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Internal medicine was the ordering department with the highest rate of appropriateness (88.1%). The outpatient clinic was the location with the highest adherence (85.9%), whereas the intensive care unit had the lowest (70%; p = 0.03). The reasons for most appropriate and inappropriate transfusions were asymptomatic anemia with a hemoglobin below (60.6%) or above (69.6%) 7 g/dL in patients without cardiac disease, respectively. Overtransfusion was present in 22% of episodes. CONCLUSION RBC transfusion in AL patients reflected good adherence to guidelines. However, continuing education in transfusion medicine and prospective chart auditing are needed to improve adherence to established guidelines. © 2020 AABB.BACKGROUND Umbilical cord blood has become an important source of hematopoietic stem and progenitor cells for therapeutic applications. However, cord blood banking (CBB) grapples with issues related to economic viability, partially due to high discard rates of cord blood units (CBUs) that lack sufficient total nucleated cells for storage or therapeutic use. Currently, there are no methods available to assess the likelihood of CBUs meeting storage criteria noninvasively at the collection site, which would improve CBB efficiency and economic viability. MATERIALS AND METHODS To overcome this limitation, we apply a novel label-free optical imaging method, called quantitative oblique back-illumination microscopy (qOBM), which yields tomographic phase and absorption contrast to image blood inside collection bags. An automated segmentation algorithm was developed to count white blood cells and red blood cells (RBCs) and assess hematocrit. Fifteen CBUs were measured. RESULTS qOBM clearly differentiates between RBCs and nucleated cells. The cell-counting analysis shows an average error of 13% compared to hematology analysis, with a near-perfect, one-to-one relationship (slope = 0.94) and strong correlation coefficient (r = 0.86). Preliminary results to assess hematocrit also show excellent agreement with expected values. Acquisition times to image a statistically significant number of cells per CBU were approximately 1 minute. CONCLUSION qOBM exhibits robust performance for quantifying blood inside collection bags. Because the approach is automated and fast, it can potentially quantify CBUs within minutes of collection, without breaching the CBUs' sterile environment. qOBM can reduce costs in CBB by avoiding processing expenses of CBUs that ultimately do not meet storage criteria. © 2020 AABB.BACKGROUND AND AIMS The role of the intestinal microbiome in alcoholic hepatitis is not established. The aims of this study were to (1) characterize the fecal microbial ecology associated with alcoholic hepatitis, (2) relate microbiome changes to disease severity and (3) infer the functional relevance of shifts in microbial ecology. METHODS The fecal microbiome in patients with moderate or severe alcoholic hepatitis (MAH and SAH) was compared to healthy (HC) and heavy drinking controls (HDC). Microbial taxa were identified by 16S pyrosequencing. Functional metagenomics was performed using PICRUSt. Fecal short chain fatty acids (SCFA) were measured using an LC/MS platform. RESULTS 78 participants (HC, n=24; HDC, n=20; MAH, n=10; SAH, n=24) were studied. Heavy drinking had a distinct signature compared to healthy controls with depletion of Bacteroidetes (46% vs 26%; p=0.01). Alcoholic hepatitis was associated with a distinct microbiome signature compared to heavy drinking controls (AUC=0.826); differential abundance of Ruminococcaceae, Veillonellaceae, Lachnospiraceae, Porphyromonadaceae, and Rikenellaceae families were the key contributors to these differences. The beta diversity was significantly different amongst the groups (PERMANOVA p less then 0.001). Severe alcoholic hepatitis was associated with increased Proteobacteria (SAH 14% vs. HDC 7% and SAH vs. HC 2%, p=0.20 and 0.01 respectively). Firmicutes abundance declined from HDC to MAH to SAH (63% vs. 53% vs. 48% respectively, p=0.09 HDC vs. selleck inhibitor SAH). Microbial taxa did not distinguish between moderate and severe alcoholic hepatitis (PERMANOVA p= 0.785). SCFA producing bacteria (Lachnospiraceae and Ruminococcaceae) were decreased in alcoholic hepatitis, and a similar decrease was observed in fecal short chain fatty acids among alcoholic hepatitis patients. CONCLUSIONS There are distinct changes in fecal microbiome associated with development of but not severity of alcoholic hepatitis. This article is protected by copyright. All rights reserved.Endocannabinoids are lipid mediators that interact with the same cannabinoid receptors that recognize Δ9 -tetrahydrocannabinol (THC), the psychoactive constituent of marijuana, to induce similar effects in the brain and periphery. Alcohol and THC are both addictive substances whose acute use elicits rewarding effects that can lead to chronic and compulsive use via engaging similar signaling pathways in the brain. In the liver, both alcohol and endocannabinoids activate lipogenic gene expression leading to fatty liver disease. This review focuses on evidence accumulated over the last 2 decades to indicate that both the addictive neural effects of ethanol and its organ toxic effects in the liver and elsewhere are mediated, to a large extent, by endocannabinoids signaling via cannabinoid-1 receptors (CB1 R). The therapeutic potential of CB1 R blockade globally or in peripheral tissues only is also discussed. © Published 2020. This article is a U.S. Government work and is in the public domain in the USA.In this paper, the particle movements in a sessile droplet induced by standing surface acoustic waves (SSAWs) are studied. Tritoroidal particle rings are formed under the interaction of acoustic field and electric field. The experimental results demonstrate that the electric field plays an important role in patterning nanoparticles. The electric field can define the droplet shape due to electrowetting. When the droplet approximates a hemisphere, the acoustic radiation force induced by SSAWs drives the particles to form tritoroidal particle rings. When the droplet approximates a convex plate, the drag force induced by acoustic steaming drives the particle to move. The results will be useful for better understanding the nanoparticle movements in a sessile droplet, which is important to explain the mechanism that SSAWs enhance reaction and crystallization in droplet. © 2020 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.
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