July 2017 - Comp-neuro - lists.cnsorg.org

3 Phd/PostDoc position PhD position Industrial Robotics and Design of Electronics Equipment - University of Cadiz (Spain).

by Arturo Morgado

University of Cadiz (Spain) are available 3 Phd/PostDoc position at the Applied Robotics Research Group to participate in R&D collaborative projects with companies. You can find details here: <http://vrteit.uca.es/convocatorias/personal-conv/programa-de-atraccion-de-t…> http://vrteit.uca.es/convocatorias/personal-conv/programa-de-atraccion-de-t… Doctorates with experience in the field of transference and innovation in Industrial Robotics and Design of Electronics Equipment. A minimum of 15-year seniority in their grade (Distinguished Researcher) is required for 1 of them (VTIT‐IDROB‐4 position). For the 2 remaining (ASCETI) the minimum applied is two years since the completion of the doctoral thesis (VTIT‐AROB‐13 and VITI‐ADEE‐17 positions). Candidates must speak Spanish and English. Contracts will have a duration of 4 years with a gross salary of 52000 EUR per year plus a yearly bonus of 3000 EUR, in the case of the young researcher (ASCETI), for reaching a minimum of objectives. In the case of the Distinguished Researcher, this amount will rise up to 100.000 EUR. The researchers object of the contract, will be part of a multidisciplinary team and will undertake industrial development, research and innovation projects for the University of Cádiz (Spain) in collaboration with companies of international scope in the area of Cadiz. Moreover, each researcher will be mentoring a doctoral candidate (who will hold a pre-doctoral contract) and will be his/her Thesis Director. The areas of work are as follows: Industrial Robotics and Design of Electronics Equipment. The period established for receiving application goes from 30th of June to 19th of July 2017. The incorporation of the researcher in the University of Cádiz is due in September 2017. Please, click on the following <http://www.uca.es/personal/portal.do?TR=C&IDR=288> http://www.uca.es/personal/portal.do?TR=C&IDR=288 in order to submit your application form. Any question don’t hesitate to contact us: <mailto:industrial.innovation@uca.es> industrial.innovation(a)uca.es and <mailto:arturo.morgado@uca.es> arturo.morgado(a)uca.es. Best regards. --------------------------------- Arturo Morgado Estévez. <mailto:arturo.morgado@uca.es> arturo.morgado(a)uca.es Head Applied Robotics Research Group. TEP-940. Department of Engineering in Automation, Electronics, Architecture and Computer Networks. Faculty of Engineering. University of Cadiz (Spain). Avenida de la Universidad de Cádiz, nº 10, CP 11519, Puerto Real (Cádiz), Spain.

July 10, 2017

PhD position in Computational Neuroscience/Nonlinear Dynamics on synaptic plasticity - INRIA Sophia Antipolis France

