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Murat Yaslioglu

Publications and source records attributed to Murat Yaslioglu.

2 recordsLinked to original sources

A Metadata-Only Feature-Augmented Method Factor for Ex-Post Correction and Attribution of Common Method Variance

Common Method Variance (CMV) is a recurring problem that reduces survey accuracy. Popular fixes such as the Harman single-factor test, correlated uniquenesses, common latent factor models, and marker variable approaches have well known flaws. These approaches either poorly identify issues, rely too heavily on researchers' choices, omit real information, or require special marker items that many datasets lack. This paper introduces a metadata-only Feature-Augmented Method Factor (FAMF-SEM): a single extra method factor with fixed, item-specific weights based on questionnaire details like reverse coding, page and item order, scale width, wording direction, and item length. These weights are set using ridge regression, based on residual correlations in a basic CFA, and remain fixed in the model. The method avoids the need for additional data or marker variables and provides CMV-adjusted results with clear links to survey design features. An AMOS/LISREL-friendly, no-code Excel workflow demonstrates the method. The paper explains the rationale, provides model details, outlines setup, presents step-by-step instructions, describes checks and reliability tests, and notes limitations.

stat.ME

A Sustainable and Reward Incentivized High-Performance Cluster Computing for Artificial Intelligence: A Novel Bayesian-Time-Decay Trust Mechanism in Blockchain

In an age where sustainability is of paramount importance, the significance of both high-performance computing and intelligent algorithms cannot be understated. Yet, these domains often demand hefty computational power, translating to substantial energy usage and potentially sidelining less robust computing systems. It's evident that we need an approach that is more encompassing, scalable, and eco-friendly for intelligent algorithm development and implementation. The strategy we present in this paper offers a compelling answer to these issues. We unveil a fresh framework that seamlessly melds high-performance cluster computing with intelligent algorithms, all within a blockchain infrastructure. This promotes both efficiency and a broad-based participation. At its core, our design integrates an evolved proof-of-work consensus process, which links computational efforts directly to rewards for producing blocks. This ensures both optimal resource use and participation from a wide spectrum of computational capacities. Additionally, our approach incorporates a dynamic 'trust rating' that evolves based on a track record of accurate block validations. This rating determines the likelihood of a node being chosen for block generation, creating a merit-based system that recognizes and rewards genuine and precise contributions. To level the playing field further, we suggest a statistical 'draw' system, allowing even less powerful nodes a chance to be part of the block creation process.

cs.DC