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#placecells — Public Fediverse posts

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  1. To any #Hippocampus researchers out there:
    "representational drift" - is it good or bad?

    In the early #PlaceCells days, we would have said a neuron is not a place cell if it's not stable with time.
    Now, drift is often interpreted as a marker of "temporal coding" or "flexibility".
    What do you think?

    #RepresentationalDrift #PlaceCells #Neuroscience

  2. To any #Hippocampus researchers out there:
    "representational drift" - is it good or bad?

    In the early #PlaceCells days, we would have said a neuron is not a place cell if it's not stable with time.
    Now, drift is often interpreted as a marker of "temporal coding" or "flexibility".
    What do you think?

    #RepresentationalDrift #PlaceCells #Neuroscience

  3. To any #Hippocampus researchers out there:
    "representational drift" - is it good or bad?

    In the early #PlaceCells days, we would have said a neuron is not a place cell if it's not stable with time.
    Now, drift is often interpreted as a marker of "temporal coding" or "flexibility".
    What do you think?

    #RepresentationalDrift #PlaceCells #Neuroscience

  4. To any #Hippocampus researchers out there:
    "representational drift" - is it good or bad?

    In the early #PlaceCells days, we would have said a neuron is not a place cell if it's not stable with time.
    Now, drift is often interpreted as a marker of "temporal coding" or "flexibility".
    What do you think?

    #RepresentationalDrift #PlaceCells #Neuroscience

  5. To any #Hippocampus researchers out there:
    "representational drift" - is it good or bad?

    In the early #PlaceCells days, we would have said a neuron is not a place cell if it's not stable with time.
    Now, drift is often interpreted as a marker of "temporal coding" or "flexibility".
    What do you think?

    #RepresentationalDrift #PlaceCells #Neuroscience

  6. …During pursuit, sweeps narrow and track a moving target; after sudden target changes, they reorient before the animal turns; during backward locomotion, they reverse; and even during #REM sleep, sweep structure is modulated.

    A fascinating view of #ThetaSweeps as an attention-like mechanism for querying #CognitiveMaps in real time.

    #Neuroscience #Hippocampus #GridCells #PlaceCells #Navigation

  7. …During pursuit, sweeps narrow and track a moving target; after sudden target changes, they reorient before the animal turns; during backward locomotion, they reverse; and even during #REM sleep, sweep structure is modulated.

    A fascinating view of #ThetaSweeps as an attention-like mechanism for querying #CognitiveMaps in real time.

    #Neuroscience #Hippocampus #GridCells #PlaceCells #Navigation

  8. …During pursuit, sweeps narrow and track a moving target; after sudden target changes, they reorient before the animal turns; during backward locomotion, they reverse; and even during #REM sleep, sweep structure is modulated.

    A fascinating view of #ThetaSweeps as an attention-like mechanism for querying #CognitiveMaps in real time.

    #Neuroscience #Hippocampus #GridCells #PlaceCells #Navigation

  9. …During pursuit, sweeps narrow and track a moving target; after sudden target changes, they reorient before the animal turns; during backward locomotion, they reverse; and even during #REM sleep, sweep structure is modulated.

    A fascinating view of #ThetaSweeps as an attention-like mechanism for querying #CognitiveMaps in real time.

    #Neuroscience #Hippocampus #GridCells #PlaceCells #Navigation

  10. …During pursuit, sweeps narrow and track a moving target; after sudden target changes, they reorient before the animal turns; during backward locomotion, they reverse; and even during #REM sleep, sweep structure is modulated.

    A fascinating view of #ThetaSweeps as an attention-like mechanism for querying #CognitiveMaps in real time.

    #Neuroscience #Hippocampus #GridCells #PlaceCells #Navigation

  11. Finally out, and this sounds like a beautiful one from the Moser lab: New #Science paper (unfortunately behind a paywall💰) on #ThetaSweeps in the #entorhinal-#hippocampal #navigation circuit. In #rats 🧭🐀, these #theta-locked sweeps are not fixed scanning patterns, but can be rapidly redirected toward #behaviorally relevant locations. …

    📄 science.org/doi/10.1126/scienc

    #Neuroscience #Hippocampus #GridCells #PlaceCells

  12. Finally out, and this sounds like a beautiful one from the Moser lab: New #Science paper (unfortunately behind a paywall💰) on #ThetaSweeps in the #entorhinal-#hippocampal #navigation circuit. In #rats 🧭🐀, these #theta-locked sweeps are not fixed scanning patterns, but can be rapidly redirected toward #behaviorally relevant locations. …