by Romain Veltz

A PhD scholarship in mathematical and computational neuroscience on The modelling of excitatory synapses in healty / pathological condition is available at INRIA Sophia Antipolis <https://www.inria.fr/centre/sophia/>, within the Team MathNeuro <https://team.inria.fr/mathneuro/> in collaboration with Dr Marie's team at the Institut de Pharmacologie Moléculaire et Cellulaire (IPMC, Sophia Antipolis). This 3 year funded PhD scholarship starts in September 2017 or January 2018. Candidate The ideal candidate should have a background in nonlinear dynamics, stochastic analysis and computational neuroscience. He/she should also have strong ability to program in Python / C / Matlab / Julia. French is not a requirement if fluent in English, but willingness to learn would be beneficial. Applications Send CV, transcripts and contact informations of two persons we could reach for recommendation to romain.veltz(a)inria.fr <mailto:romain.veltz@inria.fr> and marie(a)ipmc.cnrs.fr <mailto:marie@ipmc.cnrs.fr>. Supervisors Dr Romain Veltz (INRIA) Dr Helene Marie (IPMC) Project description Synaptic plasticity is one of the fundamental phenomena which shape neural networks. It is thought to be the basis of our memory and learning capabilities. Synaptic plasticity have been modelled recently [1,2,3] but at a phenomenological level. It is for example quite difficult to link these model internal variables to the synapse biophysics. Another issue is noise. Whereas in many models, noise is added as cherry on top, it is in fact internally generated given the small number of synaptic constituants [4]. The project will focus on the development of a stochastic model of the postsynaptic side of an excitatory synapse, in healthy / Alzheimer conditions, which describes the behaviour of the first biochemical molecules targeted upon arrival of Glutamate. More precisely, the project will first aim at modelling the early phase plasticity (LTP, LTD, STDP) in light of recent experimental data [5,6] with aim to take into account data provided by Dr Marie's lab concerning deficient synapses observed in Alzheimer’s disease like conditions. The project will involve a mix of high performance scientific computation, nonlinear dynamics, stochastic analysis, and an enthusiasm for learning about plasticity mechanisms in general. References Clopath, Claudia, Lars Büsing, Eleni Vasilaki, et Wulfram Gerstner. « Connectivity reflects coding: a model of voltage-based STDP with homeostasis ». Nature Neuroscience 13, nᵒ 3 (mars 2010): 344‑52. doi:10.1038/nn.2479. Graupner, Michael, et Nicolas Brunel. « Calcium-Based Plasticity Model Explains Sensitivity of Synaptic Changes to Spike Pattern, Rate, and Dendritic Location ». Proceedings of the National Academy of Sciences, 22 février 2012. doi:10.1073/pnas.1109359109. Costa, Rui Ponte, Robert C. Froemke, P. Jesper Sjöström, et Mark CW van Rossum. « Unified Pre- and Postsynaptic Long-Term Plasticity Enables Reliable and Flexible Learning ». ELife 4 (26 août 2015): e09457. doi:10.7554/eLife.09457. Ribrault, Claire, Ken Sekimoto, et Antoine Triller. « From the Stochasticity of Molecular Processes to the Variability of Synaptic Transmission ». Nature Reviews Neuroscience 12, nᵒ 7 (juillet 2011): 375‑87. doi:10.1038/nrn3025. Fujii, Hajime, Masatoshi Inoue, Hiroyuki Okuno, Yoshikazu Sano, Sayaka Takemoto-Kimura, Kazuo Kitamura, Masanobu Kano, et Haruhiko Bito. « Nonlinear Decoding and Asymmetric Representation of Neuronal Input Information by CaMKIIα and Calcineurin ». Cell Reports 3, nᵒ 4 (25 avril 2013): 978‑87. doi:10.1016/j.celrep.2013.03.033. Tigaret, Cezar M., Valeria Olivo, Josef H.L.P. Sadowski, Michael C. Ashby, et Jack R. Mellor. « Coordinated activation of distinct Ca2+ sources and metabotropic glutamate receptors encodes Hebbian synaptic plasticity ». Nature Communications 7 (13 janvier 2016): 10289. doi:10.1038/ncomms10289.

July 10, 2017

[call for papers] Entropy: special issue on "Information Theory in Neuroscience"

by Eugenio Piasini

(apologies for cross-posting) Dear all, The journal Entropy is currently running a Special Issue entitled "Information Theory in Neuroscience", that we believe could be of interest for the members of this list. As the ultimate information processing device, the brain naturally lends itself to be studied with information theory. Application of information theory to neuroscience has spurred the development of principled theories of brain function, has led to advances in the study of consciousness, and to the development of analytical techniques to crack the neural code, that is to unveil the language used by neurons to encode and process information. In particular, advances in experimental techniques enabling precise recording and manipulation of neural activity on a large scale now enable for the first time the precise formulation and the quantitative test of hypotheses about how the brain encodes and transmits across areas the information used for specific functions. This Special Issue emphasizes contributions on novel approaches in neuroscience using information theory, and on the development of new information theoretic results inspired by problems in neuroscience. Research work at the interface of neuroscience, Information Theory and other disciplines is also welcome. Deadline for manuscript submission: 1 December 2017 For more information: http://www.mdpi.com/journal/entropy/special_issues/neuro Eugenio Piasini and Stefano Panzeri, Italian Institute of Technology Guest Editors

