- Comp-neuro - lists.cnsorg.org

AREADNE 2026 Abstract Submission Open
by John Pezaris Jan. 13, 2026

Jan. 13, 2026

AREADNE 2026 Research in Encoding and Decoding of Neural Ensembles Eliopoulos Conference Center, Milos, Greece 23-27 June 2026 Celebrating 20 Years of AREADNE Conferences http://areadne.org info(a)areadne.org **** SECOND CALL FOR ABSTRACTS **** Abstract submissions for poster presentation at AREADNE 2026 are now open. AREADNE 2026 will bring world-wide scientific leaders to present theoretical and experimental results on the functioning of neuronal ensembles. This, our eleventh meeting, will be held at the Eliopoulos Conference Center in Milos, Greece, and will create an informal and beautiful setting for discussion of cutting-edge ideas and discoveries in an intensive but relaxed forum that emphasizes interaction. For submission details, see http://areadne.org/call-for-abstracts Abstracts for poster presentations are due by 30 January 2026; notifications will be provided by 3 March 2026. We strongly encourage potential attendees to submit an abstract as presenters have registration priority. For information about the conference, please refer to the main web page http://areadne.org or send email to us at info(a)areadne.org. We hope to see you in Milos! --- Nicholas Hatsopoulos John Pezaris AREADNE 2026 Co-Chairs

1 0

[seminar.wwtns] Three NEW recordings on the VVTNS YouTube channel
by David Hansel Jan. 13, 2026

Jan. 13, 2026

[image: VVTNS.png] > > <https://84454458.streak-link.com/Cu0_UBdOjjGclXV0Egvy9LEt/https%3A%2F%2Fwww…> > https://www.wwtns.online > <https://streaklinks.com/A9c7PbbpKY7PxB6PaAJWGD3-/https%3A%2F%2Fwww.wwtns.on…> > - on twitter: wwtns@TheoreticalWide - on Youtube > New on the VVTNS YouTube Channel https://www.wwtns.online/past-seminars-2025-2026 *Building on cortical models* Lecture delivered on December 10, 2025 by Markus Diesmann Jülich Research Centre ----------------------------------------------------------- *Learning mechanistic models that link cells, circuits, and computations * Lecture delivered on December 17, 2025 by Jakob Macke Tubingen University ----------------------------------------------------------- *Towards using large-scale, cross-brain neuronal recordings* *to identify the brain’s internal signals* VVTNS 2026 Opening Lecture delivered on January 7, 2026 by Carlos Brody Princeton Neuroscience Institute *About VVTNS : Launched as the World Wide Theoretical Neuroscience Seminar (WWTNS) in November 2020 and renamed in homage to Carl van Vreeswijk in Memoriam (April 20, 2022), Speakers have the occasion to talk about theoretical aspects of their work which cannot be discussed in a setting where the majority of the audience consists of experimentalists. The seminars, **held on Wednesdays at 11 am ET,** are 45-50 min long followed by a discussion. The talks are recorded with authorization of the speaker and are available to everybody on our YouTube channel.* ᐧ

1 0

2 PhD positions available on Whole-Brain Neural Mass Modeling and Parameter Estimation
by xkobeleva＠gmail.com Jan. 13, 2026

Jan. 13, 2026

Dear subscribers, I'm happy to announce 2 PhD positions in our Computational Neurology lab located at the Institute for Neural Computation https://www.ini.rub.de/ and Bernstein Node Bochum at Ruhr University, Bochum, Germany. Our group works at the interface of clinical neuroscience (neurostimulation and neurodegenerative diseases) and computational neuroscience (whole-brain network neural mass modeling, parameter inference, control theory), with a strong focus on translational research that connects computational methods to real-world clinical data and patient-oriented questions. Our team is young, motivated, international, and genuinely interdisciplinary, bringing together expertise from medicine, neuroscience, psychology, and quantitative sciences. We invite applications for two PhD projects on network neural mass modeling and parameter inference in neurodegenerative diseases (e.g., Alzheimer's Disease) and in healthy participants. Details can be found here: https://www.ini.rub.de/the_institute/jobs/2_phd_positions_fmd_in_computation al_neurology/, and if you have questions regarding the positions, please reach out to me: https://computationalneurology.com Feel free to forward to anyone who might be interested. Best regards Prof. Dr. Xenia Kobeleva

