Journal of Systems Engineering and Electronics ›› 2025, Vol. 36 ›› Issue (3): 659-670.doi: 10.23919/JSEE.2024.000115
• ELECTRONICS TECHNOLOGY • Previous Articles
Reddy S KARUNAKAR(), Guttavelli ANITHA(
)
Received:
2022-11-10
Accepted:
2023-07-09
Online:
2025-06-18
Published:
2025-07-10
Contact:
Reddy S KARUNAKAR
E-mail:skarunakarreddy8116@gmail.com;aguttave@gitam.edu
About author:
Reddy S KARUNAKAR, Guttavelli ANITHA. Designing of optimized microstrip fractal antenna using hybrid metaheuristic framework for IoT applications[J]. Journal of Systems Engineering and Electronics, 2025, 36(3): 659-670.
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Table 1
Review of traditional MFA systems"
Reference | Adopted model | Feature | Challenge |
[ | SVR | Optimal impedance matching, high gain | Needs consideration on SBD features with varied geometries of antenna. |
[ | FEM model | High efficiency, greater antenna gain | Antenna matching was taken into account. |
[ | Cantor set technology | Return loss reduction, High antenna gain | Very complex. |
[ | MSSG | Return loss reduction, high gain | More attention must be paid to antenna system miniaturization. |
[ | PSO-ANN model | Size reduction ability, high design accuracy | Requires computation of different dimensions. |
[ | BF-PSO model | Low time utilization, high bandwidth | Need to focus on the cost function. |
[ | IWO | Less return loss, enhanced radiation efficiency | Resonant frequency variance is not attained well. |
[ | FEM model | Less array size, minimal return loss | Diverse switching techniques must be exploited for picking frequencies. |
[ | GA | Computational complexity reduction, high accuracy | The flexibility is not fixed at all. |
[ | SRPA | Performance efficiency enhancement, gain increased, size minimization | It is used only for short ranges. |
Table 2
Antenna parameters"
Parameter | Value |
Length/m | |
Width/m | |
Strip line width/m | |
Feed offset | [− |
Num iterations | 2 |
Height/m | |
Ground plane length/m | |
Ground plane width/m | |
Feed location | [− |
Fractal center offset | [0,0] |
Substrate. length | |
Substrate. width | |
Substrate. shape | Box |
Table 3
Analysis of the proposed method’s directivity compared to the existing approach at various frequencies"
Method | Frequency/MHz | ||||
50 | 60 | 70 | 80 | ||
EHO | Simulated | ||||
Measured | |||||
GWO | Simulated | ||||
Measured | |||||
LA | Simulated | ||||
Measured | |||||
SMO | Simulated | ||||
Measured | |||||
SSO | Simulated | ||||
Measured | |||||
SVR [ | Simulated | ||||
Measured | |||||
BF-PSO [ | Simulated | ||||
Measured | |||||
ECU-GWA | Simulated | ||||
Measured |
Table 4
Analysis of adopted scheme over extant schemes for return loss, reflection coefficient, and VSWR"
Technique | Return loss | Reflection coefficient/dB | VSWR |
EHO | 2.48e-06 | −2.48e-06 | 7.01e+06 |
GWO | 9.60e-07 | −9.60e-07 | 1.81e+07 |
LA | 3.28e-06 | −3.28e-06 | 5.30e+06 |
SMO | 2.59e-06 | −2.59e-06 | 6.70e+06 |
SSA | 5.69e-06 | −5.69e-06 | 3.05e+06 |
SVR [ | 4.34e-07 | −4.34e-07 | 4.01e+07 |
BF-PSO [ | 1.27e-06 | −1.27e-06 | 1.37e+07 |
ECU-GWA | 8.40e-06 | −8.40e-06 | 1.24e+06 |
Table 5
Best solution attained by of adopted scheme over extant schemes for varied frequencies"
Constraints | EHO | GWO | LA | SMO | SSO | SVR [ | BF-PSO [ | ECU-GWA |
Length | ||||||||
Width | ||||||||
Height | ||||||||
Strip line width |
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