July 10, 2017

3 PhD/PostDoc positions in neuromorphic systems

by elisabetta chicca

Dear colleagues, 2 PhD/PostDoc positions are available at the Neuromorphic Behaving Systems group (https://www.cit-ec.de/en/nbs) Faculty of Technology and Center of Excellence Cognitive Interaction Technology at Bielefeld University. You can find details here: http://www.uni-bielefeld.de/Universitaet/Aktuelles/Stellenausschreibungen/ Anzeigen/Wiss/wiss17164_englisch.pdf Another PostDoc position is available at the Cognitronics and Sensor Systems Group (http://www.ks.cit-ec.uni-bielefeld.de, same affiliation as above) for a project in collaboration with the Neuromorphic Behaving Systems group. Unfortunately the call is written in German (see link below), but you can contact me (chicca(a)cit-ec.uni-bielefeld.de) if you are interested in details. http://www.uni-bielefeld.de/Universitaet/Aktuelles/Stellenausschreibungen/ Anzeigen/Wiss/wiss17151.pdf The deadline for all positions is July 19. Best regards, Elisabetta Chicca -- Prof. Dr. Elisabetta Chicca CITEC - Bielefeld University Inspiration 1 33619 Bielefeld - Germany Email: chicca(a)cit-ec.uni-bielefeld.de Tel.: +49 521 106-12043 Fax : +49 521 106-12348

July 7, 2017

tDCS workshop with Frank Padberg and Andre Brunoni

by Martijn Arns

Dear colleagues, we are happy to announce a special 2-day tDCS workshop with Frank Padberg and Andre Brunoni to be held in Nijmegen, The Netherlands. This workshop is particularly suited to researcher, psychologists and psychiatrists interested in applying the technique of transcranial Direct Current Stimulation (tDCS), looking for a unique opportunity to learn and discuss its clinical application with highly regarded experts in the field. Professor Dr. Frank Padberg (Ludwig-Maximilians-University Munich) will offer expert insight into how tDCS can be applied in a range of psychiatrist disorders, followed by the state-of-the-art application of tDCS in Depression with Dr. Andre Brunoni (University of São Paulo, Ludwig-Maximilians-University Munich). Working closely with our guest presenters, participants wil gain an understanding of basic applications of tDCS to build up to advanced methods. Also see following link for more information and sign-up information: http://www.neurocaregroup.com/brunoni-padberg-tdcs-workshop-october-2017.ht… Kind regards, Martijn Arns, PhD Director / Researcher Research Institute Brainclinics Chief Scientific Officer neuroCare Group Twitter: @brainclinics / @neuroclinics Bijleveldsingel 34 6524 AD Nijmegen The Netherlands Tel: +31 24-7503505 GSM: +31 6-48177919 Fax: +31 24-8901447 E-mail: martijn(a)brainclinics.com<mailto:martijn@brainclinics.com> URL: www.brainclinics.com<http://www.brainclinics.com/>

July 7, 2017

Computational Neuroscience Job at the Krembil Research Institute

by Frances Skinner

https://www.recruitingsite.com/csbsites/uhncareers/JobDescription.asp?SiteI… <https://www.recruitingsite.com/csbsites/uhncareers/JobDescription.asp?SiteI…> Job Posting #8045761 Position: Computational Neuroscience Research Scientist Site: Krembil Research Institute/Toronto Western Hospital Department: Research Reports to: Director Status: Permanent Full-time The Krembil Research Institute at the University Health Network in Toronto Canada invites applicants to apply for a Scientist position in the area of Computational Neuroscience. The ideal candidate will have a PhD in a relevant field, research expertise and experience in mathematical and computational modeling, and research interests that complement those of the Institute in neurobiology and neurodegeneration. Candidates whose research interests encompasses cellular, micro/macro circuits and/or large scale brain models, and who have collaborative experimental experience are especially encouraged. The successful candidate will have the ability to establish an independent, well-funded program and will be eligible for appointment at the appropriate level within the University of Toronto. The Krembil is one the principal research institutes of the University Health Network of academic teaching hospitals associated with the University of Toronto; the Krembil is also one of the largest research institutes in Canada focusing on human neurological disease from both a basic science and clinical research perspective. The University Health Network (UHN) is Canada's largest academic medical centre, comprising four major teaching hospitals. Qualified applicants must attach their letter of interest, research plan, resume PDF format to the online application and complete some initial screening questions. The search committee will begin to review applications in September with a potential start date in Winter 2018. Posted Date: June 22, 2017 Closing Date: Until filled UHN thanks all applicants, however, only those selected for an interview will be contacted. UHN is a respectful, caring, and inclusive workplace. We are committed to championing accessibility, diversity and equal opportunity. Requests for accommodation can be made at any stage of the recruitment process providing the applicant has met the Bona-fide requirements for the open position. Applicants need to make their requirements known when contacted.