    📄 science.org/doi/10.1126/scienc

    #Neuroscience #Hippocampus #GridCells #PlaceCells

  13. Finally out, and this sounds like a beautiful one from the Moser lab: New #Science paper (unfortunately behind a paywall💰) on #ThetaSweeps in the #entorhinal-#hippocampal #navigation circuit. In #rats 🧭🐀, these #theta-locked sweeps are not fixed scanning patterns, but can be rapidly redirected toward #behaviorally relevant locations. …

    📄 science.org/doi/10.1126/scienc

    #Neuroscience #Hippocampus #GridCells #PlaceCells

  14. Finally out, and this sounds like a beautiful one from the Moser lab: New #Science paper (unfortunately behind a paywall💰) on #ThetaSweeps in the #entorhinal-#hippocampal #navigation circuit. In #rats 🧭🐀, these #theta-locked sweeps are not fixed scanning patterns, but can be rapidly redirected toward #behaviorally relevant locations. …

    📄 science.org/doi/10.1126/scienc

    #Neuroscience #Hippocampus #GridCells #PlaceCells

  15. Finally out, and this sounds like a beautiful one from the Moser lab: New #Science paper (unfortunately behind a paywall💰) on #ThetaSweeps in the #entorhinal-#hippocampal #navigation circuit. In #rats 🧭🐀, these #theta-locked sweeps are not fixed scanning patterns, but can be rapidly redirected toward #behaviorally relevant locations. …

    📄 science.org/doi/10.1126/scienc

    #Neuroscience #Hippocampus #GridCells #PlaceCells

  16. 🗺️🐀 How does the #brain map uneven terrain? New paper by @rmgrieves, @elduvelle_neuro & Taube suggests that the #hippocampal map is shaped by terrain #geometry itself, not only by where the animal runs. Slopes, ridges & surface contours may act as spatial structure for #PlaceCells. Read more about in the 🧵👇

    📄 doi.org/10.1126/sciadv.adz9893
    "Hippocampal #PlaceCells map terrain geometry independently of #behavior"

    #Hippocampus #SpatialNavigation #Neuroscience fediscience.org/@rmgrieves/116

  17. 🗺️🐀 How does the #brain map uneven terrain? New paper by @rmgrieves, @elduvelle_neuro & Taube suggests that the #hippocampal map is shaped by terrain #geometry itself, not only by where the animal runs. Slopes, ridges & surface contours may act as spatial structure for #PlaceCells. Read more about in the 🧵👇

    📄 doi.org/10.1126/sciadv.adz9893
    "Hippocampal #PlaceCells map terrain geometry independently of #behavior"

    #Hippocampus #SpatialNavigation #Neuroscience fediscience.org/@rmgrieves/116

  18. 🗺️🐀 How does the #brain map uneven terrain? New paper by @rmgrieves, @elduvelle_neuro & Taube suggests that the #hippocampal map is shaped by terrain #geometry itself, not only by where the animal runs. Slopes, ridges & surface contours may act as spatial structure for #PlaceCells. Read more about in the 🧵👇

    📄 doi.org/10.1126/sciadv.adz9893
    "Hippocampal #PlaceCells map terrain geometry independently of #behavior"

    #Hippocampus #SpatialNavigation #Neuroscience fediscience.org/@rmgrieves/116

  19. 🗺️🐀 How does the #brain map uneven terrain? New paper by @rmgrieves, @elduvelle_neuro & Taube suggests that the #hippocampal map is shaped by terrain #geometry itself, not only by where the animal runs. Slopes, ridges & surface contours may act as spatial structure for #PlaceCells. Read more about in the 🧵👇

    📄 doi.org/10.1126/sciadv.adz9893
    "Hippocampal #PlaceCells map terrain geometry independently of #behavior"

    #Hippocampus #SpatialNavigation #Neuroscience fediscience.org/@rmgrieves/116

  20. 🗺️🐀 How does the #brain map uneven terrain? New paper by @rmgrieves, @elduvelle_neuro & Taube suggests that the #hippocampal map is shaped by terrain #geometry itself, not only by where the animal runs. Slopes, ridges & surface contours may act as spatial structure for #PlaceCells. Read more about in the 🧵👇

    📄 doi.org/10.1126/sciadv.adz9893
    "Hippocampal #PlaceCells map terrain geometry independently of #behavior"

