quinta-feira, 30 de agosto de 2012

Open position - Neuro-robotics group, The BioRobotics Institute, Scuola Superiore Sant'Anna, Pisa, Italy

Call for expression of interest in a position within the Neuro-robotics group of The BioRobotics Institute, Scuola Superiore Sant'Anna, Pisa, Italy
The successful candidate will work on real-time and neuromorphic artificial models of the human somatosensory system, applied to robotic tactile sensing technologies.

The following optional qualifications will be an added value for the successful applicant:
- PhD in Computer Science, Real-time systems, Robotics and Cognitive Systems, Computational Neuroscience
- Experience in modeling and artificial mimicry of biological systems
- Experience in real-time programming, and in developing experimental and demonstration robotic platforms
- Experience in multi-disciplinary teams involving neuroscientists and roboticists
- Valuable publication record
- Fluency in spoken and written English

The salary and the duration of the position will be negotiated with the successful candidate.
The position will be opened and awarded as soon as a number of qualified expressions of interest will be received. Therefore, immediate feedback by potential candidates is encouraged.

A list of publications representing the research interests of the Neuro-Robotics group is reported at the following web pages:
http://www.sssup.it/external_context.jsp?ID_LINK=9111&area=6&SECPUB=SEC_0002&userid=m.c.carrozza&uid=001083
http://scholar.google.it/citations?user=viSqeKEAAAAJ

For additional information, please send a detailed CV to:
Prof. Maria Chiara Carrozza    m.c.carrozza@sssup.it
Dr. Calogero M. Oddo            oddoc@sssup.it
Dr. Fabrizio Vecchi            f.vecchi@sssup.it

quarta-feira, 22 de agosto de 2012

Postdoctoral Research Associate in Neuroscience - University of Leicester

Postdoctoral Research Associate in Neuroscience - University of Leicester
At Leicester we're going places. Ranked in the top 20 universities in Britain our aim is to climb further. A commitment to high quality fused with an inclusive academic culture is our hallmark and led the Times Higher Education to describe us as "elite without being elitist".
This is an exciting research opportunity to contribute to the development of a low power wireless implantable chip, used to process and transmit data from recorded neurons to external devices (like brain machine interfaces). The focus of your research will be the implementation of optimal spike detection and sorting techniques.

The project will be carried out with Prof. Rodrigo Quian Quiroga, director of the newly created Centre for Systems Neuroscience at the University of Leicester (www.le.ac.uk/neuroengineering).
You will have, or be close to completing, a PhD in Neuroscience, Signal Processing or a related area such as physics, mathematics, engineering or computer sciences. You will have a strong background in Mathematics (mainly Signal Processing) and/or Neuroscience. Experience with neurophysiology is also desirable. The position also requires very good knowledge of programming, especially in Matlab.
Informal enquiries are welcome and should be made to Prof. Rodrigo Quian Quiroga on rqqg1@le.ac.uk or  0116 252 2314.
The closing date for this post is midnight on 5 September 2012.

terça-feira, 21 de agosto de 2012

PhD student fellowship in the field of behavioral genetic and neuropsychopharmacology

We are seeking a highly motivated candidate for a PhD student fellowship to join our team at the Italian Institute of Technology (IIT), in Genova, Italy.

The overall goal of our research is to understand the genetic bases that cause the development of specific cognitive abnormalities and schizophrenia neuropathology. While several potential schizophrenia-susceptibility genes have been identified, effect sizes are very small and replication is inconsistent, likely because of the complexity of human polymorphisms, genetic and clinical heterogeneity and the potential impact of gene-gene and gene-environment interactions. In this context, mutant mice bearing targeted mutations of schizophrenia-susceptibility genes are unique tools to elucidate the neurobiological basis of this devastating disorder. Using genetically modified mice for genes relevant to schizophrenia, we will then employ a combined approach beginning at the behavioral level and culminating at the cellular and molecular levels. Cognitive abnormalities are core enduring symptoms in schizophrenia, dramatically contribute to poor functional outcomes in patients and currently represent a great “unmet therapeutic need”. We then mainly focus our work on behavioral cognitive analyses and relative neuronal correlates.

The IIT in Genova provides state-of-the-art research facilities in mouse behavioral phenotyping, molecular and cellular biology, imaging and electrophysiology. It brings together a large number of researchers with diverse backgrounds working together to achieve a high standard in training education.
The research fellowship is intended for a 3-year PhD position starting from January 2013.