July 6, 2017

Summer school on Advanced Computational Neuroscience, Germany

by Alexander Schmidt

%%%%%%%%%%%%%%%%%%%%%%%%%%%%%% Advanced COMPUTATIONAL NEUROSCIENCE Summer School in Göttingen, Germany “Neural circuit theories for primate cognition” September 02nd - 10th, 2017 *REGISTRATION **DEADLINE *Ju**ly**2**3**, 201**7**** %%%%%%%%%%%%%%%%%%%%%%%%%%%%%% Please, feel free to distribute this email to students and postdocs potentially interested in the school. The aCNS school within the Advanced Computational Neuroscience School in the Emotion-Cognition-Link-Series is a *9**-day intensive course* in *mathematical and computational neuroscience*. It offers an intensive pedagogy of advanced mathematical and computational tools to students working in computational neuroscience and already familiar with its interdisciplinary nature and is designed to qualify young researchers to push the frontiers of the field. The following researchers are in charge of the 4 two-day theoretical blocks and 4 evening lectures: * Nicolas Brunel <https://galton.uchicago.edu/%7Enbrunel/>, /University of Chicago/, Chicago, USA * Alexander Gail <https://www.uni-goettingen.de/en/57950.html>, /German Primate Center/, Göttingen, Germany * Raoul Memmesheimer <https://memmesheimer.net/>, /University of Bonn/, Bonn, Germany * John Beggs <http://www.indiana.edu/%7Eiubphys/faculty/jmbeggs.shtml>, /University of //Indiana/, Bloomington, USA * Julia Fischer <http://www.dpz.eu/en/unit/cognitive-ethology/about-us.html>, /German Primate Center/, Göttingen, Germany * Eckart Altenmüller <https://www.immm.hmtm-hannover.de/en/institute/people/eckart-altenmueller/>, /University for Music and Theater/, Hanover, Germany * Annekathrin Schacht <http://www.uni-goettingen.de/en/356202.html>, /University of Göttingen/, Göttingen, Germany * Georg Martius <https://is.tuebingen.mpg.de/person/gmartius>, /M//PI//for Intelligent Systems/, Tübingen, Germany The consecutive two day thematic blocks are dedicated to mathematical approaches to circuit dynamics. Each lecturer will give a self-contained introduction to a particular set of theoretical tools in a block of two morning lectures. In the afternoon, participants will work on problem sets designed to develop proficiency in both the mathematical and computational tools learned earlier that day. An additional set of evening ‘easy’ lectures will give the opportunity to discuss significant advances in the field. The course takes place at the Department of Nonlinear Dynamics of the Max-Planck Institute for Dynamics and Self-Organization, Göttingen. Registration fee is 200 €. Course language is English. Housing is provided by the school. Travel grants can be applied for. *Only 15 participants will accepted. We invite applicants to apply by filling out the application form at:* *www.bccn-goettingen.de* <http://www.bccn-goettingen.de/events/cns-course> *and have their reference letters submitted by *July 23, 2017*.* Best regards and looking forward to seeing you in Göttingen, B. Feulner, D. Regel, A. Schmidt and J. Wilting (local committee, PhD students) on behalf of the course directors Prof. F. Wolf and Prof. A. Schacht

