of Hawaii

 

Department of Meteorology

 

Dave Chen.

dave@ua.soest.hawaii.edu

 

 

 

Rick Knabb

knabb@soest.hawaii.edu

 

Weather forecast support of astronomical observatories at the summit of Mauna Kea on the Big Island of Hawaii.
 

 

Jian-Jian Wang

jian@kukui.soest.hawaii.edu

 

Mesoscale modeling studies on the interaction between island topography and trade winds.
 

 

Hsi-Chyi Yeh

yehh@ilima.soest.hawaii.edu

 

 

 

Tiziana Cherubini

tiziana@soest.hawaii.edu

 

 

 

Kerns, Brandon

kerns@hawaii.edu

 

I will try to simulate the rapid genesis of West Pacific Typhoon Krosa. Krosa became a tropical storm southeast of a TUTT cell, from an exposed surface circulation, in only twelve hours. I will investigate the role of the TUTT trough in sparking this rapid cyclogenesis
 

 

Yang Yang

yangy@hawaii.edu

 

To simulate the diurnal cycle in Hawaii islands.
 

University of Illinois

 

Bill Chapman

chapman@uiatma.atmos.uiuc.edu

     

 

Mei Han

han@atmos.uiuc.edu

 

Snowband dynamics, Case IOP2 in Lake-ICE/SNOWBAND project
 

 

Neil F. Laird (Also affiliated with Illinois State Water Survey)

n-laird@uiuc.edu

 

Thermally driven circulation's and the dynamical interchange between differing size scales.
 

 

Department of Civil Engineering

 

Praveen Kumar

praveen@cern.ce.uiuc.edu

 

Coupled land-atmosphere studies.
 

 

Department of Atmospheric Sciences & NCSA

 

Brian Jewett

jewett@atmos.uiuc.edu

 

Gravity wave studies, modeling of deep convection.
 

University of Illinois at Urbana-Champaign

 

Mr. BOCAHUT Laurent

bocahut@uiuc.edu

 

Air pollution modeling in the Chicago area over 2 pollution episodes : summer 1998 and summer 2020.
 

University of Iowa

 

Center for Global and Regional Environmental Research

 

Dr. Greg Carmichael

gcarmich@cgrer.uiowa.edu

 

Model atmospheric chemistry and transport over China.  
 

University of Kansas

 

Department of Physics and Astronomy

 

Donna Tucker

tucker@kuphsx.phsx.ukans.edu

 

Examine the circumstances under which summertime convection in the Rocky Mountains develops into an MCS.
 

University of Las Vegas, Nevada Center for Advanced Computational Methods

 

University of Maryland

 

Department of Meteorology

 

Dr. Dalin Zhang

dalin@atmos.umd.edu

 

Mesoscale numerical modeling of squalllines, cyclones and hurricanes.  
 

 

William Ryan

ryan@atmos.umd.edu

 

Pollution transport using meteorological data provided by MM5.  
 

 

Jong-Su Paek

jspaek@atmos.umd.edu

 

 

University of Miami

 

 

 

University of Michigan

 

Department of Atmospheric, Oceanic and Space Science

 

Peizhong Wu

wupz@engin.umich.edu

 

University of Minnesota

 

 

 

University of Nevada

 

Xiuling Wang

xiuling@unlv.edu

 

Compare results from wind field assessment with those getting from FEM model developed by us use in windfield assessment in NEVADA.
 

University of New Mexico

 

Mr. Midhun Kumar Allu

midhun@eece.unm.edu

 

The current objective is to see if the code can be more efficiently parallelized.

University of North Dakota

 

Department of Atmospheric Sciences

 

Leon Osborne

leono@rwic.und.nodak.edu

 

Applications of operational weather information systems on agricultural weather decision support systems and rural interstate travel weather support systems.
 

 

Mark Askelson

askelson@aero.und.edu

 


 

University of South Alabama

 

Sytske Kimball

skimball@jaguar1.usouthal.edu

 

 

 

University of Texas at Austin

 

 

 

University of Utah

 

Department of Meteorology

 

John Horel

jhorel@atmos.met.utah.edu .