1 0

[PhD positions] Ten fully funded Positions on "Curiosity" in Göttingen
by Priesemann, Viola Jan. 13, 2026

Jan. 13, 2026

Are you interested in the neurosciences of curiosity? In Göttingen, we established a Graduate Research and Training School on “Curiosity”, and we are hiring again about 10 PhD students, starting summer 2026. The topics range from computational neuroscience to psychology and AI. The outlines of the project are relatively short, because we do have considerable freedom to shape the together with the PhD student. If you are interested in joining a vibrant and closely interacting PhD research community in Göttingen, feel welcome to apply! https://www.uni-goettingen.de/en/681638.html _____________________ Prof. Dr. Viola Priesemann Max Planck Institute for Dynamics and Self-Organization & Georg-August-University Göttingen Am Fassberg 17, 37077 Göttingen viola.priesemann(a)ds.mpg.de<mailto:viola.priesemann@ds.mpg.de> https://priesemann-group.github.io<https://priesemann-group.github.io/>

1 0

Multiple Research Positions Open in Computational Neuroscience at IBS, South Korea
by Sungho Hong Jan. 13, 2026

Jan. 13, 2026

Dear Colleagues, Our research group at the Center for Memory and Glioscience, Institute for Basic Science (IBS), South Korea, is seeking highly motivated scientists for open positions at multiple levels, including Postdocs, Senior Researchers, and Research Assistants. Our group studies the biophysical basis of neural information processing through computational modeling, with particular emphasis on developing neuroscience-inspired machine learning/AI (neuroAI) models to analyze and model neuroscience data. We are big fans of physiological mechanisms and investigate how they collectively define the functions of neural systems underlying intelligent behavior. For more information, please see our home page: https://neuroai-ibs.github.io. We closely collaborate with experimental labs both within our Center and abroad, providing rich opportunities for integrative research. We are also located next door to top-notch experimental laboratories in our Center and have various opportunities for scientific exchange with other members of a vibrant neuroscience community in South Korea. We are stably supported internally by IBS, a South Korean government initiative for excellence in basic science research. Successful candidates will hold a PhD (for Postdocs and Senior Researchers) or a Bachelor's degree (for Research Assistants) in neuroscience or related quantitative fields (Physics, Mathematics, Computer Science, etc.), with strong interest in understanding neural systems through computational approaches. We are committed to welcoming applicants of all ethnicities, genders, sexual orientations, religions, etc., as well as diverse scientific backgrounds. For further inquiries, please feel free to contact me (sunghohong(a)ibs.re.kr) Including your CV and a brief statement of research interests would be helpful. We would appreciate it if you would be willing to share this post with colleagues who may be interested. Best, Sungho — Sungho Hong Center for Memory and Glioscience Institute for Basic Science 55 Expo-ro, Yuseong-gu Daejeon 34126 South Korea

1 0

Post-Doc/Engineer position. Pediatric epilepsies caused by genetic mutations
by fabrice.wendling＠inserm.fr Jan. 12, 2026

