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#restaurantrow — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #restaurantrow, aggregated by home.social.

  1. Laura Maioglio, Longtime Owner of Barbetta on Restaurant Row, Has Died

    Laura Maioglio — the force of taste, tradition and meticulous hospitality behind Barbetta, the storied Italian landmark on W46th Street — has died, the restaurant announced Wednesday evening. Laur…
    #dining #cooking #diet #food #Italiancuisine #Italia #Italian #italiancuisine #italiano #italy #OBITUARY #restaurantrow
    diningandcooking.com/2479539/l

  2. Laura Maioglio, Longtime Owner of Barbetta on Restaurant Row, Has Died

    Laura Maioglio — the force of taste, tradition and meticulous hospitality behind Barbetta, the storied Italian landmark on W46th Street — has died, the restaurant announced Wednesday evening. Laur…
    #dining #cooking #diet #food #Italiancuisine #Italia #Italian #italiancuisine #italiano #italy #OBITUARY #restaurantrow
    diningandcooking.com/2479539/l

  3. Laura Maioglio, Longtime Owner of Barbetta on Restaurant Row, Has Died

    Laura Maioglio — the force of taste, tradition and meticulous hospitality behind Barbetta, the storied Italian landmark on W46th Street — has died, the restaurant announced Wednesday evening. Laur…
    #dining #cooking #diet #food #Italiancuisine #Italia #Italian #italiancuisine #italiano #italy #OBITUARY #restaurantrow
    diningandcooking.com/2479539/l

  4. Laura Maioglio, Longtime Owner of Barbetta on Restaurant Row, Has Died

    Laura Maioglio — the force of taste, tradition and meticulous hospitality behind Barbetta, the storied Italian landmark on W46th Street — has died, the restaurant announced Wednesday evening. Laur…
    #dining #cooking #diet #food #Italiancuisine #Italia #Italian #italiancuisine #italiano #italy #OBITUARY #restaurantrow
    diningandcooking.com/2479539/l

  5. We're still doing science!

    Kocharian, A., Redish, A.D. & Rothwell, P.E. Individual differences in decision-making shape how mesolimbic dopamine regulates choice confidence and change-of-mind. Nature Neuroscience (2025).

    nature.com/articles/s41593-025

    One of many exciting results: When mice change their mind about a choice (quitting out of the wait zone on our #RestaurantRow task), there is a dip in dopamine, even though there is no new information provided. Creating such a dip with optogenetic inhibition increases the likelihood of quitting.

    #neuroscience

    Also available as a preprint on biorxiv. biorxiv.org/content/10.1101/20

  6. We're still doing science!

    Kocharian, A., Redish, A.D. & Rothwell, P.E. Individual differences in decision-making shape how mesolimbic dopamine regulates choice confidence and change-of-mind. Nature Neuroscience (2025).

    nature.com/articles/s41593-025

    One of many exciting results: When mice change their mind about a choice (quitting out of the wait zone on our #RestaurantRow task), there is a dip in dopamine, even though there is no new information provided. Creating such a dip with optogenetic inhibition increases the likelihood of quitting.

    #neuroscience

    Also available as a preprint on biorxiv. biorxiv.org/content/10.1101/20

  7. We're still doing science!

    Kocharian, A., Redish, A.D. & Rothwell, P.E. Individual differences in decision-making shape how mesolimbic dopamine regulates choice confidence and change-of-mind. Nature Neuroscience (2025).

    nature.com/articles/s41593-025

    One of many exciting results: When mice change their mind about a choice (quitting out of the wait zone on our #RestaurantRow task), there is a dip in dopamine, even though there is no new information provided. Creating such a dip with optogenetic inhibition increases the likelihood of quitting.

    #neuroscience

    Also available as a preprint on biorxiv. biorxiv.org/content/10.1101/20

  8. We're still doing science!

    Kocharian, A., Redish, A.D. & Rothwell, P.E. Individual differences in decision-making shape how mesolimbic dopamine regulates choice confidence and change-of-mind. Nature Neuroscience (2025).

    nature.com/articles/s41593-025

    One of many exciting results: When mice change their mind about a choice (quitting out of the wait zone on our #RestaurantRow task), there is a dip in dopamine, even though there is no new information provided. Creating such a dip with optogenetic inhibition increases the likelihood of quitting.

