Distinct interacting cortical networks for stimulus-response and repetition-suppression

Eckert D, Reichert C, Bien C, Heinze H-J, Knight RT, Deouell LY, Durschmid S (2022)
Communications biology 5(1): 909.

Zeitschriftenaufsatz | Veröffentlicht | Englisch
 
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Autor*in
Eckert, David; Reichert, Christoph; Bien, ChristianUniBi; Heinze, Hans-Jochen; Knight, Robert T; Deouell, Leon Y; Durschmid, Stefan
Abstract / Bemerkung
Non-invasive studies consider the initial neural stimulus response (SR) and repetition suppression (RS) - the decreased response to repeated sensory stimuli - as engaging the same neurons. That is, RS is a suppression of the SR. We challenge this conjecture using electrocorticographic (ECoG) recordings with high spatial resolution in ten patients listening to task-irrelevant trains of auditory stimuli. SR and RS were indexed by high-frequency activity (HFA) across temporal, parietal, and frontal cortices. HFASR and HFARS were temporally and spatially distinct, with HFARS emerging later than HFASR and showing only a limited spatial intersection with HFASR: most HFASR sites did not demonstrate HFARS, and HFARS was found where no HFASR could be recorded. beta activity was enhanced in HFARS compared to HFASR cortical sites. theta activity was enhanced in HFASR compared to HFARS sites. Furthermore, HFASR sites propagated information to HFARS sites via transient theta:beta phase-phase coupling. In contrast to predictive coding (PC) accounts our results indicate that HFASR and HFARS are functionally linked but have minimal spatial overlap. HFASR might enable stable and rapid perception of environmental stimuli across extended temporal intervals. In contrast HFARS might support efficient generation of an internal model based on stimulus history. © 2022. The Author(s).
Erscheinungsjahr
2022
Zeitschriftentitel
Communications biology
Band
5
Ausgabe
1
Art.-Nr.
909
eISSN
2399-3642
Page URI
https://pub.uni-bielefeld.de/record/2965686

Zitieren

Eckert D, Reichert C, Bien C, et al. Distinct interacting cortical networks for stimulus-response and repetition-suppression. Communications biology. 2022;5(1): 909.
Eckert, D., Reichert, C., Bien, C., Heinze, H. - J., Knight, R. T., Deouell, L. Y., & Durschmid, S. (2022). Distinct interacting cortical networks for stimulus-response and repetition-suppression. Communications biology, 5(1), 909. https://doi.org/10.1038/s42003-022-03861-4
Eckert, David, Reichert, Christoph, Bien, Christian, Heinze, Hans-Jochen, Knight, Robert T, Deouell, Leon Y, and Durschmid, Stefan. 2022. “Distinct interacting cortical networks for stimulus-response and repetition-suppression”. Communications biology 5 (1): 909.
Eckert, D., Reichert, C., Bien, C., Heinze, H. - J., Knight, R. T., Deouell, L. Y., and Durschmid, S. (2022). Distinct interacting cortical networks for stimulus-response and repetition-suppression. Communications biology 5:909.
Eckert, D., et al., 2022. Distinct interacting cortical networks for stimulus-response and repetition-suppression. Communications biology, 5(1): 909.
D. Eckert, et al., “Distinct interacting cortical networks for stimulus-response and repetition-suppression”, Communications biology, vol. 5, 2022, : 909.
Eckert, D., Reichert, C., Bien, C., Heinze, H.-J., Knight, R.T., Deouell, L.Y., Durschmid, S.: Distinct interacting cortical networks for stimulus-response and repetition-suppression. Communications biology. 5, : 909 (2022).
Eckert, David, Reichert, Christoph, Bien, Christian, Heinze, Hans-Jochen, Knight, Robert T, Deouell, Leon Y, and Durschmid, Stefan. “Distinct interacting cortical networks for stimulus-response and repetition-suppression”. Communications biology 5.1 (2022): 909.
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