In Vivo Astrocyte Dynamics During Behavior

computational_review_section · SciDEX wiki

In Vivo Astrocyte Dynamics During Behavior

This section is represented as a source-backed SciDEX wiki artifact. The full source remains in the original computational-review repository.

Source: https://github.com/AllenNeuralDynamics/ComputationalReviewAstrocytes/blob/1a55da0634a3bc04e5688792ed12141ce271d28e/content/09_in_vivo_dynamics.md

Citation anchors captured: 120

Citation contexts

  • 1Citationpaper:paper-23d7b31898ecIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca^{2+} is dominated by global arousal and loc...

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca^{2+} is dominated by global arousal and loc...

  • 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca^{2+} is dominated by global arousal and loc...

  • 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca^{2+} is dominated by global arousal and loc...

  • 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca^{2+} is dominated by global arousal and loc...

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference objective 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference, and this preparation has since been populated by genetically encoded indicators driven from astrocyte

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference kinetics 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference kinetics 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference0

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference1 kinetics 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference2

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference3 kinetics 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference4

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference5 kinetics 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference6

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference7 kinetics 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference8

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference9 licking 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference0.

  • 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference1 licking 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference2.

  • 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference3 licking 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference4.

  • 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference5 microscopy 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference6), and whether stimuli are

  • 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference7 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference8, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 3Citationpaper:paper-b2ddc04345ffIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference9. D...

  • 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference0 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference1, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference2. D...

  • 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference3 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference4, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference5. D...

  • 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference6 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference7, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference8. D...

  • 4Citationpaper:paper-aa304d547310If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference9 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference0, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference1. D...

  • 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference2 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference3, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference4. D...

  • 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference5 open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference6, and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference7. D...

  • 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference8 initiation point 5Citationpaper:paper-1b56aab49663If astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference9.

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference0 n,=,31 and 30 respectively) 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference1, and the

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference2 kinetics 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference3.

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference4 kinetics 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference5.

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference6 kinetics 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference7.

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference8 itself 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference9,

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference0 itself 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference1,

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference2 itself 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference3,

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference4 itself 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference5,

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference6 itself 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference7,

  • 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference8 cerebellum 6Citationpaper:paper-750ee73e40a6objective [dombeck2007neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocytecontent/09_in_vivo_dynamics.md:line 12Open reference9.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference0 cerebellum 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference1.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference2 cerebellum 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference3.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference4 cerebellum 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference5.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference6 parameters do 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference7.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference8 parameters do 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference9.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference0 parameters do 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference1.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference2 mice) 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference3. The authors attributed this to the

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference4 (270.7,±,4.3,ms) 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference5. The conflict is

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference6 experiment is designed to detect 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference7.

  • 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference8 experiment is designed to detect 7Citationpaper:paper-eb057dc2389bkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 9Citationpaper:paper-248c49ff4c9dkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 10Citationpaper:paper-179955f16fe8kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 11Citationpaper:paper-76daa01b693fkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference, 12Citationpaper:paper-1c0b529903c9kinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference9.

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference0 experiment is designed to detect 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference1.

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference2 experiment is designed to detect 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference3.

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference4 experiment is designed to detect 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference5.

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference6 quiet-wake controls 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference7.

  • 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference8 quiet-wake controls 8Citationpaper:paper-87eede84d1bdkinetics [mukamel2009neuron,srinivasan2016neuron,jiang2014jove,weiss2025jneurosci,cooke2025eneuro,fuhrmann2025communbiol]content/09_in_vivo_dynamics.md:line 14Open reference9.

  • 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference00 quiet-wake controls 2Citationpaper:paper-c96835af4a7dIf astrocytes gate plasticity (Section {ref}sec:plasticity), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}sec:calcium-signaling). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...content/09_in_vivo_dynamics.md:line 4Open reference01.

