2005
Autores
Reis, LP; Carreto, C; Silva, E; Lau, N;
Publicação
2005 Portuguese Conference on Artificial Intelligence, Proceedings
Abstract
1999
Autores
Pereira da Silva, E; Pereira, FL; Sousa, JB;
Publicação
Advances in Intelligent Autonomous Systems
Abstract
2005
Autores
Reis, LP; Lau, N; Carreto, C; Silva, E;
Publicação
Progress in Artificial Intelligence - Lecture Notes in Computer Science
Abstract
1994
Autores
BIZINGRE, C; OLIVEIRA, P; PASCOAL, A; PEREIRA, FL; PIGNON, JP; SILVA, E; SILVESTRE, C; DESOUSA, JB;
Publicação
PROCEEDINGS OF THE 1994 SYMPOSIUM ON AUTONOMOUS UNDERWATER VEHICLE TECHNOLOGY
Abstract
This paper describes the initial design phase of the software control architecture for the AUV MARIUS. This research effort is part of a long term project that aims to enable the prototype vehicle to carry out environmental surveying missions in coastal waters, in a completely autonomous mode. Throughout the project, MARIUS will be used as an advanced testbed to test developments in the areas of Mission Planning and real-time Mission Execution Systems for AUV's.
2007
Autores
Ferreira, H; Martins, R; Marques, E; Pinto, J; Martins, A; Almeida, J; Sousa, J; Silva, EP;
Publicação
OCEANS 2007 - EUROPE, VOLS 1-3
Abstract
The design and development of the Swordfish Autonomous Surface Vehicle (ASV) system is discussed. Swordfish is an ocean capable 4.5m long catamaran designed for network centric operations (with ocean and air going vehicles and human operators). In the basic configuration, Swordfish is both a survey vehicle and a communications node with gateways for broadband, Wi-Fi and GSM transports and underwater acoustic modems. In another configuration, Swordfish mounts a docking station for the autonomous underwater vehicle Isurus from Porto University. Swordfish has an advanced control architecture for multi-vehicle operations with mixed initiative interactions (human operators are allowed to interact with the control loops).
2008
Autores
Silva, H; Almeida, JM; Lima, L; Martins, A; Silva, EP;
Publicação
ROBOCUP 2007: ROBOT SOCCER WORLD CUP XI
Abstract
This paper propose a real-time vision framework for mobile robotics and describes the current implementation. The pipeline structure further reduces latency and allows a paralleled hardware implementation. A dedicated hardware vision sensor was developed in order to take advantage of the proposed architecture. The real-time characteristics and hardware partial implementation, coupled with low energy consumption address typical autonomous systems applications. A characterization of the implemented system in the Robocup scenario, during competition matches, is presented.
The access to the final selection minute is only available to applicants.
Please check the confirmation e-mail of your application to obtain the access code.