DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE

ABSTRACT DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE Hans Ryan Pakpahan Penetration of renewable energy for reducing global warming gives result to microgrid DC as being more suitable electrical system. Electric vehicle batteries can be...

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Main Author: Ryan Pakpahan, Hans
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/66614
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:66614
spelling id-itb.:666142022-06-29T11:32:58ZDESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE Ryan Pakpahan, Hans Indonesia Final Project Discontinous Conduction Mode, Boost-Buck, Efficiency. INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/66614 ABSTRACT DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE Hans Ryan Pakpahan Penetration of renewable energy for reducing global warming gives result to microgrid DC as being more suitable electrical system. Electric vehicle batteries can be used to solve the problem of intermittency of renewable energy generation. This application needs bidirectional DC-DC converter as interface between electric vehicle battery and DC microgrid. Two important performance parameters in this application are minimum battery side current ripple and efficiency. To minimize current ripple, a multiphase DC-DC converter topology can be used with an additional cascade converter as a regulator of power flow and voltage level. The multiphase Boost-Buck cascade DC-DC converter suits this application. Under continuous conduction mode (CCM) operation, major power loss comes from inductor internal DC resistance. In order to reduce inductor’s DC resistance power loss DCM operation with smaller size of inductor is proposed. Furthermore, DCM operation provides zero current switching operation which decrease switching power loss. However, a particular strategy is needed to suppress the input current ripple. Laboratory experiment proves that DCM operation has improved efficiency compared to CCM operation with maximum efficiency of 92,97%. Keywords: Discontinous Conduction Mode, Boost-Buck, Efficiency. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description ABSTRACT DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE Hans Ryan Pakpahan Penetration of renewable energy for reducing global warming gives result to microgrid DC as being more suitable electrical system. Electric vehicle batteries can be used to solve the problem of intermittency of renewable energy generation. This application needs bidirectional DC-DC converter as interface between electric vehicle battery and DC microgrid. Two important performance parameters in this application are minimum battery side current ripple and efficiency. To minimize current ripple, a multiphase DC-DC converter topology can be used with an additional cascade converter as a regulator of power flow and voltage level. The multiphase Boost-Buck cascade DC-DC converter suits this application. Under continuous conduction mode (CCM) operation, major power loss comes from inductor internal DC resistance. In order to reduce inductor’s DC resistance power loss DCM operation with smaller size of inductor is proposed. Furthermore, DCM operation provides zero current switching operation which decrease switching power loss. However, a particular strategy is needed to suppress the input current ripple. Laboratory experiment proves that DCM operation has improved efficiency compared to CCM operation with maximum efficiency of 92,97%. Keywords: Discontinous Conduction Mode, Boost-Buck, Efficiency.
format Final Project
author Ryan Pakpahan, Hans
spellingShingle Ryan Pakpahan, Hans
DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
author_facet Ryan Pakpahan, Hans
author_sort Ryan Pakpahan, Hans
title DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
title_short DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
title_full DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
title_fullStr DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
title_full_unstemmed DESIGN OF BIDIRECTIONAL CASCADE MULTIPHASE BOOST-BUCK DC-DC CONVERTER UNDER DISCONTINOUS CONDUCTION MODE
title_sort design of bidirectional cascade multiphase boost-buck dc-dc converter under discontinous conduction mode
url https://digilib.itb.ac.id/gdl/view/66614
_version_ 1822933096147714048