Daniel Weinberger and company have a new installment in-press at Biological Psychiatry in their epic program to untangle the genetic basis of schizophrenia – “Heritability of Brain Morphology Related to Schizophrenia: A Large-Scale Automated Magnetic Resonance Imaging Segmentation Study.” Like all complex illness, schizophrenia is regulated by a variety of environmental sources (perinatal complications, stress & substance abuse are a few) and equally regulated by heritable factors. Although several specific genes for schizophrenia have been painstakingly identified, the genes are expressed widely throughout the brain – making it difficult to pinpoint where in the brain the gene interacts with the environment to exert its detrimental effects. To solve this problem, Weinberger and colleagues pioneered a method known as imaging-genetics where they look at how individual genetic differences correlate with differences in brain structure or functional activity (if you ever have a chance to volunteer for an fMRI brain imaging study – go for it – it’ll be one of the top 10 weirdest experiences of your life). In their latest report, the team pioneers a new “fully-automated whole brain segmentation” technique to show that the genetic factors that put individuals at risk may be functioning vis-a-vis the hippocampus and neocortex. This narrows the search space a lot! and is a major step forward in beginning to localize where in the brain the genetic risk originates.
Localizing anatomical sources of genetic risk in schizophrenia
July 28, 2007 by dendrite
Posted in Cingulate cortex, DLPFC, Frontal cortex, Hippocampus | Tagged Brain, Functional magnetic resonance imaging, Mental health, Neuroimaging, schizophrenia | Leave a Comment
Remarks
Re-Tweetin’
Tweets by genes2brains2meBlog Stats
- 185,881 clickitas
Posting since April 2007
Blogroll
General topics
23andMe Addiction Add new tag aging Anxiety Art Arts autism B. K. S. Iyengar Biology Brain Buddism Central nervous system Cognition comics Consciousness Depression Development DNA Dopamine dualism economics Emotion Empathy Epigenetics evolution fear Frontal lobe Functional magnetic resonance imaging Gene Gene expression Genetics Genetic testing GWAS Health Health care Health insurance Hippocampus History Intelligence Kundalini language Major depressive disorder medication Meditation meme-art Memory Mental disorder Mental health Mind Mutation Nervous system Neural network Neuron Pain parasympathetic nervous system Patañjali Personalized medicine philosophy placebo Psychology Reactive oxygen species Religion and Spirituality Rett Syndrome schizophrenia Social Sciences spirituality Stem cell Stress Suicide synaptogenesis Teachers and Centers Twin Yoga Yoga Sutras of PatanjaliSpecific Items
- 5HTT
- ABCB1
- acetylcholine
- Actin
- ACTN3
- ADH1C
- ADORA2A
- ADRA2A
- AKT
- AMPA receptor
- Amygdala
- Angular gyrus
- ANK3
- APOE
- ARHGAP18
- ASIC1a
- ASPM
- ATXN1
- AVPR1a
- BAF53b
- Basal Ganglia
- BDNF
- CABYR
- CACNA1C
- CACNA2D1
- Caudate nucleus
- CB1 receptor
- CDC34
- CDH13
- Cell adhesion molecules
- Cerebellum
- CHAT
- CHRM3
- CHRNA4
- CHRNA7
- Chromosome structural variants
- Cingulate cortex
- Circadian
- clinical trial
- CNR1
- CNTNAP2
- Collateral sulcus
- COMT
- Corpus callosum
- COX1
- CREB
- CRHR1
- DARPP32
- DAT
- default network
- DISC1
- DLPFC
- DNAJC
- DNMT
- Dopamine
- DPP4
- DRD2
- DRD4
- DTNBP1
- DYRK1A
- EDA2R
- EGR1
- Estrogen
- evolution
- FGF20
- FMR1
- FNBP1L
- FOXA2
- FOXP2
- Frontal cortex
- Frontal pole
- Fusiform gyrus
- G-protein
- GAB2
- GABA
- GABRA2
- GABRG1
- GATA4
- Glucocorticoid receptor
- Glutamate
- GPR6
- GRIA3
- GRIK2
- GTPase
- HDACs
- Hippocampus
- HOXB8
- HRK
- HTR2A
- Hypothalamus
- IL3
- immunity
- Inferior frontal gyrus
- Insula
- Intronic or repetitive sequences
- Kalirin
- KCNA2
- KCNH2
- KCNIP3
- KCNJ6
- Kinesin
- Lateral septum
- Lateral ventricle
- LDB1
- Leptin
- LIMK1
- Locus coeruleus
- MAOA
- MAPK
- MCPH1
- MCR1-4
- MDGA2
- MECP2
- meditation
- MET
- metabolism
- MHC loci
- microRNA
- Middle frontal gyrus
- middle occipital gyrus
- Middle temporal gyrus
- Mindfulness
- Mitochondria
- MKP-1
- Motor cortex
- Myelin
- Neural crest
- NEUROG1
- NLGN3/4
- Noradrenaline
- NPBWR1
- NPSR1
- NRG1
- NRXB1
- NTRK2
- Nucleus accumbens
- NURR1
- Olfactory bulb
- OPRM1
- Orbitofrontal cortex
- OTR
- OXTR
- Parahippocampal gyrus
- Parasympathetic NS
- Parietal cortex
- PARP-1
- PAX6
- PCLO
- PER1
- PINK1
- PLCB1
- Posterior parietal cortex
- PSD95
- Putamen
- quantum physics
- RARB
- RGS2
- RGS4
- Rho GTPase
- RLN
- ROR1
- RORB
- Rostral fronto-occipital fasciculus
- RSRC1
- SAPAP3
- self-awareness
- SEMA(1-7)
- SETDB1
- SEZ6
- SIRT1
- SLC1A1
- SLITRK1
- SNAP25
- SNORD115
- SNRPN
- SOD2
- Somatosensory cortex
- SRPX2
- Stria terminalis
- Striatum
- Substantia nigra
- Subthalamic nucleus
- Superior temporal cortex
- Suprachiasmatic nucleus
- Supramarginal gyrus
- SWI/SNF
- Sylvian fissure
- Telomere
- Temporal lobe
- TGF-alpha
- TH
- Thalamus
- Thap1
- THBS1
- THBS2
- TNF-alpha
- Torsin A
- TPH2
- UBE3A
- UGT2B17
- Uncategorized
- Vagus
- VEGF
- Ventral tegmental area
- VGF
- Visual cortex
- White matter
- Yoga and Meditation
- ZNF804A
Leave a Reply