    #neuroscience

    Also available as a preprint on biorxiv. biorxiv.org/content/10.1101/20

  9. We're still doing science!

    Kocharian, A., Redish, A.D. & Rothwell, P.E. Individual differences in decision-making shape how mesolimbic dopamine regulates choice confidence and change-of-mind. Nature Neuroscience (2025).

    nature.com/articles/s41593-025

    One of many exciting results: When mice change their mind about a choice (quitting out of the wait zone on our #RestaurantRow task), there is a dip in dopamine, even though there is no new information provided. Creating such a dip with optogenetic inhibition increases the likelihood of quitting.

    #neuroscience

    Also available as a preprint on biorxiv. biorxiv.org/content/10.1101/20

  10. @elduvelle_neuro @Andrewpapale
    @BrianMSweis

    #CrossSpecies #neuroscience

    As Andy Papale said, we have a bunch of papers with both rats and mice on the #RestaurantRow task. (The data is all in nature.com/articles/s42003-022, and publicly available.) Generally, we talk about similarities, but mice learn slower. Rats show the transition from wait zone to #precommitment in the offer zone in a few days, while mice take a lot longer.

    Another space where I think there have been rat and mouse comparisons (although I don't find any explicit comparisons) is in the place field stability literature. My memory is that Cliff Kentros had really cool data on (#PlaceCell) #PlaceField stability as a function of #hippocampus #dopamine levels and task. (nature.com/articles/s42003-022) Rats tended to live on the high-DA (place cells are stable) side while mice tended to live on the low-DA (place cells are unstable) side. But both could be manipulated with tasks and #dopamine (ant)agonists. I don't know if anyone explicitly looked at this.

  11. @elduvelle_neuro @Andrewpapale
    @BrianMSweis

    #CrossSpecies #neuroscience

    As Andy Papale said, we have a bunch of papers with both rats and mice on the #RestaurantRow task. (The data is all in nature.com/articles/s42003-022, and publicly available.) Generally, we talk about similarities, but mice learn slower. Rats show the transition from wait zone to #precommitment in the offer zone in a few days, while mice take a lot longer.

    Another space where I think there have been rat and mouse comparisons (although I don't find any explicit comparisons) is in the place field stability literature. My memory is that Cliff Kentros had really cool data on (#PlaceCell) #PlaceField stability as a function of #hippocampus #dopamine levels and task. (nature.com/articles/s42003-022) Rats tended to live on the high-DA (place cells are stable) side while mice tended to live on the low-DA (place cells are unstable) side. But both could be manipulated with tasks and #dopamine (ant)agonists. I don't know if anyone explicitly looked at this.

  12. @elduvelle_neuro @Andrewpapale
    @BrianMSweis

    #CrossSpecies #neuroscience

    As Andy Papale said, we have a bunch of papers with both rats and mice on the #RestaurantRow task. (The data is all in nature.com/articles/s42003-022, and publicly available.) Generally, we talk about similarities, but mice learn slower. Rats show the transition from wait zone to #precommitment in the offer zone in a few days, while mice take a lot longer.

    Another space where I think there have been rat and mouse comparisons (although I don't find any explicit comparisons) is in the place field stability literature. My memory is that Cliff Kentros had really cool data on (#PlaceCell) #PlaceField stability as a function of #hippocampus #dopamine levels and task. (nature.com/articles/s42003-022) Rats tended to live on the high-DA (place cells are stable) side while mice tended to live on the low-DA (place cells are unstable) side. But both could be manipulated with tasks and #dopamine (ant)agonists. I don't know if anyone explicitly looked at this.

  13. @elduvelle_neuro @Andrewpapale
    @BrianMSweis

    #CrossSpecies #neuroscience

    As Andy Papale said, we have a bunch of papers with both rats and mice on the #RestaurantRow task. (The data is all in nature.com/articles/s42003-022, and publicly available.) Generally, we talk about similarities, but mice learn slower. Rats show the transition from wait zone to #precommitment in the offer zone in a few days, while mice take a lot longer.

    Another space where I think there have been rat and mouse comparisons (although I don't find any explicit comparisons) is in the place field stability literature. My memory is that Cliff Kentros had really cool data on (#PlaceCell) #PlaceField stability as a function of #hippocampus #dopamine levels and task. (nature.com/articles/s42003-022) Rats tended to live on the high-DA (place cells are stable) side while mice tended to live on the low-DA (place cells are unstable) side. But both could be manipulated with tasks and #dopamine (ant)agonists. I don't know if anyone explicitly looked at this.