Applications should include a cover letter, a CV, and at least two reference letters. Please send this material to:

Dr Francesco Papaleo
Team Leader
Department of Neuroscience and Brain Technologies, Istituto Italiano di Tecnologia, Via Morego 30
16163 Genova - Italy
Phone: +39 01071781786
E-mail: francesco.papaleo@iit.it





______________________________

Research Associate in Computational Neuroscience

Please find below an advertisement for a postdoctoral position. Please note that while the position is fixed term for one year, there is the prospect, for a suitable candidate, of follow-on funding.


Research Associate in Computational Neuroscience

Imperial College London -Department of Bioengineering

Salary range: £32,100 per annum
Fixed term appointment for 12 months
Applications are invited for an Imperial/Wellcome Trust funded Research Associate post on the development of a computational model of optogenetic modulation of neural circuits. You will be based in the Department of Bioengineering, and work jointly with Dr Simon Schultz (Department of Bioengineering) and Dr Konstantin Nikolic (Centre for Bio-Inspired Technology & Department of Electrical & Electronic Engineering). The RA would join a stimulating research environment with a rich programme of seminars and discussion meetings focused on Neurotechnology. The project is highly interdisciplinary. The RA will work at the interface between mathematics, engineering, physics and the life sciences, specifically in the mathematical and computational modeling of cortical neurons expressing channelrhodopsin, halorhodospsin, ArchT or similar light-activated ion channels. The research on this project will lead to a substantial project proposal which if accepted may allow for the extension of this post for up to 3 years.  
The Research Associate will have a PhD in Computational Neuroscience, Physics, Engineering or a related subject, and experience in computational modelling. The Research Associate's task will be to create mathematical models and then create computer simulations of individual cortical neurons as well as sets of neurons expressing optogenetic mechanisms. The RA will perform detailed system modeling and biophysical simulations of the experimentally determined optogenetic mechanisms, such as channelrhodopsin, halorhodospin, ArchT, etc. These models will be incorporated in models of neurons, and used for a large-scale model of optogenetic manipulation of the cortical circuit by, to the cortical microcircuit scale. The RA will study the effects of optical stimulation on a cortical column in which light sensitive ion channels have been expressed and analyse their implications for simulating brain injuries.
Our preferred method of application is online via the Imperial College website athttp://www3.imperial.ac.uk/employment where you will find a job description and person specification for this post.   Please select "Job Search" then enter the job title or vacancy reference number EN20120252FH into "Keywords". Complete and upload an application form as directed.
Should you have any queries, please contact:
Dr Simon Schultz, email: s.schultz@imperial.ac.uk , group web page http://www.schultzlab.org
or
Dr Konstantin Nikolic, T: +44 (0)20 7594 1594, E: k.nikolic@imperial.ac.uk
Please note that applications sent directly to these email addresses will not be accepted.
Closing Date: 17 September 2012


Simon R Schultz
Director of Postgraduate Studies (Research)
Royal Society Industry Fellow and Senior Lecturer
Department of Bioengineering
Imperial College London
Member of National Committee, British Neuroscience Association

segunda-feira, 20 de agosto de 2012

Brain imaging postdoctoral positions at Stony Brook University

There are two postdoctoral positions in brain imaging open at Stony Brook University.

One is for diffusion MRI:


and the other for multimodal image analysis:


Cheers,
@rno

PhD call - neuromorphic, event-driven, asynchronous sensors - Istituto Italiano di Tecnologia

Two PhD positions with scholarships in the field of event-driven, asynchronous, neuromorphic sensors are available at the Robotics Brain and Cognitive Sciences Department of Istituto Italiano di Tecnologia (IIT) in the Neuromorphic Systems and Interfaces group led by Dr. Chiara Bartolozzi.

