Claudin V is decreased following infection with Mtb. by Amanda S. Latham (12093638)

“…Representative images of the frontal cortex (A–D), cerebral nuclei (F–I), brain stem (K–N), thalamus (P–S), and hippocampus (U–X) 15 days post-infection are shown. …”

TH5487 decreases RSV replication in lungs. by Lang Pan (5145221)

Purine nucleotides are decreased in long-term hypoxia. by Emily B. Cohen (9106088)

Loss of either isoform of PLD decreases phagocytosis. by Wahida H. Ali (286470)

Phenolic compounds’ response to decreased nitrogen concentration. by Christine Becker (827170)

Regions of decreased activity for hf-tRNS. by Catarina Saiote (392177)

Purpose justification by discipline, in decreasing order of justifiability. by Eric P. Sandgren (7542725)

BmVg interacts with SWP12, SWP26 and SWP30. by Chunxia Wang (766713)

<i>N</i>. <i>bombycis</i> infected oocyte from the follicle and nurse cells. by Chunxia Wang (766713)

CRTh2 expression decreases following activation. by Emily MacLean Scott (5478635)

“…<p><b>(A)</b> CRTh2 surface expression on <i>in vitro</i> differentiated CRTh2⁺ Th2 cells decreases following T cell stimulation (n = 8). …”

Madrasin decreases transcription of protein-coding genes. by Michael Tellier (8284752)

Molecular responses to the BADS112A and LY294002 combination therapy with (red) or without (blue) psychological stress. by Xiaoqiang Sun (493308)

Decreasing eight-shape trajectory tracking with DEFT by Subhadeep Kumar (11914031)

“…<p dir="ltr">Demonstration of the DEFT's autonomous motion on a decreasing eight-shape trajectory recorded with its front stereo camera.…”

Reproductive, somatic, and pelage responses to decreasing photoperiods. by Brian J. Prendergast (313680)

Phenothrin sensitivity decreases with age in honey bees. by Frank D. Rinkevich (107592)

Minocycline preserves neuronal integrity and decreases astrogliosis. by Eva-Maria Ratai (353640)

“…</i></b> (<b>A</b>) Frontal cortex SYN levels were decreased in SIV-infected CD8-depleted untreated animals versus uninfected CD8-depleted controls (p = 0.007). …”

Data Sheet 1_The N6-methyladenosine RNA epigenetic modification modulates the amplification of coxsackievirus B1 in human pancreatic beta cells.pdf by Maressa Fernandes Bonfim (6700379)

“…Using small interfering RNA (siRNA) targeting m6A writers and erasers, we observed that downregulation of m6A writers increases CVB1 amplification, while the downregulation of m6A erasers decreases it. …”

Image 2_The N6-methyladenosine RNA epigenetic modification modulates the amplification of coxsackievirus B1 in human pancreatic beta cells.tif by Maressa Fernandes Bonfim (6700379)

“…Using small interfering RNA (siRNA) targeting m6A writers and erasers, we observed that downregulation of m6A writers increases CVB1 amplification, while the downregulation of m6A erasers decreases it. …”

Image 3_The N6-methyladenosine RNA epigenetic modification modulates the amplification of coxsackievirus B1 in human pancreatic beta cells.tif by Maressa Fernandes Bonfim (6700379)

“…Using small interfering RNA (siRNA) targeting m6A writers and erasers, we observed that downregulation of m6A writers increases CVB1 amplification, while the downregulation of m6A erasers decreases it. …”

Image 1_The N6-methyladenosine RNA epigenetic modification modulates the amplification of coxsackievirus B1 in human pancreatic beta cells.tif by Maressa Fernandes Bonfim (6700379)

“…Using small interfering RNA (siRNA) targeting m6A writers and erasers, we observed that downregulation of m6A writers increases CVB1 amplification, while the downregulation of m6A erasers decreases it. …”