Personal Robots

Personal robotics is a new technology that is developing very fast in the last few years. Some companies and research groups all around the word are creating continuously new and more capable personal robots. Nowadays only some of these robots are commercially available, but it is expected that this market will grow very fast in future. UC3M Robotics Lab is pioneer research group in personal robotics. Current research is focused in the development of the personal robot Maggie.

Some of the functions that a personal robot can have are:

Vigilance. The robot can act as a guard; detecting intruders, fires, water leakages, etc.

Telepresence and teleoperation. The owner can remotely teleoperate the robot, by internet or the cellular phone, to watch and actuate at a different place from where he is placed. This capability could allow the user to pick up something from another room, or watch the home and remotely control electronic devices while being out.

Mobile and personal electronic devices. In the last few years there is a tendency to integrate electronic devices such as PCs, imaging devices; videogame systems, communication systems, etc. A new step should be to make them mobile and personal, adding some of those functions to a personal robot.

Education. This function is of interest for any person but can be extremely useful when the user of the personal robot is a child. The robot can also incorporate functions of tele-education or documentation (e.g. mobile talking encyclopaedia).

Information. The robot, using web services, can inform us about the weather, news, sport results, stocks exchanges, TV programs, etc.

Pet. The robot can be fully autonomous and have its own personality that will adapt to the owner, acting as an artificial pet.

Domestic worker. The robot can do some tasks, particularly domestic activities. (e.g. transport things from one place to another, clean the floor, etc.)

Control of domotic systems. The robot can act as a universal interface to control other domestic devices (e.g. heating system, lights, etc.)

Productivity functions. The robot can help the owner to organize his activities, scheduling his meetings, reminding his to-do lists, waking him up in the morning, etc.

Entertainment. A personal robot can be a playmate. Playing with a robot can not only involve visual interaction, as most video games, but also motion and a physical interaction.

Maggie_robot

Entries:
TechnoFusión, a relevant facility for fusion technologies: The remote handlingarea
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D. Blanco L. Moreno
Building industrialization: robotized assembly of modular products
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S. Martinez A. Jardon
Speed-Sensorless Nonlinear Predictive Control of a Squirrel Cage Motor
WSEAS TRANSACTIONS on SYSTEMS and CONTROL, ISSN 1991-8763. num. 2 , vol. 3 , pages: 99 – 104 , 2008
M. Abderrahim Siller-Alcalá, I. Jaimes-Ponce, J. Alcántara-Ramirez, R.

Entries:
New approach to low-cost FMS for wide range of manufacturing applications
2nd IFAC/IFIP/IFORS Workshop on Intelligent Manufacturing Systems (IMS?94), Viena, Austria
Automatización de un almacén de preparación de pedidos de tabaco
Seminario Internacional ?La Manufactura Industrial? , Cali, Colombia
Robotized system of GRC panels for construction industry
10th International Symposium on Automation and Robotics in Construction (ISARC?93), Houston, USA
Control system for an automatic and intelligent packing
IMACS/SICE International Symposium on Robotics, Mechatronics and Manufacturing Systems (RM2S?92), Kobe, Japan
Flexible system for automatic order picking
7th IFAC/IFIP Symposium on Information Control Problems in Manufacturing Technology (INCOM'92)Lugar de celebración: Toronto (Canadá)Fecha: 1992, Toronto, Canada
Design and simulation of a footwear assembly automatic systemFecha: 1991
2nd EUREKA-FAMOS Advanced Course on Flexible Automated Assembly, Venice, Italy
An approach to the footwear assembly automatic system
6th International Symposium on Information Control Problems in Manufacturing Technology (INCOM?89), Madrids, Spain
Control and management structure of the FMS DISAM/2
5th IFAC/IFIP/IMACS/IFORS Symposium on Information Control Problems in Manufacturing Technology (INCOM?96), Suzdal, URSS
DISAM/2 ? An Experience in Flexible Manufacturing Systems
3rd International Conference on Flexible Manufacturing Systems, 1984, Stuttgart, Germany
M.A. Salichs
Sistema flexible de producción. Una realización piloto
I Jornadas de Robótica y Fabricación Flexible, Madrid, Spain
M.A. Salichs
A Low Cost Lab Monitoring System based on Arduino Microcontroller and Android
The 8th annual International Conference of Education, Research and Innovation , 2015, Sevilla, Spain
R. Barber H. Rubio E. Soriano
Adaptive control of a DC motor for educational practices
ACE2013 The 10th IFAC Symposium on Advances in Control Education , 2013, Sheffield, UK
S. Garrido R. Barber
Smooth and Accurate control of multiple Shape Memory Alloys based actuators via low cost embedded hardware.
IEEE/RSJ International Conference on Intelligent Robots and Systems. IROS 2012, Vilamoura, Portugal
A. Flores D. Copaci D. Blanco L. Moreno
Sensorial Data Acquisition Process for a Mobile Robot in the Virtual Laboratory
International Workshop in Teleeducation in Mechatronics based on Virtual Laboratories, 2001, Weingarten, Germany
A.M. Khamis M.A. Salichs

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