Deadline: 21st September 2012

Research theme:
Carrying out real-world tasks in artificial behaving systems robustly and efficiently is one of the major challenges of today’s research in ICT. This is especially true if performances even remotely similar to those of biological behaving systems are desired. Indeed, biological systems are clearly outperforming artificial computing and robotic systems in terms of appropriateness of the behavioural response, robustness to interference and noise, adaptation to ever changing environmental conditions, or energy efficiency. All these properties are strongly interconnected and arise from the characteristics of the radically different style of computation used by the biological brain. In conventional robotics systems, sensory information is available in a sequence of “snapshots” taken at regular intervals. In this context high dynamics can be sensed only by increasing the sampling rate. Unfortunately the available bandwidth limits the amount of information that can be transmitted forcing a compromise between resolution and speed. As a result, current robotic systems are too slow and cannot react appropriately to unexpected, dynamical events. Biological systems also show us that predictive behaviour can compensate quite effectively for such latencies; however, proper predictions can be achieved only if scenes' dynamics are captured with sufficient temporal resolution. Neuromorphic sensors appear then as an efficient optimal solution to the problem. Neuromorphic event-based sensors sample information asynchronously with temporal resolutions that are order of magnitudes larger than the ones of conventional artificial cameras, while, at the same time, largely suppressing information redundancies and optimizing bandwidth usage and computational costs.
In this context two complementary research themes are available for PhD thesis:
N. of available positions: 1
The goal of the proposed research theme is the development of event-driven artificial vision for a humanoid robot, fully exploiting the advantages of such an un-conventional type of sensory encoding and validating it on a robotic platform capable of complex interaction with the real world. The research will start from the existing work on the development of event-driven motion estimation and object recognition and will involve the development of algorithms for spike-based vision, using both artificial and real data. This work will be complemented by the use and validation of the developed computational methods for driving the behaviour of the humanoids robot iCub (www.icub.org).
N. of available positions: 1
The goal of the proposed research theme is the study and development of artificial event-driven tactile sensors for a humanoid robot. It is a multi-disciplinary work that will combine the study of:
-           biological sensory transduction,
-           neuromorphic mixed signals microelectronics for the development of the sensor encoding
-           diverse existing mechanisms and materials for tactile sensory transduction
with the goal of creating an optimal system for event-driven tactile sensors. The potential applications of this line of research will start from the use in a bio-inspired event-driven humanoid robot (the “neuromorphic” iCub), up to the use in artificial limbs for sensorized prosthetics.

For further details concerning the research project, please contact: chiara.bartolozzi@iit.it

The PhD scholarships are part of the post-graduate program of the University of Genova, school of “Life and Humanoid Technologies”, Doctoral Course on “Robotics, Cognition and Interaction Technologies”. http://www.iit.it/en/openings/phd-calls.html

Memory and Learning in Robot Cognitive Development (PhD Position proposal)

The Robotics, Brain and Cognitive Sciences Department at  the Fondazione Istituto Italiano di Tecnologia (IIT - www.rbcs.iit.it) is offering positions for the Doctoral Course on “Life and Humanoid Technologies”
http://www.iit.it/en/openings/
phd-calls/1595-phd-school-in-life-and-humanoid-technologies.html

If your research interest is in addressing cognition from the human as well as humanoid perspective this proposal may be of interest to you.

At RBCS department top-level neuroscience research and top-level robotics research is being merged to seek answers towards some of the long standing open problems in both fields. The research team at RBCS is composed of neuroscientists, engineers, psychologists, physicists working together to investigate brain functions, realize intelligent machines and advanced prosthesis. RBCS is also the home of the humanoid iCub.

Emphasizing on “cumulative learning/cumulative reasoning” agenda for the cognitive development of iCub, we invite applications/enquiries from prospective candidates interested in investigating computational and biological mechanisms of ‘humanlike’ memories and endowing humanoid robots (iCub) with similar capabilities (see below for full description of the theme). This PhD project (Theme 1.11, see below) will be partially conducted within the framework of the EU funded project ‘DARWIN’ (http://darwin-project.eu/) in collaboration with a team of leading international scientists. The state of the art humanoid iCub as well as an industrial platform (see the website) will be used to validate the cognitive architecture in a range of playful scenarios and tasks inspired from animal and infant cognition.

Considering the interdisciplinary nature of the problem, the proposal is open for candidates from diverse disciplines (e.g. physics, biology, robotics, computer science) with an interest in understanding/modeling ‘human like’ memories and implementing such architectures on cognitive robots.

For further details concerning this research project, please contact: vishwanathan.mohan@iit.it

For more information on administrative issues, please contact:
Ms. Anastasia Bruzzone
Tel. +39 010 71781472
Fax. +39 010 7170817
Email: anastasia.bruzzone@iit.it

To apply, follow the instructions indicated in the links, in short: a detailed CV, a research proposal under one or more themes chosen among those above indicated, reference letters, and any other formal document concerning the degrees earned. Note that these documents are mandatory in order to consider valid the application.

