@neuropoetic @neuromeditate @ldallap1 The classic: https://t.co/j7YVKQwYDY The recent classic: https://t.co/G5Ur21SHMR The classic classic: https://t.co/LVaZ8THDi6
Real-time computing without stable states: a new framework for neural computation based on perturbations.
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Jul 2019 – Mar 2024Where it's discussed
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X / Twitter4 posts
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Blogs4 articles
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YouTube3 videos
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News3 articles
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The discussions include references to influential researchers like Wolfgang Maass and mentions of discovering new work, which shows moderate interest and recognition of the article’s relevance. The tone indicates curiosity and acknowledgment of its contribution without strong agreement or in-depth critique, reflecting a moderate overall impact and engagement.
The discussions display mixed reactions with some curiosity but no clear consensus supporting or opposing the publication.
There is a moderate level of curiosity, especially with mentions of discovering related work and recognizing classics, indicating some engagement but not deep enthusiasm.
Posts touch upon the significance of the work, like noting classic papers and recent advances, yet lack detailed analysis or critique, reflecting a surface-level engagement.
Comments suggest the research is noteworthy and potentially influential in the field, but there is no direct indication of groundbreaking impact or widespread debate.
Abstract in brief
- The paper introduces a novel model for real-time neural computation that relies on the transient dynamics of high-dimensional neural circuits rather than stable internal states, allowing for processing continuously changing input streams without task-specific circuit design.
- This model, based on principles of dynamical systems and statistical learning, uses the concept of a 'liquid state machine' where readout neurons extract relevant information from the evolving neural activity to produce stable outputs, even without internal stability.
- Unlike traditional Turing-based models requiring discrete, sequential states, this approach emphasizes the use of high-dimensional, transient neural states, offering new insights into neural coding, experimental design, and real-time processing in biological neural systems.
Top posts
Most liked on X and BlueskyRT @drmichaellevin: After Luis F. Seoane's excellent talk at SFI, am discovering the work of Wolfgang Maass (https://t.co/62GRdKdTIn) - res…
RT @drmichaellevin: After Luis F. Seoane's excellent talk at SFI, am discovering the work of Wolfgang Maass (https://t.co/62GRdKdTIn) - res…
https://t.co/BbmQIyn04n wow really
All mentions
Reservoir CPG for Real-Time Neural Computation on Loihi
This video demonstrates a lamprey robot simulation controlled by reservoir-based CPG on an Intel Loihi board, showcasing novel neural computation principles based on transient dynamics rather than stable states…
Neural Computation Using Transient Dynamics in Reservoir CPGs
This video demonstrates a lamprey robot controlled via a reservoir-based CPG on a SpiNNaker board, utilizing neural computation principles based on dynamic, transient neural states rather than stable ones, enabling…
Reservoir CPG for Real-Time Neural Control of Robots on Skylake CPU
This simulation showcases a lamprey robot controlled by a reservoir-based CPG, executed on an Intel Skylake CPU using Nengo. The model leverages transient neural dynamics for real-time processing, inspired by recent…
RT @drmichaellevin: After Luis F. Seoane's excellent talk at SFI, am discovering the work of Wolfgang Maass (https://t.co/62GRdKdTIn) - res…
https://t.co/BbmQIyn04n wow really
RT @drmichaellevin: After Luis F. Seoane's excellent talk at SFI, am discovering the work of Wolfgang Maass (https://t.co/62GRdKdTIn) - res…
@neuropoetic @neuromeditate @ldallap1 The classic: https://t.co/j7YVKQwYDY The recent classic: https://t.co/G5Ur21SHMR The classic classic: https://t.co/LVaZ8THDi6