Analysis of the Wind Resource off New Jersey for Offshore Wind Energy Development Hugh Roarty, Joe Riscica, Laura Palamara, Louis Bowers, Greg Seroka,

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Presentation transcript:

Analysis of the Wind Resource off New Jersey for Offshore Wind Energy Development Hugh Roarty, Joe Riscica, Laura Palamara, Louis Bowers, Greg Seroka, Josh Kohut, Scott Glenn and Rich Dunk

New Jersey Renewable Goals 23% of its energy from renewable sources by 2021 The nation’s first offshore wind renewable energy standard which requires at least 1,100 megawatts (MW) by 2021 Currently at 0.0 MW

An Advanced Atmosphere/Ocean Assessment Program: State of New Jersey New Jersey Board of Public Utilities (NJBPU) An Advanced Atmosphere/Ocean Assessment Program: Reducing the Risks Associated with Offshore Wind Energy Development As Defined by The NJ Energy Master Plan and The NJ Offshore Wind Energy Economic Development Act Principal Investigators: Dr. Scott Glenn and Dr. Rich Dunk, CCM Team Members: Dr. Josh Kohut, Dr. Hugh Roarty, Louis Bowers, Greg Seroka, John Kerfoot, Laura Palamara, Mike Crowley, Ethan Handel, Colin Evans New Ocean Data Hi-Res Weather Model Spatial Validation Data Wind Power Statistics -Demonstrate variability of the offshore wind resource for designated study area by using high resolution nested atmospheric WRF model -Validate modeling efforts with existing data as well as with developer’s coastal/offshore data (scanning LIDAR, axis LIDAR, three 60m coastal met towers) -NJ sea breeze has large impact on wind resource during peak energy demand season -Sea surface temperature is a critical input variable to the atmospheric model for producing accurate wind resource assessments; RUCOOL has developed a unique technique for declouding satellite imagery to ensure that coastal upwelling and storm mixing processes can be resolved -CODAR is a unique monitoring system for detecting surface currents and the associated spatial wind variability within the study area; wave data and spatial variability of the waves from CODAR can also be used to determine surface roughness features which is an input to the atmospheric model -This work can be used as a basis for a representative forecasting/predicting program

Ecological baseline studies of offshore wind power already performed (shown to left) Avian species Fisheries Marine Mammals Sea turtles This project is the physical baseline study

Rutgers University - Coastal Ocean Observation Lab Operations, Research & Education Center Vessels - Satellite Satellite CODAR Ships/ Vessels Glider REMUS Data Vis. Modeling Security Leadership Education Satellite Data Acquisition Stations CODAR Network Glider Fleet 3-D Forecasts

CODAR Compact HF Radar Antennas 25 MHz 13 MHz 5 MHz Combined Transmitter & Receiver Separate Transmitter & Receiver

Shed and Enclosures monitor computer & external hard drive A.C. unit UPS system transmitter receiver Two lines of Communication Shed Enclosure Lightning Protection

Surface Current Mapping Capability 25 MHz Radar l: 12 m Ocean l: 6 m Range: 30 km Resolution: 1 km 13 MHz Radar l: 23 m Ocean l: 12 m Range: 80 km Resolution: 3 km 05 MHz Radar l: 60m Ocean l: 30 m Range: 180 km Resolution: 6 km

13 MHz Network

Point Comparison

U'c(x,y,t) = slope(x,y)*W'(t) HF Radar Derived Linear Wind Model Current Transient [U'] (cm/s) Wind Transient [W'] (cm/s) Rotate wind vectors according to complex correlation Calculate the slope and intercept of best fit line U'c(x,y,t) = slope(x,y)*W'(t)

HF Radar Coverage January 23 to May 7, 2012 NDBC or WeatherFlow Wind Record HF Radar Grid Point With at Least 70% temporal coverage

Buoy 44025 Winds (m/s) CODAR Currents (cm/s)

September 12, 2012 Sea Breeze Event Spatial Comparison

Sep 12, 2012 00:00 UTC

Sep 12, 2012 01:00 UTC

Sep 12, 2012 02:00 UTC

Sep 12, 2012 03:00 UTC

Sep 12, 2012 04:00 UTC

Sep 12, 2012 05:00 UTC Land Breeze Starts

Sep 12, 2012 06:00 UTC

Sep 12, 2012 07:00 UTC

Sep 12, 2012 08:00 UTC

Sep 12, 2012 09:00 UTC

Sep 12, 2012 10:00 UTC

Sep 12, 2012 11:00 UTC

Sep 12, 2012 12:00 UTC

Eastern Edge of the Land Breeze Sep 12, 2012 13:00 UTC Wind Direction Eastern Edge of the Land Breeze

Winds rotate clockwise Sep 12, 2012 14:00 UTC Winds rotate clockwise

Sep 12, 2012 15:00 UTC

Sep 12, 2012 16:00 UTC Sea Breeze Starts

Sep 12, 2012 17:00 UTC

Sep 12, 2012 18:00 UTC

Winds from the Southeast Sep 12, 2012 19:00 UTC Winds from the Southeast

Sep 12, 2012 20:00 UTC

Sep 12, 2012 21:00 UTC

Sep 12, 2012 22:00 UTC

Sep 12, 2012 23:00 UTC

Sep 13, 2012 00:00 UTC

Sep 12, 2012 00:00 UTC Detided Current Field

Sep 12, 2012 01:00 UTC Detided Current Field

Sep 12, 2012 02:00 UTC Detided Current Field

Sep 12, 2012 03:00 UTC Detided Current Field

Sep 12, 2012 04:00 UTC Detided Current Field

Sep 12, 2012 05:00 UTC Land Breeze Starts Detided Current Field

Sep 12, 2012 06:00 UTC Detided Current Field

Sep 12, 2012 07:00 UTC Detided Current Field

Sep 12, 2012 08:00 UTC Detided Current Field

Sep 12, 2012 09:00 UTC Detided Current Field

Sep 12, 2012 10:00 UTC Detided Current Field

Sep 12, 2012 11:00 UTC Detided Current Field

Sep 12, 2012 12:00 UTC Detided Current Field

Eastern Edge of the Land Breeze Sep 12, 2012 13:00 UTC Wind Direction Current Direction Eastern Edge of the Land Breeze Detided Current Field

Winds rotate clockwise Sep 12, 2012 14:00 UTC Winds rotate clockwise Currents rotate clockwise Detided Current Field

Sep 12, 2012 15:00 UTC Detided Current Field

Sep 12, 2012 16:00 UTC Sea Breeze Starts Detided Current Field

Sep 12, 2012 17:00 UTC Detided Current Field

Sep 12, 2012 18:00 UTC Detided Current Field

Winds from the Southeast Sep 12, 2012 19:00 UTC Winds from the Southeast Currents to the North Detided Current Field

Sep 12, 2012 20:00 UTC Detided Current Field

Sep 12, 2012 21:00 UTC Detided Current Field

Sep 12, 2012 22:00 UTC Detided Current Field

Sep 12, 2012 23:00 UTC Detided Current Field

Sep 13, 2012 00:00 UTC Detided Current Field

Questions?