Devices for Detecting Renal Disorders
a technology for detecting kidney disorders and devices, which is applied in the field of devices for diagnosing, monitoring or determining renal disorders in mammals, can solve the problems of high cost of tests, and inability to detect renal disorders,
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example 1
Least Detectable Dose and Lower Limit of Quantitation of Assay for Analytes Associated with Renal Disorders
[0112]To assess the least detectable doses (LDD) and lower limits of quantitation (LLOQ) of a variety of analytes associated with renal disorders, the following experiment was conducted. The analytes measured were alpha-1 microglobulin (A1M), beta-2 microglobulin (B2M), calbindin, clusterin, CTGF, cystatin C, GST-alpha, KIM-1, NGAL, osteopontin (OPN), THP, TIMP-1, TFF-3, and VEGF.
[0113]The concentrations of the analytes were measured using a capture-sandwich assay using antigen-specific antibodies. For each analyte, a range of standard sample dilutions ranging over about four orders of magnitude of analyte concentration were measured using the assay in order to obtain data used to construct a standard dose response curve. The dynamic range for each of the analytes, defined herein as the range of analyte concentrations measured to determine its dose response curve, is presented ...
example 2
Precision of Assay for Analytes Associated with Renal Disorders
[0120]To assess the precision of an assay used to measure the concentration of analytes associated with renal disorders, the following experiment was conducted. The analytes measured were alpha-1 microglobulin (A1M), beta-2 microglobulin (B2M), calbindin, clusterin, CTGF, cystatin C, GST-alpha, KIM-1, NGAL, osteopontin (OPN), THP, TIMP-1, TFF-3, and VEGF. For each analyte, three concentration levels of standard solution were measured in triplicate during three runs using the methods described in Example 1. The percent errors for each run at each concentration are presented in Table 3 for all of the analytes tested:
TABLE 3Precision of Analyte AssayAverageRun 2InterrunconcentrationRun 1ErrorRun 2ErrorAnalyte(ng / mL)Error (%)(%)Error (%)(%)Calbindin4.0626133653272811603Clusterin4.449263951682291302CTGF1.210174142.5191914141875139GST-alpha3.91475101613710114211668KIM-10.035205130.3245282.90574VEGF65101614534921275,397113149β-...
example 3
Linearity of Assay for Analytes Associated with Renal Disorders
[0122]To assess the linearity of an assay used to measure the concentration of analytes associated with renal disorders, the following experiment was conducted. The analytes measured were alpha-1 microglobulin (A1M), beta-2 microglobulin (B2M), calbindin, clusterin, CTGF, cystatin C, GST-alpha, KIM-1, NGAL, osteopontin (OPN), THP, TIMP-1, TFF-3, and VEGF. For each analyte, three concentration levels of standard solution were measured in triplicate during three runs using the methods described in Example 1. Linearity of the assay used to measure each analyte was determined by measuring the concentrations of standard samples that were serially-diluted throughout the assay range. The % recovery was calculated as observed vs. expected concentration based on the dose-response curve. The results of the linearity analysis are summarized in Table 4.
TABLE 4Linearity of Analyte AssayExpectedObservedRecoveryAnalyteDilutionconcentra...
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