 

Tropical Climate Studies over the Pacific ITCZ and South America.
 

 

Daryl Onton

djonton@atmos.met.utah.edu

 

Regional climate simulations over the tropical Americas.
Study the onset and development of the Northern Hemisphere wet season and how they are related to sea surface temperatures and the large-scale atmospheric patterns.
 

 

Judith Pechman

jpechman@atmos.met.utah.edu

 

Tropical Climate Studies over the Pacific ITCZ and South America.
 

 

Jim Steenburgh

jimsteen@atmos.met.utah.edu

 

Real time mesoscale modeling.
 

 

NOAA Cooperative Institute for Regional Prediction

 

Mr. Justin Cox

jacox@met.utah.edu

 

I plan to use the MM5 to study boundary layer effects (roughness, for example) on thermally driven flows. Initially I will use data from the VTMX field phase from October 2000 in Salt Lake City.
 

University of Washington

 

Department of Atmospheric Science

 

Mark Albright

marka@atmos.washington.edu

 

Structure of polar lows.
Simulation of mesoscale structures forced by orography in the Pacific Northwest.
 

 

Dr. Shuyi Chen

chen@atmos.washington.edu

 

Mesoscale convective systems over the tropical ocean.
Tropical cyclogenesis.
 

 

Fang-Ching Chien

fcchien@ncar.ucar.edu

 

The interaction between fronts and coastal mountains.
 

 

Brian A. Colle

colle@atmos.washington.edu

 

Model the flow around the Olympic Mountains for various flow regimes.
 

 

David Ovens

ovens@atmos.washington.edu

 

Polar lows.
 

 

Prof. Richard Reed

reed@atmos.washington.edu

 

Polar lows.
Explosive cyclogenesis.
 

 

Dr. Mark Stoelinga

stoeling@atmos.washington.edu

 

Cyclogenesis.
 

 

Kenneth Westrick

westrick@atmos.washington.edu

 

Mesoscale phenomena over west coast of US and Alaska.
 

 

Richard C. Steed

steed@atmos.washington.edu

 

Real-time forecasting.
 

 

Mr. Gerald Pagel

gpagel@u.washington.ed

 

Predict the characteristics of electromagnetic wave propogation through local regions of the atmosphere. (October 2001, Vandenberg CA, Dual Jet Merger)
 

 

Mr. Robert Elleman

rob@atmos.washington.edu

 

Input to CMAQ, air quality model. Model August 2001 in PNW.
 

University of Wisconsin - Milwaukee

 

Department of Geosciences

 

Paul Roebber

roebber@csd.uwm.edu

 

University of Wisconsin - Madison

 

Ms. Tarisa Zimet

tkzimet@wisc.edu

 

Fire Meteorology- case study of fire occurring on May 5, 1980 near Mio Michigan. 
 

 

William Lewis

welewis@wisc.edu

 

Studies of tropical cyclogenesis track and intensity change  
 

University of Wyoming

 

John Cassano

cassano@grizzly.uwyo.edu

 

Dynamics of extreme katabatic flow events in East Antarctica.  
 

UNLV

 

Sun Lijian

ljsun@email.com

 

 
 

UTIG

 

Qiaozhen Mu

qiaozhen@utig.ig.utexas.edu

 

 
 

Utah State University

 

Dan Dansereau

dad@cc.usu.edu

 

Meso/micro scale climate modeling  for historical storms 
 

Washington State University

 

Dr. Brian Lamb

blamb@wsu.edu

 

Air quality modeling.
 

Worcester Polytechnic Institute

 

Department of Mathematical Sciences

 

Mayer Humi

mhmi@wpi.edu

 

Clear air turbulence over terrain.
 

Yale University

 

Jason Evans

jason.evans@yale.edu u

 

Better understand the current climate and climate changes through the holocene.  Understand changes in dominant precipitation processes in changing climates.
 

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