    #Hippocampus #SpatialNavigation #Neuroscience fediscience.org/@rmgrieves/116

  21. RE: fediscience.org/@rmgrieves/116

    “This is a hill I’ll die on!” - says the scientist feeding smelly paste to rats running in a home-made maze with hills and troughs just like the waves in the rat’s brain and the emotions in the scientist’s life… 🏔️ 🌊 🧠

    @rmgrieves 's latest paper is out, with rats on hills, #PlaceCells recordings and modelling looking at how the brain maps real-life environments: Hippocampal place cells map terrain geometry independently of behavior

    It was great fun to work with him and Jeff Taube on this, even with all the emotional rollercoasters (inherent to science-making)!

    #Neuroscience #Hippocampus #3DMapping #NeuroRat #SpatialCognition

  22. RE: fediscience.org/@rmgrieves/116

    “This is a hill I’ll die on!” - says the scientist feeding smelly paste to rats running in a home-made maze with hills and troughs just like the waves in the rat’s brain and the emotions in the scientist’s life… 🏔️ 🌊 🧠

    @rmgrieves 's latest paper is out, with rats on hills, #PlaceCells recordings and modelling looking at how the brain maps real-life environments: Hippocampal place cells map terrain geometry independently of behavior

    It was great fun to work with him and Jeff Taube on this, even with all the emotional rollercoasters (inherent to science-making)!

    #Neuroscience #Hippocampus #3DMapping #NeuroRat #SpatialCognition

  23. RE: fediscience.org/@rmgrieves/116

    “This is a hill I’ll die on!” - says the scientist feeding smelly paste to rats running in a home-made maze with hills and troughs just like the waves in the rat’s brain and the emotions in the scientist’s life… 🏔️ 🌊 🧠

    @rmgrieves 's latest paper is out, with rats on hills, #PlaceCells recordings and modelling looking at how the brain maps real-life environments: Hippocampal place cells map terrain geometry independently of behavior

    It was great fun to work with him and Jeff Taube on this, even with all the emotional rollercoasters (inherent to science-making)!

    #Neuroscience #Hippocampus #3DMapping #NeuroRat #SpatialCognition

  24. RE: fediscience.org/@rmgrieves/116

    “This is a hill I’ll die on!” - says the scientist feeding smelly paste to rats running in a home-made maze with hills and troughs just like the waves in the rat’s brain and the emotions in the scientist’s life… 🏔️ 🌊 🧠

    @rmgrieves 's latest paper is out, with rats on hills, #PlaceCells recordings and modelling looking at how the brain maps real-life environments: Hippocampal place cells map terrain geometry independently of behavior

    It was great fun to work with him and Jeff Taube on this, even with all the emotional rollercoasters (inherent to science-making)!

    #Neuroscience #Hippocampus #3DMapping #NeuroRat #SpatialCognition

  25. RE: fediscience.org/@rmgrieves/116

    “This is a hill I’ll die on!” - says the scientist feeding smelly paste to rats running in a home-made maze with hills and troughs just like the waves in the rat’s brain and the emotions in the scientist’s life… 🏔️ 🌊 🧠

    @rmgrieves 's latest paper is out, with rats on hills, #PlaceCells recordings and modelling looking at how the brain maps real-life environments: Hippocampal place cells map terrain geometry independently of behavior

    It was great fun to work with him and Jeff Taube on this, even with all the emotional rollercoasters (inherent to science-making)!

    #Neuroscience #Hippocampus #3DMapping #NeuroRat #SpatialCognition

  26. New paper by Maimon et al (Ulanovsky lab): recordings from #bats flying through tunnels up to 200 m reveal a sparse-to-dense transformation between #hippocampal #CA3 and #CA1.

    In small environments, CA3 and CA1 #PlaceCells look similar. At large spatial scales, however, CA3 #neurons mostly show single, ultrasparse #PlaceFields, while CA1 neurons show dense multifield coding.

    🌍 doi.org/10.1038/s41586-026-105

    🧵1/2

    #Neuroscience #Hippocampus #SpatialNavigation #NeuralDynamics

  27. New paper by Maimon et al (Ulanovsky lab): recordings from #bats flying through tunnels up to 200 m reveal a sparse-to-dense transformation between #hippocampal #CA3 and #CA1.

