Quantifying Wave Measurement Differences in Historical and Present Wave Buoy Systems

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Quantifying Wave Measurement Differences in Historical and Present Wave Buoy Systems R. E. Jensen 1, V. Swail 2, R.H. Bouchard 3, and B. Bradshaw 2 1 Coastal and Hydraulics Laboratory 2 Environment and Climate Change Canada 3NOAA-National Data Buoy Center 15 th Waves Workshop Liverpool, UK 11-15 September 2017

Quantifying Wave Measurement Differences in Historical and Present Wave Buoy Systems Outline: Background Durrant et al. (2009) FLOSSIE Bender et al. (2010) Dual Sensor Foam Buoys: The Future Findings and Conclusions

Background: Motivation Problem #1 Wave measurements derived from buoy motion Variety of buoys spanning 100 s of years Continue to introduce new platforms/sensors/payloads Limited intra-measurement evaluations Relied on H mo, T p, θ mean (metrics based on integral parameters) BUILDING STRONG Innovative solutions for a safer, better world

Background: Motivation Problem #2 S(f,θ[a 1,a 2,b 1,b 2 ]) or E(f) Values span 4 Orders of Magnitude Results in m 2 -s/rad or m 2 -s has little meaning Problem #3 Separate measurement differences Based on phase and spatial differences Geophysical variability / noise BUILDING STRONG Innovative solutions for a safer, better world

The Tests FLOSSIE: Investigate accuracy of wave measurements in a 6N (NOMAD) buoy Dual Sensor (3DMG / HIPPY) Investigate the Strapped Down Accelerometer Effect Foam Hulls 3D, 2.4D, 2.3D and 2.1D (SCOOP) BUILDING STRONG Innovative solutions for a safer, better world

FLOSSIE Study: Monterey Canyon

FLOSSIE Study: Monterey Canyon Non-Directional Sensor / Payloads NDBC: Inclinometer NDBC: HIPPY/Magnetometer ECCC : SDA / AXYS: Watchman Directional Sensor / Payloads NDBC: HIPPY / Magnetometer (DWPM) NDBC: 3DMG (DDWM) AXYS: TRIAXYS Next Wave II DWS-WM Complete Suite of Met. Sensors Data Transfer: IRIDIUM R. Riley & NDBC Techs

FLOSSIE: Wind / Wave Summary Buoy Farm General Characteristics: Winds / Waves Winds at 5m elevation

FLOSSIE: Wind / Wave Summary Waves from Datawell Directional Waverider

FLOSSIE: Intra-Measurement Evaluation Relative Reference Examination (WaveRider)

FLOSSIE: Intra-Measurement Evaluation Relative Reference Examination (WaveRider)

FLOSSIE: Intra-Measurement Evaluation Relative Reference Examination RMSE-Bias (WaveRider)

The Tests FLOSSIE: Investigate accuracy of wave measurements in a 6N (NOMAD) buoy Dual Sensor (3DMG / HIPPY) Investigate the Strapped Down Accelerometer Effect Foam Hulls 3D, 2.4D, 2.3D and 2.1D (SCOOP) BUILDING STRONG Innovative solutions for a safer, better world

The Bender Effect BUILDING STRONG Innovative solutions for a safer, better world

Dual Sensor Tests: SDA NDBC 3D Aluminum (46029) Pacific Northwest Dual Sensor System HIPPY Sensor 3DMG WITHOUT Bender Correction (201101-201507) 3DMG WITH Bender Corrected (201509-Present) Datawell Directional Waverider 201101-Present (with some gaps)

Bender Effect: Work In Progress No Bender Correction: 3D-HIPPY vs 3D-3DMG

Importance of Bender Correction

The Tests FLOSSIE: Investigate accuracy of wave measurements in a 6N (NOMAD) buoy Dual Sensor (3DMG / HIPPY) Investigate the Strapped Down Accelerometer Effect Foam Hulls 3D, 2.4D, 2.3D and 2.1D (SCOOP) BUILDING STRONG Innovative solutions for a safer, better world

Foam Buoys: The Future NDBC Migration to: Foam hulls from Aluminum Smaller buoys Target: 2.1DV Self-Contained Ocean Observation Payloads (SCOOP)

Foam Buoys: The Future

Foam Buoys: The Future The 2.1D Foam SCOOP System: Test and Evaluation: 3 Sites Mid Atlantic (mixed wind-seas / swells N Easters-TC s) Pacific Northwest (swell dominant-high energy) Lake Superior (wind-sea dominant) Three Distinct Wave Climates Covers full frequency range 3D Aluminum / DWR Mid Atlantic (dual sensor) Lake Superior (0.7 DWR) Deployed Now (1- to 2-yrs)

Findings and Conclusions Over 250 moored wave measurement buoys Uses include NWP forecast assessment Hindcast assessment Model development / modifications Altimeter algorithms Quality of wave measurements will vary Evaluations using total H mo will mask differences

Findings and Conclusions Buoy Farm created to investigate differences Contains majority of N America wave platforms FLOSSIE: multiple sensor/payloads in one hull Dual Sensor on NDBC Flagship 3D aluminum hull Can we quantify those differences? Clear indication 6N estimates biased Over the mean differences are small Spread of +/- 1-2.0-m is a concern Spread grows with increasing H mo Moments in direction? Can we relate those differences to Sensor/payload type Hulls, super-structure, mooring Analysis package

Findings and Conclusions Larger systematic differences are a result from Sensor type Analysis package Hulls, super-structure, mooring Some biases found could be corrected? Appears to be analysis: Transformation from acceleration to displacement NDBC s 3DMG non-corrected contain biases Foam Analysis: R. Bouchard (next) Knowing differences in wave platforms could be used to adjust historical data sets in Climate Trend Analyses NEED TO CONTINUE Test and Evaluations