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      KCI등재 SCIE SCOPUS

      Predictive charge control for LLC resonant converters

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      https://www.riss.kr/link?id=A108131815

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      다국어 초록 (Multilingual Abstract)

      A predictive charge control method based on an LLC resonant converter is proposed in this paper. The input charge in each cycle is reflected in the change of the resonant capacitor voltage. The threshold is set to compare it with the resonant capacito...

      A predictive charge control method based on an LLC resonant converter is proposed in this paper. The input charge in each cycle is reflected in the change of the resonant capacitor voltage. The threshold is set to compare it with the resonant capacitor voltage to control the input charge. Based on an LLC discrete predictive model, the predictive charge control predicts the threshold of the resonant capacitor voltage to regulate the output voltage. When compared with existing control methods, the predictive charge control has the advantages of an intuitive concept, a strong robustness, a simple implementation, and a simple model. It has excellent dynamic performance under various working conditions. The resonant tank can enter the steady state within one cycle without affecting the steady-state performance of the system. Through a mode analysis, this paper analyzes the proposed predictive charge control in detail. A 500 W LLC resonant converter prototype is built to verify the proposed method. Results show that both the output voltage and the resonant tank return to the steady state without fluctuations in one cycle during the processes of input voltage change and load switching.

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      참고문헌 (Reference)

      1 Inam, W, "Variable frequency multiplier technique for high-efficiency conversion over a wide operating range" 4 (4): 335-343, 2016

      2 Chang, C, "Small signal modeling of LLC resonant converters based on extended describing function" 365-368, 2012

      3 Feng, W, "Simplified optimal trajectory control (SOTC) for LLC resonant converters" 28 (28): 2415-2426, 2013

      4 Khan, S, "Resonant LLC DC–DC converter employing fixed switching frequency based on dual-transformer with wide input-voltage range" 36 (36): 607-616, 2021

      5 Dujic, D, "Power electronic traction transformer-low voltage prototype" 28 (28): 5522-5534, 2013

      6 Hayashi, Y, "Power density design of SiC and GaN DC-DC converters for 380 V DC distribution system based on series-parallel circuit topology" 1601-1606, 2013

      7 Feng, W, "Optimal trajectory control of burst mode for LLC resonant converters" 28 (28): 457-466, 2013

      8 Feng, W, "Optimal trajectory control of LLC resonant converters for soft start-up" 29 (29): 1461-1468, 2014

      9 Mumtahina, U, "Multimode optimization of the phase-shifted LLC series resonant converter" 33 (33): 10478-10489, 2018

      10 Fei, C, "Multi-step Simplified Optimal Trajectory Control (SOTC) for fast transient response of high frequency LLC converters" 2064-2071, 2015

      1 Inam, W, "Variable frequency multiplier technique for high-efficiency conversion over a wide operating range" 4 (4): 335-343, 2016

      2 Chang, C, "Small signal modeling of LLC resonant converters based on extended describing function" 365-368, 2012

      3 Feng, W, "Simplified optimal trajectory control (SOTC) for LLC resonant converters" 28 (28): 2415-2426, 2013

      4 Khan, S, "Resonant LLC DC–DC converter employing fixed switching frequency based on dual-transformer with wide input-voltage range" 36 (36): 607-616, 2021

      5 Dujic, D, "Power electronic traction transformer-low voltage prototype" 28 (28): 5522-5534, 2013

      6 Hayashi, Y, "Power density design of SiC and GaN DC-DC converters for 380 V DC distribution system based on series-parallel circuit topology" 1601-1606, 2013

      7 Feng, W, "Optimal trajectory control of burst mode for LLC resonant converters" 28 (28): 457-466, 2013

      8 Feng, W, "Optimal trajectory control of LLC resonant converters for soft start-up" 29 (29): 1461-1468, 2014

      9 Mumtahina, U, "Multimode optimization of the phase-shifted LLC series resonant converter" 33 (33): 10478-10489, 2018

      10 Fei, C, "Multi-step Simplified Optimal Trajectory Control (SOTC) for fast transient response of high frequency LLC converters" 2064-2071, 2015

      11 Haga, H, "Modulation method of a full-bridge three-level LLC resonant converter for battery charger of electrical vehicles" 32 (32): 2498-2507, 2017

      12 Sun, W, "Modified high-efficiency LLC converters with two split resonant branches for wide input-voltage range applications" 33 (33): 7867-7879, 2018

      13 Wu, H, "LLC resonant converter with semiactive variable-structure rectifier (SA-VSR) for wide output voltage range application" 31 (31): 3389-3394, 2016