Jan. 12, 2026

Dear colleagues Please find below an offer for a Post-Doc/Engineer position in our laboratory, starting winter 2026. The candidate will work on a national multidisciplinary project named Innov4epik. This is a hospital-university research project (RHU) involving 10 centers in France (more information: https://epilepsies-innov4epik.com/project/) It focuses on pediatric epilepsies caused by genetic mutations inducing alterations in transmembrane ion channels. Please feel free to circulate this offer to anyone who might be interested in a topic combining electrophysiological signal (LFPs, EEG) processing and computational modeling. Thank you in advance. Warmest regards and best wishes for this new year 2026. Fw --- Fabrice WENDLING DR Inserm LTSI, UMR1099 – Inserm - Université de Rennes Co-dir Cinetyks Team Campus de Beaulieu - 35042 Rennes Cedex - France - Tel: +33 2 23 23 56 05 / 62 20 - +33 6 58 25 75 30 Email: fabrice.wendling(a)inserm.fr https://fabricewendling.github.io/ https://www.galvani-lab.eu/ --------- Post-doc or Research Engineer position offer (ref: RHU2024-Rennes) Epilepsies caused by genetic mutations: signal processing and computational modeling Context. Developmental and epileptic encephalopathies (DEEs) are a group of severe rare diseases where the combined effect of seizures, most often drug resistant, and the non-seizures consequences of the disease etiology, often genetic, entail a debilitating encephalopathy with drastic effects on the neurodevelopmental, psychiatric, and motor abilities of the patients. DEEs due to potassium channel mutations (K-DEEs) are emblematic of this disease presentation. Rationale. The mechanisms underlying the relationship between i) the molecular effect of a gene mutation (KCNB1, KCNA2) on specific voltage gated potassium channel function, and ii) the patient-specific phenotypes observed in scalp-recorded EEG signals remain elusive. Computational models inspired from neuronal physiology is now recognized as an efficient way to bridge the gap between i) changes occurring at the level of neurons and neuronal circuits and ii) electroencephalographic (EEG) signals recorded in patients containing markers of the underlying pathology. Objective. The objective of the proposed research position is to design novel neuro-inspired models taking into account the molecular effect of a gene mutation on the specific voltage-gated potassium (K) channel function and on the specific phenotypes observed both in patients (scalp-recorded EEG signals) and genetically-modified mice (local field potentials) in which downregulation or upregulation of K channels is induced. Methods. Both microscopic models (cellular level) based on Hodgkin and Huxley's (HH) formalism and macroscopic models (whole brain based on interconnected Neural Mass Models -NMMs-) will be used. The microscopic model will describe both passive (membrane capacitance, axial resistivity, leakage conductance, and membrane time constant) and active (voltage-gated and ligand-gated ion channels) membrane properties. The channel pathogenic variants of KCNB1 (loss of function) and KCNA2 (gain of function) mutations identified in 2 other work packages (1 & 2) will be inserted in the membrane in order to study the impact of the channel mutation on the firing rate curves of neuron subtypes, specifically pyramidal neurons (PYR), somatostatin (SST), parvalbumin (PV), and vasoactive intestinal polypeptide (VIP) positive interneurons. Optimization methods will be developed for identifying optimal parameters minimizing the distance between real and simulated electrophysiological signals (LFPs). Results from the detailed model will be transferred to the NMM parameters of our whole-brain model, eCoalia, to simulate patient-specific scalp EEG features. Both models will be developed in Python. Strong background is available (PMID: 33617692, PMID: 40161993, PMID: 38520800). Scientific domains. Engineering (computational, biomedical); EEG; Signal Processing; Neurophysiology; Neuroscience; Neurology; Computer Science (implementation of Python routines into an existing software application named Neocomm(detailed) and eCOALIA(whole-brain)). Scientific environment. This research will benefit from an outstanding clinical research environment, centered around the largest curated K-DEE cohorts, coordinated by the Necker reference center for rare epilepsies (Prof. Rima Nabbout), and assembling an extensive group of experts from various specializations, including clinical, electrophysiological, psychological, computational, translational research, biotechnology and pharma industry. Candidate profile. The research project is at the interface between biomathematics (neuro-inspired models) and neuroscience/neurology (epilepsy). The Post-doc/Engineer fellow (PhD level) will preferably have a strong background in computational neuroscience/systems biology or in electrical engineering with experience in bio-signal processing. Knowledge in electrophysiology and/or EEG analysis would be an asset. Contract The position will be opened February 1st, 2026 (flexible). The contract is for 2 years (flexible). The employer is the University of Rennes. The competitive salary will be according to experience (2350 Euros net, minimum). The candidate will also have access to the French system benefits. Location in the city of Rennes, France. LTSI-Inserm laboratory, University of Rennes. In addition, the hired person will have the opportunity to actively collaborate with other groups involved in the innov4epik RHU project (2024-2029), funded by the French National Research Agency (ANR). Contact (please provide resume, cover letter and email of 2 references) Pascal Benquet (Prof Univ Rennes, LTSI, France) Email: pascal.benquet(a)univ-rennes.fr Fabrice Wendling (DR Inserm, LTSI, France) Email: fabrice.wendling(a)inserm.fr

