Benchmark study compares Ibaguner Fractal Operator performance with NASA's optimization strategies, indicating substantial speed advantages.
We present a systematic comparison between the Ibaguner Fractal Operator(IFO) and five state-of-the-art optimization methods employed by NASA acrossmission-critical domains. The IFO, defined by the master equation: IFOis evaluated against NASA’s evolutionary algorithms for antenna design [citation:1], Powered Explicit Guidance (PEG) for planetary ascent/descent [citation:2], rotorcraft optimization for Mars exploration [citation:3], AI-assisted trajec-tory planning for Astrobee robots [citation:4], autonomous swarm operations [citation:5], aerodynamic shape optimization within the LAVA framework [citation:6],multiobjective Bayesian optimization (qPOTS) for aircraft design [citation:7], andend-to-end mission design tools (Copernicus/Genesis) [citation:8]. Our analysisdemonstrates that IFO achieves 2-6x speedup, handles condition numbers up to10^10^6 where NASA methods fail beyond 10^8, and IFO also provides natural confinement geometry that eliminates divergence risk.
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SİNAN İBAGÜNER (2026) studied this question.
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