    In small environments, CA3 and CA1 #PlaceCells look similar. At large spatial scales, however, CA3 #neurons mostly show single, ultrasparse #PlaceFields, while CA1 neurons show dense multifield coding.

    🌍 doi.org/10.1038/s41586-026-105

    🧵1/2

    #Neuroscience #Hippocampus #SpatialNavigation #NeuralDynamics

  28. New paper by Maimon et al (Ulanovsky lab): recordings from #bats flying through tunnels up to 200 m reveal a sparse-to-dense transformation between #hippocampal #CA3 and #CA1.

    In small environments, CA3 and CA1 #PlaceCells look similar. At large spatial scales, however, CA3 #neurons mostly show single, ultrasparse #PlaceFields, while CA1 neurons show dense multifield coding.

    🌍 doi.org/10.1038/s41586-026-105

    🧵1/2

    #Neuroscience #Hippocampus #SpatialNavigation #NeuralDynamics

  29. New paper by Maimon et al (Ulanovsky lab): recordings from #bats flying through tunnels up to 200 m reveal a sparse-to-dense transformation between #hippocampal #CA3 and #CA1.

    In small environments, CA3 and CA1 #PlaceCells look similar. At large spatial scales, however, CA3 #neurons mostly show single, ultrasparse #PlaceFields, while CA1 neurons show dense multifield coding.

    🌍 doi.org/10.1038/s41586-026-105

    🧵1/2

    #Neuroscience #Hippocampus #SpatialNavigation #NeuralDynamics

  30. New paper by Maimon et al (Ulanovsky lab): recordings from #bats flying through tunnels up to 200 m reveal a sparse-to-dense transformation between #hippocampal #CA3 and #CA1.

    In small environments, CA3 and CA1 #PlaceCells look similar. At large spatial scales, however, CA3 #neurons mostly show single, ultrasparse #PlaceFields, while CA1 neurons show dense multifield coding.

    🌍 doi.org/10.1038/s41586-026-105

    🧵1/2

    #Neuroscience #Hippocampus #SpatialNavigation #NeuralDynamics

  31. Sometimes you wonder why the labs with all the funding (not just this one! This is just one example) do not do slightly more risky experiments instead of rediscovering the wheel.. 🤔 This is something anyone who records in hippocampus has observed and there's even specific papers about it.

    Place cells in CA1 lack topographical organization of firing locations

    See for example Redish et al., 2001: Independence of Firing Correlates of Anatomically Proximate Hippocampal Pyramidal Cells from @adredish (at least it is cited)

    #PlaceCells #Hippocampus #SpatialCognition

  32. Sometimes you wonder why the labs with all the funding (not just this one! This is just one example) do not do slightly more risky experiments instead of rediscovering the wheel.. 🤔 This is something anyone who records in hippocampus has observed and there's even specific papers about it.

    Place cells in CA1 lack topographical organization of firing locations

    See for example Redish et al., 2001: Independence of Firing Correlates of Anatomically Proximate Hippocampal Pyramidal Cells from @adredish (at least it is cited)

    #PlaceCells #Hippocampus #SpatialCognition

  33. Sometimes you wonder why the labs with all the funding (not just this one! This is just one example) do not do slightly more risky experiments instead of rediscovering the wheel.. 🤔 This is something anyone who records in hippocampus has observed and there's even specific papers about it.

    Place cells in CA1 lack topographical organization of firing locations

    See for example Redish et al., 2001: Independence of Firing Correlates of Anatomically Proximate Hippocampal Pyramidal Cells from @adredish (at least it is cited)

    #PlaceCells #Hippocampus #SpatialCognition

  34. Sometimes you wonder why the labs with all the funding (not just this one! This is just one example) do not do slightly more risky experiments instead of rediscovering the wheel.. 🤔 This is something anyone who records in hippocampus has observed and there's even specific papers about it.

    Place cells in CA1 lack topographical organization of firing locations

    See for example Redish et al., 2001: Independence of Firing Correlates of Anatomically Proximate Hippocampal Pyramidal Cells from @adredish (at least it is cited)

    #PlaceCells #Hippocampus #SpatialCognition

  35. Sometimes you wonder why the labs with all the funding (not just this one! This is just one example) do not do slightly more risky experiments instead of rediscovering the wheel.. 🤔 This is something anyone who records in hippocampus has observed and there's even specific papers about it.

