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Efficient interpretive ranking process incorporating implicit and transitive dominance relationships

  • Applications of OR in Disaster Relief Operations, Part II
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Abstract

Interpretive ranking process (IRP) is a multi-criteria decision making method based on paired comparison in an interpretive manner. Due to paired comparisons, the number of interpretations to be made for n ranking variables are \(n(n-1)/2\) to establish dominance with respect to each reference variable or criterion. IRP is a knowledge intensive method and thus a large number of comparisons poses a limitation on the number of rankling as well as reference variables to be considered in the design of the decision problem. This paper is intended to make the process of comparison more efficient so that this limitation on number of variables can be relaxed to handle comparatively large size problems as well. The number of interpretive comparisons can be drastically reduced by considering both implicit and transitive dominance relationships. It provides a critical review of IRP steps and suggests improvements to make it more efficient. It then illustrates the modified IRP method on a couple of already published examples (including an example on post-disaster management) and summarizes the reduction in interpretive comparisons that indirectly gives a measure of increase in its efficiency.

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Correspondence to Sushil.

Appendices

Appendix I

1.1 Example 1: Ranking of actors with respect to processes (Sushil 2009a)

1.1.1 Exhibit I.1: Ranking and reference variables

Variables

Ranking variables—Actors

A1–CEO of ABB (Parent Company)

A2–ABB India’s management

A3–ABB India’s employees

A4–Government of India

Reference variables—Processes

P1–Technology and business strategy alignment

P2–Mergers and acquisitions

P3–Backward integration

P4–Offering technological solution to customer

1.1.2 Exhibit I.2: Cross-interaction matrix ‘Actor \(\times \) Process’

Contextual Relationship : Roles of actors in various processes

  1. (a)

    Binary Matrix

figure a
(b) :

Interpretive Matrix

figure b

1.1.3 Exhibit I.3: Interpretive logic—knowledge base-ranking of actors w.r.t. processes

Paired comparison

Interaction with process

Interpretive logic

A1 Dominating A2

P1

Vision/global Strategy have more influence than domestic strategy on Technology and Business Strategy Alignment

P2

Provision of resources for M&A is more important than Post M&A integration

A2 Dominating A3

P4

Understanding Customer needs for developing solutions is more important than simply developing technological solutions

A4 dominating A1

P2

Regulation for M&A influence the M&A Process more than provisions of resources

1.1.4 Exhibit I.4: Pair-wise dominance of actors for different processes

  • (a) Dominating Interaction Matrix of Actors for Process P1

    figure c
  • (b) Dominating Interaction Matrix of Actors for Process P2

    figure d
  • (c) Dominating Interaction Matrix of Actors for Process P3

    figure e
  • (d) Dominating Interaction Matrix of Actors for Process P4

    figure f

1.1.5 Exhibit I.5: Dominance matrix—ranking of actors w.r.t. processes

figure g

Appendix II

1.1 Example 2: Ranking of actions w.r.t. performance areas (Sushil 2009a)

1.1.1 Exhibit II.1: Ranking and reference variables

Variables

Ranking variables—Actions

A1*–Technology management as core function

A2*–Core competence building agenda

A3*–Backward integration strategy

A4*–Develop in-house R&D

Reference variables—Performance areas

P1*–Sustainable competitive advantage

P2*–Customer satisfaction

P3*–Dependence on imported technology

1.1.2 Exhibit II.2: Cross-interaction matrix ‘Action \(\times \) Performance’

Contextual Relationship: Influence of actions on various performance areas

(a) :

Binary Matrix

figure h
  1. (b)

