Data from: <b>Selection and genetic variation in plasticity drive age-related decreases in among-individual behavioural correlations</b> by Chang Seok Han (21814121)

“…In addition, genetic variation in age-related plasticity in exploration contributed to a decrease in the magnitude of genetic correlations during the adult stage. …”

CRISPRi interrogation of the <i>Sox10</i> ECs. by Hongjoo An (21703199)

Figure 3 from TGFβ Inhibition during Radiotherapy Enhances Immune Cell Infiltration and Decreases Metastases in Ewing Sarcoma by Jessica D. Daley (22128489)

The effects of cannabinoid receptor antagonists against neuroprotective effects of compound 4f in KA-treated mice. by Naoto Arimura (416442)

Table 1_Fertilization decreases the effect of ammonium nitrogen on microorganisms in Chinese Carex tibetikobresia meadows during rest-grazing.docx by Xuanbo Zhou (19374205)

Data Sheet 1_Dihydroartemisinin decreases pre-existing neutralizing antibodies against adeno-associated virus in challenged mice.pdf by Jingjing Fang (124938)

The interaction effect of CS*SFSF on fluctuations in Pak choi biomass under cycling irrigation (CI) paired with Si fertilization. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on enzyme Activity Fluctuations in Leaves under cycling irrigation (CI) combined with Si fertilization. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on Chlorophyll levels subjected to varied cycling irrigation (CI) modes coupled with silicon supplementation. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on fluctuations in silicon content within soil and leaf under cycling irrigation (CI) coupled with Si fertilization. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on soil ion content under cycling irrigation (CI) combined with Si fertilization. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on SOM and WDPT under cycling irrigation (CI) coupled with Si fertilization. by Jieru Zhao (21262027)

The interaction effect of CS*SFSF on alterations in leaf Malondialdehyde (MDA) and soluble protein levels subjected to cycling irrigation (CI) methods in conjunction with silicon n... by Jieru Zhao (21262027)

Data Sheet 2_Ruxolitinib synergizes with regulatory T cells to improve inflammation but has no added benefits in decreasing albuminuria in SLE.pdf by Mi-Ae Lyu (20413646)

“…UCB-Treg and ruxolitinib combination also downregulates the soluble form of inflammatory cytokines including IFN-γ, IP-10, TNF-α, IL-6, sCD40L, IL-17A, IL-17F, IL-1α, and LIF in cocultures. The addition of ruxolitinib increases UCB-Treg cell persistence in peripheral blood in vivo and decreases the soluble form of human inflammatory cytokines including IFN-γ, TNF-α, and sCD40L in plasma along with improvement of skin lesions in SLE xenografts. …”

Data Sheet 3_Ruxolitinib synergizes with regulatory T cells to improve inflammation but has no added benefits in decreasing albuminuria in SLE.pdf by Mi-Ae Lyu (20413646)

“…UCB-Treg and ruxolitinib combination also downregulates the soluble form of inflammatory cytokines including IFN-γ, IP-10, TNF-α, IL-6, sCD40L, IL-17A, IL-17F, IL-1α, and LIF in cocultures. The addition of ruxolitinib increases UCB-Treg cell persistence in peripheral blood in vivo and decreases the soluble form of human inflammatory cytokines including IFN-γ, TNF-α, and sCD40L in plasma along with improvement of skin lesions in SLE xenografts. …”

Data Sheet 1_Ruxolitinib synergizes with regulatory T cells to improve inflammation but has no added benefits in decreasing albuminuria in SLE.pdf by Mi-Ae Lyu (20413646)

“…UCB-Treg and ruxolitinib combination also downregulates the soluble form of inflammatory cytokines including IFN-γ, IP-10, TNF-α, IL-6, sCD40L, IL-17A, IL-17F, IL-1α, and LIF in cocultures. The addition of ruxolitinib increases UCB-Treg cell persistence in peripheral blood in vivo and decreases the soluble form of human inflammatory cytokines including IFN-γ, TNF-α, and sCD40L in plasma along with improvement of skin lesions in SLE xenografts. …”

Image 2_G. vaginalis increases HSV-2 infection by decreasing vaginal barrier integrity and increasing inflammation in vivo.tif by Nuzhat Rahman (16660416)

“…</p>Results<p>G. vaginalis inoculated mice infected with HSV-2 had significantly decreased survival rates, increased pathology, and higher viral titers than PBS and L. crispatus inoculated mice. …”

Image 5_G. vaginalis increases HSV-2 infection by decreasing vaginal barrier integrity and increasing inflammation in vivo.tif by Nuzhat Rahman (16660416)

“…</p>Results<p>G. vaginalis inoculated mice infected with HSV-2 had significantly decreased survival rates, increased pathology, and higher viral titers than PBS and L. crispatus inoculated mice. …”

Image 3_G. vaginalis increases HSV-2 infection by decreasing vaginal barrier integrity and increasing inflammation in vivo.tif by Nuzhat Rahman (16660416)

“…</p>Results<p>G. vaginalis inoculated mice infected with HSV-2 had significantly decreased survival rates, increased pathology, and higher viral titers than PBS and L. crispatus inoculated mice. …”

Image 1_G. vaginalis increases HSV-2 infection by decreasing vaginal barrier integrity and increasing inflammation in vivo.tif by Nuzhat Rahman (16660416)

“…</p>Results<p>G. vaginalis inoculated mice infected with HSV-2 had significantly decreased survival rates, increased pathology, and higher viral titers than PBS and L. crispatus inoculated mice. …”