Heterologous Immunity Triggered by a Single, Latent Virus in <i>Mus musculus</i>: Combined Costimulation- and Adhesion- Blockade Decrease Rejection by Jonathan M. Beus (441623)

“…<div><p>The mechanisms underlying latent-virus-mediated heterologous immunity, and subsequent transplant rejection, especially in the setting of T cell costimulation blockade, remain undetermined. To address this, we have utilized MHV68 to develop a rodent model of latent virus-induced heterologous alloimmunity. …”

Image_5_Eliminating the VGlut2-Dependent Glutamatergic Transmission of Parvalbumin-Expressing Neurons Leads to Deficits in Locomotion and Vocalization, Decreased Pain Sensitivity,... by Diana M. Roccaro-Waldmeyer (5532074)

Image 2_Probiotic Limosilactobacillus reuteri KUB-AC5 decreases urothelial cell invasion and enhances macrophage killing of uropathogenic Escherichia coli in vitro study.tiff by Arishabhas Tantibhadrasapa (13929639)

“…The human bladder epithelial cell line UM-UC-3 was used to assess the adhesion and pathogen-attachment inhibition properties of AC5 on UPEC.</p>Results and discussion<p>Our data showed that AC5 can attach to UM-UC-3 and decrease UPEC attachment in a dose-dependent manner. …”

Table 1_Probiotic Limosilactobacillus reuteri KUB-AC5 decreases urothelial cell invasion and enhances macrophage killing of uropathogenic Escherichia coli in vitro study.xlsx by Arishabhas Tantibhadrasapa (13929639)

“…The human bladder epithelial cell line UM-UC-3 was used to assess the adhesion and pathogen-attachment inhibition properties of AC5 on UPEC.</p>Results and discussion<p>Our data showed that AC5 can attach to UM-UC-3 and decrease UPEC attachment in a dose-dependent manner. …”

Image 1_Probiotic Limosilactobacillus reuteri KUB-AC5 decreases urothelial cell invasion and enhances macrophage killing of uropathogenic Escherichia coli in vitro study.tiff by Arishabhas Tantibhadrasapa (13929639)

“…The human bladder epithelial cell line UM-UC-3 was used to assess the adhesion and pathogen-attachment inhibition properties of AC5 on UPEC.</p>Results and discussion<p>Our data showed that AC5 can attach to UM-UC-3 and decrease UPEC attachment in a dose-dependent manner. …”

Supplemental Figure 5: UAB30 decreased tumor growth in SK-NEP-1 xenografts. from Preclinical Evaluation of UAB30 in Pediatric Renal and Hepatic Malignancies by Alicia M. Waters (9314636)

The impact of the COVID-19 pandemic on the decrease in the use of intensive care units in the postoperative period of anatomic lung resections. A retrospective analysis by ISMAEL RODRIGO DIAS (12990222)

CMV but not TK promoter activity was decreased in ST<i>Hdh</i> Q7/111 and Q111/111 compared to Q7/7 cells. by Matthew Hogel (315470)

Repeated LSPC treatment prolongs survival of and decreases PrP^Res accumulation in a subset of prion-infected mice. by Heather Bender (363996)

Emission spectra of S100A1 fluorescence titrations exhibiting decreasing fluorescence intensities with increasing concentration of S100B at the μM level. by Md. Imran Khan (4853302)

A PPARα Promoter Variant Impairs ERR-Dependent Transactivation and Decreases Mortality after Acute Coronary Ischemia in Patients with Diabetes by Sharon Cresci (53599)

“…Consistent with previous descriptions of PPARα in experimental models and human disease, we describe a novel <em>PPARA</em> promoter SNP that decreases transcriptional activation of <em>PPARA</em> and protects against mortality in diabetic patients after ACS.…”

The major role of <i>sarA</i> in limiting <i>Staphylococcus aureus</i> extracellular protease production <i>in vitro</i> is correlated with decreased virulence in diverse clinical... by Mara J. Campbell (14579826)

Effect of exogenous ERα expression on the ability of Wnt-5a to decrease breast cancer cell invasion. by Janna Sand-Dejmek (449584)

DataSheet_1_UFR2709, a Nicotinic Acetylcholine Receptor Antagonist, Decreases Ethanol Intake in Alcohol-Preferring Rats.docx by Gabriel Quiroz (8068676)

Image_3_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.tif by Graham A. J. Redweik (5648027)

Table_3_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.xlsx by Graham A. J. Redweik (5648027)

Image_2_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.tif by Graham A. J. Redweik (5648027)

Image_1_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.tif by Graham A. J. Redweik (5648027)

Table_1_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.docx by Graham A. J. Redweik (5648027)

Table_2_Evaluation of Live Bacterial Prophylactics to Decrease IncF Plasmid Transfer and Association With Intestinal Small RNAs.docx by Graham A. J. Redweik (5648027)