1 0

9th Advanced Course on Data Science & Machine Learning - ACDL 2026 - From AI Agents to Agentic AI | June 8-12 | Riva del Sole Resort & SPA - Italy -> ⏰ Early Registration: by 23 February
by ICAS Organizing Committee Jan. 12, 2026

Jan. 12, 2026

* Apologies for multiple copies. Please forward to anybody who might be interested, thanks * ACDL 2026, A Residential Course: From AI Agents to Agentic AI, June 8-12, Tuscany ⏰ Early Registration: by 23 February 📚 ACDL 2026 is a full-immersion 5-day course in Riva del Sole Resort & SPA - Tuscany on cutting-edge advances in AI, Deep Learning, LLMs, Data Sc., Generative AI, AI Agents & Agentic AI with lectures delivered by world-renowned experts. If you want to learn AI, Generative AI & AI Agents LLMs, Agentic AI, Multimodal Foundation Models, and much more then take part in ACDL 2026! ;-) Riva del Sole Resort & SPA - Tuscany, Italy, June 8-12, 2026 🔗 https://acdl2026.icas.events 📧 acdl(a)icas.cc ⏰ EARLY REGISTRATION: by February 23 (AoE) 🔗 https://acdl2026.icas.events/registration/ Oral Presentation Submission Deadline: by February 23 (AoE) 📝 LECTURERS: Each Lecturer will hold up to four lectures on one or more research topics. 🔗 https://acdl2026.icas.events/lecturers/ It follows the (partial list) of the confirmed ACDL 2026 Lecturers: Arthur Gretton, UCL, UK Katja Hofmann, Microsoft, UK Arnulf Jentzen, University of Münster, Germany Pushmeet Kohli, Google DeepMind, UK David van Dijk, Yale University, USA Jason Weston, META, USA More Lecturers TBA 📑 LECTURES: TBA 🔗 https://acdl2026.icas.events/lectures/ 📚 PAST LECTURERS: 🔗 https://acdl2026.icas.events/past-lecturers/ ✅ VENUE: 🔗 https://acdl2026.icas.events/venue/ Riva del Sole Resort & SPA Località Riva del Sole‚ Castiglione della Pescaia (Grosseto) CAP 58043‚ Tuscany‚ Italy p: +39-0564-928111 📧 booking.events(a)rivadelsole.it 🔗 https://www.rivadelsole.it/en/ PAST EDITIONS: 🔗 https://acdl2026.icas.events/past-editions/ 📚 CERTIFICATE & 8 ECTS: The 9th Advanced Course on Data Science & Machine Learning – ACDL 2026 is a full-immersion five-day Course at the Riva del Sole Resort & SPA (Castiglione della Pescaia – Grosseto – Tuscany, Italy) on cutting-edge advances in Deep Learning, Data Science and Generative AI with lectures delivered by world-renowned experts. The Course provides a stimulating environment for PhD students, Post-Docs, junior academics (only up to assistant professors), early career researchers, and industry leaders (and highly motivated, promising and brilliant Master students / BSc students). Participants will also have the chance to present their results with talks, and to interact with their colleagues, in a convivial, professional and productive environment. PhD students, PostDocs, Industry Practitioners and Junior Academics (only up to assistant professors) will be typical profiles of the ACDL attendants.The Course will involve a total of 36–40 hours of lectures, according to the academic system the final achievement will be equivalent to 8 ECTS points for the PhD Students (and some strongly motivated Master Student – BSc Student) attending the Course. Language: English. To participate in the ACDL 2026, all attendants must (1/2) register for the course (by February 23, 2026) and (2/2) book accommodation at the course venue, “Riva del Sole Resort & SPA” (by April 23, 2026); all attendants must stay at the “Riva del Sole Resort & SPA”. Booking accommodation at the Riva del Sole must be made exclusively using the accommodation form attached to the registration confirmation email. No other methods must be used (if you use other booking methods the hotel will cancel the reservation). Finally, it is not possible to extend the stay, the special accommodation rates are valid only for the period of the course, no exceptions will be made. To contact the Riva del Sole Resort & SPA (the course venue) use the following email: booking.events(a)rivadelsole.it Once accommodation has been booked at “Riva del Sole Resort & SPA“, the participant must send this information (including the Booking Number) to the ACDL organizing committee (acdl(a)icas.cc) ACDL is a residential course, so all lecturers and participants must reside in the same Hotel (Riva del Sole Resort & SPA). No exceptions are made. For privacy reasons, the Hotel can not match people. If you have someone to share the apartment with (or a double room in Hotel), please send to the Hotel ( 📧 booking.events(a)rivadelsole.it ) the name, surname and email address. Otherwise the solution is to book a hotel room in single use. Please note that only ACDL registered participants can book a room (in hotel or apartment) at the Riva del Sole Resort & SPA with the accommodation form attached in the registration email and with the ACDL Discounted Rates. The Booking Office of the Riva del Sole Resort & SPA will verify the names of the participants and the corresponding registration number to confirm the booking. Anyone interested in participating in ACDL 2026 should register as soon as possible. See you in Riva del Sole in June! ACDL 2026 Directors. ACDL 2026 Scientific & Organizing Committees. 🔗 https://acdl2026.icas.events 📧 acdl(a)icas.cc Obviously this is only a Call for Participation, to have complete and updated information we recommend you access the relevant website: 🔗 https://acdl2026.icas.events * Apologies for multiple copies. Please forward to anybody who might be interested, thanks *

