样本缩减误差公式的修正因子

IF 0.2 Q4 FORESTRY Lesnoy Zhurnal-Forestry Journal Pub Date : 2023-02-20 DOI:10.21440/0536-1028-2023-1-66-77
V. Kozin, A. Komlev, E. Stupakova
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引用次数: 0

摘要

介绍。得到了可以计算随机抽样误差的理论结果。确定抽样误差的主要计算公式之一是抽样缩减误差公式。由该公式确定的抽样误差与实验确定的误差不同。样品减少误差由几个组成部分组成,在开发测试过程的方法学支持时,需要对其进行单独的定量确定。要在实验中分别确定所有这些成分是不可能的。有必要确定指定配方中各组分的比例。研究方法。样品还原误差,分析确定,是最小可能的还原误差,当这个操作是理想的执行。为了考虑执行还原操作的理想条件的偏差,有必要通过实验估计实际偏差的量,并将其与理论结果联系起来。由此可以得到修正系数的值,并将其输入到计算约简误差的公式中。为了消除测量质量分数方法误差的实验测定,应在带有标记物的人工样品上进行校正系数测定的实验。研究过程。用标记物减少样品的实验。对同一样品进行了480次还原,结果表明,还原样品中标记物数量的理论分布与实验分布符合。正确形状标记的实验校正系数为1.3。在与样品材料粒度组成匹配的标记物实验中,该系数为2.0。在重现性条件下,校正因子的平均值为2.13。结果和分析。通过对样品进行多次还原的两次实验,发现再现性条件下的校正因子应在1.3 ~ 2.0之间。关于国际和俄罗斯标准中再现性和可重复性误差差异的类似信息表明,为了从理论公式转变为实际再现性误差,应该引入2.0到3.0的修正系数。结论。在还原误差公式中引入修正系数,可以计算样品还原的真实误差,并根据计算结果对矿产品检测结果进行量化。
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Correction factor to the formula of sample reduction error
Introduction. Theoretical results have been obtained that allow calculating random sampling errors. One of the main calculation formulas for determining the sampling error is the sample reduction error formula. The sampling errors determined by this formula differ from the errors determined experimentally. The sample reduction error consists of several components, a separate quantitative determination of which is necessary when developing methodological support for testing processes. It is impossible to determine all these components separately from each other experimentally. It is necessary to determine the ratio of the components of the specified formula. Methods of research. The sample reduction error, determined analytically, is the minimum possible reduction error when this operation is ideally performed. To take into account the deviation from the ideal conditions for performing the reduction operation, it is necessary to experimentally estimate the amount of the actual deviation and link it with the theoretical result. As a result, the value of the correction factor can be obtained, which should be entered into the formula for calculating the reduction error. In order to eliminate the need for experimental determination of the error of the method of measuring the mass fraction, experiments to determine the correction factor should be performed on artificial samples with markers. Research procedure. Experiments were performed to reduce samples with markers. 480 reductions of the same sample were performed, which showed the coincidence of the theoretical and experimental distributions of the number of markers in the reduced samples. The correction factor in the experiment with markers of the correct shape was 1.3. The same coefficient in the experiment with markers whose granulometric composition match with that of the sample material was 2.0. The average value of the correction factor in reproducibility conditions was 2.13. Results and analysis. As a result of two experiments on multiple reduction of the sample, it was found that the correction factor under reproducibility conditions should be within 1.3 and 2.0. Similar information about the differences in reproducibility and repeatability errors in international and Russian standards shows that in order to move from a theoretical formula to a real reproducibility error, a correction factor from 2.0 to 3.0 should be introduced. Conclusions. The introduction of correction coefficients into the reduction error formula makes it possible to calculate the real errors of sample reduction, as well as quantify the results of mineral products testing based on the calculation.
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