July 6, 2017

New Book: The Rewiring Brain

by Arjen van Ooyen

Dear colleagues, We would like to draw your attention to our recently published book: *The Rewiring Brain: A Computational Approach to Structural Plasticity in the Adult Brain*, van Ooyen, A, and Butz-Ostendorf, M, eds, Academic Press, June 2017. For more information (preview) and to order the book, go to https://www.elsevier.com/books/the-rewiring-brain/van- ooyen/978-0-12-803784-3 Also see https://anvooyen.home.xs4all.nl/papers/TheRewiringBrain.html *Description* The adult brain is not as hard-wired as traditionally thought. By modifying their small- or large-scale morphology, neurons can make new synaptic connections or break existing ones (structural plasticity). Structural changes accompany memory formation and learning, and are induced by neurogenesis, neurodegeneration and brain injury such as stroke. Exploring the role of structural plasticity in the brain can be greatly assisted by mathematical and computational models, as they enable us to bridge the gap between system-level dynamics and lower level cellular and molecular processes. However, most traditional neural network models have fixed neuronal morphologies and a static connectivity pattern, with plasticity merely arising from changes in the strength of existing synapses (synaptic plasticity). In *The Rewiring Brain*, the editors bring together, for the first time, contemporary modeling studies that investigate the implications of structural plasticity for brain function and pathology. Starting with an experimental background on structural plasticity in the adult brain, the book covers computational studies on homeostatic structural plasticity, the impact of structural plasticity on cognition and cortical connectivity, the interaction between synaptic and structural plasticity, neurogenesis-related structural plasticity, and structural plasticity in neurological disorders. Structural plasticity adds a whole new dimension to brain plasticity, and *The Rewiring Brain* shows how computational approaches may help to gain a better understanding of the full adaptive potential of the adult brain. The book is written for both computational and experimental neuroscientists. Key features: · Reviews the current state of knowledge of structural plasticity in the adult brain. · Gives a comprehensive overview of computational studies on structural plasticity · Provides insights into the potential driving forces of structural plasticity and the functional implications of structural plasticity for learning and memory · Serves as inspiration for developing novel treatment strategies for stimulating functional repair after brain damage *Book Contents* Editorial *Arjen van Ooyen and Markus Butz-Ostendorf* Section I. Experimental background 1. Structural plasticity and cortical connectivity *Vassilis Kehayas and Anthony Holtmaat* 2. Structural plasticity induced by adult neurogenesis *Gregory W. Kirschen, Kurt A. Sailor, and Shaoyu Ge* 3. Structural neural plasticity during stroke recovery *Kimberly Gerrow and Craig E. Brown* 4. Is lesion-induced synaptic rewiring driven by activity homeostasis? *Markus Butz-Ostendorf and Arjen van Ooyen* Section II. Homeostatic structural plasticity 5. Network formation through activity-dependent neurite outgrowth: a review of a simple model of homeostatic structural plasticity *Arjen van Ooyen* 6. Clustered arrangement of inhibitory neurons can lead to oscillatory dynamics in a model of activity-dependent structural plasticity *Rosanna C. Barnard, Istvan Z. Kiss, Simon F. Farmer, and Luc Berthouze* 7. A detailed model of homeostatic structural plasticity based on dendritic spine and axonal bouton dynamic *s**Markus Butz-Ostendorf and Arjen van Ooyen* 8. Critical periods emerge from homeostatic structural plasticity in a full-scale model of the developing cortical column *Sebastian Rinke, Mikael Naveau, Felix Wolf and Markus Butz-Ostendorf* 9. Lesion-induced dendritic remodeling as a new mechanism of homeostatic structural plasticity in the adult brain *Steffen Platschek, Hermann Cuntz, Thomas Deller, and Peter Jedlicka* Section III. Structural plasticity and connectivity 10. The role of structural plasticity in producing nonrandom neural connectivity *Paul Miller* 11. Structural plasticity and the generation of bidirectional connectivity *Daniel Miner, Felix Z. Hoffmann, Florence Kleberg, and Jochen Triesch* 12. Spike timing-dependent structural plasticity of multicontact synaptic connections *Moritz Deger* 13. Selection of synaptic connections by wiring plasticity for robust learning by synaptic weight plasticity *Naoki Hiratani and Tomoki Fukai* Section IV. Structural plasticity and learning and memory 14. Within a spine's reach *Will DeBello and Karen Zito* 15. Impact of structural plasticity on memory capacity *Panagiotis Bozelos and Panayiota Poirazi* 16. Long-term information storage by the interaction of synaptic and structural plasticity *Michael Fauth, Florentin Wörgötter, and Christian Tetzlaff* 17. Impact of structural plasticity on memory formation and decline *Andreas Knoblauch* Section V. Neurogenesis-related structural plasticity 18. Adult neurogenesis and synaptic rewiring in the hippocampal dentate gyrus *Arjen van Ooyen, Gertraud Teuchert-Noodt, Keren Grafen, and Markus Butz-Ostendorf* 19. Modifications in network structure and excitability may drive differential activity dependent integration of granule cells into dentate gyrus circuits during normal and pathological adult neurogenesis *Quinton Skilling, James Roach, Alison L. Althaus, Geoffrey G. Murphy, Leonard Sander, and Michal Zochowski* 20. Computational perspectives on adult neurogenesis *Kristofor D. Carlson, Fredrick Rothganger, and James B. Aimone* 21. Restricted boltzmann machine models of hippocampal coding and neurogenesis *Rory Finnegan, Mark Shaw, and Suzanna Becker* Section VI. Structural plasticity and pathology 22. Modeling the impact of lesions in the brain *Sol Lim, Frances Hutchings, and Marcus Kaiser* 23. Network models of epilepsy-related pathological structural and functional alterations in the dentate gyrus *Ivan Raikov, Mark Plitt, and Ivan Soltesz* 24. Computational models of stroke recovery *Vittorio Sanguineti* 25. Neural plasticity in human brain connectivity: the effects of deep brain stimulation *Tim J. van Hartevelt, Henrique M. Fernandes, Angus B. A. Stevner, Gustavo Deco, and Morten L. Kringelbach*

