Computerised Minds. ...

A video sponsored by the society discusses Searle's Chinese Room Argument (CRA) and the heated debates surrounding it. In this video, which is accessible to the general public and those with interest in AI, Olly's Philosophy Tube ...


Erden in AI roundtab...

On Friday 4th September, philosopher and AISB member Dr Yasemin J Erden, participated in an AI roundtable at Second Home, hosted by Index Ventures and SwiftKey.   Joining her on the panel were colleagues from academia and indu...


AISB Convention 2016

The AISB Convention is an annual conference covering the range of AI and Cognitive Science, organised by the Society for the Study of Artificial Intelligence and Simulation of Behaviour. The 2016 Convention will be held at the Uni...


Bishop and AI news

Stephen Hawking thinks computers may surpass human intelligence and take over the world. This view is based on the ideology that all aspects of human mentality will eventually be realised by a program running on a suitable compu...


Connection Science

All individual members of The Society for the Study of Artificial Intelligence and Simulation of Behaviour have a personal subscription to the Taylor Francis journal Connection Science as part of their membership. How to Acce...


Al-Rifaie on BBC

AISB Committee member and Research Fellow at Goldsmiths, University of London, Dr Mohammad Majid al-Rifaie was interviewed by the BBC (in Farsi) along with his colleague Mohammad Ali Javaheri Javid on the 6 November 2014. He was a...


AISB YouTube Channel

The AISB has launched a YouTube channel: ( The channel currently holds a number of videos from the AISB 2010 Convention. Videos include the AISB round t...



AISB miscellaneous Bulletin Item

CfP: Autonomous Robots - Special Issue on Robot Learning

Call For Papers: Autonomous Robots - Special Issue on Robot Learning
Quick Facts
Editors:						Jan Peters, Max Planck Institute for Biological Cybernetics,
							Andrew Y. Ng, Stanford University
Journal:						Autonomous Robots
Submission Deadline:		November 8, 2008
Author Notification:			March 1, 2009
Revised Manuscripts:			June 1, 2009
Approximate Publication Date:	4th Quarter, 2009

Creating autonomous robots that can learn to act in unpredictable
environments has been a long standing goal of robotics, artificial
intelligence, and the cognitive sciences. In contrast, current
commercially available industrial and service robots mostly execute
fixed tasks and exhibit little adaptability. To bridge this gap,
machine learning offers a myriad set of methods some of which have
already been applied with great success to robotics problems. Machine
learning is also likely play an increasingly important role in
robotics as we take robots out of research labs and factory floors,
into the unstructured environments inhabited by humans and into other
natural environments.

To carry out increasingly difficult and diverse sets of tasks, future
robots will need to make proper use of perceptual stimuli such as
vision, lidar, proprioceptive sensing and tactile feedback, and
translate these into appropriate motor commands. In order to close
this complex loop from perception to action, machine learning will be
needed in various stages such as scene understanding, sensory-based
action generation, high-level plan generation, and torque level motor
control. Among the important problems hidden in these steps are
robotic perception, perceptuo-action coupling, imitation learning,
movement decomposition, probabilistic planning, motor primitive
learning, reinforcement learning, model learning, motor control, and
many others.

Driven by high-profile competitions such as RoboCup and the DARPA
Challenges, as well as the growing number of robot learning research
programs funded by governments around the world (e.g., FP7-ICT, the
euCognition initiative, DARPA Legged Locomotion and LAGR programs),
interest in robot learning has reached an unprecedented high point.
The interest in machine learning and statistics within robotics has
increased substantially; and, robot applications have also become
important for motivating new algorithms and formalisms in the machine
learning community.

In this Autonomous Robots Special Issue on Robot Learning, we intend
to outline recent successes in the application of domain-driven
machine learning methods to robotics. Examples of topics of interest
include, but are not limited to:
      learning models of robots, task or environments
      learning deep hierarchies or levels of representations from sensor
		& motor representations to task abstractions
      learning plans and control policies by imitation, apprenticeship
		and reinforcement learning
      finding low-dimensional embeddings of movement as implicit
		generative models
      integrating learning with control architectures
      methods for probabilistic inference from multi-modal sensory
		information (e.g., proprioceptive, tactile, vision)
      structured spatio-temporal representations designed for robot
      probabilistic inference in non-linear, non-Gaussian stochastic
		systems (e.g., for planning as well as for optimal or adaptive
From several recent workshops, it has become apparent that there is a
significant body of novel work on these topics. The special issue will
only focus on high quality articles based on sound theoretical
development as well as evaluations on real robot systems.

Time Line
Submission Deadline:                    November 8, 2008
Author Notification:                            March 1, 2009
Revised Manuscripts:                            June 1, 2009
Approximate Publication Date:           4th Quarter, 2009

Inquiries on this special issue should be send to one of the editors
listed below.

Jan Peters (
Senior Research Scientist, Head of the Robot Learning Laboratory
Department for Machine Learning and Empirical Inference, Max Planck
Institute for Biological Cybernetics, Tuebingen, Germany

Andrew Y. Ng (
Assistant Professor
Department of Computer Science, Stanford University, Palo Alto, USA