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Seyyed Ahmad Edalatpanah

Publications and source records attributed to Seyyed Ahmad Edalatpanah.

2 recordsLinked to original sources

PEJWAK: A Profile-Echoing Self-Anchored Aggregation Architecture for Multi-Criteria Decision Analysis

PEJWAK is introduced as a profile-echoing self-anchored aggregation architecture for multi-criteria decision analysis. Each criterion is coupled geometrically with an endogenous reference derived from the same alternative before final aggregation, so criterion identity is preserved while its expressed contribution is conditioned by the alternative's profile. A general formulation separates the anchor function, anchoring kernel, retention exponents, contribution coefficients, and outer aggregation rule. The canonical member uses a weighted-arithmetic self-anchor, sets each retention exponent equal to the corresponding criterion-importance value, and derives contribution coefficients through a normalized square-root map. Analytical results establish continuity, monotonicity, diagonal calibration, internality, full-domain joint continuity, exact boundary behavior, nonseparability, failure of bisymmetry in the equal-weight binary restriction, and an exact logarithmic retention law. A deterministic MCDA audit provides complete criterion-level decomposition, exact weight-stability intervals and rank transitions, contribution-rule rank phases, set-dependence diagnostics, and exact permutation-based rank-affinity analysis. Canonical PEJWAK handles exact zeros without epsilon regularization: an active zero removes only its own criterion contribution whenever the remaining active scores sustain a positive anchor. The architecture therefore supplies an auditable profile-conditioned aggregation mechanism between direct weighted aggregation and parameter-intensive nonadditive interaction models.

math.OC↗

The Awareness Logic of Ambiguity (ALA): Triadic Interpretive States and Their Structure-Preserving Operational Core

The Awareness Logic of Ambiguity (ALA) is introduced as a formal framework for preserving the structure of judgment before scalar projection. An evaluative act is represented by a triadic interpretive state with three functionally distinct roles: interpretive valuation, contextual alignment, and epistemic restraint. ALA uses a cognitive order with reversed polarity for restraint and shows that the resulting state space forms a bounded distributive lattice. It develops weakly and strictly admissible scalar projections as declared interfaces, together with a role-preserving arithmetic core and canonical permissive and conservative aggregation operators. The Non-Collapse Theorem establishes that two states that are equal after scalar projection may become distinguishable under an ALA lattice operation; hence scalar equality does not imply operational equivalence. The paper also establishes the conditional semantic minimality of the triad and treats the unit cube as the normalized real-valued realization of a more general role architecture. A high-stakes clinical scenario illustrates why evidential support, contextual alignment, and restraint toward action should remain separate until a scalar reporting or decision interface is explicitly chosen. ALA therefore provides a structure-preserving calculus for reasoning under ambiguity before projection.

math.GM↗