collaborators

6 papers

physics.ao-ph2026

Experimental validation of an open-source low-cost single-camera 6-DOF tracking of floating-body motion in wave tanks

Herman Martens Meyer, Paul Fromont, Øystein Lande +2

Accurately measuring motion of floating structures in experimental settings is both important and non-trivial. In this paper, we present a single-camera, 6-degree-of-freedom motion…

physics.ao-ph2026

ORB: An Open Radio Buoy for Coastal Water Measurements

Lars Willas Dreyer, Andrea Pferscher, Riccardo Sieve +4

Oceanographic instrumentation technology is currently under rapid transition towards increasingly open-source technology. Open-source buoys compete with commercial and closed-sourc…

physics.geo-ph2026

OpenWaveLogger v2026 (OWL-v2026): an open source, low cost, easy to build, high performance logger for wave data measurements

Jean Rabault, Joey Voermans, Takuji Waseda +10

Ocean wave models are critical for weather and climate forecasting, and accurate in-situ wave observations are essential for validating and improving these models. Open-source, com…

physics.ao-ph2026

Experimental investigation of a multi-buoy cooperative point-absorber wave energy converter

Herman Martens Meyer, Leif Arne Tønnessen, Olav Gundersen +1

This study presents a proof-of-concept experimental investigation of a multi-buoy cooperative point-absorber wave energy converter (WEC). The proposed concept consists of an array…

physics.geo-ph2025

Observations of high-frequency spectral peaks from in-situ waves in ice data: evidence for nonlinear waves in ice triad interactions?

Jean Rabault, Joey Voermans, Takehiko Nose +16

The propagation of waves through the marginal ice zone (MIZ) and deeper into pack ice is a key phenomenon that influences the breakup and drift of sea ice. When waves in ice propag…

physics.ao-ph2025

Direct in-situ observations of wave-induced floe collisions in the deeper Marginal Ice Zone

Lars Willas Dreyer, Jean Rabault, Atle Jensen +4

Ocean waves propagating through the Marginal Ice Zone (MIZ) and the pack ice are strongly attenuated. This attenuation is critical for protecting sea ice from energetic wave events…