PofoliaShared via Pofolia

Frontiers in Marine Science· 2026Q1

Virtual uncrewed system sampling in the hurricane environment. Part 1: rigid-wing surface vehicle simulator

Edoardo Mazza, Chidong Zhang, A. M. Chiodi

Short summary

A novel physics-based simulator for a rigid-wing, wind-powered Uncrewed Surface Vehicle (USV) has been developed to reproduce its navigation in hurricane conditions and enable virtual missions.

AI-generated from the title and abstract; the full text is not read.

Key points

  • Developed a physics-based simulator for rigid-wing, wind-powered USVs operating in hurricane environments.
  • Simulator reproduces USV surge, sway, and yaw based on wind, ocean current, and control inputs.
  • Model parameters calibrated and validated using data from NOAA Atlantic Hurricane missions.
  • A virtual controller enables waypoint navigation for repeatable simulation experiments.

AI-generated from the title and abstract; the full text is not read.

Abstract

Uncrewed vehicles (UxS) are the frontier of atmospheric and oceanic measurements in extreme regimes and remote areas. The combination of Uncrewed Surface Vehicles (USVs), Uncrewed Underwater Vehicles (UUVs) and Uncrewed Aerial Vehicles (UAVs) has the potential to transform air-sea coupling observations through co-located sampling of the lower atmosphere, upper ocean and air-sea interface. Although individual platforms have reached a relatively mature operational stage, designing coordinated missions remains challenging. UxS navigation is strongly affected by environmental conditions their and deployment can be logistically complex and poorly repeatable. We take a first step towards co-locating UxS under environmental influences by developing a novel physics-based, dynamical simulator for a rigid-wing, wind-powered USV that: a) reproduces the observed USV navigation during the NOAA Atlantic Hurricane missions, b) can be virtually navigated in numerical simulations. Starting from force-balance principles, the simulator reproduces the USV surge, sway and yaw, given wind, ocean current information, and control wing and rudder angle inputs. Model parameters are calibrated and validated using observations from the NOAA Atlantic Hurricane missions. A virtual controller is also developed to enable waypoint-based navigation within numerical environmental simulations to support repeatable experiments assessing the feasibility and design of coordinated USV–UUV sampling strategies.

The authors' abstract, as published at the source. Frontiers in Marine Science, 2026 · DOI ↗

TakeawaysPremium
Ask the paperFree account

Continue with a free account

Ask the paper: 3 free questions a day about this paper; save it, get its citation, new summaries every day for your field. Takeaways are Premium.

Continue free on the web

Sign in with Google or Apple; no card needed. You come back to this paper.

On your phone:

Field: Ocean Engineering

Ocean EngineeringEngineering