July 6, 2017

CFP - HAI 2017 Workshop: Representation Learning for Human and Robot Cognition

by Amir Aly

CALL FOR PAPERS **Apologies for cross posting ** The full day workshop: "*Representation Learning for Human and Robot Cognition*" In conjunction with the *5th International Conference on Human-Agent Interaction* *- Bielefeld - Germany - October * *17th, 2017* *Webpage: **http://cognitive-mirroring.org/en/events/hai2017_workshop/* <http://cognitive-mirroring.org/en/events/hai2017_workshop/> *I. Aim and Scope *Creating intelligent and interactive robots has been subject to extensive research studies. They are rapidly moving to the center of human environments so that they collaborate with human users in different applications, which requires high-level cognitive functions so as to allow them to understand and learn from human behavior. To this end, an important challenge that attracts much attention in cognitive science and artificial intelligence, is the “Symbol Emergence” problem, which investigates the bottom-up development of symbols through social interaction. This research line employs representation learning based models for understanding language and action in a developmentally plausible manner so as to make robots able to behave appropriately on their own. This could open the door to robots to understand syntactic formalisms and semantic references of human speech, and to associate language knowledge to perceptual knowledge so as to successfully collaborate with human users in space. Another interesting approach to study representation learning is “Cognitive Mirroring”, which refers to artificial systems that could make cognitive processes observable, such as the models that could learn concepts of objects, actions, and/or emotions from humans through interaction. A key idea of this approach is that robots learn individual characteristics of human cognition rather than acquiring a general representation of cognition. In this way, the characteristics of human cognition become observable and can be measured as modifications in model parameters, which is difficult to verify through neuroscience studies only. In this workshop, we invite researchers in artificial intelligence, cognitive science, cognitive robotics, and neuroscience to share their knowledge and research findings on representation learning, and to engage in cutting-edge discussions with other experienced researchers so as to help promoting this research line in the Human-Agent Interaction (HAI) community. *II. Keynote Speakers * 1. *Beata Joanna Grzyb *– Radboud University – The Netherlands 2. *Thomas Hermann*– Bielefeld University – Germany 3. *Tetsuya Ogata *– Waseda University – Japan 4. *Erhan Oztop *– Ozyegin Universiy – Turkey 5. * Stefan Wermter *– University of Hamburg – Germany *III. Submission * 1. For paper submission, use the following EasyChair web link: *Paper Submission <https://easychair.org/conferences/?conf=rlhrc2017>*. 2. Use the ACM SIGCHI format: *ACM SIGCHI Templates <http://www.sigchi.org/publications/chipubform>*. 3. Submitted papers should be limited to 2-4 pages maximum. The primary list of topics covers the following points (but not limited to): - Computational model for high-level cognitive capabilities - Predictive learning from sensorimotor information - Multimodal interaction and concept formulation - Human-robot communication and collaboration based on machine learning - Learning supported by external trainers by demonstration and imitation - Bayesian modeling - Learning with hierarchical and deep architectures - Interactive reinforcement learning * IV. Important Dates * 1. Paper submission: *01-September-2017* 2. Notification of acceptance: *15-September-2017* 3. Camera-ready version: *30-September-2017* 4. Workshop: *17-October-2017* *V. Organizers * 1. *Takato Horii *– Osaka University – Japan 2. *Amir Aly *– Ritsumeikan University – Japan 3. *Yukie Nagai *– National Institute of Information and Communications Technology – Japan 4. * Takayuki Nagai *– The University of Electro-Communications – Japan -- *Amir Aly, Ph.D.* Senior Researcher Emergent Systems Laboratory College of Information Science and Engineering Ritsumeikan University 1-1-1 Noji Higashi, Kusatsu, Shiga 525-8577 Japan

