Search alternatives:
teer decrease » greater decrease (Expand Search)
wt decrease » we decrease (Expand Search), _ decrease (Expand Search), nn decrease (Expand Search)
a decrease » _ decrease (Expand Search), _ decreased (Expand Search), _ decreases (Expand Search)
teer decrease » greater decrease (Expand Search)
wt decrease » we decrease (Expand Search), _ decrease (Expand Search), nn decrease (Expand Search)
a decrease » _ decrease (Expand Search), _ decreased (Expand Search), _ decreases (Expand Search)
-
12801
-
12802
-
12803
-
12804
Effects of conivaptan on brain water content (BWC), blood-brain-barrier (BBB) disruption, plasma and urine sodium and osmolality.
Published 2015“…Following MCAO, Evans Blue (EB) extravasation index (I/C) was increased in vehicle treated mice, and reduced in conivaptan treated mice, naïve, n = 5, vehicle, n = 8, Conivaptan 0.2 mg, n = 8. (C, D) Conivaptan treatment of 0.2 mg resulted in an elevation of plasma sodium and osmolality, and decreased urine sodium and osmolality due to aquaresis. …”
-
12805
Correlation between fat fraction and M2BPGi.
Published 2024“…<div><p>Background</p><p>A healthy lifestyle is the most important method for managing nonalcoholic fatty liver disease (NAFLD). …”
-
12806
CONSORT flow diagram.
Published 2024“…<div><p>Background</p><p>A healthy lifestyle is the most important method for managing nonalcoholic fatty liver disease (NAFLD). …”
-
12807
-
12808
-
12809
-
12810
Image 1_A comprehensive immune repertoire signature distinguishes pulmonary infiltration in SARS-CoV-2 Omicron variant infection.jpeg
Published 2024“…</p>Results<p>Patients with pulmonary infiltration exhibit lymphopenia, a decreased proportion of the overall TCR repertoire alongside an increased BCR repertoire, reduced IGHD and IGHM isotype expression, a shorter mean CDR3 length for TRG, and a longer mean length for TRD, as well as diminished clonality and diversity in the TCR/BCR repertoire. …”
-
12811
-
12812
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12813
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12814
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12815
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12816
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12817
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12818
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12819
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”
-
12820
Dynamics of Liquid Transfer from Nanoporous Stamps in High-Resolution Flexographic Printing
Published 2019“…Specifically, we find that the printed ink volume and resulting layer thickness are independent of contact pressure; and that printed layer thickness decreases with retraction speed. Under these conditions, nanoparticle films with controlled thickness in the <100 nm regime can be printed using nanoporous stamp flexography, at speeds commensurate with industrial printing equipment.…”