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Hardware design and implementation of genetic algorithm for the controller of a dc to dc boost converter
Roderick Yap1, Kevin Lam2, Rovi Bugayong3, Edward Hernandez4, Joey De Guzman5.
Controllers for DC to DC Boost Converters have evolved from simple control
method to those that involve the use of fuzzy logic controllers. In many
implementations, Proportional Integral Derivative (PID) controllers are
commonly employed. In this paper, a genetic algorithm for tuning the PID
controller of a DC to DC Boost Converter is hardware modelled and
implemented on a Field Programmable Gate Array (FPGA) using Verilog as
tool for the design entry. The goal of embedding genetic algorithm into the
controller is to search for the best PID parameters that will yield fast settling
time of the booster at an output of 6V. The hardware implementation allows
the controller to tune itself by searching for the best Kp, Ki and Kd values that
will give the best settling time. Significantly, this eliminates the need for a
separate computer to do the searching routine. Test results of the circuit
implemented yielded promising results. When compared to previous
researches, the genetic algorithm employed yielded good PID parameters
that resulted to a settling time as low as less than 60msec.
Affiliation:
- De La Salle University, Philippines
- De La Salle University, Philippines
- De La Salle University, Philippines
- De La Salle University, Philippines
- De La Salle University, Philippines
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Indexation |
Indexed by |
MyJurnal (2021) |
H-Index
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6 |
Immediacy Index
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0.000 |
Rank |
0 |
Indexed by |
Scopus 2020 |
Impact Factor
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CiteScore (1.4) |
Rank |
Q3 (Engineering (all)) |
Additional Information |
SJR (0.191) |
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