The discussions acknowledge the importance of the study with phrases like 'Very cool' and refer to prior related research, such as investigations into how fruit flies use neural compass cells to avoid getting lost. The tone is appreciative and concise, reflecting a genuine interest but limited deep engagement or critique.
AgreementModerate agreement
Most discussions express positive recognition of the study’s significance, especially in relation to prior research on neural systems involved in heading direction.
InterestModerate interest
Comments show moderate interest, highlighting the coolness of the study and its connection to earlier work, but without deep enthusiasm.
EngagementNeutral engagement
Comments are brief and somewhat surface-level, mainly referencing related studies without detailed analysis or critique.
ImpactModerate impact
The discussions suggest the research’s findings are important for understanding navigation and neural mechanisms, potentially influencing further studies.
Abstract in brief
Ring attractors are neural networks that help animals like flies and mammals represent their heading direction, maintaining a bump of neural activity that shifts with turning movements.
The researchers used advanced imaging and optogenetics techniques to show that fly neurons naturally use a ring attractor-like system to keep track of heading, and they could manipulate this activity artificially.
Their findings offer real physiological evidence supporting the long-held theory that ring attractors form the core of heading-direction representation in the brain.]
Very cool. @ScienceMagazine published a related study by @HHMIJanelia investigators including Vivek Jayaraman in 2017 that showed why fruit flies don’t get lost. Their brains contain cells that act like a compass, marking the direction of flight. https://t.co/ZzmwpHriYj https://t.co/jJjvaFB0wc
Oct 27, 2021 · 3 likes · 2 shares · 1,959 followersView post →
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HHMI | Janelia
@HHMIJanelia · X
RT @MeaganPhelan: Very cool. @ScienceMagazine published a related study by @HHMIJanelia investigators including Vivek Jayaraman in 2017 tha…
Oct 27, 2021 · 2 shares · 27,605 followersView post →
Head direction cells track an animal's head orientation in darkness through path integration. This study presents a network model utilizing synaptic plasticity guided by external cues, highlighting the importance of…
This video explores how head direction cells track an animal's orientation in darkness through neural path integration, supported by biologically plausible learning rules that adjust synaptic connectivity during…
RT @MeaganPhelan: Very cool. @ScienceMagazine published a related study by @HHMIJanelia investigators including Vivek Jayaraman in 2017 tha…
Oct 27, 2021 · 2 shares · 27,605 followersView post →
MP
Meagan Phelan
@MeaganPhelan · X
Very cool. @ScienceMagazine published a related study by @HHMIJanelia investigators including Vivek Jayaraman in 2017 that showed why fruit flies don’t get lost. Their brains contain cells that act like a compass, marking the direction of flight. https://t.co/ZzmwpHriYj https://t.co/jJjvaFB0wc
Oct 27, 2021 · 3 likes · 2 shares · 1,959 followersView post →
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Estimating Orientation in Natural Scenes A Spiking | PDF | Synapse ...
News
Science. 2017; 356:849–853. https://doi.org/10.1126/science.aal4835 PMID: 28473639 47. Maimon G, Straw AD, Dickinson MH. A Simple Vision-Based Algorithm for ...