A New Approach to the Assessment of the Analysis Method Accuracy

Elena Bosikova; Marina Polyakova; Gennadiy Rubin

doi:10.4028/www.scientific.net/KEM.743.454

Paper Titles

Comparison of the Projected Results of Coarse Thermal Coal Cleaning in Various Gravity Separation Apparatuses
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The Impact of Microwaves of Different Timing on the Structural and Chemical Characteristics of a Carbonaceous Natural Material
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X-Ray Tomography Simulation Based on Direct Radon Transform
p.445

Numerical Simulation of Heat Transfer in a Closed Two-Phase Thermosiphon
p.449

A New Approach to the Assessment of the Analysis Method Accuracy
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Automatized Control of Polymer Optical Parts
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The Use of Electromagnetic-Acoustic Method for Estimating the Stress-Strain State of the Metallic Elements of Power Equipment
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The Optimization of Parameters of a Technological Tank Battery for Liquefied Petroleum Gas
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Numerical Simulation of the Steady-State Herschel-Bulkley Fluid Flow in a Channel with Sudden Expansion
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HomeKey Engineering MaterialsKey Engineering Materials Vol. 743A New Approach to the Assessment of the Analysis...

A New Approach to the Assessment of the Analysis Method Accuracy

Abstract:

Standardization is the activity of normalizing norms and rules which are in general obligatory for products, services and methods of measurement, control and testing. One of the main demands to the methods of analysis is to ensure a certain level of accuracy. Requirements for the analysis sequence and the accuracy of the measurement data are the result of a compromise between the consumer and the supplier of the analysis. It is suggested to use functional-target analysis in order to determine the relations between the properties and functions of the object. On the example of X-ray fluorescence analysis it is shown that it is possible to formulate the functions of the researched object and analyze the properties which are necessary to put these functions into practice. It allows for determining such indicators of the analytical method that can be assessed quantitatively. Such approach can be used to construct mathematical models to estimate the degree of accuracy required for solving specific problems of consumers of precise measurement information.

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Periodical:

Key Engineering Materials (Volume 743)

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454-458

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.743.454

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Online since:

July 2017

Authors:

Elena Bosikova, Marina Polyakova*, Gennadiy Rubin

Keywords:

Analysis, Function, Method, Properties, X-Ray Fluorescence Analysis

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