Image 12_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Table 1_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.docx by Yaping Chu (789771)

Image 14_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 1_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 11_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 16_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 13_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 3_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 15_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 2_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Image 10_Decreased neuronal and increased endothelial fractalkine expression are associated with neuroinflammation in Parkinson’s disease and related disorders.tif by Yaping Chu (789771)

Heatmap of the relationship between age and gene expression in the different monocyte subtypes, separated by biological sex. by Juliane F. Tampé (19976538)

Occurrence of subcortical immature neurons (scINs) in the amygdala of mouse and primates: relationship with evolution of subnuclei scaling and cortical connectomics. by Marco Ghibaudi (16701750)

Coherence of SCN metabolic pathways changes during development. by Martin Sládek (130663)

Primers for quantitative real-time PCR. by Ya-nan Hu (12508990)

“…In parallel, bioinformatics tools were employed to predict structural and functional changes in the mutant LDLR.</p><p>Results</p><p>Immunofluorescence analysis revealed no significant difference in the intracellular localization of the p.Gly343Ser mutation, whereas protein expression of the p.Ala627Thr mutation was decreased and predominantly localized in the cytoplasm. …”

Proposed model of how morphological plasticity contributes to echinocandin tolerance acquisition in <i>C. tropicalis</i> clinical isolates. by Yongqin Wu (272012)

PARP9 knockdown promotes apoptosis and DNA damage. by Yating Li (1819822)

Image 1_The gut microbiome: a vital link to hyperuricemia, gout and acute flares?.pdf by Wei Wang (17594)

Schematic model depicting the relationship between lipids and proteins by target gene knockdown. by Takuya Kitamoto (11721639)

Study group background characteristics. by Zicheng Hu (3825313)

“…In blood, neopterin concentrations showed a similar, though more restricted elevation with CD4 decline but were notably increased in both the <b><i>CD4 < 50</i></b> and <b><i>HAD</i></b> groups, presumably indicating systemic macrophage activation in these settings that either links these two sites of infection or marks parallel changes in myeloid cell populations in the CNS and systemically. …”