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. 2017 Mar 28;38(6):2955–2970. doi: 10.1002/hbm.23565

Table 3.

Correlation results between starting age of training and node degree in musicians

k P‐value x y z BA
Cluster 1
Superior temporal gyrus (L) 68 0.001 −62 −6 −2 48
Rolandic operculum (L) 4 0.001 −62 −2 4 48
Cluster 2
Heschl's gyrus (L) 32 0.001 −48 −12 6 48
Superior temporal gyrus (L) 27 0.001 −52 −16 4 48
Cluster 3
Superior frontal gyrus, medial (L) 24 0.0008 −6 30 46 8
Superior frontal gyrus, medial (R) 9 0.001 4 32 48 8
Cluster 4
Temporal pole, middle temporal gyrus (R) 58 0.001 40 20 −36 38
Cluster 5
Median cingulate and paracingulate gyrus (L) 31 0.001 −2 8 38 24
Median cingulate and paracingulate gyrus (R) 19 0.001 2 10 38 24
Cluster 6
Insula (R) 22 0.0009 40 −6 4 48
Heschl's gyrus (R) 14 0.001 48 −8 8
Superior temporal gyrus (R) 10 0.001 52 −10 2 48
Cluster 7
Inferior frontal gyrus, opercular part (R) 12 0.001 56 16 26 44
Inferior frontal gyrus, triangular part (R) 8 0.0009 56 16 24 44

Brain areas showing significant negative correlation (P < 0.001, cluster corrected at FWE P < 0.05) between the starting age of musical training and the node degrees (musicians). Clusters were obtained via the 18‐connectivity scheme used in SPM. Anatomical labels correspond to the Automated Anatomical Labeling (AAL) [Tzourio‐Mazoyer et al., 2002]. The table reports within‐cluster region size (k; i.e., number of voxels), lowest P‐value per region within the cluster, and its respective MNI coordinates. Small regions within the cluster (k < 4 voxels) were discarded from the resulting table. Abbreviations: L = left, R = right.