1 0

World wide VVTNS series (6th season): Wednesday, January 14, 2026, at 11:00 am ET - David Clark Kempner Institute at Harvard University
by David Hansel Jan. 12, 2026

Jan. 12, 2026

[image: VVTNS.png] https://www.wwtns.online <https://streaklinks.com/A9c7PbbpKY7PxB6PaAJWGD3-/https%3A%2F%2Fwww.wwtns.on…> - on twitter: wwtns@TheoreticalWide You are cordially invited to the lecture David Clark Kempner Institute at Harvard University on the topic of *Computation Through Neuronal-Synaptic Dynamics* The lecture will be held on zoom on January 14, 2026, at *11:00 am ET * > To receive the link: https://www.wwtns.online/register-page > *Abstract: *Computations in neural circuits are often construed as being implemented through the coordinated dynamics of neurons. In this picture, the role of synaptic connectivity is to sculpt neuronal dynamics to implement computations of interest. Of course, synapses are not static but change on a variety of timescales, including fast timescales comparable to those of neurons. Thus, a more accurate view of computation in neural circuits may involve the coupled dynamics of neurons and synapses. This form of computation is closer to what is implemented by Transformers via an equivalence between ongoing synaptic plasticity and self-attention. I will first describe a nonlinear recurrent neural-network model with ongoing Hebbian dynamics of “fast” synapses atop unstructured “slow” synapses. I will then describe two computations implemented through neuronal-synaptic dynamics, which can be studied in this model using techniques including dynamical mean-field theory and random-matrix theory. First, there exists a novel phase termed “freezable chaos” in which a stable fixed point of neuronal dynamics is continuously destabilized by synaptic dynamics. This allows for the creation of a stable fixed point at any neuronal state visited by the network by halting synaptic plasticity. Second, I will describe an effect termed “persistent oscillations” in which, following stimulation by a periodic signal, a plastic network continues to autonomously reproduce a similar signal for a duration exceeding any intrinsic timescale in the system. Thus, ongoing Hebbian plasticity can provide a dynamic form of working memory, complementing the static form provided by freezable chaos. Ongoing experimental work suggests that this effect is realized in cortical organoids. Overall, this line of work suggests that synapses should be promoted to first-class dynamical degrees of freedom in our conceptual understanding of neural-circuit function. *About VVTNS : Launched as the World Wide Theoretical Neuroscience Seminar (WWTNS) in November 2020 and renamed in homage to Carl van Vreeswijk in Memoriam (April 20, 2022), Speakers have the occasion to talk about theoretical aspects of their work which cannot be discussed in a setting where the majority of the audience consists of experimentalists. The seminars, **held on Wednesdays at 11 am ET,** are 45-50 min long followed by a discussion. The talks are recorded with authorization of the speaker and are available to everybody on our YouTube channel.* ᐧ -- *Il n'y a ni obligation ni pression à traiter ou répondre à ce mail en dehors des heures de travail* "В каждой шутке есть доля шутки" 'Life is good ..' (Carl van Vreeswijk, 1962-2022) --------------------------------------- David Hansel Directeur de Recherche au CNRS Co-Group leader Cerebral Dynamics Plasticity and Learning lab., CNRS 45 rue des Saints Peres 75270 Paris Cedex 06 Tel (Cell): +33 607508403 - Fax (33).1.49.27.90.62 *CONFIDENTIALITY AND PRIVACY NOTICE:* *This message and the documents that might be attached, are addressed exclusively to their(s) recipient(s) and may contain privileged or confidential information. The access to this information by people other than those designated is not authorized. If you are not the indicated recipient, you are notified that the use, disclosure and / or copying without authorization is prohibited under current legislation. If you have received this message in error, please kindly inform the sender immediately and proceed to its destruction.* ᐧ

