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Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Spike sorting can reveal single-neuron activity from extracellular #electrophysiological recordings. This study shows that replacing trad methods with UMAP enhances #SpikeSorting accuracy, efficiency & scalability, paving the way for automated large-scale analysis @plosbiology.org 🧪 plos.io/3KrioSH

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Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Spike sorting can reveal single-neuron activity from extracellular #electrophysiological recordings. This study shows that replacing trad methods with UMAP enhances #SpikeSorting accuracy, efficiency & scalability, paving the way for automated large-scale analysis @plosbiology.org 🧪 plos.io/3KrioSH

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Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Illustrative example demonstrating the advantages of the UMAP-based approach. A single electrode records extracellular activity from three different neurons. Although their spike waveforms appear similar, the information each neuron encodes—and their respective firing rates—differs substantially. UMAP reliably distinguishes neurons with low firing rates, even when their activity patterns are sparse but potentially rich in information. In contrast, traditional feature-based spike-sorting methods frequently merge spikes from these low-activity neurons with those of more active ones, thereby losing valuable information and ultimately reducing decoding performance.

Spike sorting can reveal single-neuron activity from extracellular #electrophysiological recordings. This study shows that replacing trad methods with UMAP enhances #SpikeSorting accuracy, efficiency & scalability, paving the way for automated large-scale analysis @plosbiology.org 🧪 plos.io/3KrioSH

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Brain activity associated with breakthrough food preoccupation in an individual on tirzepatide - Nature Medicine This study provides the first evidence in humans that tirzepatide modulates brain electrophysiology, with changes in low-frequency accumbens power linked to food preoccupation.

🌟New study just out in @natmed.nature.com reports a first-in-human exploration of the #electrophysiological action of #tirzepatide in the #brain, where they observe changes in low frequency accumbens power associated with #food #cravings. #GLP1
www.nature.com/articles/s41...

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FENS Friday webinar on translational electrophysiological assessment of brain excitability on 29 November!

FENS Friday webinar on translational electrophysiological assessment of brain excitability on 29 November!

Make this coming Friday a #FENSFriday by joining our webinar on #Translational Electrophysiological Assessment of #Brain Excitability!⚡️

It will explore methods for measuring #electrophysiological activity & applications in healthy and pathological conditions.
bit.ly/3ZkbZNJ

#FENS #neuroscience

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Abnormal #electrophysiological 🧠 activity is a characteristic finding in #COVID19 patients who exhibit reduced power in the resting state rsEEG (8–12 Hz; arousal state and attention). Additionally, both #COVID19 & #ADRD patients show widespread increases in power of delta (<4 Hz) rhythms.

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Inicio | BCBL Basque Center on Cognition, Brain and Language es un centro internacional de investigación interdisciplinar para el estudio de la cognición, el cerebro y el lenguaje fundado conjuntamente por Ikerbasque, Innobasque, la UPV-EHU y la Diputación de Guipúzcoa.

BCBL #seminar Dynamics of #lexical access during #language production:behavioral and #electrophysiological evidence

ow.ly/7AkJu

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