Contributions of the parietal cortex to increased efficiency of planning-based action selection

Allbwn ymchwil: Cyfraniad at gyfnodolynErthygladolygiad gan gymheiriaid

StandardStandard

Contributions of the parietal cortex to increased efficiency of planning-based action selection. / Randerath, Jennifer; Valyear, Kenneth; Philip, Benjamin A. et al.
Yn: Neuropsychologia, Cyfrol 105, Rhif October, 10.2017, t. 135-143.

Allbwn ymchwil: Cyfraniad at gyfnodolynErthygladolygiad gan gymheiriaid

HarvardHarvard

APA

CBE

MLA

VancouverVancouver

Randerath J, Valyear K, Philip BA, Frey SH. Contributions of the parietal cortex to increased efficiency of planning-based action selection. Neuropsychologia. 2017 Hyd;105(October):135-143. Epub 2017 Ebr 22. doi: 10.1016/j.neuropsychologia.2017.04.024

Author

Randerath, Jennifer ; Valyear, Kenneth ; Philip, Benjamin A. et al. / Contributions of the parietal cortex to increased efficiency of planning-based action selection. Yn: Neuropsychologia. 2017 ; Cyfrol 105, Rhif October. tt. 135-143.

RIS

TY - JOUR

T1 - Contributions of the parietal cortex to increased efficiency of planning-based action selection

AU - Randerath, Jennifer

AU - Valyear, Kenneth

AU - Philip, Benjamin A.

AU - Frey, Scott H.

N1 - This work was funded by grants from the James S McDonnell Foundation (#220020190) and NIH/NINDS (#NS053962) to S.H.F.

PY - 2017/10

Y1 - 2017/10

N2 - Response selection is foundational to adaptive behavior, and considerable attention has been devoted to investigating this behavior under conditions in which the mapping between stimuli and responses is fixed.Results from prior studies implicate the left supramarginal gyrus (SMg), premotor and prefrontal cortices, as well as the cerebellum in this essential function. Yet, many goal-directed motor behaviors have multiple solutions with flexible mappings between stimuli and responses whose solutions are believed to involve prospective planning. Studies of selection under conditions of flexible mappings also reveal involvement of the left SMg, as well as bilateral premotor, superior parietal cortex (SPL) and pre-supplementary motor (pre-SMA) cortices, along with the cerebellum. This evidence is, however, limited by exclusive reliance on tasks that involve selection in the absence of overt action execution and without complete control of possible confounding effects related to differences in stimulus and response processing demands. Here, we addressthis limitation through use of a novel fMRI repetition suppression (FMRI-RS) paradigm. In our primeprobe design, participants select and overtly pantomime manual object rotation actions when the relationship between stimuli and responses is either flexible (experimental condition) or fixed (controlcondition). When trials were repeated in prime-probe pairs of the experimental condition, we detected improvements in performance accompanied by a significant suppression of blood oxygen-level dependent (BOLD) responses in: left SMg extending into and along the length of the intraparietal sulcus (IPS), right IPS, bilateral caudal superior parietal lobule (cSPL), dorsal premotor cortex (dPMC), pre-SMA, and in the lateral cerebellum. Further, region-of-interest analyses revealed interaction effects of fMRI-RS in the experimental versus control condition within left SMg and cerebellum, as well as in bilateral caudal SPL. These efficiency effects cannot be attributed to the repetition of stimulus or response processing, but instead are planning-specific and generally consistent with earlier findings from conventional fMRI investigations.We conclude that repetition-related increases in the efficiency of planning-based selection appears to be associated with parieto-cerebellar networks.

AB - Response selection is foundational to adaptive behavior, and considerable attention has been devoted to investigating this behavior under conditions in which the mapping between stimuli and responses is fixed.Results from prior studies implicate the left supramarginal gyrus (SMg), premotor and prefrontal cortices, as well as the cerebellum in this essential function. Yet, many goal-directed motor behaviors have multiple solutions with flexible mappings between stimuli and responses whose solutions are believed to involve prospective planning. Studies of selection under conditions of flexible mappings also reveal involvement of the left SMg, as well as bilateral premotor, superior parietal cortex (SPL) and pre-supplementary motor (pre-SMA) cortices, along with the cerebellum. This evidence is, however, limited by exclusive reliance on tasks that involve selection in the absence of overt action execution and without complete control of possible confounding effects related to differences in stimulus and response processing demands. Here, we addressthis limitation through use of a novel fMRI repetition suppression (FMRI-RS) paradigm. In our primeprobe design, participants select and overtly pantomime manual object rotation actions when the relationship between stimuli and responses is either flexible (experimental condition) or fixed (controlcondition). When trials were repeated in prime-probe pairs of the experimental condition, we detected improvements in performance accompanied by a significant suppression of blood oxygen-level dependent (BOLD) responses in: left SMg extending into and along the length of the intraparietal sulcus (IPS), right IPS, bilateral caudal superior parietal lobule (cSPL), dorsal premotor cortex (dPMC), pre-SMA, and in the lateral cerebellum. Further, region-of-interest analyses revealed interaction effects of fMRI-RS in the experimental versus control condition within left SMg and cerebellum, as well as in bilateral caudal SPL. These efficiency effects cannot be attributed to the repetition of stimulus or response processing, but instead are planning-specific and generally consistent with earlier findings from conventional fMRI investigations.We conclude that repetition-related increases in the efficiency of planning-based selection appears to be associated with parieto-cerebellar networks.

KW - Action selection

KW - fMRI repetition suppression

U2 - 10.1016/j.neuropsychologia.2017.04.024

DO - 10.1016/j.neuropsychologia.2017.04.024

M3 - Article

VL - 105

SP - 135

EP - 143

JO - Neuropsychologia

JF - Neuropsychologia

SN - 0028-3932

IS - October

ER -