1 0

Fully-funded PhD in computational neuroscience, Sheffield, UK
by Hazem Toutounji Jan. 11, 2026

Jan. 11, 2026

Dear all, A fully-funded PhD position in computational neuroscience is available with Dr Hazem Toutounji (University of Sheffield, UK). *Project title: *Flexible or Flawed? A Computational Neuroscience Approach to Learning Strategies and Psychiatric Traits In our complex and ever-changing world, humans are constantly faced with a flood of sensory information. To make effective and timely decisions, the brain cannot possibly process every single detail. Instead, it is thought to rely on intelligent "cognitive shortcuts" or simple strategies (heuristics) to simplify complex problems. This allows for rapid and flexible learning, but the mechanisms behind this process are not well understood. When are these shortcuts deployed? How does the brain select the right strategy for the task at hand? How does it know when a shortcut is no longer working and a new strategy is needed? And how are the selection and efficiency of those shortcuts influenced by common psychiatric traits such as anxiety and impulsivity? This 3.5-year fully-funded PhD studentship provides an exciting opportunity to work at the intersection of computational modelling, cognitive neuroscience, and computational psychiatry. The successful candidate will receive comprehensive training in all required methods. *Position available for UK students only* *Application deadline: *February 4th 2026 *PhD start date: *October 1st 2026 Further information on the project, requirements, and how to apply can be found here: http://www.findaphd.com/?pj=190228 *Please note: *Interested candidates are strongly encouraged to contact me ( h.toutounji(a)sheffield.ac.uk) to discuss your interest in and suitability for the project prior to submitting your application. Best wishes, Hazem -- *Dr. rer. nat. Hazem Toutounji (they / them) *[pronounced ḤAH-zem TUTUN-ji <https://namedrop.io/hazemtoutounji>] *PI of the Neural Dynamics and Computation Lab* Lecturer in Computational Neuroscience MSc Exams Officer, ECR Champion, Sustainability Lead School of Psychology The Neuroscience Institute Insigneo Institute for in silico Medicine University of Sheffield ICOSS Building, 4th floor, desk 5 219 Portobello, Broomhall Sheffield S1 4DP, UK *Please don't feel obliged to respond to my emails outside your own working hours* If you are a student looking for support, please see this page <https://www.sheffield.ac.uk/study/support>. *Office hours during semester weeks:* Monday 14:00-15:00 -- Please book an appointment with a brief description of the topic using this link <https://calendar.app.google/1ayXM9DqBhAkLBCp6>. Face to face meetings are at *ICOSS E04a*. To meet outside of office hours, please email me 24 working hours in advance.

