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A blog of all section with no images
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Written by Raúl Arrabales Moreno
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Thursday, 14 January 2010 |
Phd studentship available in computational neuroscience and consciousness
Large-Scale Computational Models of Thalamocortical Systems Underlying Consciousness.
Funding is available (for UK/EU applicants) for a three-year full-time D.Phil. (Ph.D) in the area of computational neuroscience and consciousness, supervised by Dr. Anil Seth and Prof. Owen Holland. The successful candidate will develop a large-scale computational model of human thalamocortical systems using Graphics/ /Processor Unit (GPU) technology, and will use the model to investigate the neuronal consequences of simple psychophysical manipulations. The position will suit a candidate highly qualified in software engineering with a strong interest, and preferably prior training, in computational neuroscience and consciousness science. Sussex has one of the highest concentrations of expertise in consciousness science in the world, and this research area is growing rapidly within the University.
For more information and for how to apply please visit http://www.jobs.ac.uk/job/AAN013/research-studentship/. Interested candidates should contact Dr. Seth (a.k.seth at sussex.ac.uk). Closing date for applications is Feb 20, 2010.
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Anil K. Seth, D.Phil. Reader, EPSRC Leadership Fellow School of Informatics, University of Sussex, Brighton, BN1 9QJ, UK W: www.anilseth.com, T: (0)1273 678549
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Last Updated ( Sunday, 31 January 2010 )
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Written by Raúl Arrabales Moreno
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Tuesday, 12 January 2010 |
Two Chairs wanted for new Centre for Computational Neuroscience and Cognitive Robotics: Birmingham UK
University of Birmingham College of Life and Environmental Sciences College of Engineering and Physical Sciences School of Psychology School of Computer Science
Chair in Computational Neuroscience (Ref: 38192) Chair in Cognitive Robotics (Ref: 38193)
Centre for Computational Neuroscience and Cognitive Robotics Linking neuroscience with robotics.
The University of Birmingham is making a multimillion pound investment to create the Centre for Computational Neuroscience and Cognitive Robotics (CNCR). The Centre will foster an interdisciplinary, collaborative approach to advance understanding of brain function and learning, and develop better robotic systems. The research will be translated into innovative treatment for patients with developmental, degenerative or acquired neurological disorders.
To establish the centre, we are seeking two Chairs, one in computational neuroscience and one in cognitive robotics. These appointments will be the first of a series culminating in ten academic and technical positions. In the intermediate term we will be appointing three lecturers and two technical positions to directly support the incoming teams. This will be followed by the appointment of a further three posts (one chair level) in the next year. We expect the new chair-level appointees to play a major role in the next round of recruitment.
The initial two chairs should have an international research record that makes cutting-edge contributions to their field. Salary will be commensurate with experience. For information and enquiries please contact either
Professor Glyn Humphreys, g.w.humphreys at bham.ac.uk, Professor Chris Miall, Head of Psychology, r.c.miall at bham.ac.uk or Dr Jeremy Wyatt, School of Computer Science, j.l.wyatt at bham.ac.uk
To download the details and submit an electronic application online visit: www.hr.bham.ac.uk/jobs . Alternatively information can be obtained from Sally Johnson on +44 (0)121 415 8116.
Details for the Chair in Cognitive Robotics http://www.download.bham.ac.uk/vacancies/jd/38193.pdf
Details for the Chair in Computational Neuroscience http://www.download.bham.ac.uk/vacancies/jd/38192.pdf
Closing date for both posts: 30 March 2010 A University of Fairness and Diversity
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Dr. Nick Hawes
Lecturer in Intelligent Robotics
School of Computer Science, University of Birmingham www.cs.bham.ac.uk/~nah || +44 121 414 3739 || skype: nickhawes Be first to comment this article | Add as favourites (138) | Quote this article on your site | Views: 1947 |
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Last Updated ( Sunday, 31 January 2010 )
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Written by Raúl Arrabales Moreno
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Monday, 04 January 2010 |
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Applicants are invited for a postdoctoral position in the field of neural engineering with the focus on Brain Computer Interface (BCI).
The successful applicant will perform research in the fields of signal processing, adaptive modeling, machine learning and fast calculations for real time applications in the frame of project ICOBI (Brain- Computer Interface. Self-learning adaptive embedded solution) of Foundation "Nanoscience at the limits of Nanoelectronics". The particular goal of the project is the development of self paced ECoG based BCI with multiple degrees of freedom. The postdoctoral scientist will contribute to study of movement related brain dynamics. He/she will collaborate within an interdisciplinary team of researchers whose expertise spans mathematics, computer science, microelectronics, nanoscience and neuroscience with the goal of performing functional BCI system.
