Subregions of the human superior frontal gyrus and their connections. 2013

Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
Department of Radiology, Tianjin Medical University General Hospital, Tianjin 300052, PR China.

The superior frontal gyrus (SFG) is located at the superior part of the prefrontal cortex and is involved in a variety of functions, suggesting the existence of functional subregions. However, parcellation schemes of the human SFG and the connection patterns of each subregion remain unclear. We firstly parcellated the human SFG into the anteromedial (SFGam), dorsolateral (SFGdl), and posterior (SFGp) subregions based on diffusion tensor tractography. The SFGam was anatomically connected with the anterior and mid-cingulate cortices, which are critical nodes of the cognitive control network and the default mode network (DMN). The SFGdl was connected with the middle and inferior frontal gyri, which are involved in the cognitive execution network. The SFGp was connected with the precentral gyrus, caudate, thalamus, and frontal operculum, which are nodes of the motor control network. Resting-state functional connectivity analysis further revealed that the SFGam was mainly correlated with the cognitive control network and the DMN; the SFGdl was correlated with the cognitive execution network and the DMN; and the SFGp was correlated with the sensorimotor-related brain regions. The SFGam and SFGdl were further parcellated into three and two subclusters that are well corresponding to Brodmann areas. These findings suggest that the human SFG consists of multiple dissociable subregions that have distinct connection patterns and that these subregions are involved in different functional networks and serve different functions. These results may improve our understanding on the functional complexity of the SFG and provide us an approach to investigate the SFG at the subregional level.

UI MeSH Term Description Entries
D007091 Image Processing, Computer-Assisted A technique of inputting two-dimensional or three-dimensional images into a computer and then enhancing or analyzing the imagery into a form that is more useful to the human observer. Biomedical Image Processing,Computer-Assisted Image Processing,Digital Image Processing,Image Analysis, Computer-Assisted,Image Reconstruction,Medical Image Processing,Analysis, Computer-Assisted Image,Computer-Assisted Image Analysis,Computer Assisted Image Analysis,Computer Assisted Image Processing,Computer-Assisted Image Analyses,Image Analyses, Computer-Assisted,Image Analysis, Computer Assisted,Image Processing, Biomedical,Image Processing, Computer Assisted,Image Processing, Digital,Image Processing, Medical,Image Processings, Medical,Image Reconstructions,Medical Image Processings,Processing, Biomedical Image,Processing, Digital Image,Processing, Medical Image,Processings, Digital Image,Processings, Medical Image,Reconstruction, Image,Reconstructions, Image
D008297 Male Males
D009434 Neural Pathways Neural tracts connecting one part of the nervous system with another. Neural Interconnections,Interconnection, Neural,Interconnections, Neural,Neural Interconnection,Neural Pathway,Pathway, Neural,Pathways, Neural
D005260 Female Females
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D000328 Adult A person having attained full growth or maturity. Adults are of 19 through 44 years of age. For a person between 19 and 24 years of age, YOUNG ADULT is available. Adults
D017397 Prefrontal Cortex The rostral part of the frontal lobe, bounded by the inferior precentral fissure in humans, which receives projection fibers from the MEDIODORSAL NUCLEUS OF THE THALAMUS. The prefrontal cortex receives afferent fibers from numerous structures of the DIENCEPHALON; MESENCEPHALON; and LIMBIC SYSTEM as well as cortical afferents of visual, auditory, and somatic origin. Anterior Prefrontal Cortex,Brodmann Area 10,Brodmann Area 11,Brodmann Area 12,Brodmann Area 47,Brodmann's Area 10,Brodmann's Area 11,Brodmann's Area 12,Brodmann's Area 47,Pars Orbitalis,Frontal Sulcus,Gyrus Frontalis Inferior,Gyrus Frontalis Superior,Gyrus Orbitalis,Gyrus Rectus,Inferior Frontal Gyrus,Lateral Orbitofrontal Cortex,Marginal Gyrus,Medial Frontal Gyrus,Olfactory Sulci,Orbital Area,Orbital Cortex,Orbital Gyri,Orbitofrontal Cortex,Orbitofrontal Gyri,Orbitofrontal Gyrus,Orbitofrontal Region,Rectal Gyrus,Rectus Gyrus,Straight Gyrus,Subcallosal Area,Superior Frontal Convolution,Superior Frontal Gyrus,Ventral Medial Prefrontal Cortex,Ventromedial Prefrontal Cortex,Anterior Prefrontal Cortices,Area 10, Brodmann,Area 10, Brodmann's,Area 11, Brodmann,Area 11, Brodmann's,Area 12, Brodmann,Area 12, Brodmann's,Area 47, Brodmann,Area 47, Brodmann's,Area, Orbital,Area, Subcallosal,Brodmanns Area 10,Brodmanns Area 11,Brodmanns Area 12,Brodmanns Area 47,Convolution, Superior Frontal,Convolutions, Superior Frontal,Cortex, Anterior Prefrontal,Cortex, Lateral Orbitofrontal,Cortex, Orbital,Cortex, Orbitofrontal,Cortex, Prefrontal,Cortex, Ventromedial Prefrontal,Cortices, Ventromedial Prefrontal,Frontal Convolution, Superior,Frontal Gyrus, Inferior,Frontal Gyrus, Medial,Frontal Gyrus, Superior,Frontalis Superior, Gyrus,Gyrus, Inferior Frontal,Gyrus, Marginal,Gyrus, Medial Frontal,Gyrus, Orbital,Gyrus, Orbitofrontal,Gyrus, Rectal,Gyrus, Rectus,Gyrus, Straight,Gyrus, Superior Frontal,Inferior, Gyrus Frontalis,Lateral Orbitofrontal Cortices,Olfactory Sulcus,Orbital Areas,Orbital Cortices,Orbital Gyrus,Orbitalis, Pars,Orbitofrontal Cortex, Lateral,Orbitofrontal Cortices,Orbitofrontal Cortices, Lateral,Orbitofrontal Regions,Prefrontal Cortex, Anterior,Prefrontal Cortex, Ventromedial,Prefrontal Cortices, Anterior,Region, Orbitofrontal,Subcallosal Areas,Sulcus, Frontal,Superior Frontal Convolutions,Superior, Gyrus Frontalis,Ventromedial Prefrontal Cortices
D055815 Young Adult A person between 19 and 24 years of age. Adult, Young,Adults, Young,Young Adults
D056324 Diffusion Tensor Imaging The use of diffusion ANISOTROPY data from diffusion magnetic resonance imaging results to construct images based on the direction of the faster diffusing molecules. Diffusion Tractography,DTI MRI,Diffusion Tensor MRI,Diffusion Tensor Magnetic Resonance Imaging,Diffusion Tensor MRIs,Imaging, Diffusion Tensor,MRI, Diffusion Tensor,Tractography, Diffusion

Related Publications

Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
September 2020, Clinical anatomy (New York, N.Y.),
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
August 2007, The Journal of comparative neurology,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
October 2020, Cerebral cortex (New York, N.Y. : 1991),
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
June 2021, World neurosurgery,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
May 2019, Clinical anatomy (New York, N.Y.),
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
February 2023, Human brain mapping,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
November 1977, Brain research,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
January 2023, Journal of neurosciences in rural practice,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
June 2022, Brain imaging and behavior,
Wei Li, and Wen Qin, and Huaigui Liu, and Lingzhong Fan, and Jiaojian Wang, and Tianzi Jiang, and Chunshui Yu
December 2022, Journal of attention disorders,
Copied contents to your clipboard!