      14 Yang, C. H, "LLC resonant converter controller with novel light load control" 131-135, 2014

      15 Sun, X, "Interleaved boost-integrated LLC resonant converter with fixed-frequency PWM control for renewable energy generation applications" 30 (30): 4312-4326, 2015

      16 Oruganti, R, "Implementation of optimal trajectory control of series resonant converter" 3 (3): 318-327, 1988

      17 Jeong, Y, "Hold-up time compensation circuit of half-bridge LLC resonant converter for high light-load efficiency" 35 (35): 13126-13135, 2020

      18 Ta, L, "High-efficiency hybrid LLC resonant converter for on-board chargers of plug-in electric vehicles" 35 (35): 8324-8334, 2020

      19 Yuan, Y, "Five-level LLC resonant converter suitable for wide output voltage range" 54 (54): 1187-1189, 2018

      20 Lin, R.L, "Efficiency improvement on LLC resonant converter using integrated LCLC resonant transformer" 54 (54): 1756-1764, 2018

      21 Jang, J, "Dynamic analysis and control design of optocoupler isolated LLC series resonant converters with wide input and load variations" 758-765, 2009

      22 Sun, X, "Dual-bridge LLC resonant converter with fixed-frequency PWM control for wide input applications" 32 (32): 69-80, 2017

      23 Fei, C, "Digital implementation of adaptive synchronous rectifier (SR) driving scheme for high-frequency LLC converters with microcontroller" 33 (33): 5351-5361, 2018

      24 Jang, J, "Current mode control for LLC series resonant dc-to-dc converters" 21-27, 2011

      25 Hu, Z, "Bang-bang charge control for LLC resonant converters" 30 (30): 1093-1108, 2015

      26 Jang, J, "Average current-mode control for LLC series resonant dc-to-dc converters" 923-930, 2012

      27 Kim, B.C, "Asymmetric PWM control scheme during hold-up time for LLC resonant converter" 59 (59): 2992-2997, 2012

      28 Jeong, Y, "An asymmetric half-bridge resonant converter having a reduced conduction loss for DC/DC power applications with a wide range of low input voltage" 32 (32): 7795-7804, 2017

      29 Musavi, F, "An LLC resonant DC-DC converter for wide output voltage range battery charging applications" 28 (28): 5437-5445, 2013

      30 Ryu, S.H, "Adjustable frequency- duty-cycle hybrid control strategy for full-bridge series resonant converters in electric vehicle chargers" 61 (61): 5354-5362, 2014

      31 Kang, S.-W, "Adaptive voltage-controlled oscillator for improved dynamic performance in LLC resonant converter" 52 (52): 1652-1659, 2016

      32 Yang, Z, "A wide output voltage LLC series resonant converter with hybrid mode control method" 1-5, 2015

      33 Shahzad, M.I, "A wide output range HB-2LLC resonant converter with hybrid rectifier for PEV battery charging" 3 (3): 520-531, 2017

      34 Ma, H, "A sliding-mode control scheme for LLC resonant DC/DC converter with fast transient response" 162-167, 2012

      35 Chang, C.-H, "A high-efficiency solar array simulator implemented by an LLC resonant DC-DC converter" 28 (28): 3039-3046, 2013

      36 Jiang, T, "A bidirectional three-level LLC resonant converter with PWAM control" 31 (31): 2213-2225, 2016

      37 Wang, H, "A PWM LLC type resonant converter adapted to wide output range in PEV charging applications" 33 (33): 3791-3801, 2018

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      학술지 이력

      학술지 이력
      연월일 이력구분 이력상세 등재구분
      2023 평가예정 해외DB학술지평가 신청대상 (해외등재 학술지 평가)
      2020-01-01 평가 등재학술지 유지 (해외등재 학술지 평가) KCI등재
      2014-10-08 학술지명변경 한글명 : 전력전자학회 영문논문지 -> Journal of Power Electronics KCI등재
      2010-01-01 평가 등재학술지 유지 (등재유지) KCI등재
      2007-01-01 평가 등재학술지 선정 (등재후보2차) KCI등재
      2006-01-01 평가 등재후보 1차 PASS (등재후보1차) KCI등재후보
      2004-07-01 평가 등재후보학술지 선정 (신규평가) KCI등재후보
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      학술지 인용정보
      기준연도 WOS-KCI 통합IF(2년) KCIF(2년) KCIF(3년)
      2016 0.83 0.54 0.74
      KCIF(4년) KCIF(5년) 중심성지수(3년) 즉시성지수
      0.65 0.62 0.382 0.06
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