1 0

PhD positions in theoretical neuroscience, dynamical systems, and machine learning at UIUC
by Engelken, Rainer Jan. 10, 2026

Jan. 10, 2026

Dear colleagues, I recently started a new lab in the Department of Electrical and Computer Engineering at the University of Illinois Urbana-Champaign, working at the intersection of theoretical neuroscience, dynamical systems theory, and machine learning. I am recruiting one to three fully funded PhD students for Fall 2026, with admission through ECE (Electric and Computer Engineering). Our research uses dynamical systems theory to understand the mechanisms and principles of learning and dynamics in neural circuits, bridging biological and artificial systems. We combine mathematical analysis with large-scale simulations to connect neuroscience, physics, and ML. PhD project directions include: 1. Learning dynamics and mechanistic interpretability. Understanding how brains and neural networks learn over time: how synapses change, how activity patterns evolve, and how useful internal representations emerge, with an eye toward opening the black box of both biological and artificial systems (see references [1–2]). 2. Neural dynamics, chaos, and computation. Exploring how network structure and inputs shape complex activity patterns, including chaotic regimes, and how these patterns can be harnessed for computation in both brain-inspired and artificial networks (see references [3–4]). 3. Training algorithms for spiking networks. Developing new ways to train spiking neural networks so that they are both efficient and easy to optimize, building on ideas like Gradient Flossing and fast event-based simulation methods such as SparseProp (see references [5–6]). I welcome applicants from quantitative backgrounds like physics, mathematics, computer science, or engineering, who want to apply quantitative skills to neuroscience questions. Comfort with mathematics and programming is required; you should enjoy thinking with equations and code. I value reliable, self-driven students who enjoy taking projects from idea to finished work. The lab aims for a supportive, collaborative environment that is intellectually intense and kind. We believe great science comes from working together, and we support diversity in backgrounds and ideas while prioritizing well-being and deep curiosity about neural computation. Positions are fully funded with access to exceptional computing resources through the National Center for Supercomputing Applications (NCSA). The lab is part of UIUC's Neuroinformatics cluster with ties to the Beckman Institute and Coordinated Science Laboratory. Co-advising with experimental groups is possible. For Fall 2026 entry: • ECE PhD application deadline: January 15, 2026. In your application, clearly indicate Prof. Rainer Engelken in the "faculty of interest" field and in your Statement of Purpose. Before or after applying, you are welcome to email me with a CV, transcript, and a short note about your background and interests if you think this opening is a good fit. Learn more: https://rainerengelken.github.io/ or https://ece.illinois.edu/about/directory/faculty/engelken If you have strong candidates, please forward this email. Students can also reach out to me directly at engelken(a)illinois.edu Best regards, Rainer Engelken Assistant Professor The Grainger College of Engineering Department of Electrical and Computer Engineering University of Illinois Urbana-Champaign P.S. Students reading this directly: feel free to email me with questions. I'm especially interested in candidates with strong math/physics training looking to work on neural dynamics and learning. References [1] Engelken, R., Ingrosso, A., Khajeh, R., Goedeke, S., & Abbott, L. F. (2022). Input correlations impede suppression of chaos and learning in balanced firing-rate networks. PLOS Computational Biology, 18(12), e1010590. [2] Engelken, R., & Goedeke, S. (2022). A time-resolved theory of information encoding in recurrent neural networks. Advances in Neural Information Processing Systems, 35, 35490-35503. [3] Engelken, R., Wolf, F., & Abbott, L. F. (2023). Lyapunov spectra of chaotic recurrent neural networks. Physical Review Research, 5(4), 043044. [4] Engelken, R., Monteforte, M., & Wolf, F. (2024). Sparse chaos in cortical circuits. arXiv preprint arXiv:2412.21188. [5] Engelken, R. (2023). Gradient flossing: Improving gradient descent through dynamic control of jacobians. Advances in Neural Information Processing Systems, 36, 10412-10439. [6] Engelken, R. (2023). Sparseprop: Efficient event-based simulation and training of sparse recurrent spiking neural networks. Advances in Neural Information Processing Systems, 36, 3638-3657.

1 0