2015
DOI: 10.1142/s021962201450059x
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Cardinal and Rank Ordering of Criteria — Addressing Prescription within Weight Elicitation

Abstract: Weight elicitation methods in multi-criteria decision analysis (MCDA) are often cognitively demanding, require too much precision, time and effort. Some of the issues may be remedied by connecting elicitation methods to an inference engine facilitating a quick and easy method for decision-makers to use weaker input statements, yet being able to utilize these statements in a method for decision evaluation. In this paper, we propose a fast and practically useful weight elicitation method, answering to many of th… Show more

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Cited by 14 publications
(9 citation statements)
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“…A surrogate weight s w i for criterion i is given by a function of i and the total number of criteria N and the number of preference strength steps s ( i ) between of criterion i and its nearest ranked criterion such that s w i = f ( i , N , s ( i )) for each criterion i (see Danielson & Ekenberg, for details). Cardinal imprecision can then be modelled in terms of imprecision constants such that w i ∈ [ s w i − α , s w i + α ] for some constant α ∈ [0,1] together with comparative statements w i > w j to ensure that weight variables cannot assume values inconsistent with the provided ranking; by operating with comparative statements only, such that the ranking would simply be translated into a comparative constraint w i > w j + g ( s ( i )) where g ( s ( i )) is a function of the number of preference strength steps s ( i ) between of criterion i and its nearest ranked criterion, for all criteria pairs whenever criterion i is deemed more important than criterion j (see Larsson, Riabacke, Danielson, & Ekenberg, for details on the properties of such a function).…”
Section: Impact Assessment and Preferencesmentioning
confidence: 99%
See 2 more Smart Citations
“…A surrogate weight s w i for criterion i is given by a function of i and the total number of criteria N and the number of preference strength steps s ( i ) between of criterion i and its nearest ranked criterion such that s w i = f ( i , N , s ( i )) for each criterion i (see Danielson & Ekenberg, for details). Cardinal imprecision can then be modelled in terms of imprecision constants such that w i ∈ [ s w i − α , s w i + α ] for some constant α ∈ [0,1] together with comparative statements w i > w j to ensure that weight variables cannot assume values inconsistent with the provided ranking; by operating with comparative statements only, such that the ranking would simply be translated into a comparative constraint w i > w j + g ( s ( i )) where g ( s ( i )) is a function of the number of preference strength steps s ( i ) between of criterion i and its nearest ranked criterion, for all criteria pairs whenever criterion i is deemed more important than criterion j (see Larsson, Riabacke, Danielson, & Ekenberg, for details on the properties of such a function).…”
Section: Impact Assessment and Preferencesmentioning
confidence: 99%
“…by operating with comparative statements only, such that the ranking would simply be translated into a comparative constraint w i > w j + g ( s ( i )) where g ( s ( i )) is a function of the number of preference strength steps s ( i ) between of criterion i and its nearest ranked criterion, for all criteria pairs whenever criterion i is deemed more important than criterion j (see Larsson, Riabacke, Danielson, & Ekenberg, for details on the properties of such a function).…”
Section: Impact Assessment and Preferencesmentioning
confidence: 99%
See 1 more Smart Citation
“…Complete information methods require the decision maker to have a well-defined and stable preference structure, which makes the process cognitively demanding, since it requires a lot of precision, time and effort from the DM (Belton & Stewart, 2002, Larsson et al, 2015. The DM's difficulty translates into high rates inconsistencies such as those found in the tradeoff procedure (Weber & Borcherding, 1993) and may explain the discrepancy between the number of theoretical models used in decision making in relation to their actual applications (Weber, 1987).…”
Section: Introductionmentioning
confidence: 99%
“…The CAR method has been demonstrated using both linear inequalities to represent cardinal ranking statements [34] and closed formulas for obtaining surrogate weights [10,30]. More recently, rank-based methods have been suggested for probability elicitation as well, with a particular aim for use in time scarce environments [35].…”
Section: Rank-based Elicitationmentioning
confidence: 99%