DEADLINE is September 21, 2012 at noon (strict deadline, no extension).
ONLINE APPLICATIONS only, look at:
http://servizionline.unige.it/
studenti/post-laurea/dottorato

Theme 1.11: Towards a Humanlike “memory” for Humanoid robots

   Memory is the capability of the nervous system to benefit from experience. For cognitive robots “learning continuously” in time through various playful sensorimotor interactions with the world (and people in it), there is an urgent need to develop an equally powerful (and humanlike) memory architecture that can “abstract and store” useful information in such interactions and remember ‘valuable’ ones when faced with novel situations. While the neuroscience of memory has progressed significantly in recent times (Patterson et al, 2007, Martin, 2009, Meyer and Damasio, 2009, Squire et al, 2011), computational principles to implement such biologically inspired memory architectures in autonomous robots is still lagging way behind. Certainly, “learning” has been given importance in robotics but most of the learning is still restricted to task specific scenarios (learn to imitate movements, learn to push, learn to stack objects, etc.). Attempts to create a ‘task independent’ repository of causal knowledge that can be exploited/recycled under different circumstances and goals have been very sparse. This lacuna has to be filled if we are to see the emergence of truly cognitive systems that can use ‘experience’ to go ‘beyond experience’ in novel/unencountered situations. Further, we know from several studies in neuroscience that human memories are very different from generic computer memories. It’s not a ‘warehouse’ where information is dumped and retrieved through some iterative search. It is modality independent (ex. You can move from apple to how it tastes, the crunchy sound of it when you bite, and what you can do with it), there is no limit to retrieval (with more experience on a topic you recall more and more). There is a fine categorization between declarative (what is an apple), procedural (how to make an apple pie) and episodic (what you did with an apple yesterday) memory. It is also known that brain networks involved in recalling the past are also active in simulating the future (Schacter et al, 2007, Buckner et al 2007, Buckner et al 2008, Bressler et al, 2010, Sporns, 2010) for reasoning and planning action in novel situations (more recently named as the Default Mode Network of the brain). Considering that cognitive robots envisioned to assist us in the future are being designed to perform their goals in a dynamic and changing world that we humans inhabit, every moment is indeed novel and a powerful humanlike memory grounded in neurobiology is a fundamental requirement to “cognitively” exploit past experience in new situations. This PhD theme invites prospective candidates interested in investigating computational and biological mechanisms of ‘humanlike’ memories and endowing humanoid robots (iCub) with similar capabilities. This PhD proposal will be conducted within the framework of the EU funded project ‘DARWIN’ (http://darwin-project.eu/) in collaboration with a team of leading international scientists. The state of the art humanoid iCub as well as an industrial platform (see the website) will be used to validate the cognitive architecture in a range of playful scenarios and tasks inspired from animal and infant cognition.

Suggested References:
[1] Martin A.  Circuits in mind: The neural foundations for object concepts. The Cognitive Neurosciences, 4th Edition.  M. Gazzaniga (Ed.), MIT Press, 1031-1045, 2009.
[2] Patterson, K., Nestor, P.J. & Rogers, T.T. (2007) Where do you know what you know? The representation of semantic knowledge in the human brain, Nature Reviews Neuroscience, 8(12), 976-987 [3] Squire, L.R. & Wixted, J. The cognitive neuroscience of human memory since H.M. Annual Review of Neuroscience,34, 259-288.
[4] Buckner, R.L and Carroll, D.C. (2007) Self-projection and the brain. Trends in Cognitive Science; 2:49-57.
[5]Schacter, D.L., Addis, D.R., and Buckner, R.L. (2007) Remembering the past to imagine the future: the prospective brain. Nat Rev Neurosci; 8(9):657-661.
[6] Bressler SL, Menon V. Large-scale brain networks in cognition: emerging methods and principles. Trends in Cognitive Sciences 14:277-290 (2010).
[7] Sporns,O. "Networks of the Brain", MIT Press, 2010, ISBN 0-262-01469-6.
[8] Meyer K, Damasio A. (2009) Convergence and divergence in a neural architecture for recognition and memory. Trends in Neuroscience. Jul;32(7):376-82.


---
Prof. Giulio Sandini
Head: Robotics, Brain and Cognitive Sciences
Istituto Italiano di Tecnologia

and
LIRA-Lab University of Genova