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"OBRIGADO DEUS PELA VIDA,PELA MINHA FAMILIA,PELO TRABALHO,PELO PÃO DE CADA DIA,PROTEGENOS DO MAL"

"OBRIGADO DEUS PELA VIDA,PELA MINHA FAMILIA,PELO TRABALHO,PELO PÃO DE CADA DIA,PROTEGENOS  DO MAL"

“SE SEUS PROJETOS FOREM PARA UM ANO,SEMEIE O GRÂO.SE FOREM PARA DEZ ANOS,PLANTE UMA ÁRVORE.SE FOREM PARA CEM ANOS,EDUQUE O POVO.”

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quinta-feira, 14 de julho de 2022

Research on the Optimal Design of Weinberg Converter Qian Chen*a, Peng Qiu*,Yi Lu*, Jinpei Du**, Jiayi Wu***, Haihong Yu*, IEEJ TRANSACTIONS ON ELECTRICAL AND ELECTRONIC ENGINEERING IEEJ Trans 2018


 


Research on the Optimal Design of Weinberg Converter 

AUTHORS:Qian Chen*a, Peng Qiu*, Yi Lu*, Jinpei Du**, Jiayi Wu***, Haihong Yu*,

Because of its advantages of continuous input and output currents, stable transfer function, and high efficiency, the Weinberg converter is used as battery discharge regulator. Its working principle under overlap and nonoverlap modes with stray parameters is analyzed. Then a design method is proposed to optimize the parameters. In order to estimate the heat distribution, the power loss is calculated according to the performance parameters, and then the efficiency trend is achieved toward the output current. In addition, the experimental results verify the optimal design using a 600W prototype. © 2018 Institute of Electrical Engineers of Japan. Published by John Wiley & Sons, Inc. 1. 

Introduction
 A power conditioning unit (PCU) is comprised of the main error amplifier (MEA), the shunt regulator (SR), the battery charge regulator (BCR), the battery discharge regulator (BDR), and telemetering/telecontrol (TM/TC) [1–5]. PCU balances the energy between each unit to keep the bus voltage constant so that the electrical equipment of satellites can obtain stable power from the main bus. When the satellites cannot get enough energy from the solar battery array in the shadow region or sunshine region, the batteries provide energy for the bus to keep bus voltage constant. BDR plays an important role during this process. Our aim is to study a highpower and high-efficiency boost converter that is easy to expand and realize current-sharing to achieve excellent bus performance. Efficiency, complexity, and linearity play an important role in choosing the topology of the BDR. The normal boost converter is not suitable for BDR because of its low efficiency, instability, and discontinuous output current. So far, the topologies that have been used in BDR are [6–8] phase-shift full bridge (PSFB), Superboost, Smart Add on, HE-Boost, and Weinberg.


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