Design and implementation of closed-loop controls for smart charging lithium ion battery UNS using switching technique boost converter

Electrical energy produced by photovoltaic technology varies depending on the intensity of sunlight, so we need a treatment to regulate it. There are 2 methods used to operate solar panels at their maximum power point, namely the dynamic method and the static method. One static method is the MPPT me...

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Hauptverfasser: Apribowo, Chico Hermanu Brillianto, Akmal, Muhammad, Anwar, Miftahul
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Akmal, Muhammad
Anwar, Miftahul
description Electrical energy produced by photovoltaic technology varies depending on the intensity of sunlight, so we need a treatment to regulate it. There are 2 methods used to operate solar panels at their maximum power point, namely the dynamic method and the static method. One static method is the MPPT method with constant voltage. Boost converter and microcontroller are used to set the algorithm. The use of a boost converter to increase the working voltage of the PV to suit the needs of the load is used. Lead-acid batteries have a certain temperature sensitivity. Voltage output settings are set using the duty cycle, to obtain a stable charging voltage. By testing of charging a 24V 36 Ah battery for 12 hours. With an average charging current of 0.3 A, it is able to charge from 22.16 V to 23.23 V or increases of 1.07 V using open controls. In closed temperature control over voltage, the charging current averages 0.3 A, the battery SoC increases from 22.23 V to 23.27 V or increase of 1.05 Volts. In each test, the battery SoC increases by 1 V or 4% of the battery capacity. The effect of battery charging temperature on this study was small, both in closed control and open control. The increase in temperature between open control and closed control is about 1-2,5 °C and the increase does not touch the maximum limit value of 35 °C
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The effect of battery charging temperature on this study was small, both in closed control and open control. The increase in temperature between open control and closed control is about 1-2,5 °C and the increase does not touch the maximum limit value of 35 °C</abstract><cop>Melville</cop><pub>American Institute of Physics</pub><doi>10.1063/5.0000830</doi><tpages>11</tpages></addata></record>
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source AIP Journals Complete
subjects Algorithms
Battery chargers
Charging
Converters
Electric charge
Electric potential
Lead acid batteries
Lithium
Lithium-ion batteries
Maximum power
Microcontrollers
Photovoltaic cells
Rechargeable batteries
Temperature control
Voltage
title Design and implementation of closed-loop controls for smart charging lithium ion battery UNS using switching technique boost converter
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