Improve the accuracy and specificity of extreme rainfall forecasts as measured by the Threat Score of the 2” threshold, made 3 days in advance. Given this score is sensitive to the type of rainfall events experienced, and varies by year, we are adopting a 3 year running average. For FY22 and FY23, we are targeting roughly a 25% overlap between the forecast and observed area (0.14). For comparison, a Threat Score of 0 represents no overlap between forecast & observed location and a Threat Score of 1 represents complete overlap between forecast & observed location. The formula for calculating the Threat Score is = Overlap / (Forecast + Observed - Overlap).

Provides field, lab, and model studies to advance our understanding of atmospheric processes related to climate intervention that increases our instrumentation capabilities to conduct measurements of stratospheric gases and aerosols, improves our modeling and forecasting capabilities for stratospheric chemistry and dynamics, establishes a baseline state of stratospheric composition and transport for evaluating the current performance of atmospheric models, and as point of reference for any future changes, and improves our understanding of marine cloud properties and associated cloud-aerosol interactions in order

The Argo program is responsible for providing real-time data for the upper 2000m of ocean heat content globally and for important regions like the Tropical Pacific for detection of El Nino.

This measures the accuracy of wind speed forecasts, which are important for marine commerce. Accuracy is defined in terms of error. Legacy statistics are available from FY 1994 through FY 2012. New marine verification program began FY 2013. Beginning in FY 2013, Wind and Wave verification extended out to 5 and 7 days respectively, while the legacy program was limited to verifying Day 1 with errors less than 5 knots are defined as accurate. Since FY 2014, a higher threshold of forecast errors has been used to define correct forecasts whenever higher wind speeds have occurred. Hence, wind speed forecasts with errors less than (7 knots, 10 knots, 15 knots) are accurate forecasts when the observed wind speed equals or exceeds (20 knots, 34 knots, 48 knots) respectively. This measure uses complex skill scores to analyze individual wind speed components.

Legacy statistics are available from FY 1994 through FY 2012. New marine verification program began FY 2013. Beginning in FY 2013, Wind and Wave verification extended out to 5 and 7 days respectively, while the legacy program was limited to verifying Day 1 with errors less than 5 knots are defined as accurate.

Since FY 2014, a higher threshold of forecast errors has been used to define correct forecasts whenever higher wind speeds have occurred. Hence, wind speed forecasts with errors less than (7 knots, 10 knots, 15 knots) are accurate forecasts when the observed wind speed equals or exceeds (20 knots, 34 knots, 48 knots) respectively.

This measure uses complex skill scores to analyze individual wind speed components.

Proposed new indicator for FY 2022. Measure is under development.

Tornado Warnings are issued to enable the public to get out of harm’s way and mitigate preventable loss. NWS forecasters issue approximately 2,900 Tornado Warnings per year, primarily between the Rockies and Appalachian Mountains. Tornado Warning statistics are based on a comparison of warnings issued and weather spotter observations of tornadoes and/or storm damage surveys from Weather Forecast Offices in the United States. The false alarm ratio (FAR) is the percentage of times a tornado warning was issued, but no tornado occurrence was verified. Most tornadoes cannot be visually tracked from beginning to end and post-storm damage surveying is the official method with which the NWS categorizes tornado characteristics (intensity, path length & width) but must rely on radar data to estimate the timing of the tornado track.

*Please also note that a FAR is the number of false alarms per the total number of warnings. If an FAR actual is higher than the target, then the target has not been met. If the actual is the same number or less, then it has been met or exceeded.

The public, private sectors, emergency managers, and government institutions at all levels in this country and abroad use NOAA tropical cyclone forecasts to make decisions regarding the protection of life and property. This goal measures the difference between the projected and actual location of the center of tropical cyclones in nautical miles (nm) for the Atlantic Basin, averaged over all the 48-hour forecasts occurring during the calendar year.

* Annual Hurricane Season begins June 1 and ends November 30. The final values are produced after a verification and validation period.

Because tropical cyclones are relatively rare events, this measure can show significant annual volatility. Projecting the long-term trend, and basing out-year goals on that trend, is preferred over making large upward or downward changes to the targets each year.

Ensures that NOAA provides real time (or near real time) availability of critical satellite data and products without gaps to users (NWS and other NOAA line offices, US military and operational partners). On time data and imagery provided increases timeliness and accuracy of public warnings and forecasts of climate and weather events.

Precipitation forecasts and other foundational general weather guidance developed by the Weather Prediction Center are used extensively by the weather enterprise. This performance measure tracks the ability of the weather forecasters of NOAA’s Weather Prediction Center (WPC) to predict accurately the occurrence of one inch or more of precipitation (rain or the water equivalent of melted snow or ice pellets) twenty-four hours in advance across the contiguous U.S.

This information is used by government entities, economic sectors, and the general public to manage daily lives and activities and make resource decisions.