Hurricane Forecast Improvement Program

Hurricane Forecast Improvement Program
Name	Hurricane Forecast Improvement Program
Formation	2008
Type	Federal research program
Headquarters	Silver Spring, Maryland
Region served	United States, Atlantic Basin, Eastern Pacific
Parent organization	National Oceanic and Atmospheric Administration

Hurricane Forecast Improvement Program The Hurricane Forecast Improvement Program (HFIP) was a coordinated United States federal initiative to accelerate improvements in forecasting of tropical cyclones. It aimed to enhance predictions of Hurricane Katrina, Hurricane Sandy, Atlantic hurricane season, and other tropical cyclones by integrating advances from agencies such as the National Oceanic and Atmospheric Administration, the National Weather Service, and research institutions including the National Hurricane Center, NOAA's National Centers for Environmental Prediction, and university partners like University of Miami and Texas A&M University.

Overview

HFIP sought to reduce forecast errors in track and intensity for systems across the Atlantic Ocean, Gulf of Mexico, and Eastern Pacific Ocean. The program emphasized improvements in numerical guidance from centers including European Centre for Medium-Range Weather Forecasts, United Kingdom Met Office, and Naval Research Laboratory models, as well as incorporation of observations from platforms such as Hurricane Hunter, GOES satellites, Doppler radar deployments, and Airborne Reconnaissance. HFIP coordinated contributions from federal agencies like the Office of Naval Research and research universities including Massachusetts Institute of Technology and Columbia University.

History and Development

HFIP was launched in 2008 following major landfall events including Hurricane Katrina (2005) and assessments by panels such as the National Research Council reviews of hurricane forecasting. Early collaboration involved the National Science Foundation, NOAA leadership, and advisory bodies including the Advisory Committee for Weather Research and Operational Transition. The program evolved through subsequent hurricane seasons such as 2005 Atlantic hurricane season and 2012 Atlantic hurricane season, integrating lessons from Hurricane Sandy (2012) and interagency exercises coordinated with the Federal Emergency Management Agency.

Objectives and Research Priorities

HFIP's primary objectives included reducing track forecast errors by 20% and intensity forecast errors by 50% over specified multi-year benchmarks. Priorities encompassed development of advanced regional and global models such as the HWRF model and improvements to assimilation systems like the Advanced Weather Interactive Processing System, integration of data from observing systems including Hurricane Hunter aircraft, Scatterometer, and Supercomputing resources at centers like the National Center for Atmospheric Research. The program prioritized partnerships with institutions such as Scripps Institution of Oceanography and University Corporation for Atmospheric Research to advance physics-based parameterizations and coupling with ocean models like HYCOM.

Organizational Structure and Funding

HFIP operated as an interagency effort led by NOAA with program management involving the National Hurricane Center, NCEP, and research program offices. Funding originated from congressional appropriations to NOAA and leveraged grants from the National Science Foundation and contracts with laboratories such as the Naval Research Laboratory and academic consortia including Florida State University and University of Washington. Governance included steering committees with representatives from Department of Commerce science offices, advisory panels from the American Meteorological Society, and collaboration agreements with international partners such as World Meteorological Organization.

Major Achievements and Contributions

HFIP contributed to measurable reductions in track forecast errors and supported the operational transition of models including HWRF model and ensemble systems derived from GFS model and ECMWF. The program advanced data assimilation techniques using observations from Hurricane Hunter aircraft and GPS radio occultation missions, and fostered improvements in storm surge forecasting linked to SLOSH model upgrades and coastal inundation research applied during events like Hurricane Ike and Hurricane Harvey. HFIP-funded research bolstered partnerships with centers of excellence such as RSMAS at University of Miami and modeling efforts using resources at NOAA's Geophysical Fluid Dynamics Laboratory.

Challenges and Criticisms

HFIP faced critiques related to funding stability from congressional budget cycles and debates over allocation between operational priorities at centers like NHC and pure research at institutions such as NOAA Geophysical Fluid Dynamics Laboratory. Challenges included bridging research-to-operations gaps noted by bodies like the National Research Council, integrating disparate data streams from international systems including ECMWF and UK Met Office, and achieving the ambitious intensity forecast improvement goals for rapid intensification events exemplified by Hurricane Patricia and Hurricane Michael. Stakeholders including state emergency management agencies and academic investigators sometimes disputed program timelines and metrics.

Future Directions and Legacy

HFIP set the stage for successor initiatives focusing on seamless prediction and extreme event preparedness, influencing programs such as the Forecasting a Continuum of Environmental Threats (FACETs) concepts and continued enhancements at NHC and NOAA research branches. Its legacy persists in operational models, data assimilation advances, and strengthened ties among institutions such as NOAA, NCAR, Scripps Institution of Oceanography, and university consortia that continue to address forecasting for events including Atlantic hurricane season threats. Continued investment by agencies like NOAA and research support from NSF and international partners aim to extend HFIP's gains into improved resilience for coastal communities affected by tropical cyclones.

Category:Meteorology organizations