    Place cells in CA1 lack topographical organization of firing locations

    See for example Redish et al., 2001: Independence of Firing Correlates of Anatomically Proximate Hippocampal Pyramidal Cells from @adredish (at least it is cited)

    #PlaceCells #Hippocampus #SpatialCognition

  36. @aheadofthenerve Super nice, thanks for this excellent preprint and explainer thread!
    If you don't mind me asking, how do you think this switch in population code is triggered? Is it just a change in excitatory input patterns to CA1 that overrides an otherwise active place cell network? Or also a change in neuromodulatory input (e.g. dopaminergic burst or so)?

    If ok I'd also add some hashtags for greater reach:
    #neuroscience #newpreprint #tootsuite #hippocampus #placecells #invivo

  37. @aheadofthenerve Super nice, thanks for this excellent preprint and explainer thread!
    If you don't mind me asking, how do you think this switch in population code is triggered? Is it just a change in excitatory input patterns to CA1 that overrides an otherwise active place cell network? Or also a change in neuromodulatory input (e.g. dopaminergic burst or so)?

    If ok I'd also add some hashtags for greater reach:
    #neuroscience #newpreprint #tootsuite #hippocampus #placecells #invivo

  38. @aheadofthenerve Super nice, thanks for this excellent preprint and explainer thread!
    If you don't mind me asking, how do you think this switch in population code is triggered? Is it just a change in excitatory input patterns to CA1 that overrides an otherwise active place cell network? Or also a change in neuromodulatory input (e.g. dopaminergic burst or so)?

    If ok I'd also add some hashtags for greater reach:
    #neuroscience #newpreprint #tootsuite #hippocampus #placecells #invivo

  39. @aheadofthenerve Super nice, thanks for this excellent preprint and explainer thread!
    If you don't mind me asking, how do you think this switch in population code is triggered? Is it just a change in excitatory input patterns to CA1 that overrides an otherwise active place cell network? Or also a change in neuromodulatory input (e.g. dopaminergic burst or so)?

    If ok I'd also add some hashtags for greater reach:
    #neuroscience #newpreprint #tootsuite #hippocampus #placecells #invivo

  40. @aheadofthenerve Super nice, thanks for this excellent preprint and explainer thread!
    If you don't mind me asking, how do you think this switch in population code is triggered? Is it just a change in excitatory input patterns to CA1 that overrides an otherwise active place cell network? Or also a change in neuromodulatory input (e.g. dopaminergic burst or so)?

    If ok I'd also add some hashtags for greater reach:
    #neuroscience #newpreprint #tootsuite #hippocampus #placecells #invivo

  41. Which of these famous "spatial cell" type is better?

    Well, which is your favourite anyway? Yes it's a silly question

    #SillyPoll #Neuroscience #PlaceCells #GridCells #BorderCells #BVCs #HeadDirectionCells

  42. Which of these famous "spatial cell" type is better?

    Well, which is your favourite anyway? Yes it's a silly question

    #SillyPoll #Neuroscience #PlaceCells #GridCells #BorderCells #BVCs #HeadDirectionCells

  43. Which of these famous "spatial cell" type is better?

    Well, which is your favourite anyway? Yes it's a silly question

    #SillyPoll #Neuroscience #PlaceCells #GridCells #BorderCells #BVCs #HeadDirectionCells

  44. Here's a very interesting paper from the #KeinathLab:

    Environmental representations in mouse hippocampal CA1 reflect the predictive structure of navigation

    In the absence of task or reward, #PlaceCells appear to reflect the past history of behavioural biases, i.e. the accumulated past paths taken by each individual mouse. I am actually starting to think that #HippocampalReplay is doing a similar thing - just reflecting an average of the individual's past behaviour, and that all supposed "coding" of reward is purely driven by this (notice how reward "coding" always seems to happen in cases where reward biases the behavioural patterns..) 👀🧠🤔

    #Neuroscience #Hippocampus #NeuroMice

  45. Here's a very interesting paper from the #KeinathLab:

    Environmental representations in mouse hippocampal CA1 reflect the predictive structure of navigation

    In the absence of task or reward, #PlaceCells appear to reflect the past history of behavioural biases, i.e. the accumulated past paths taken by each individual mouse. I am actually starting to think that #HippocampalReplay is doing a similar thing - just reflecting an average of the individual's past behaviour, and that all supposed "coding" of reward is purely driven by this (notice how reward "coding" always seems to happen in cases where reward biases the behavioural patterns..) 👀🧠🤔

