Kapadokya Üniversitesi Kurumsal Akademik Arşivi
DSpace@KÜNASİS, Kapadokya Üniversitesi tarafından doğrudan ve dolaylı olarak yayınlanan; kitap, makale, tez, bildiri, rapor, araştırma verisi gibi tüm akademik kaynakları uluslararası standartlarda dijital ortamda depolar, Üniversitenin akademik performansını izlemeye aracılık eder, kaynakları uzun süreli saklar ve yayınların etkisini artırmak için telif haklarına uygun olarak Açık Erişime sunar.

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Introducing Party Competition: An Efficient High Speed Metaheuristic for Solving the Binary Knapsack Problem
(IEEE, 17.12.2025) yashar
With the growing demand for high-speed
optimization algorithms, particularly for complex and time
sensitive problems, developing an effective high-speed
metaheuristic approach presents a significant challenge in this
field. This paper introduces a novel metaheuristic method aimed
at enhancing both speed and efficiency in solving optimization
problems, especially the binary knapsack problem. The
simulation results reveal that the proposed algorithm
significantly outperforms Genetic Algorithms (GA) and
Imperialist Competitive Algorithms (ICA) in addressing the
binary knapsack problem. Notably, the high convergence speed
of this new method not only enhances its effectiveness but also
establishes it as a highly efficient option for tackling complex
and time-critical optimization challenges.
Introducing the Hundredth Monkey Effect: An Efficient Metaheuristic for Fast Convergence in the Least Squares Minimization Problem
(17.12.2025) yashar salami
—In the face of escalating demand for high-speed
optimization algorithms, particularly for complex and time
sensitive problems, developing a rapid metaheuristic method is
a significant challenge. This paper introduces the Hundredth
Monkey Effect as a new metaheuristic approach focusing on
enhancing speed and convergence efficiency in solving
optimization problems, specifically the Least Squares
Minimization Problem. Simulations show that the Hundredth
Monkey Effect algorithm outperforms Genetic Algorithms
(GA), Simulated Annealing (SA), and Bee Colony Optimization
(BCO) in terms of rapid convergence. This substantial
improvement in both speed and convergence underscores the
practicality and efficiency of the Hundredth Monkey Effect in
addressing complex, time-sensitive optimization problems.
Dialectic optimization algorithm (DOA): a novel metaheuristic inspired by dialectical philosophy
(26/06/2025) yashar salami
Efficient optimization methods are essential for addressing large-scale and real-time
problems in supercomputing environments. This paper presents the Dialectic Opti
mization Algorithm (DOA), a novel population-based metaheuristic inspired by
Hegelian and Marxist dialectical philosophy. DOA simulates the ideological dynam
ics of three subpopulations: supporters, opponents, and neutrals—using logistic
growth equations, influence matrices, contradiction analysis, and synthesis mecha
nisms. These components form a structured and adaptive search process that pro
motes diversity, mitigates premature convergence, and drives the population toward
global optima. A formal algorithm analysis is also provided, including first-order
logical axioms, lemmas on population dynamics, and convergence theorems that
mathematically validate its soundness and stability. The proposed method is empiri
cally evaluated on twelve standard benchmark functions and compared against
eleven widely used metaheuristics, including GA, ACO, PSO, WOA, GWO, HHO,
SSA, and others. Based on 100 independent runs per function, the DOA consistently
outperformed all eleven comparative algorithms in accuracy, robustness, and con
vergence speed. A comprehensive statistical evaluation using Kolmogorov–Smirnov
with p < 0.01, Mann–Whitney showing no statistical inferiority, Kruskal–Wallis
with χ2 > 1 000 and a Friedman test yielding a mean rank of 1.08 confirmed DOA’s
superior solution quality, efficiency and consistency across 12 benchmark functions,
underscoring its philosophically grounded, formally validated framework for solving
complex, multimodal optimization problems.
SOBV-FEF: secure lightweight data offloading base in blockchain technology for internet of vehicles enabled handover UAVs within a Fog Edge federation
(04.12.2025) yashar salami
The Internet of Things (IoT) has improved efficiency and quality of life by
connecting devices to the internet. It has seen success in areas such as smart vehicles and
Unmanned Aerial Vehicles (UAVs), but faces processing limitations due to the need to send
large amounts of data to other devices for processing. When heavy processing is required, it
uses offloading techniques to send the data to other devices for processing. Secure data
offloading transmission remains a fundamental challenge in this field. This paper presents an
innovative authentication and key exchange method that uses Elliptic Curve Cryptography
(ECC) and incorporates Handover for secure offloading, offering a safe, lightweight solution
within a blockchain network. To evaluate the resistance of the proposed scheme against active
and passive attacks, we employed the AVISPA tool to apply both formal and informal methods.
Subsequently, to demonstrate the scheme's lightweight nature, we examined it with respect to
computation and communication costs, the number of bits used, and security requirements.
Additionally, we simulated the proposed scheme using the NS3 tool in two scenarios: urban
and highway, with varying numbers of vehicles. The results indicate that the proposed scheme
performs acceptably in urban and highway scenarios.
SO-ITS: a secure offloading schemefor intelligent transportation systems in federated fog-cloud
(03/08/2025) yashar salami
Intelligent driving technologies have significantly reduced traffic congestion and road accidents, enhancing overall safety by
enabling vehicles to communicate with their surroundings, thus keeping drivers informed of traffic conditions and critical
events. Adequate data security demands mutual authentication for secure exchanges and robust offloading procedures to
guard against potential attacks. This paper presents the SO-ITS scheme, tailored for safe data offloading in intelligent driving
systems. The scheme’s robustness is validated using the AVISPA tool, confirming its resilience to known threats. Comparative
analysis with existing schemes assesses communication overhead, computational cost, and bit complexity. At the same time,
performance is evaluated through NS-3 simulations, measuring PDR, throughput, and EDD across various scenarios. Results
demonstrate that the SO-ITS scheme provides strong security, low communication overhead, and moderate computational
complexity, establishing it as a promising solution for secure intelligent transportation systems.












