PubMed Mentions
The links below are to publications on PubMed referring to GIFTI. This list is gathered weekly from PubMed automatically.
| Publication/References | |
| Organization of the Human Frontal Pole Revealed by Large-Scale DTI-Based Connectivity: Implications for Control of Behavior. Description: Orr, Joseph M, et al. Organization of the Human Frontal Pole Revealed by Large-Scale DTI-Based Connectivity: Implications for Control of Behavior. ''PLoS One''. 2015; '''10''' (5):e0124797 | |
| The topography of frequency and time representation in primate auditory cortices. Description: Baumann, Simon, et al. The topography of frequency and time representation in primate auditory cortices. ''Elife''. 2015 Jan 15; '''4''': | |
| Sensor space group analysis for fNIRS data. Description: Tak, S, et al. Sensor space group analysis for fNIRS data. ''J Neurosci Methods''. 2016 May 1; '''264''': 103-112 | |
| A comparison of in vivo MRI based cortical myelin mapping using T1w/T2w and R1 mapping at 3T. Description: Shams, Zahra, et al. A comparison of in vivo MRI based cortical myelin mapping using T1w/T2w and R1 mapping at 3T. ''PLoS One''. 2019; '''14''' (7):e0218089 | |
| Biomarkers of Parkinson's disease: Striatal sub-regional structural morphometry and diffusion MRI. Description: Khan, Ali R, et al. Biomarkers of Parkinson's disease: Striatal sub-regional structural morphometry and diffusion MRI. ''Neuroimage Clin''. 2019; '''21''': 101597 | |
| Detecting differences with magnetoencephalography of somatosensory processing after tactile and electrical stimuli. Description: Hautasaari, Pekka, et al. Detecting differences with magnetoencephalography of somatosensory processing after tactile and electrical stimuli. ''J Neurosci Methods''. 2019 Jan 1; '''311''': 331-337 | |
| Visual Organization of the Default Network. Description: Szinte, Martin, et al. Visual Organization of the Default Network. ''Cereb Cortex''. 2020 May 18; '''30''' (6):3518-3527 | |
| Maturation of cortical microstructure and cognitive development in childhood and adolescence: A T1w/T2w ratio MRI study. Description: Norbom, Linn B, et al. Maturation of cortical microstructure and cognitive development in childhood and adolescence: A T1w/T2w ratio MRI study. ''Hum Brain Mapp''. 2020 Aug 3; | |
| Connectomics in Brain Aging and Dementia - The Background and Design of a Study of a Connectome Related to Human Disease. Description: Cohen, Ann D, et al. Connectomics in Brain Aging and Dementia - The Background and Design of a Study of a Connectome Related to Human Disease. ''Front Aging Neurosci''. 2021; '''13''': 669490 | |
| Decomposing complex links between the childhood environment and brain structure in school-aged youth. Description: Hong, Seok-Jun, et al. Decomposing complex links between the childhood environment and brain structure in school-aged youth. ''Dev Cogn Neurosci''. 2021 Jan 22; '''48''': 100919 | |
| Caltech Conte Center, a multimodal data resource for exploring social cognition and decision-making. Description: Kliemann, Dorit, et al. Caltech Conte Center, a multimodal data resource for exploring social cognition and decision-making. ''Sci Data''. 2022 Mar 31; '''9''' (1):138 | |
| Parental socioeconomic status is linked to cortical microstructure and language abilities in children and adolescents. Description: Norbom, Linn B, et al. Parental socioeconomic status is linked to cortical microstructure and language abilities in children and adolescents. ''Dev Cogn Neurosci''. 2022 Aug; '''56''': 101132 | |
| The interindividual variability of multimodal brain connectivity maintains spatial heterogeneity and relates to tissue microstructure. Description: Karahan, Esin, et al. The interindividual variability of multimodal brain connectivity maintains spatial heterogeneity and relates to tissue microstructure. ''Commun Biol''. 2022 Sep 23; '''5''' (1):1007 | |
| An integrated resource for functional and structural connectivity of the marmoset brain. Description: Tian, Xiaoguang, et al. An integrated resource for functional and structural connectivity of the marmoset brain. ''Nat Commun''. 2022 Dec 1; '''13''' (1):7416 | |
| Automated hippocampal unfolding for morphometry and subfield segmentation with HippUnfold. Description: DeKraker, Jordan, et al. Automated hippocampal unfolding for morphometry and subfield segmentation with HippUnfold. ''Elife''. 2022 Dec 15; '''11''': | |
| Mapping myelin in white matter with T1-weighted/T2-weighted maps: discrepancy with histology and other myelin MRI measures. Description: Sandrone, Stefano, et al. Mapping myelin in white matter with T1-weighted/T2-weighted maps: discrepancy with histology and other myelin MRI measures. ''Brain Struct Funct''. 2023 Mar; '''228''' (2):525-535 |