    #Neuroscience #Hippocampus #NeuroMice

  46. Here's a very interesting paper from the #KeinathLab:

    Environmental representations in mouse hippocampal CA1 reflect the predictive structure of navigation

    In the absence of task or reward, #PlaceCells appear to reflect the past history of behavioural biases, i.e. the accumulated past paths taken by each individual mouse. I am actually starting to think that #HippocampalReplay is doing a similar thing - just reflecting an average of the individual's past behaviour, and that all supposed "coding" of reward is purely driven by this (notice how reward "coding" always seems to happen in cases where reward biases the behavioural patterns..) 👀🧠🤔

    #Neuroscience #Hippocampus #NeuroMice

  47. Here's a very interesting paper from the #KeinathLab:

    Environmental representations in mouse hippocampal CA1 reflect the predictive structure of navigation

    In the absence of task or reward, #PlaceCells appear to reflect the past history of behavioural biases, i.e. the accumulated past paths taken by each individual mouse. I am actually starting to think that #HippocampalReplay is doing a similar thing - just reflecting an average of the individual's past behaviour, and that all supposed "coding" of reward is purely driven by this (notice how reward "coding" always seems to happen in cases where reward biases the behavioural patterns..) 👀🧠🤔

    #Neuroscience #Hippocampus #NeuroMice

  48. 📖 Vaidya et al. investigate how #hippocampal #CA1 #PlaceCells form expanding #memory representations over days. Using longitudinal in vivo recordings, they show that stable #PlaceFields progressively emerge as active cells increase their likelihood of remaining active across sessions. This gradual stabilization hinges on #behavioral‑timescale #SynapticPlasticity, offering a new model of how CA1 memories solidify w/o #CatastrophicOverwriting.

    🌍 nature.com/articles/s41593-025

    #Hippocampus #Neuroscience

  49. 📖 Vaidya et al. investigate how #hippocampal #CA1 #PlaceCells form expanding #memory representations over days. Using longitudinal in vivo recordings, they show that stable #PlaceFields progressively emerge as active cells increase their likelihood of remaining active across sessions. This gradual stabilization hinges on #behavioral‑timescale #SynapticPlasticity, offering a new model of how CA1 memories solidify w/o #CatastrophicOverwriting.

    🌍 nature.com/articles/s41593-025

    #Hippocampus #Neuroscience

  50. 📖 Vaidya et al. investigate how #hippocampal #CA1 #PlaceCells form expanding #memory representations over days. Using longitudinal in vivo recordings, they show that stable #PlaceFields progressively emerge as active cells increase their likelihood of remaining active across sessions. This gradual stabilization hinges on #behavioral‑timescale #SynapticPlasticity, offering a new model of how CA1 memories solidify w/o #CatastrophicOverwriting.

    🌍 nature.com/articles/s41593-025

    #Hippocampus #Neuroscience

  51. 📖 Vaidya et al. investigate how #hippocampal #CA1 #PlaceCells form expanding #memory representations over days. Using longitudinal in vivo recordings, they show that stable #PlaceFields progressively emerge as active cells increase their likelihood of remaining active across sessions. This gradual stabilization hinges on #behavioral‑timescale #SynapticPlasticity, offering a new model of how CA1 memories solidify w/o #CatastrophicOverwriting.

    🌍 nature.com/articles/s41593-025

    #Hippocampus #Neuroscience

  52. Heading off to the #EBBS2025 conference in Bordeaux!
    I will present a poster there on our latest #HippocampalReplay findings (replay does not do planning, but seems to support reward-learning instead, in a flexible spatial planning task), and co-lead a symposium with the great John Widloski, also on replay!
    We have an amazing speaker list with John himself, Lisa Genzel, Jacob Bakermans and Elisa Massi!

    Check the full programme here: ebbs2025.azuleon.org/programme

    Will you be there?!

    #Neuroscience #NeuroConf #PlaceCells #Hippocampus

  53. Heading off to the #EBBS2025 conference in Bordeaux!
    I will present a poster there on our latest #HippocampalReplay findings (replay does not do planning, but seems to support reward-learning instead, in a flexible spatial planning task), and co-lead a symposium with the great John Widloski, also on replay!
    We have an amazing speaker list with John himself, Lisa Genzel, Jacob Bakermans and Elisa Massi!

    Check the full programme here: ebbs2025.azuleon.org/programme

    Will you be there?!

    #Neuroscience #NeuroConf #PlaceCells #Hippocampus