1986
DOI: 10.1016/s0003-2670(00)86467-3
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Pattern recognition based on fuzzy observations for spectroscopic quality control and chromatographic fingerprinting

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Cited by 34 publications
(8 citation statements)
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“…Different schemes of reasoning can be applied, for example the theory of approximate reasoning as further developed by Yager [13]. Approximate reasoning has been already explored in analytical chemistry for reasoning about missing data/information in a data base on pHindicators [14] and is used at present for building an interpretation system in IR-spectroscopy. The concept of fuzzy theory is also used for data analysis in analytical chemistry.…”
Section: Applicationsmentioning
confidence: 99%
“…Different schemes of reasoning can be applied, for example the theory of approximate reasoning as further developed by Yager [13]. Approximate reasoning has been already explored in analytical chemistry for reasoning about missing data/information in a data base on pHindicators [14] and is used at present for building an interpretation system in IR-spectroscopy. The concept of fuzzy theory is also used for data analysis in analytical chemistry.…”
Section: Applicationsmentioning
confidence: 99%
“…We may now characterize the objects in X with respect to the classes of proprieties 5¿, i = 1,.... n. The value xj of the object k with respect to the class 5, is defined as d % = X B¡(yk) xik, i = 1,..., n\j = 1, ...,p (17) <t=i Thus, from the original p d-dimensional objects we have computed p new n-dimensional objects, which correspond to the classes of characteristics B¡s i = 12 .... n Let us now consider the set X = {X'L ..., XP} of the modified objects. We define the fuzzy set C on X, given by c(x,) = c(Ay= i,...,p With the generalized fuzzy n-means algorithm we will determine a fuzzy partition P' = {A\,..., A'} of the class C, by using the objects given by the relation (17). The process continues until two successive partitions of objects (or of characteristics) are close enough to each other.…”
Section: Simultaneous Fuzzy N-means Algorithmmentioning
confidence: 99%
“…53. With the generalized fuzzy n-means algorithm we determine a fuzzy n-partition P(,+1) of the class C by using the characteristics defined in (17).…”
Section: Simultaneous Fuzzy N-means Algorithmmentioning
confidence: 99%
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“…By doing this, each number manipulated also carries information on its spread. Important applications of fuzzy theory so far have been library searching [ 19 ], pattern classification [ 20 ], and calibration with linear and non-linear signal/analyte dependencies in the presence of errors in x and y [ 21 ]. In the future, the incorporation of fuzzy information in expert systems will undoubtedly play a major role.…”
Section: Fuzzy Theory In Analytical Chemistrymentioning
confidence: 99%