  14. @elduvelle_neuro @Andrewpapale
    @BrianMSweis

    #CrossSpecies #neuroscience

    As Andy Papale said, we have a bunch of papers with both rats and mice on the #RestaurantRow task. (The data is all in nature.com/articles/s42003-022, and publicly available.) Generally, we talk about similarities, but mice learn slower. Rats show the transition from wait zone to #precommitment in the offer zone in a few days, while mice take a lot longer.

    Another space where I think there have been rat and mouse comparisons (although I don't find any explicit comparisons) is in the place field stability literature. My memory is that Cliff Kentros had really cool data on (#PlaceCell) #PlaceField stability as a function of #hippocampus #dopamine levels and task. (nature.com/articles/s42003-022) Rats tended to live on the high-DA (place cells are stable) side while mice tended to live on the low-DA (place cells are unstable) side. But both could be manipulated with tasks and #dopamine (ant)agonists. I don't know if anyone explicitly looked at this.

  15. @elduvelle_neuro

    Yes, the effect of reward on replay is more nuanced. There are changes in rate across the waiting period and one needs to take into account these changes to see effects.

    My memory is that the Ambrose paper only looked at rewarded vs non-reward, which doesn't get at the real issue (which is value and changes in value).

    Take a look at B. Schmidt, A. D. Redish (2021) “Disrupting the medial prefrontal cortex with DREADDs alters hippocampal sharp-wave ripples and their associated cognitive processes” Hippocampus. 31(10):1051-1067.onlinelibrary.wiley.com/doi/10 for a more nuanced story.

    #hippocampus #replay #neuroscience
    #RestaurantRow

  16. @elduvelle_neuro

    Yes, the effect of reward on replay is more nuanced. There are changes in rate across the waiting period and one needs to take into account these changes to see effects.

    My memory is that the Ambrose paper only looked at rewarded vs non-reward, which doesn't get at the real issue (which is value and changes in value).

    Take a look at B. Schmidt, A. D. Redish (2021) “Disrupting the medial prefrontal cortex with DREADDs alters hippocampal sharp-wave ripples and their associated cognitive processes” Hippocampus. 31(10):1051-1067.onlinelibrary.wiley.com/doi/10 for a more nuanced story.

    #hippocampus #replay #neuroscience
    #RestaurantRow

  17. @elduvelle_neuro

    Yes, the effect of reward on replay is more nuanced. There are changes in rate across the waiting period and one needs to take into account these changes to see effects.

    My memory is that the Ambrose paper only looked at rewarded vs non-reward, which doesn't get at the real issue (which is value and changes in value).

    Take a look at B. Schmidt, A. D. Redish (2021) “Disrupting the medial prefrontal cortex with DREADDs alters hippocampal sharp-wave ripples and their associated cognitive processes” Hippocampus. 31(10):1051-1067.onlinelibrary.wiley.com/doi/10 for a more nuanced story.

    #hippocampus #replay #neuroscience
    #RestaurantRow

  18. @elduvelle_neuro

    Yes, the effect of reward on replay is more nuanced. There are changes in rate across the waiting period and one needs to take into account these changes to see effects.

    My memory is that the Ambrose paper only looked at rewarded vs non-reward, which doesn't get at the real issue (which is value and changes in value).

    Take a look at B. Schmidt, A. D. Redish (2021) “Disrupting the medial prefrontal cortex with DREADDs alters hippocampal sharp-wave ripples and their associated cognitive processes” Hippocampus. 31(10):1051-1067.onlinelibrary.wiley.com/doi/10 for a more nuanced story.

    #hippocampus #replay #neuroscience
    #RestaurantRow

  19. @elduvelle_neuro

    Yes, the effect of reward on replay is more nuanced. There are changes in rate across the waiting period and one needs to take into account these changes to see effects.

    My memory is that the Ambrose paper only looked at rewarded vs non-reward, which doesn't get at the real issue (which is value and changes in value).

    Take a look at B. Schmidt, A. D. Redish (2021) “Disrupting the medial prefrontal cortex with DREADDs alters hippocampal sharp-wave ripples and their associated cognitive processes” Hippocampus. 31(10):1051-1067.onlinelibrary.wiley.com/doi/10 for a more nuanced story.

    #hippocampus #replay #neuroscience
    #RestaurantRow