This article was accepted into the corpus but its outbound wikilinks were never NER-processed — typical at the deepest BFS hop or when the run's entity cap was reached. No expansion funnel to show.
| BUFR | |
|---|---|
| Name | BUFR |
| Developer | World Meteorological Organization |
| Released | 1988 |
| Latest release | Edition 4 (2018) |
| Programming language | C, Fortran, Python implementations |
| Operating system | Cross-platform |
| License | Various (WMO standards) |
| Website | World Meteorological Organization |
BUFR BUFR is a binary meteorological data format standardized by the World Meteorological Organization for encoding observational, satellite, and model-derived data. It enables compact transmission of multidimensional datasets between services such as the European Centre for Medium-Range Weather Forecasts, the National Oceanic and Atmospheric Administration, and regional meteorological agencies. BUFR supports machine-readable descriptors and templates used by institutions including the Met Office and the Japan Meteorological Agency, facilitating interoperable exchange across systems like the Global Telecommunication System and archives at the National Centers for Environmental Information.
BUFR is a table-driven binary representation devised to convey observational reports from platforms operated by organizations such as the International Civil Aviation Organization, the National Aeronautics and Space Administration, and the European Space Agency. It complements other data formats used by the World Meteorological Organization family, including GRIB and NetCDF, and interacts with tools from the Global Climate Observing System and ECMWF workflows. BUFR messages encapsulate metadata and numeric values with descriptor tables maintained by committees including the WMO Commission for Basic Systems and stakeholders like the International Oceanographic Commission.
Development began in the 1980s within bodies such as the WMO Technical Conference on Meteorological and Environmental Telecommunications and was influenced by earlier formats used by the United States National Weather Service and the Royal Netherlands Meteorological Institute. Early editions evolved through collaboration between agencies like the European Organisation for the Exploitation of Meteorological Satellites and national meteorological services of France, Germany, and United Kingdom. Revisions culminating in Edition 4 incorporated requirements from projects including the Global Observing System and lessons from implementations at NOAA and JAXA.
A BUFR message comprises a sequence of sections following the conceptual model established by the World Meteorological Organization and practiced by services such as EUMETSAT and the Canadian Meteorological Centre. Sections include a header, descriptor-driven data section, and end section, with locations and timestamps aligned to standards used by the International Telecommunication Union and the International Organization for Standardization. The descriptor tables—local and international—are analogous to schema definitions used by organizations like the Open Geospatial Consortium in other domains. File boundaries and message fragmentation strategies mirror those used in operational systems at ECMWF and NCEP.
BUFR encodes scalar and composite data types described by descriptor sequences maintained by committees such as the WMO Commission for Basic Systems and adopted by national services like the Australian Bureau of Meteorology. Templates can express station reports from observatories like Hadley Centre sites, balloon soundings used by University of Wyoming datasets, and satellite radiance-derived products produced by NOAA and EUMETSAT. Descriptor classes permit linking to observational programs including GCOS and observational networks run by institutions such as the Finnish Meteorological Institute and Deutscher Wetterdienst.
Encoding employs bit-level packing and scale/offset transformations comparable to techniques in GRIB and similar to compression strategies explored by NASA and the European Commission research projects. BUFR supports data replication, delayed descriptor referencing, and operator mechanisms used by implementers at ECMWF and Met Office to reduce message size. Lossless packing and precision control allow transmission over constrained links like the Global Telecommunication System while preserving fidelity needed by analysis centers such as the National Weather Service and research groups at NCAR.
Multiple libraries and tools implement BUFR parsing and generation, developed by entities including the World Meteorological Organization, ECMWF, NOAA, and open-source communities. Prominent software includes the ECMWF BUFRLIB derivative families, the GNU-licensed tools from the Met Office and bindings maintained by Python projects and R packages used in academic centers like MIT and Imperial College London. Validation suites and converters are provided by national centers such as NCEP and research organizations including CNR-affiliated groups.
Operational applications include synoptic and marine observations ingested by forecasting systems at ECMWF, NCEP, and national services like Météo-France; climatological archives at institutions like the Hadley Centre; and satellite-derived products distributed by EUMETSAT and NOAA. BUFR is used in aviation meteorology for reports to ICAO-linked networks, oceanography programs run by ICES participants, and environmental monitoring projects involving the European Commission and national agencies such as the Korea Meteorological Administration. Research users at universities including Colorado State University and University of Reading analyze BUFR-encoded radiosonde and profiler datasets.
Governance rests with the World Meteorological Organization and its expert teams, with technical maintenance coordinated by the WMO Commission for Basic Systems and regional working groups including representatives from ECMWF, NOAA, EUMETSAT, Met Office, and national meteorological services. Descriptor table updates and procedural directives reflect contributions from programs such as the Global Climate Observing System and compliance expectations align with recommendations from the International Civil Aviation Organization for aviation data exchange. International workshops and task teams hosted by organizations like WMO and EUMETSAT manage edition revisions and interoperability testing.
Category:Meteorological data formats