Pere Ridao Rodriguez

Dr. Pere Ridao Rodriguez


Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2018 in Annual Reviews in Control
Verified
Journal Article
Closed access
EZEnrica Zereik
Enrica Zereik
Marco BibuliMarco Bibuli
Marco Bibuli
NMNikola Mišković
Nikola Mišković
PRPere Ridao Rodriguez
Pere Ridao Rodriguez
APAntonio MANUEL Pascoal
Antonio MANUEL Pascoal

1 February 2012 in IEEE/ASME Transactions on Mechatronics
Verified
Journal Article
Closed access
DRDavid Ribas
David Ribas
NPNarcís Palomeras
Narcís Palomeras
PRPere Ridao Rodriguez
Pere Ridao Rodriguez
MCMarc Carreras
Marc Carreras
AMAngelos Mallios
Angelos Mallios
This paper outlines the specifications and basic design approach taken on the development of the Girona 500, an autonomous underwater vehicle whose most remarkable characteristic is its capacity to reconfigure for different tasks. The capabilities of this new vehicle range from different forms of seafloor survey to inspection and intervention tasks.

23 July 2008 in Journal of Field Robotics
Verified
Journal Article
Closed access
PDF file
DRDavid Ribas
David Ribas
PRPere Ridao Rodriguez
Pere Ridao Rodriguez
JTJuan Domingo Tardós
Juan Domingo Tardós
JNJosé Neira
José Neira

30 January 2018 in IEEE Journal of Oceanic Engineering
Verified
Journal Article
Closed access
MCMarc Carreras
Marc Carreras
JHJuan David Hernandez
Juan David Hernandez
EVEduard Vidal
Eduard Vidal
NPNarcis Palomeras
Narcis Palomeras
DRDavid Ribas
David Ribas
PRPere Ridao Rodriguez
Pere Ridao Rodriguez
This paper proposes the use of path-planning algorithms for hovering autonomous underwater vehicles (AUVs) in applications where the robot needs to adapt online its trajectory for inspection or safety purposes. In particular, it proposes the platform Sparus II AUV and a set of planning algorithms to conduct these new AUV capabilities. These algorithms generate trajectories under motion constraints, which can be followed without deviations, to ensure the safety even when passing close to obstacles. View planning algorithms are also combined to decide the movements to be executed to discover the unexplored seabed or target, and to cover it with a camera or sonar. Online mapping with profiling sonars and online planning with fast sampling-based algorithms allow the execution of missions without any previous knowledge of the 3-D shape of the environment. Real 2-D results in an artificial harbor structure and simulated natural rocky canyon demonstrate the feasibility of the approach for avoiding or inspecting the underwater environment. These new AUV capabilities can be used to acquire images of the environment that can be used to inspect and map the habitat.

1 April 2018 in Ocean Engineering
Verified
Journal Article
Closed access
NPN. Palomeras
N. Palomeras
GVGuillem Vallicrosa
Guillem Vallicrosa
AMA. Mallios
A. Mallios
JAJosep Bosch Alay
Josep Bosch Alay
EVEduard Vidal
Eduard Vidal
PRPere Ridao Rodriguez
Pere Ridao Rodriguez

1 January 2015 in Annual Reviews in Control
Verified
Journal Article
Open access
PRPere Ridao Rodriguez
Pere Ridao Rodriguez
MCMarc Carreras
Marc Carreras
DRDavid Ribas
David Ribas
PSPedro J. Sanz
Pedro J. Sanz
Gabriel Oliver-CodinaGabriel Oliver-Codina
Gabriel Oliver-Codina
While commercially available AUVs are routinely used in survey missions, a new set of applications exist which clearly demand intervention capabilities. The maintenance of permanent underwater observatories, submerged oil wells, cabled sensor networks, pipes and the deployment and recovery of benthic stations are a few of them. These tasks are addressed nowadays using manned submersibles or work-class ROVs, equipped with teleoperated arms under human supervision. Although researchers have recently opened the door to future I-AUVs, a long path is still necessary to achieve autonomous underwater interventions. This paper reviews the evolution timeline in autonomous underwater intervention systems. Milestone projects in the state of the art are reviewed, highlighting their principal contributions to the field. To the best of the authors' knowledge, only three vehicles have demonstrated some autonomous intervention capabilities so far: ALIVE, SAUVIM and GIRONA 500, being the last one the lightest one. In this paper GIRONA 500 I-AUV is presented and its software architecture discussed. Recent results in different scenarios are reported: (1) valve turning and connector plugging/unplugging while docked to a subsea panel, (2) free floating valve turning using learning by demonstration, and (3) multipurpose free-floating object recovery. The paper ends discussing the lessons learned so farThis work was supported by the Spanish project MERBOTS (DPI2014-57746-C3) and three European Commissions Seventh Framework Program 2011–2015 projects: FP7-ICT-2011-7-288704 (MORPH) and FP7-INFRASTRUCTURES-2012-312762 (EUROFLEETS2