This submission of data includes all the 1/50th scale testing data completed on the Wave Energy Prize for the Principle Power team, and includes: - 1/50th test data (raw & processed) - 1/50th test data video and pictures - 1/50th Test plans and testing documents - SSTF_Submission (summarized results)

This submission of data includes all the 1/50th scale testing data completed on the Wave Energy Prize for the Principle Power team, and includes: - 1/50th test data (raw & processed) - 1/50th test data video and pictures - 1/50th Test plans and testing documents - SSTF_Submission (summarized results)

Raw and processed timeseries data generated during field testing of a single oscillating hydrofoil Water Horse prototype at PMEC (Pacific Marine Energy Center) Tanana River Test Site in Nenana, AK in July 2020. Data collection by University of Alaska, Fairbanks. This submission includes the merged timeseries data from ADCP (acoustic Doppler current profiler), ADV (acoustic Doppler velocimeter), and Campbell Scientific logger of electrical and mechanical transducers. - ReadMe: outlining the contents of "2020_Water_Horse_Test _Data.zip" - 2020_Water_Horse_Test _Data.zip: field test content model metadata, design drawings, meta analysis, integrated raw dataset (MATLAB format), integrated analyzed dataset (MATLAB format), data analysis (MATLAB), and data plots (MATLAB).

Dataset contains both captured and dynamic tow tank test model data from the Aquantis 2.5 MW ocean current generation device.

Complete dataset from wave tank testing for the Delos-Reyes Morrow Pressure Device (DMP), commercialized by M3 Wave LLC as "APEX". Subdirectories include Readme files where appropriate to aid in navigation.

Complete dataset from wave tank testing for the Delos-Reyes Morrow Pressure Device (DMP), commercialized by M3 Wave LLC as "APEX". Subdirectories include Readme files where appropriate to aid in navigation.

In order to generate a public data set that can be used to validate Wave Energy Converter (WEC) numerical codes, such as WEC-Sim, Sandia National Laboratories led an experimental testing campaign of a 1:33 scale Floating Oscillating Surge Wave Energy Converter (FOSWEC) in the Directional Wave Basin at Oregon State University's Hinsdale Wave Research Laboratory. Testing was performed in two phases; Phase 1 testing was completed in November - December 2015, and Phase 2 testing was completed in May - June 2016. This experimental testing report details the selection and design of a FOSWEC, experimental setup and tests, and overview of the resulting dataset from Phase 1 and Phase 2 testing.

In order to generate a public data set that can be used to validate Wave Energy Converter (WEC) numerical codes, such as WEC-Sim, Sandia National Laboratories led an experimental testing campaign of a 1:33 scale Floating Oscillating Surge Wave Energy Converter (FOSWEC) in the Directional Wave Basin at Oregon State University's Hinsdale Wave Research Laboratory. Testing was performed in two phases; Phase 1 testing was completed in November - December 2015, and Phase 2 testing was completed in May - June 2016. This experimental testing report details the selection and design of a FOSWEC, experimental setup and tests, and overview of the resulting dataset from Phase 1 and Phase 2 testing.

This submission of data includes all the 1/50th scale testing data completed on the Wave Energy Prize for Float Inc. During the testing of its 1/50th-scale device, Float Inc. Berger ABAM was deemed ineligible due to the fact that they brought a device with them to test and did not ship the device by the deadline stipulated in the Wave Energy Prize Rules. Because of this, analysis, results, and judging were not completed for this team/device. This submission included files such as: - 1/50th test data (raw & processed) - 1/50th test data video and pictures - 1/50th Test plans and testing documents

This dataset documents a series of controlled laboratory experiments conducted at the O.H. Hinsdale Wave Research Laboratory to evaluate the performance of a dual-function Oscillating Water Column (OWC) system integrated with a slotted breakwater. The experiments aimed to characterize both wave energy conversion and shoreline protection performance under a range of wave and structural configurations. The OWC array featured ten 1" thick pneumatic chambers (4'x4'x3'), each equipped with a sharp-edged orifice plate, and mounted on a slotted barrier with two tested porosities (10% and 25%). Tests were performed in a wave basin under regular, random, and obliquely incident wave conditions, across two water depths (1.22m and 1.37m). Data collection was comprehensive, involving 24 wave gauges, 8 Acoustic Doppler Velocimeters (ADVs), 10 differential pressure sensors, 3 ultrasonic sensors, a force balance, and an anemometer. These instruments were distributed across the basin and mounted on the physical model. The dataset includes raw data, calibrated data, and post-processed outputs in multiple formats (MATLAB, ASCII text, and WaveLab-compatible files). Instrument positions, calibration metadata, and acquisition synchronization details are thoroughly documented. Units are clearly labeled, and the dataset is structured to be compatible with automated processing scripts developed at the laboratory. Users should consult the comprehensive README.pdf found below for detailed guidance on directory structure, data formatting, instrumentation, calibration procedures, and post-processing workflows. The README also outlines proprietary software requirements (e.g., MATLAB, LabVIEW) and system-specific calibration assumptions necessary for full utilization of the dataset. The PTO DEMO folder includes data obtained from a preliminary test power take off device, a bidirectional impulse turbine generator. The data includes time-stamped analog and digital .csv files. The PTO data is not time synchronized with the rest of the data, it is for demonstration purposes only. The analog file corresponds to the voltage out of a 36W Brushless DC motor which has been rectified and stepped down to 0-5V. The digital file corresponds to the built in hall affect sensor on the motor.