Accès libre

Implementation of a cost-effective fuzzy MPPT controller on the Arduino board

Carlos Robles Algarín
Carlos Robles Algarín
, 
Roberto Liñán Fuentes
Roberto Liñán Fuentes
 et 
Adalberto Ospino Castro
Adalberto Ospino Castro
   | 28 févr. 2018
International Journal on Smart Sensing and Intelligent Systems's Cover Image
À propos de cet article
Article précédent
Article suivant
Citez
Article Category: Research-Article
Publié en ligne: 28 févr. 2018
Pages: 1 - 10
DOI: https://doi.org/10.21307/ijssis-2018-002
Mots clés
© 2018 Carlos Robles Castro et al., published by Sciendo
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.

Figure 1:

Block diagram of the MPPT controller.
Block diagram of the MPPT controller.

Figure 2:

(A) Hall-effect current sensor ACS712ELCTR-20A-T and (B) voltage sensor FZ0430.
(A) Hall-effect current sensor ACS712ELCTR-20A-T and (B) voltage sensor FZ0430.

Figure 3:

dc–dc converter.
dc–dc converter.

Figure 4:

Typical connection for the IR2117.
Typical connection for the IR2117.

Figure 5:

XL6009 regulator.
XL6009 regulator.

Figure 6:

Coupling circuit between the Arduino and the IR2117 driver.
Coupling circuit between the Arduino and the IR2117 driver.

Figure 7:

Flowchart of the fuzzy controller implemented on the Arduino Mega board.
Flowchart of the fuzzy controller implemented on the Arduino Mega board.

Figure 8:

Membership functions of the inputs. (A) Error and (B) change of error.
Membership functions of the inputs. (A) Error and (B) change of error.

Figure 9:

Membership functions for the ΔD(k) output.
Membership functions for the ΔD(k) output.

Figure 10:

Movement of the MPP in the P–V curve of the PV module.
Movement of the MPP in the P–V curve of the PV module.

Figure 11:

Flowchart of the P&O controller.
Flowchart of the P&O controller.

Figure 12:

(A) Adafruit data logger shield and (B) Nokia 5110 graphic LCD.
(A) Adafruit data logger shield and (B) Nokia 5110 graphic LCD.

Figure 13:

General circuit diagram.
General circuit diagram.

Figure 14:

(A) MPPT controller implemented and (B) experimental PV system.
(A) MPPT controller implemented and (B) experimental PV system.

Figure 15:

Power delivered to the battery by fuzzy and P&O controllers.
Power delivered to the battery by fuzzy and P&O controllers.

Figure 16:

Battery voltage for fuzzy and P&O controllers.
Battery voltage for fuzzy and P&O controllers.

Figure 17:

Power obtained from the PV module.
Power obtained from the PV module.

Figure 18:

Current obtained from the PV module.
Current obtained from the PV module.

Figure 19:

Duty cycle for the fuzzy and P&O controllers.
Duty cycle for the fuzzy and P&O controllers.

Electrical parameters of the PV module type YL65P-17b.

Parameter Value
Short-circuit current (Isc) 4 A
Open circuit voltage (Voc) 21.7 V
Voltage at Pmax (Vmpp) 17.5 V
Current at Pmax (Impp) 3.71 A
Temperature coefficient of voltage (Tcv) −0.0802 V/°C
Temperature coefficient of current (Tci) 0.0024 A/°C
Maximum voltage (Vmax) 22.35 V
Minimum voltage (Vmin) 18.44 V

Arduino mega specifications.

Specifications Values
Microcontroller ATmega 2560
Operating voltage 5 V
Digital I/O pins 54 (of which 15 provide PWM output)
Analog input pins 16
Clock speed 16 MHz
Flash memory 256 kB
SRAM 8 kB
EEPROM 4 kB
Communication interfaces UART, SPI, I2C

Fuzzy associative matrix.

E(k)/ΔE(k) Very Low Low Neutral High Very High
Very Low VH VH H VL VL
Low H H H VL L
Neutral H H N L L
High H H L L VL
Very High H H L L VL
eISSN:
1178-5608
Langue:
Anglais
Périodicité:
Volume Open
Sujets de la revue:
Engineering, Introductions and Overviews, other
RSS Feed de la revue