Recent proteomic analysis of mouse brain indicated that the mitochondrial metabolic proteome changes concomitant with age, including many ETC components and Tfam (Stauch et al., ).
There was no discernible difference detected in endothelial cell staining by FPL in α-Gal A deficient vs. wild-type mouse brain (indicated by green arrowheads in cerebellum, Figure 3b, f).
The expression patterns of ERα and ERβ, respectively, based on mRNA, autoradiographic or immunohistochemical studies of rat and mouse brain, indicate that there is selective expression of one of the two ER subtypes in certain areas of the brain, but that there are also areas where they seem to be colocalized.
In addition, histochemical analysis of the pons from serial sections of α-Gal A-deficient mouse brain indicated approximately 65percentt of areas of enhanced phosphorylated-α-synuclein immunoreactivity (arrows, Figure 6e) were within and adjacent to eosinophilic axonal spheroids (arrows, Figure 6d).
Representative images from α-Gal A-deficient mouse brain indicate a prominent electron-dense inclusion in the cytoplasm of a cerebellar endothelial cell that contains electron densities, and the presence of both cerebellar and cortical electron-dense osmiophilic inclusions consistent with accumulation of undigested lipopigment.
However, enhanced LAMP-1 immunoreactivity in α-Gal A deficient mouse brains (indicated by red arrowheads in cerebellum, Figure 3a, e) co-localized remarkably with FPL labeling of endothelial cell surfaces (arrows, Figure 3h, p, x, ff).
Furthermore, an immunohistochemical study of the PDGFR-β KO mice brain indicated that the number of parvalbumin (calcium-binding protein -positive (i.e., protein -positiveobutyric acid-ergic) neurons was low in the amygdala, hippocampus, and medial prefrontal cortex.e
Both L-type and T-type VDCCs co-immunoprecipitated with NCAM from the mouse brain lysates indicating that NCAM forms a molecular complex with VDCCs [ 86].
In-situ hybridization of Kiaa0319 on sections of mouse and human brain indicated that Kiaa0319 is expressed during mouse and human fetal brain development, and is involved in neuronal migration for formation of the cerebral neocortex [ 9].
Protein extracts from the four different WT or DKO mouse brains (as indicated; E18.5) were assessed, and γ-TUBULIN was used as a normalizing control.