The ideal candidate will have a doctoral degree, or equivalent, in a relevant discipline (Computer Science, Mathematics, Physics) with an emphasis on computational approaches to the neuronal systems analyses.
Programming in Matlab and C/C++ will be part of the project.
Candidates with the experience in EEG/ECoG based BCI or in EEG/ECoG data analysis will be preferred. Be first to comment this article | Add as favourites (160) | Quote this article on your site | Views: 2643 |
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Last Updated ( Sunday, 31 January 2010 )
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Written by Pentti Haikonen
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Wednesday, 16 December 2009 |
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Pentti Haikonen comments invited by Conscious-Robots.com editor on the recent article about Haikonen's Architecture for Conscious Machines written by Trung Doan.
I wish to thank Trung Doan for his analysis of my approach towards machine consciousness here. Trung Doan has done a lot of work here as he illustrates the main principles with practical examples, which are worked out along the principles that I present in my book "Robot Brains".
I would like to add some comments. My realization relies on associative neurons, which form associative memories. An associative memory is a rather old invention, but it has not gained much popularity because of the so-called interference problem, which limits the capacity of the memory. My contribution relates to the interference problem and in my book I describe methods, which allow the interference-free use of the full capacity; the capacity of the associative memory can be the same as the capacity of similar complexity random access memory. However, if only partial capacity is used, then the associative memory also performs the act of classification.
Trung Doan notes correctly that the neural machinery does not operate with numeric values, instead the individual signals represent elementary features of sensed entities and these are the basic meaning of these signals. It is useful to note that in the machinery groups of signals that represent some sensed entity may be used to stand for completely different things; these signal groups act as symbols for these things. This is a necessary prerequisite for e.g. natural language and inner speech. Be first to comment this article | Add as favourites (318) | Quote this article on your site | Views: 1958 |
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Last Updated ( Thursday, 17 December 2009 )
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Written by Raúl Arrabales Moreno
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Friday, 11 December 2009 |
Second Issue of the International Journal of Machine Consciousness Available
The second issue of the International Journal of Machine Consciousness is available online (Vol. 1. Issue 2. December 2009)! The second issue of IJMC is a collection of selected papers from the 2008 Nokia Workshop on Machine Consciousness; Guest editor: P.O.A. Haikonen. Be first to comment this article | Add as favourites (128) | Quote this article on your site | Views: 1868 |
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Last Updated ( Saturday, 12 December 2009 )
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Written by Trung Doan
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Thursday, 10 December 2009 |
Pentti Haikonen's architecture for conscious machines
By Trung Doan (doanviettrung a_t gmail dot com).
Haikonen's contribution to the machine-consciousness endeavor is an architecture based on cognitive principles. He also developed some electronic microchips as a first step to building a machine based on that architecture.
Below, we look at how a Haikonen machine might achieve consciousness once built, by examining some of its cognitive capabilities, and in the process will briefly discuss the Haikonen architecture.
The Haikonen machine perceives
Say the Haikonen machine's cameras are focusing on a yellow ball. The cameras' pixel pattern is fed into a preprocessor circuit which produces an array of, say, 10,000 signals, each signal carried by, for example, a wire. One wire is the output from the preprocessor's "roundness" circuitry and, in this case, the signal is On. Another wire, from the "squareness" circuitry, would be Off, i.e. carrying no voltage. A group of wires is the output from the spectrum-analysis circuitry, the wire corresponding to frequencies which we humans recognise as "yellow" is On while "red", "blue", etc., wires are Off. There would be many other groups of wires depicting size, brightness, edges, etc.
The machine does not internally represent the ball as a round graphic, nor a set of numbers representing diameter, color, etc., but by this signal array. Haikonen calls this a "distributed signal representation".
Suppose the machine is shown several balls of different sizes, colors, etc., one at a time, and each time its microphone hears the sound pattern we humans understand as the word "ball". Because they appear at the same time repeatedly, the machine associates the sound pattern and the visual pattern together. The making of associations is how the machine's perception is done.
After several different balls are associated with that sound pattern, the machine finally learns to associate the "ball" sound pattern with anything that is round.
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Last Updated ( Friday, 11 December 2009 )
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