nps institutional contributions aircraft overflights (ramp, paduan, q.wang) –plume mapping (sst,...

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NPS Institutional Contributions Aircraft Overflights (RAMP, paduan, q.wang) Plume Mapping (SST, color, visual) Surface Heat Fluxes Expanded HF Radar Network (PADUAN, ramp) Extend North of Ano Nuevo (Cal. Prop. 40, CIMT) Assimilate Surface Velocities Into Models ARIES and REMUS Vehicles (HEALEY, ramp) Virtual Mooring Broadband high-speed communications Real-Time Moorings (RAMP, healey) Northern Border “Anchor Point” 802.11b Surface Buoy POINT SUR ship surveys (ROSENFELD) Perimeter observations, model initialization NOT in NPS budget

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NPS Institutional Contributions • Aircraft Overflights (RAMP, paduan, q.wang)

– Plume Mapping (SST, color, visual)– Surface Heat Fluxes

• Expanded HF Radar Network (PADUAN, ramp)– Extend North of Ano Nuevo (Cal. Prop. 40, CIMT)– Assimilate Surface Velocities Into Models

• ARIES and REMUS Vehicles (HEALEY, ramp)– Virtual Mooring– Broadband high-speed communications

• Real-Time Moorings (RAMP, healey)– Northern Border “Anchor Point”– 802.11b Surface Buoy

• POINT SUR ship surveys (ROSENFELD)– Perimeter observations, model initialization– NOT in NPS budget

NPS Top Three TasksThe Scientific

• Dynamics of 3-D upwelling centers– Why to they form where they do?– Need individual terms in the equations of motion

• Eddy/Undercurrent/Upwelling Center Interactions– What happens to the CUC when the MBE moves onshore?– Can we predict offshore vs. southward movement of the

cold, upwelled water?

• Advection vs. Mixing– How much cold water “spreading” is due to advection from

the center vs. mixing beneath an atmospheric jet?– 3-D volume/heat balance: How much cold water is actually

available to spread around?

NPS Top Three TasksThe Practical

• Achieve real-time observation and prediction of the coastal ocean circulation. Use Monterey Bay as a natural laboratory to learn how to do this elsewhere.

• Stated ASAP proposal goal: What is the minimum necessary and sufficient suite of observations required to keep the numerical assimilation and prediction schemes on track?

• How to develop a sustainable system?– Economical, Efficient, Useful

NPS Top Three TasksThe Enablers

• Flow of data from instruments to the laboratory via AUVs, buoys, cables, and aircraft – More “turnkey” acoustic and wireless telemetry– Automated QC/servers– Painless data availability to all

• Optimize use of limited assets through adaptive sampling and numerical prediction– Can/should we adapt the flight plans?– Can/should we adapt the ADCP sampling rates?

• Produce predictions/products that are useful to the general public (essential for sustainability)

Flights: Extend Track to the North

AUGUST 20, 2003 AUGUST 20, 2003SST Chl - a

From Qing Wang:

For August 15th

Wind Spd & Dir

Wind u, v comp

From Qing Wang:

For August 15th

Heat Flux

Momentum Flux

Sample HF Radar Products

Hourly Observed Hourly Mapped

Sample HF Radar Products

25-Hour Mean “Drifter” Movie

QuickTime™ and aGIF decompressor

are needed to see this picture.

NPS AOSN-II REMUS DATA

(outbound)