Activity-dependent plasticity of E→E connections in mouse cortex: Hebbian, anti-Hebbian, structural plasticity revealed by chronic two-photon and EM
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Citation anchors captured: 251
Citation contexts
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1Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
7Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
1Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
8Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
9Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
2Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in{ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 3Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
3Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 3Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 4Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 4Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 4Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 4Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
4Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 4Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 5Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2 Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, 5Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3 showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 5Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 5Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
5Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 5Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 6Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 6Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 6Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 The clearest demonstration that experience gates the slice-measured rule is in mouse barrel cortex. 6Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 paired L4 stimulation with post-synaptic spikes in L2/3 pyramidal neurons and reported that, in cortex of undeprived adolescents, the probability of inducing LTP was 33% and the probability of inducing LTD with the same protocol was 49% (see{ref}fig-sec12-stdp-deprivation-barrel). After seven days... -
6Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 STDP induction at mouse barrel-cortex L4→L2/3 synapses with and without whisker deprivation. Per-protocol probabilities of LTP and LTD induction at L4→L2/3 pairs reported by 6Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9. All values are from a single study; the undeprived versus deprived contrast is within-experiment, not cross-laboratory replication. -
7Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0 The STDP rule in mouse cortex is not single-valued: it differs by layer, pathway, and developmental stage, and at L2/3 horizontal connections appears to involve mechanisms partly distinct from those at the L4→L2/3 vertical input. 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1 reported that, although t-LTD at vertical L4→L2/3 inputs requires presynaptic NMDA receptors and is expressed presynaptically, t-LTD at L2/3↔L2/3 horizontal inputs requires p... -
7Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2 The STDP rule in mouse cortex is not single-valued: it differs by layer, pathway, and developmental stage, and at L2/3 horizontal connections appears to involve mechanisms partly distinct from those at the L4→L2/3 vertical input. 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3 reported that, although t-LTD at vertical L4→L2/3 inputs requires presynaptic NMDA receptors and is expressed presynaptically, t-LTD at L2/3↔L2/3 horizontal inputs requires p... -
7Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5 reported that t-LTD at vertical L4→L2/3 inputs depends on presynaptic NMDARs with presynaptic expression, whereas t-LTD at horizontal L2/3↔L2/3 inputs depends on postsynaptic NMDARs with postsynaptic expression. 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 agrees with the postsynaptic locus at the horizontal pathway but specifies a GluN2B requirement, leaving the receptor subunit at the vertical pathway and the relation bet... -
7Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 reported that t-LTD at vertical L4→L2/3 inputs depends on presynaptic NMDARs with presynaptic expression, whereas t-LTD at horizontal L2/3↔L2/3 inputs depends on postsynaptic NMDARs with postsynaptic expression. 7Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference9 agrees with the postsynaptic locus at the horizontal pathway but specifies a GluN2B requirement, leaving the receptor subunit at the vertical pathway and the relation bet... -
1Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference0 A second conflict concerns the presynaptic NMDAR mechanism at the vertical pathway itself. 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference1 argues that L5 pyramid-to-pyramid t-LTD in mouse visual cortex relies on non-ionotropic presynaptic NMDAR signalling via JNK2/STX1a — that is, on a signalling action that does not require Ca²⁺ flux through the receptor — whereas the 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference2 account at the vertical L4→L2/3 pathway invokes a canonical iono... -
1Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference3 A second conflict concerns the presynaptic NMDAR mechanism at the vertical pathway itself. 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference4 argues that L5 pyramid-to-pyramid t-LTD in mouse visual cortex relies on non-ionotropic presynaptic NMDAR signalling via JNK2/STX1a — that is, on a signalling action that does not require Ca²⁺ flux through the receptor — whereas the 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference5 account at the vertical L4→L2/3 pathway invokes a canonical iono... -
1Citation{ref}
sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference6 A second conflict concerns the presynaptic NMDAR mechanism at the vertical pathway itself. 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference7 argues that L5 pyramid-to-pyramid t-LTD in mouse visual cortex relies on non-ionotropic presynaptic NMDAR signalling via JNK2/STX1a — that is, on a signalling action that does not require Ca²⁺ flux through the receptor — whereas the 1Citation{ref}sec-pattern-completionshowed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}sec-paired-recordingare written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...content/12_plasticity.md:line 5Open reference8 account at the vertical L4→L2/3 pathway invokes a canonical iono... -
... 201 additional anchors in refs_json
References
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- [Banerjee2009] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Itami2012] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Banerjee2014] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Thomazeau2025] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Damour2015] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [AndradeTalavera2024] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Lebida2017] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Gambino2012] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Williams2019] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Hedrick2022] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Majewska2006] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Holtmaat2008] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Qiao2022] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Roth2020] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Albarran2021] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Shao2021] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Tsimring2025] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [LopezOrtega2024] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Bauer2024] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Madar2025] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Yaeger2025] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Wright2025] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Loewenstein2015] “{ref}`sec-pattern-completion` showed that recurrent read-outs — pattern completion, replay, sequence reactivation — depend on a structured matrix of E→E weights. This section asks how the weight distributions inventoried in {ref}`sec-paired-recording` are written and updated. The empirical record on mouse cortical E→E plasticity is uneven. Hebbian LTP/LTD and spike-timing-dependent plasticity (STDP) are well-mapped...”
- [Field2020] “Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, [Banerjee2009] showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t...”
- [Araya2014] “Slice paired-recording established that the canonical Hebbian rules — frequency-dependent LTP/LTD and millisecond-precision STDP — operate at multiple mouse cortical E→E layer pairs. At the L4→L2/3 pathway of barrel cortex, [Banerjee2009] showed a double dissociation by NMDAR subunit, with a GluN2A-preferring antagonist blocking t-LTP but leaving t-LTD intact, separating the induction machinery for the two arms of t...”
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