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Mhaske and Kumar

                dataset used in this study is the Heart Disease dataset   performance,  whereas  MD has to  be  lower. From
                from the UCI Machine Learning Repository. 36        the  graphs in  Figure  4, it  can  be  observed  that  the
                  This database contains 76 attributes,  but previous   proposed STI-TSA-based optimization has fulfilled this
                experiments have focused on a subset of 14. The goal   statement. Particularly, the IPR is higher when data are
                field refers to the presence of heart disease in the patient,   at 30%. For datasets with 10% and 20%, the proposed
                with integer values ranging from 0 (no presence) to 4.   STI-TSA-based optimization achieves a higher IPR
                The names and social security numbers of the patients   compared to STO, TSA, PFO, SBOA, BA, EHO-OBL,
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                were recently removed from the database and replaced   and BFL-PSO.  When data are 10%, the proposed STI-
                with dummy values. One processed file containing the   TSA-based optimization attained a high IPR of 0.93%;
                Cleveland  database  is available,  while  the  remaining   with 20% data, the IPR reaches 0.94%; and with 30%
                four unprocessed files are also included in this directory.  data, the IPR attains 0.95%. In contrast, at 30% of data,
                                                                    extant optimization schemes, such as STO, TSA, PFO,
                8.2. Analysis of IPR, HFR, and MD                   SBOA,  BA, EHO-OBL,  and BFL-PSO  achieved
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                Figure 4 shows the performance  of IPR, HFR, and    lower IPR values of 0.89, 0.9, 0.87, 0.9, 0.87, 0.89, and
                MD  for proposed STI-TSA optimization  over extant   0.88, respectively.
                optimization  schemes,  such as STO,  TSA, PFO,        The new STI-TSA algorithm,  incorporating
                SBOA, BA, EHO-OBL,  and BFL-PSO.  Regarding         the  concepts  of  SBO and  TSA, could  attain  faster
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                fitness, the IPR and HFR have to be higher for better   convergence and create high-quality solutions that
                  A                                                B


















                                           C

















                Figure 4. Performance of privacy preservation for electronic medical records using blockchain technology.
                Performance of the Siberian Tiger Integrated Tuna Swarm algorithm (STI-TSA) over extant optimization
                approached for (A) information preservation ratio, (B) hiding failure rate, and (C) modification degree.
                Abbreviations: BA: Bat Algorithm; BFL-PSO: Bee-foraging learning particle swarm optimization;
                EHO-OBL: Elephant Herding Optimization with Opposition-based Learning; PFO: Puffer Fish Optimization;
                SBOA: Secretary Bird Optimization Algorithm; STO: Siberian Tiger Optimization; TSA: Tuna Swarm algorithm.





                Volume 22 Issue 1 (2025)                       160                           doi: 10.36922/AJWEP025040017
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