July 5, 2017

TECHNE AHRC Funded PhD Studentship: "Using Depth of Field to Guide Attention and Convey Narrative Structure"

by Durant, Szonya

TECHNE AHRC Funded PhD Studentship: "Using Depth of Field to Guide Attention and Convey Narrative Structure" Royal Holloway, University of London - The Department of Psychology and the Department of Media Arts Qualification type: PhD Location: London, Egham Funding for: UK Students, EU Students Funding amount: £16,553 plus fees at Home/EU rate. Closes: 1st August 2017 Supervisors: Dr Szonya Durant (Dept. of Psychology) and Mr Adam Ganz (Dept. of Media Arts). Applications are invited for a National Productivity Investment Fund PhD studentship funded by the Arts and Humanities Research Council starting in October 2017. The studentship includes a stipend of £16,553 (plus fees at home/EU rates) for three years. There is an additional NPIF £550 per year to facilitate engagement with the Partner, and students can apply for an additional six months stipend to engage in extended development activities such as work placements. As a TECHNE student, the person selected will have full access to the TECHNE Doctoral Training Partnership development activities and networking opportunities, joining a cohort of about 50 students per year from across seven universities in London and the south-east. See www.techne.ac.uk<http://www.techne.ac.uk/>. TECHNE students can apply for additional funding to support individual or group training and development activities. This interdisciplinary PhD project draws on the fields of sensory neuroscience, in particular, the experimental study of eye movements and film and media studies, and in particular the study of visual perception, narrative comprehension, and affective response in relation to film editing. The novelty of the proposed interdisciplinary approach promises to yield original insights that will expand the knowledge and understanding in both disciplines. It expands the new discipline of psychocinematics by looking at how audiences perceive (and thus how filmmakers can use) a new element of film grammar - the ability to vary depth of field within in a shot which has been developed by our industrial partner Cinefade. The primary PhD supervisor is based in the Department of Psychology, which has an active and expanding postgraduate research community, is well-equipped for research. It was ranked 6th out of 82 UK Psychology Departments in the 2014 Research Excellence Framework (REF), with 93% of our research classified as world-leading or internationally excellent. Research in the department spans a breadth of topics across psychological sciences and neuroscience and is supported by excellent facilities - further information on the research environment can be found here<https://www.royalholloway.ac.uk/psychology/home.aspx>. The second supervisor is based in the Media Arts Department, a top 10 REF department led by award-winning world-class experts and leading industry practitioners, which provides a professional working environment for the development of media practice skills and creativity. Both departments are situated on our beautiful Egham campus close to London. Applicants should ideally hold, or be predicted to achieve, a first class undergraduate degree or equivalent in Psychology, Media Arts, or related disciplines (minimum requirement: 2.1). An MSc in a psychology- or cinematography-related subject is desirable but not essential. The ideal candidate will have strong skills in experimental design and statistical analysis, and some experience of lens-based media, film editing, computer programming, and eye tracking would be advantageous. The project will involve a 6 months placement working with CineFade Ltd which will involve trips to various UK locations to meetings with their clients. Applicants must meet the RCUK residency requirements as described in paragraphs 43-46 of the 'Conditions of Research Council Training Grants<http://www.rcuk.ac.uk/documents/documents/termsconditionstraininggrants-pdf/>' and comply with conditions set out in the AHRC Training Grant Funding Guide<http://www.ahrc.ac.uk/skills/phdstudents/currentawardholders/>. Informal enquiries about the project should be directed to szonya.durant(a)rhul.ac.uk<mailto:szonya.durant@rhul.ac.uk> or adam.ganz(a)rhul.ac.uk<mailto:adam.ganz@rhul.ac.uk>. Full details on how to make an application are shown on our Departmental Website<https://www.royalholloway.ac.uk/psychology/prospectivestudents/postgraduate…> (select "tab 2 - Research Council UK Funded Studentships") and in the College Webpages<https://www.royalholloway.ac.uk/studyhere/researchdegrees/applying/applicat…>. For further details on the application process please contact Sharon Clutterbuck (psyoffice(a)rhul.ac.uk<mailto:psyoffice@rhul.ac.uk>). Closing date: 5pm on Tuesday 1st August 2017. Interview dates: 7-18 August (can be flexible around existing commitments). Szonya Durant Department of Psychology Royal Holloway, University of London Egham TW20 0EX 01784 276522

July 5, 2017