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Kullanım alanları

N-MULTIMOORA

N-MULTIMOORA - MULTIMOORA yönteminin Neutrosophic uzantısı

Neutrosophic üstünlük/sıralama - Tek Değerli Nötrosofik Küme (SVNS: T, I, F)

Formül adımları

Analiz motorunun yöntem bildirimindeki (manifest F.steps) adımlar; raporlardaki formüllerle aynı kaynaktır.

  1. SVN matrix; cost complement; score + vector normalisation.

    a^ij=⟨Fij,1−Iij,Tij⟩(j∈Ωc);sij=1+T^ij−2I^ij−F^ij2;s¯ij=sij/∑isij2
    LaTeX \hat{a}_{ij}=\langle F_{ij},1-I_{ij},T_{ij}\rangle\;(j\in\Omega_c);\quad s_{ij}=\tfrac{1+\hat{T}_{ij}-2\hat{I}_{ij}-\hat{F}_{ij}}{2};\quad\bar{s}_{ij}=s_{ij}/\sqrt{\sum_i s_{ij}^2}
  2. Sub-method 1: Ratio System score.

    yiRS=∑j=1nwjs¯ij;rank descending
    LaTeX y_i^{\mathrm{RS}}=\sum_{j=1}^n w_j\bar{s}_{ij};\quad\text{rank descending}
  3. Sub-method 2: Reference Point Chebyshev score.

    rj*=maxis¯ij;yiRP=maxjwj|rj*−s¯ij|;rank ascending
    LaTeX r_j^*=\max_i\bar{s}_{ij};\quad y_i^{\mathrm{RP}}=\max_j\;w_j|r_j^*-\bar{s}_{ij}|;\quad\text{rank ascending}
  4. Sub-method 3: Full Multiplicative Form via SVNWG operator.

    U~i=SVNWGw(a^i1,…,a^in)=\langle∏jT^ijwj,1−∏j(1−I^ij)wj,1−∏j(1−F^ij)wj\rangle;yiFMF=s(U~i);rank descending
    LaTeX \tilde{U}_i=\mathrm{SVNWG}_w(\hat{a}_{i1},\ldots,\hat{a}_{in})=\Bigl\langle\prod_j\hat{T}_{ij}^{w_j},\;1-\prod_j(1-\hat{I}_{ij})^{w_j},\;1-\prod_j(1-\hat{F}_{ij})^{w_j}\Bigr\rangle;\quad y_i^{\mathrm{FMF}}=s(\tilde{U}_i);\quad\text{rank descending}
  5. Theory of Dominance: final rank from pairwise dominance across RS, RP, FMF.

    Ai≻Ak⟺Ai ranks better in ≥2 of {RS,RP,FMF};count dominances for final order
    LaTeX A_i\succ A_k\iff A_i\text{ ranks better in }\geq 2\text{ of }\{RS,RP,FMF\};\quad\text{count dominances for final order}

Yöntem ayrıntıları kaynak kütüphanedeki özgün (İngilizce) metindir.

Sezgi

Neutrosophic outranking/ranking - Single-Valued Neutrosophic Set (SVNS: T, I, F; T,I,F ∈ [0,1], T+I+F ≤ 3). Output typically utility (higher value = preferred).

Sonucu okuma: n-multimoora extends MULTIMOORA to handle Neutrosophic uncertainty. All arithmetic operations (normalisation, weighting, distance computation) are performed using Single-Valued Neutrosophic Set (SVNS: T, I, F; T,I,F ∈ [0,1], T+I+F ≤ 3) algebra. The final scores are defuzzified via score function S = (T − F + 1)/2 before ranking.

Varsayımlar

  • Decision matrix entries are valid Single-Valued Neutrosophic numbers/tuples
  • Underlying crisp method's compensation assumption holds in uncertain space
  • All decision-maker(s) and experts use the same linguistic/uncertainty scale

Ne zaman kullanılmaz

  • Classical data sufficient - use base MULTIMOORA directly (avoid unnecessary uncertainty layer)
  • Aggregation operator (PFWA/PFOWA/etc.) not specified - output ambiguous

Sınırlılıklar

  • Assumes: Decision matrix entries are valid Single-Valued Neutrosophic numbers/tuples
  • Assumes: Underlying crisp method's compensation assumption holds in uncertain space
  • Assumes: All decision-maker(s) and experts use the same linguistic/uncertainty scale

Sık yapılan hatalar

  • Değer-uzayı ihlali: hesaplamadan önce tüm girişlerin SVNS: T,I,F ∈ [0,1]; 0 ≤ T+I+F ≤ 3 koşulunu sağladığından emin olun.
  • Defuzzifikasyon yöntemi sıralamayı etkiler: score function S = (T − F + 1)/2 kanonik seçimdir.

Hesap adımları ve dayanakları

  1. SVN matrix; cost complement; score + vector normalisation.

    Dayanak: Stanujkic et al. 2017, Sec.3 Step1

  2. Sub-method 1: Ratio System score.

    Dayanak: Stanujkic et al. 2017, Sec.3 RS

  3. Sub-method 2: Reference Point Chebyshev score.

    Dayanak: Stanujkic et al. 2017, Sec.3 RP

  4. Sub-method 3: Full Multiplicative Form via SVNWG operator.

    Dayanak: Stanujkic et al. 2017, Sec.3 FMF; Ye 2014 SVNWG

  5. Theory of Dominance: final rank from pairwise dominance across RS, RP, FMF.

    Dayanak: Brauers & Zavadskas 2010; Stanujkic et al. 2017, Sec.3 Dominance