For more information, contact firstname.lastname@example.org. The article is available at https://doi.org/10.1175/BAMS-D-20-0223.1. The authors thank the US NCEP, JTWC, NRL, the Remote Sensing Systems, NOAA NESDIS, the European Union’s Copernicus and the AVISO team, and theArgo team for providing essential data sets. I.-I. L. acknowledges support from the Ministry of Science and Technology, Taiwan. R. R. … Continue reading Paper on two rapidly intensifying typhoons released online in the Bulletin of the American Meteorological Society
The 2nd Boundary Layer Workshop was held virtually on 1-2 June. The goal of the workshop is to continue the work from the previous one to improve our understanding and modeling of surface and atmospheric boundary layer processes. The event was organized by Tilden Meyers of NOAA's Air Resource's Laboratory and David Turner of NOAA's … Continue reading Jun Zhang participates in 2nd Boundary Layer Workshop
34th Conference on Hurricanes and Tropical Meteorology Virtual Meeting The 34th AMS Conference on Hurricanes and Tropical Meteorology was held virtually 10-14 May after being postponed from 2020. This is the premiere meeting for operational and research scientists who work on understanding and forecasting tropical cyclones and other tropical weather around the world. HRD scientist … Continue reading HRD scientists participate in the 34th American Meteorological Society Conference on Hurricanes and Tropical Meteorology
This paper is an overview of what we currently know about processes important in tropical cyclone intensity change and the research that has been done during the past 15 years using aircraft data. The paper describes the eye and eyewall and how they change in time, the region close to the ocean surface where the … Continue reading Paper that reviews what we know about intensity change published in Atmosphere
The energy that fuels tropical cyclones comes from heat and moisture from the warm ocean below. This energy is transferred from the ocean to the atmosphere and the momentum is transported from atmosphere to surface by what we call turbulent processes in the atmosphere near the ocean surface (what we call the planetary boundary layer … Continue reading Paper looking at how model forecasts of what is happening near the ocean surface in tropical cyclones changes as the space between forecast points gets smaller published in Monthly Weather Review
Summary: The energy that fuels tropical cyclones comes from the heat and moisture in the warm ocean water below. In a classical theory for tropical cyclone intensification, called Wind Induced Surface Heat Exchange or WISHE, an increase in surface wind speed allows for greater energy transfer from the ocean to the atmosphere (Fig. 1a). This … Continue reading New study on how energy from the warm ocean fuels hurricanes published in Monthly Weather Review
Tropical Cyclones (TCs) occur over warm water in the ocean, and this warmth and moisture is what feeds the engine that keeps the TC going. They are made up of thunderstorms, what we call deep convection, and within the convection, there are both convective updrafts and convective downdrafts. The temperature in the atmosphere goes down … Continue reading Paper describing how tropical cyclones in shear rapidly develop published in the Journal of the Atmospheric Sciences
Read the study at https://journals.ametsoc.org/view/journals/mwre/aop/MWR-D-20-0100.1/MWR-D-20-0100.1.xml. For more information, contact AOML.email@example.com.
The Annual Meeting is the world’s largest yearly gathering for the weather, water, and climate community. It brings together great minds from a diverse set of scientific disciplines – helping attendees make career-long professional contact and life-long friends while learning from the very top people in the atmospheric sciences. The 101st AMS Annual Meeting took place virtually … Continue reading HRD scientists participate in the 101st American Meteorological Society Annual Meeting
You can read the study at https://agupubs.onlinelibrary.wiley.com/doi/full/10.1029/2020GL089883.