Where neuroscience meets engineering, biology inspires computation, and diverse minds
converge to unlock the secrets of intelligent systems.
"The brain is imagination, and that was exciting to me; I wanted to build a chip that could imagine something" — Misha Mahowald
Join us for an exciting convergence of minds! This workshop brings together researchers, engineers, neuroscientists, computational scientists, roboticists, and enthusiasts from diverse backgrounds to share insights, collaborate, and push the boundaries of neuromorphic computing.
Engage with discussions, hands-on daily hackathons, collaborative group projects, insightful panel discussions, and unwind in the evenings with board games and social activities.
$1017 CAD (~€628)
Students, postdocs, and academic researchers
$1695 CAD (~€1047)
Industry professionals and corporate participants
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The registration fee includes workshop attendance for the full 12-day duration (June 15–26), daily lunch, daily coffee breaks, final banquet, and access to all workshop facilities and events. Accommodation is NOT provided in the registration fee.
Application Deadline: April 20, 2026
You will receive a decision and registration details within one to two weeks of your application being received. Please get in touch if you have not heard back in this time frame.
Invited Discussion Leaders Deadline: March 9, 2026
Complete the application form to register for CNEW 2026
Upon decision, you will receive a letter of invitation as soon as possible for VISA application purposes.
Apply Now →We have arranged convenient on-campus housing options at the University of Waterloo for workshop participants. Two accommodation styles are available to suit different preferences and budgets. While we recommend these options for their proximity and convenience, you're welcome to explore alternative accommodations in the Waterloo area.
Style: Traditional residence
Room Type: Shared double room
Approx. Cost: ~980.84 CAD (~€607) for 14 nights for 1 person (490.42 per person if shared) — $62/night + 13% HST
Features:
Style: Suite-style residence
Room Type: Private room in 4-bedroom suite
Approx. Cost: ~2404.64 CAD (~€1489) for 14 nights (~601.16 CAD per person in a group of 4) — $152/night + 13% HST. You need to be a group of 4 — contact us and we can arrange groups.
Features:
Note: All utilities (heat, electricity, water, internet) are included. Accommodation preferences can be indicated during registration.
World-wide experts bringing interactive discussions and hands-on tutorials.
University of Manchester
Real-time simulation of biologically-representative spiking neural networks at scale, and the practical challenges of mapping them onto neuromorphic hardware.
Event-based sensor fusion for computer vision at the edge — covering in-sensor and near-sensor computing paradigms for low-power deployments.
Hands-on exploration of neuromorphic architectures designed to overcome the memory-bandwidth bottleneck.
Real-time event-based sensor fusion pipeline · Benchmark SNNs across neuromorphic platforms · In-sensor processing to beat the von Neumann bottleneck
Charles University, Prague
How visual information is transformed across the stages of the visual hierarchy to form everyday perception — bridging large-scale spiking network models, rate-based models, and machine learning.
Applying computational neuroscience to design stimulation protocols for future sensory prosthetic systems, from biological modelling to practical implant design.
An hands-on session exploring self-tracking data through a neuroscience lens, and pedagogical approaches for teaching computational concepts with spiking models.
Model a stage of the visual hierarchy and benchmark it against neural recordings · Design a closed-loop stimulation protocol for a simplified prosthetic vision system · Apply sensory coding principles to compress or denoise real-world visual data
Eindhoven University of Technology
An introduction to neuromorphic approaches to control engineering. We discuss how theoretical tools from hybrid dynamical systems and event-triggered control and estimation can be used to model, analyze and design spiking controllers with guarantees.
How spiking control architectures can address classical control objectives such as stabilization, regulation, and rhythmic control — and the advantages they may offer compared to classical techniques. Case studies include neuromorphic control for nuclear fusion plasma fueling using ice pellets.
A hands-on session bridging classical control questions and tools with neuromorphic design — covering how to model and analyze closed-loop systems with spikes by exploiting their hybrid and event-based nature.
Design and analyze a neuromorphic controller for different control objectives · Compare spiking vs. classical controllers · Investigate open questions in spiking-based control
University of Sussex
Key differences from mammalian vision, efficient navigation strategies, and their relevance to low-power neuromorphic computation.
A broad overview of the landscape — analogue vs. digital approaches and example systems.
GPU-accelerated spiking neural network simulation with GeNN and its machine learning companion mlGeNN.
Deploy insect-inspired navigation models on robots · Extend biological models with new behavioural tasks · Implement insect vision circuits on neuromorphic hardware
Mount Royal University
A discussion of local vs. global thinking in mathematics, and how category theory and computer science can mutually benefit from one another.
Category theory is the study of composition and abstraction — making it particularly useful for describing topics in computer science. We will learn about categories, fundamental results in the area, and describe various applied domains using categories.
Implement a VSA in a purely functional language · Develop a categorical model of VSAs that incorporates inverse operations and similarity · Implement a spiking network using lenses/pre-lenses
National Research Council of Canada · University of Waterloo
A three-part arc: how the brain computes, how to engineer systems that follow the same principles, and how to put those systems to practical use.
Hands-on introduction to Nengo for building and simulating large-scale brain-inspired models across multiple hardware backends.
How spiking networks encode temporal and spatial information efficiently, with practical exercises building such representations from scratch.
Cross-hardware benchmarking: GPUs, SpiNNaker, Braindrop · Activation steering for LLM behaviour · Neuromorphic control of a Lego pinball table · Implementing Beat Saber in neurons
Czech Technical University in Prague
How the mammalian visual system processes the world — from retinal encoding to cortical representations — and how these principles translate into neuromorphic vision systems using dynamic vision sensors.
Biologically-inspired active vision: how microsaccadic eye movements drive efficient scene exploration, and how to implement event-based attention mechanisms on neuromorphic hardware.
Hands-on session working with dynamic vision sensors and the SpiNNaker platform — from raw event streams to real-time spiking network deployment for computer vision tasks.
Real-time sign language recognition with DVS cameras and SNNs · Event-based object detection pipeline on SpiNNaker · Bio-inspired active vision system with microsaccadic control
National Research Council of Canada · University of Waterloo
A new paradigm for programming neuromorphic systems probabilistically — bridging cognitive architectures, generative models, and Vector Symbolic Algebras for principled uncertainty handling in spiking networks.
From planetary robotics to animal exploration: how biologically-inspired representations enable efficient active exploration — drawing on work at NASA Ames and the NRC.
Hands-on introduction to VSAs as a framework for structured, compositional representations in spiking neural networks — covering binding, bundling, and probabilistic inference in high-dimensional spaces.
Apply VSA-based exploration strategies to a simulated robot navigation task · Build a neuromorphic Markov Chain Monte Carlo sampler · Implementing spiking neural models of probabilistic inference
Sandia National Laboratories
Due to increasing power costs, neuromorphic computing is starting to be explored for large-scale scientific computing applications. We will discuss how classic compute algorithms, such as random walk simulations and graph analytics can be accelerated on neuromorphic hardware.
We will discuss how neuromorphic algorithms scale compared to their conventional counterparts and what this means in terms of algorithms suitability for neuromorphic implementation.
Hands-on introduction to directly solving Finite Element Method (FEM) problems using spiking neural networks.
More discussion leaders will be announced soon.
Confirmed speakers and their full bios will be updated as invitations are accepted.
A detailed daily schedule will be announced closer to the workshop date. Below is an overview of the program structure:
Expert-led discussions
Lunch in the common area
Hands-on hackathons, group projects
Social events, board games, and networking
Full schedule with session titles, speakers, and timings will be released in May 2026.