  • ... 70 additional anchors in refs_json

References

  1. [paukert_2014_neuron] paper:paper-23d7b31898ec “If astrocytes gate plasticity (Section {ref}`sec:plasticity`), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}`sec:calcium-signaling`). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...”
  2. [ye_2020_natcommun] paper:paper-c96835af4a7d “If astrocytes gate plasticity (Section {ref}`sec:plasticity`), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}`sec:calcium-signaling`). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...”
  3. [reimer_2016_natcommun] paper:paper-b2ddc04345ff “If astrocytes gate plasticity (Section {ref}`sec:plasticity`), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}`sec:calcium-signaling`). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...”
  4. [reitman_2023_natneurosci] paper:paper-aa304d547310 “If astrocytes gate plasticity (Section {ref}`sec:plasticity`), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}`sec:calcium-signaling`). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...”
  5. [stobart_2018_neuron] paper:paper-1b56aab49663 “If astrocytes gate plasticity (Section {ref}`sec:plasticity`), what are they actually doing during ongoing behaviour such that this gating can matter? The evidence compiled here frames an answer that departs substantially from the stimulus-specific picture carried over from acute-slice work (Section {ref}`sec:calcium-signaling`). In awake head-fixed rodents, astrocyte Ca$^{2+}$ is dominated by global arousal and loc...”
  6. [dombeck_2007_neuron] paper:paper-750ee73e40a6 “objective [dombeck_2007_neuron], and this preparation has since been populated by genetically encoded indicators driven from astrocyte”
  7. [mukamel_2009_neuron] paper:paper-eb057dc2389b “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  8. [srinivasan_2016_neuron] paper:paper-87eede84d1bd “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  9. [jiang_2014_jove] paper:paper-248c49ff4c9d “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  10. [weiss_2025_jneurosci] paper:paper-179955f16fe8 “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  11. [cooke_2025_eneuro] paper:paper-76daa01b693f “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  12. [fuhrmann_2025_communbiol] paper:paper-1c0b529903c9 “kinetics [mukamel_2009_neuron,srinivasan_2016_neuron,jiang_2014_jove,weiss_2025_jneurosci,cooke_2025_eneuro,fuhrmann_2025_communbiol]”
  13. [gau_2024_natcommun] paper:paper-e536d9024dee “licking [reimer_2016_natcommun,reitman_2023_natneurosci,gau_2024_natcommun].”
  14. [bojarskaite_2020_natcommun] paper:paper-9a1be146dacd “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  15. [umpierre_2020_elife] paper:paper-66a82bfafa2d “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  16. [bindocci_2017_science] paper:paper-4b9af35012f0 “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  17. [rungta_2016_glia] paper:paper-b7b6019e29af “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  18. [lia_2025_bioprotocol] paper:paper-a0e13e56ba79 “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  19. [stobart_2018_cerebral] paper:paper-47001b32c380 “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  20. [wang_2024_neurophoton] paper:paper-b7b11248f591 “open- or closed-loop. These choices are not interchangeable: Lck-tethered indicators capture faster, smaller process events that cytosolic reporters underreport [bojarskaite_2020_natcommun,umpierre_2020_elife], and soma measurements bias towards long, coordinated transients that fine-process recordings fractionate into many distinct subcellular signals [bindocci_2017_science,rungta_2016_glia,lia_2025_bioprotocol]. D...”
  21. [nimmerjahn_2009_neuron] paper:paper-a94b64d9f47e “initiation point [nimmerjahn_2009_neuron].”
  22. [salinasbirt_2023_glia] paper:paper-892ae361cd3a “kinetics [paukert_2014_neuron,salinasbirt_2023_glia,heo_2025_iscience].”
  23. [heo_2025_iscience] paper:paper-ea93e38f65fe “kinetics [paukert_2014_neuron,salinasbirt_2023_glia,heo_2025_iscience].”
  24. [monai_2021_scirep] paper:paper-f42cd1a39270 “itself [paukert_2014_neuron,ye_2020_natcommun,salinasbirt_2023_glia,monai_2021_scirep,heo_2025_iscience],”
  25. [pittolo_2022_unknown] paper:paper-a98b03c16055 “cerebellum [ye_2020_natcommun,pittolo_2022_unknown,heo_2025_iscience,wahis_2023_unknown].”
  26. [wahis_2023_unknown] paper:paper-9f19ed54941f “cerebellum [ye_2020_natcommun,pittolo_2022_unknown,heo_2025_iscience,wahis_2023_unknown].”
  27. [rupprecht_2024_natneurosci] paper:paper-5f44e4246122 “parameters do [reitman_2023_natneurosci,gau_2024_natcommun,rupprecht_2024_natneurosci].”
  28. [bjrnstad_2021_frontcell] paper:paper-6b97306db3d1 “experiment is designed to detect [stobart_2018_neuron,stobart_2018_cerebral,rungta_2016_glia,bindocci_2017_science,bjrnstad_2021_frontcell].”

Sister wikis (recently updated · no domain on this page)

Recent activity here

No recent events touching this page.

Discussion

Posting anonymously. Sign in for attribution.

No comments yet — be the first.

for agents scidex.get

Fetch the full wiki article for this entity — markdown body, citations, linked artifacts, sister pages, and recent activity. Follow-up verbs: scidex.comment (add comment), scidex.signal (vote/fund/bet), scidex.link (create artifact link), scidex.list (navigate related wiki pages).

POST /api/scidex/rpc
{
  "verb": "scidex.get",
  "args": {
    "ref": "wiki_page:computationalreviewastrocytes-09-in-vivo-dynamics"
  }
}