SCMI Ocean.US Surface Current Initiative (SCI) A status report by Jeffrey D. Paduan Naval Postgraduate School 2/05/2003 oCoC.

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Presentation transcript:

SCMI Ocean.US Surface Current Initiative (SCI) A status report by Jeffrey D. Paduan Naval Postgraduate School 2/05/2003 oCoC

SCMI Ocean.US Surface Current Initiative (SCI)-Components HF radar HF Radar Advantages Other likely SCI components Wide-area coverage Low cost Real-time True surface observation Improves model skill Satellite-based: feature tracking surface drifters altimetry Moored current meters Data assimilating circulation models

SCMI Preamble Surface currents are an identified high priority product for coastal ocean observing systems. Surface Current Mappers (SCMs) that broadcast and then observe back- scattered radio signals from the ocean’s surface are now an operational technology that has been implemented in numerous locations worldwide. SCM technologies, using the same back-scattered radio signals, have also produced useful surface wave and vessel- tracking data in research applications. A nested network of SCMs installed along the coast of the United States, and used in conjunction with other observations and data- assimilative forecast models, will address issues critical to the seven major goals of IOOS. Mission This Surface Current Mapping Initiative (SCMI) will facilitate the implementation of a nested network of SCMs as part of the national observational backbone of the Integrated Ocean Observing System (IOOS). More specifically, the SCMI will (a) promote the installation of a national network, (b) develop a framework to coordinate its operation, data dissemination, and product generation, and (c) foster research that will enhance its operational products. Ocean.US Surface Current Initiative (SCI)-Mission Statement

SCMI SCMI Steering Committee Members Jeff Paduan (NPS; Chair) Larry Atkinson (Ocean.US; ex officio) Jim O’Donnell (U Conn) Art Allen (USCG) P. Michael Kosro (Oregon State Univ) Scott Glenn (Rutgers) Mark Bushnell (NOAA/NOS) David Musgrave (U Alaska, Fairbanks) Lynn (Nick) Shay (U Miami) Libe Washburn (UC Santa Barbara) Mark Luther (USF, NOAA/ACT) Biased toward experienced HF radar users Includes agency representatives First meeting: September 2003 Voluminous exchanges since Drafting plan for wide community input, including March 04 ACT workshop

SCMI SCMI Issue Areas Governance–How to run the system Siting–Permissions and physical location restrictions Frequency Allocation–Need primary licenses; mutual interferences Products–Value added and QC procedures Research–Continuing improvements Vessel Tracking–Dual-use capability to track ships over EEZ...see issues papers

SCMI Proposed Backbone Network Based on: Long-range systems ( km) Modest resolution (5-10km) ~5 sites per node ~100 sites (for minimal AK, HI)

SCMI Backbone Network NEOS Radial Currents 222 km The real thing!

SCMI L Long-Term Trends Winter 2002 average Significant Events A rapidly moving nor’easter Backbone Network–a living example

SCMI Backbone Network–(another) living example Three (now 4) long-range sites capture mesoscale variability out to 150 km offshore and along 1/2 of the Oregon coastline Continuous observations for the critical coastal regime in which satellite AVHRR and altimetry seldom or cannot see P.M. Kosro 100 km

SCMI Backbone Network–(another) living example

SCMI Backbone Network–(another) living example PolewardEquatorward/Offshore

SCMI CBI/TEES Coverage of HF-Radar Along Texas Coast Active Under Construction Being Purchased Coastal—13 MHz Bay—25 MHz

SCMI Unedited map of hourly surface-current vectors off Galveston TX (11/30/ UTC) Weak upcoast flow and an ebb tide from Galveston Bay.

SCMI Backbone Network–Costs Installation of one site Hardware110K–150K Installation40K–70K Number of sites (depends on coverage in AK, HI, & territories) 100–200 Total Network Installation*$15M–44M Annual Operating Costs (based on 5 sites/node) Technicians (2/node)110K–150K each Materials30K Nodes20-40 Total Annual Operating Costs$5M–15M *Needs to be broken into 3-5 year phased implementation

SCMI Backbone Network–Advantages Direct advantages Economies of scale Improved Search & Rescue Improved Mitigation of Hazardous Spills Improved Regional Circulation Models Ability to embed meaningful, high-resolution models HF radar-based mapping system is uniquely self contained Advantages to central management/coordination with distributed implementation Few advantages to distributed management/coordination

SCMI Backbone Network–Advantages through economies of scale All HF radar systems supply same product Radial current maps can be combined regardless of manufacturer Data is (practically) trivial Labor costs higher than hardware costs: optimize the people Common training needs; Shared knowledge & experiences Common required skills Tech #1 Tech #2 Driver’s license Basic electronic skills Scripting (e.g., PERL, ftp) Communications (wireless, modems) Calibration concerns are common Frequency and siting needs are common Remote communications needs are common

SCMI SCM Node Regional Assoc. Central Hub Governing Board Standard Products Data Archive Tailored Products High-res Products Present Standards User Feedback Backbone Network–Example Governance Phased Innova- tions Science Board

SCMI Backbone Network–Pilot Study Plan Achieve phased implementation through a sequence of pilot studies Ready to begin immediately given the large number of research efforts underway using SCMs Should cover significant* area(s) Should include systematic approach to frequency and siting problems Should support parallel program in data assimilation Should support provisions to test ship tracking algorithms *to include several nodes so that the challenges of data exchange and reliability can be demonstrated

SCMI SCMI Conclusions–Timeline Jan04Feb04Mar04Oct04 Detailed SCI outline and SCMI implementation plan to NORLC and public AGU Ocean Sciences Meeting TOS/ALSO Meeting NOAA/ACT Jun04 Detailed and vetted implementation plan available Begin national-scale, multiple node pilot studies

SCMI SCMI Conclusions–Jeff’s Jan04Feb04Mar04Oct04 Detailed SCI outline and SCMI implementation plan to NORLC and public AGU Ocean Sciences Meeting TOS/ALSO Meeting NOAA/ACT Jun04 Detailed and vetted implementation plan available Begin national-scale, multiple node pilot studies A national SCMI benefits everyone RAs will do the work RAs will get the credit IOOS will get the credit Users will get the products RAs can “densify” for the marginal costs It will cost less than the alternative of working from RAs outward It will actually happen