    Interpretive Matrix

figure i

1.1.3 Exhibit II.3: Pair-wise dominance of actions for different performance areas

  • (a) Dominating Interaction Matrix of Actions for Performance Area P1*

    figure j
  • (b) Dominating Interaction Matrix of Actions for Performance Area P2*

    figure k
  • (c) Dominating Interaction Matrix of Actions for Performance Area P3*

    figure l

1.1.4 Exhibit II.4: Dominance matrix—ranking of actions w.r.t. performance

figure m

Appendix III

1.1 Example 3: Ranking of flexibility initiatives w.e.f. to benefits and costs (Sushil 2017a)

Exhibit III.1: Ranking and reference variables

Variables

Ranking Variables—Flexibility Initiatives

F1–Variable capacity

F2–Multi-skilling

F3–Flexi-time/Flexi-place

Reference Variables—Benefits

B1–Low inventory

B2–Ability to handle unprecedented job requirements

B3–Reduction in manpower cost

B4–Work-life balance

Reference Variables—Costs

C1–Training cost

C2–Coordination cost

C3–Cost of technology

C4–Complex job allocation

  1. Source: Sushil (2017a)

1.1.1 Exhibit III.2: Cross-interaction Matrix—Flexibility Initiatives \(\times \) Criteria (Benefits/Costs)

Contextual Relationship: Flexibility initiatives generating benefits and incurring costs

  • (a) Binary Matrix

figure n
  • (b) Interpretive Matrix

figure o

1.1.2 Exhibit III.3: Pair-wise dominance of flexibility initiatives for different benefits and costs

  • (a) Dominating Interaction Matrix of Flexibility Initiatives for Benefit B1

    figure p
  • (b) Dominating Interaction Matrix of Flexibility Initiatives for Benefit B2

    figure q
  • (c) Dominating Interaction Matrix of Flexibility Initiatives for Benefit B3

    figure r
  • (d) Dominating Interaction Matrix of Flexibility Initiatives for Benefit B4

    figure s
  • (e) Dominating Interaction Matrix of Flexibility Initiatives for Cost C1

    figure t
  • (f) Dominating Interaction Matrix of Flexibility Initiatives for Cost C2

    figure u
  • (g) Dominating Interaction Matrix of Flexibility Initiatives for Cost C3

    figure v
  • (h) Dominating Interaction Matrix of Flexibility Initiatives for Cost C4

    figure w

1.1.3 Exhibit III.4: Dominance matrix—ranking of flexibility initiatives w.r.t benefits and costs

figure x

Appendix IV

1.1 Example 4: Ranking of post-disaster actions w.r.t. intended performance (Sushil 2017b)

1.1.1 Exhibit IV.1: Ranking and reference variables

Variables

Ranking Variables—Action (Post-disaster, on-site)

A1*–Improvisation for rescue (Volunteers)

A2*–Communication with all modes (Local administration)

A3*–Activate medical support (Local bodies/Hospitals)

A4*–Channelize supplies (NGOs/Government bodies)

A5*–Sending professional rescue teams (Military/NGOs)

A6*–Committed supervision (Executives/Political leadership)

A7*–Clearing the site (Trained Professionals)

Reference Variables—Performance (Intended)

P1*–Loss of life

P2*–Loss of property

P3*–Timeframe for rescue/relief

P4*–Relief from injuries

P5*–Timely reach of aid

1.1.2 Exhibit IV.2: Cross-interaction matrix: Action (A*) \(\times \) Performance (P*)

Contextual Relationship: Influence of actions on various performance areas

  • (a) Binary Matrix

    figure y
  • (b) Interpretive Matrix

    figure z

1.1.3 Exhibit IV.3: Pair-wise dominance of post-disaster actions for different performance areas

Dominating Interaction Matrix of Post-Disaster Actions for Performance P1*

figure aa

Dominating Interaction Matrix of Post-Disaster Actions for Performance P2*

figure ab

Dominating Interaction Matrix of Post-Disaster Actions for Performance P3*

figure ac

Dominating Interaction Matrix of Post-Disaster Actions for Performance P4*

figure ad

Dominating Interaction Matrix of Post-Disaster Actions for Performance P5*

figure ae

1.1.4 Exhibit IV.4: Dominance matrix—ranking of post disaster actions w.r.t. intended performance

figure af

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Sushil Efficient interpretive ranking process incorporating implicit and transitive dominance relationships. Ann Oper Res 283, 1489–1516 (2019). https://doi.org/10.1007/s10479-017-2608-y

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