TY - JOUR
T1 - The global high frequency radar network
AU - Roarty, Hugh
AU - Cook, Tom
AU - Hazard, Lisa
AU - Harlan, Jack
AU - Cosoli, Simone
AU - Wyatt, Lucy
AU - Fanjul, Enrique Alvarez
AU - Terrill, Eric
AU - Otero, Mark
AU - Largier, John
AU - Glenn, Scott
AU - Ebuchi, Naoto
AU - Whitehouse, Brian
AU - Bartlett, Kevin
AU - Mader, Julien
AU - Rubio, Anna
AU - Corgnati, Lorenzo P.
AU - Mantovani, Carlo
AU - Griffa, Annalisa
AU - Reyes, Emma
AU - Lorente, Pablo
AU - Flores-Vidal, Xavier
AU - Rogowski, Peter
AU - Prukpitikul, Siriluk
AU - Lee, Sang Ho
AU - Lai, Jian Wu
AU - Guerin, Charles
AU - Sanchez, Jorge
AU - Hansen, Birgit
AU - Grilli, Stephan
AU - Matta, Kelly Saavedra
PY - 2019/5/14
Y1 - 2019/5/14
N2 - Academic, government, and private organizations from around the globe have established High Frequency radar (hereinafter, HFR) networks at regional or national levels. Partnerships have been established to coordinate and collaborate on a single global HFR network (http://global-hfradar.org/ ). These partnerships were established in 2012 as part of the Group on Earth Observations (GEO) to promote HFR technology and increase data sharing among operators and users. The main product of HFR networks are continuous maps of ocean surface currents within 200 km of the coast at high spatial (1-6 km) and temporal resolution (hourly or higher). Cutting-edge remote sensing technologies are becoming a standard component for ocean observing systems, contributing to the paradigm shift towards ocean monitoring. In 2017 the Global HFR Network was recognized by the Joint Technical WMO-IOC Commission for Oceanography and Marine Meteorology (JCOMM) as an observing network of the Global Ocean Observing System (GOOS). In this paper we will discuss the development of the network as well as establishing goals for the future. The U.S. High Frequency Radar Network (HFRNet) has been in operation for over thirteen years, with radar data being ingested from 31 organizations including measurements from Canada and Mexico. HFRNet currently holds a collection from over 150 radar installations totaling millions of records of surface ocean velocity measurements. During the past 10 years in Europe, HFR networks have been showing steady growth with over 60 stations currently deployed and many in the planning stage. In Asia and Oceania countries, more than 110 radar stations are in operation. HFR technology can be found in a wide range of applications: for marine safety, oil spill response, tsunami warning, pollution assessment, coastal zone management, tracking environmental change, numerical model simulation of 3-dimensional circulation, and research to generate new understanding of coastal ocean dynamics, depending mainly on each country's coastal sea characteristics. These radar networks are examples of national inter-agency and inter-institutional partnerships for improving oceanographic research and operations. As global partnerships grow, these collaborations and improved data sharing enhances our ability to respond to regional, national, and global environmental and management issues.
AB - Academic, government, and private organizations from around the globe have established High Frequency radar (hereinafter, HFR) networks at regional or national levels. Partnerships have been established to coordinate and collaborate on a single global HFR network (http://global-hfradar.org/ ). These partnerships were established in 2012 as part of the Group on Earth Observations (GEO) to promote HFR technology and increase data sharing among operators and users. The main product of HFR networks are continuous maps of ocean surface currents within 200 km of the coast at high spatial (1-6 km) and temporal resolution (hourly or higher). Cutting-edge remote sensing technologies are becoming a standard component for ocean observing systems, contributing to the paradigm shift towards ocean monitoring. In 2017 the Global HFR Network was recognized by the Joint Technical WMO-IOC Commission for Oceanography and Marine Meteorology (JCOMM) as an observing network of the Global Ocean Observing System (GOOS). In this paper we will discuss the development of the network as well as establishing goals for the future. The U.S. High Frequency Radar Network (HFRNet) has been in operation for over thirteen years, with radar data being ingested from 31 organizations including measurements from Canada and Mexico. HFRNet currently holds a collection from over 150 radar installations totaling millions of records of surface ocean velocity measurements. During the past 10 years in Europe, HFR networks have been showing steady growth with over 60 stations currently deployed and many in the planning stage. In Asia and Oceania countries, more than 110 radar stations are in operation. HFR technology can be found in a wide range of applications: for marine safety, oil spill response, tsunami warning, pollution assessment, coastal zone management, tracking environmental change, numerical model simulation of 3-dimensional circulation, and research to generate new understanding of coastal ocean dynamics, depending mainly on each country's coastal sea characteristics. These radar networks are examples of national inter-agency and inter-institutional partnerships for improving oceanographic research and operations. As global partnerships grow, these collaborations and improved data sharing enhances our ability to respond to regional, national, and global environmental and management issues.
KW - Coastal hazard
KW - Currents and eddies
KW - HF Radar current data
KW - Ocean observation network
KW - Remote sensing
KW - Tsunami
KW - Waves
UR - http://www.scopus.com/inward/record.url?scp=85065407158&partnerID=8YFLogxK
U2 - 10.3389/fmars.2019.00164
DO - 10.3389/fmars.2019.00164
M3 - Article
AN - SCOPUS:85065407158
SN - 2296-7745
VL - 6
JO - Frontiers in Marine Science
JF - Frontiers in Marine Science
IS - MAR
M1 - 164
ER -