The present invention is directed to a microbial Cytometric Mock Community for use in flow cytometric analysis, the microbial Cytometric Mock Community comprising or consisting of cells of at least three different microbial species in a pre-defined ratio, wherein the at least three different microbial species are selected such that, when measured using flow cytometry, the specific gate pattern of each microbial species differs significantly from the specific gate pattern of the other microbial species of the microbial Cytometric Mock Community, preferably the at least three different microbial species differ in relative DNA content, relative genomic GC-content, relative cell size, Gram +/− affiliation and/or capacity to form spores. The microbial Cytometric Mock Community shall serve as standardization means that will help ecologists, microbiologists, molecular biologists and flow cytometrists to work on a standardized basis to allow comparison and exchange of data.

In some embodiments, the present disclosure is directed to coatings or thin films comprising a dye or stain embedded within a matrix, e.g. a polymer matrix.

The present invention relates to method for the direct detection and/or quantification of at least one compound with a molecular weight of at least 200, wherein the compound to be detected and/or quantified is a chemically complex molecule, wherein said chemically complex molecule is substituted with at least two groups R, wherein each R group means independently —OH, —OP(O)(OH)2 or —P(O)(OH)2, with the proviso that at least two R are independently selected from —P(O)(OH)2 and —OP(O)(OH)2, wherein the compound or compounds to be detected and/or quantified are within a biological matrix, wherein said biological matrix is a biological fluid, a biological tissue, stomach contents, intestine contents, stool sample or a culture cells, wherein the method comprises performing a chromatography and identifying the retention time and/or the intensity of the signal by means of a mass or radioactivity detector.

The present invention relates to a method for providing a verified analyte measurement of a sample with a chromatography mass spectrometer device, said method comprising the following steps: a) admixing an interferent monitoring compound and, optionally an internal standard, to the sample; b) determining a chromatogram of the sample by acquiring a plurality of data points for signal intensities over time for said interferent monitoring compound, said analyte, and optionally said internal standard; and c) comparing a property of an interferent monitoring compound peak to a property of an internal standard peak and/or to a property of an analyte peak; and to methods and systems related thereto.

Methods and kits for identifying an increased risk of developing preeclampsia in a pregnant woman based on expression pattern of non-coding RNAs in body fluids are provided. In particular, the methods provide information for identifying a pregnant woman as being at risk of developing preeclampsia by analyzing the pattern of non-coding RNAs in body fluids during early stages of pregnancy.

Anti-SARS-CoV-2 fusion peptides are provided. The anti-SARS-CoV-2 fusion peptides include peptide sequences corresponding to the sequence of the SARS-CoV-2 fusion complex heptad repeat domain HR2 and having at least one artificial mutation. The anti-SARS-CoV-2 fusion peptides may be 39-mers, such as peptides #121 (SEQ ID NO: 2) and #125 (SEQ ID NO: 5). These peptides may competitively bind to SARS-CoV-2 and prevent either membrane mediated SARS-CoV-2 fusion, endocytosis-mediated viral entry, or both. The anti-SARS-CoV-2 fusion peptides may be administered to a subject in need thereof to inhibit or prevent SARS-CoV-2 cellular entry.

A composition of a bilimbin stock and a method of preparation are provided. In one aspect of the invention, the composition includes a base solution. The composition further includes a carbonate salt. Additionally, the composition includes bilimbin. Furthermore, the composition includes human serum albumin.

The present disclosure provides methods and kits for detecting an analyte within a sample by using lateral flow testing. Specifically, the present disclosure relates to use of an analyte specific calibration curve for determining quantity of an analyte within a complex sample, wherein the sample is purified/enriched by using a sample preparation method including an affinity resin. The present disclosure further relates to kits including an optional affinity resin, a lateral flow test, and an algorithm corresponding to the analyte specific calibration curve.

The present invention relates to a method for the absolute quantification of one or more MHC molecules in a test sample comprising at least one cell, the method comprising at least the steps of: homogenizing the sample, adding an internal standard to the sample, digesting the homogenized sample with a protease, before or after addition of the internal standard, purifying the sample obtained by the digestion, subjecting the digested sample to a step of chromatography and/or spectrometry analysis, and quantifying the one or more MHC molecules in the test sample Also, the invention relates to method of determining the cell count in a sample. (FIG. 1).

A fusion protein being a lipid-free reference standard having good long-term storability, which is used for measuring the quantity or quality of modified HDL, and a method for accurately, repeatability and reliably measuring high-density lipoprotein using the same. In the fusion protein, a complete protein sequence or partial fragment protein sequence for ApoA I is linked directly or via a spacer to a LOX-1 binding protein sequence that binds to a lectin-like oxidized LDL receptor: LOX-1. The method for measuring a modified high-density lipoprotein in a test sample is a method for measuring a modified high-density lipoprotein through binding of the modified high-density lipoprotein to LOX-1 and an anti-APOA I antibody, wherein, using the fusion protein as a reference standard for the modified high-density lipoprotein, the modified high-density lipoprotein in the test sample is determined by comparison with the reference standard through optical detection and/or radiation dosage detection.