Analysis of LC-LC2 Compensated Inductive Power Transfer for High Efficiency and Load Independent Voltage Gain
A novel LC-LC2 compensated resonant converter topology with high efficiency and good controllable voltage gain is presented in this paper. An additional receiving side inductor working together with the receiving coil has the contribution to work with a large range of air gap distance. Due to this p...
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Published in: | Energies (Basel) Vol. 11; no. 11; p. 2883 |
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01-11-2018
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Abstract | A novel LC-LC2 compensated resonant converter topology with high efficiency and good controllable voltage gain is presented in this paper. An additional receiving side inductor working together with the receiving coil has the contribution to work with a large range of air gap distance. Due to this property, proposed compensation technique is effective for IPT based EV charging application. Voltage gain with independent of load and input impedance having ZPA of the proposed resonant converter are observed by the frequency domain analysis. On the other hand, time domain analysis gives the circuit operation. A 500 W LC-LC2 compensated resonant converter prototype is built to testify the theoretical analysis. To observe the efficiency-comparison, an S-SP compensated resonant converter with a similar amount of output power under different air gap is also presented. In order to justify the effectiveness, the proposed compensation method is verified by the laboratory results. The highest efficiency of the proposed compensated resonant converter is 93% with output power of 500 W at 140-mm air gap between the two sides of the IPT (inductive power transfer) transformer. |
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AbstractList | Furthermore, Vab can be regarded as a sine wave. [...]the simplified voltage across the battery can be written as, V0=1π∫0πVab(sinωt)dωt=2πVab From Equations (3)–(6), voltage gain of the LC-LC2 compensated resonant converter can be represented as, GV(ω)=V0Vi=|2VabππVAB4|=8π2|VabVAB|=8π2|VabVLM·VLMVAB|=8π2|n1+Cf2[(Z2+n2 Z1)jωLM+Z1 Z2]LM−(n2 LM+Lf2)(Z3+j1ωCf2)(Z1ω2 LM Lf22−jZ1 Z2ω3 LM2 Lf22 n2+Z2ω2 LM Lf22 n2+Z1ω2 LM2 Lf2 n2)+δjω3 LM RE C1 C2| where Z3=j(ωLMf−1ωCf2) and LT=Ll1+LM LR=Ll2+n2 LM δ=ω4 C1 C2(n2 LM2−LT LR)+ω2(LT C1+LR C2)−1 Equation (10) can be expressed as, δ=ω2 C1 C2[Z1 Z2+jωLM(Z2+n2 Z1)] From (7), it is observed that voltage gain is not dependent of the load when δ = 0. [...]transmitter current iP passes through the body diodes of S1 and S4, after that S1 and S4 start to conduct with the changing of current direction. Comparing Figure 8 and Figure 9, when the mutual inductance is about 13.1 µH, efficiency is much affected in case of S-SP resonant converter. Because efficiency of the S-SP compensated resonant converter directly related to the mutual inductance whereas efficiency of the LC-LC2 compensated resonant converter related to the equivalent inductance, LMf=n2 LM∥Lf2 . [...]LC-LC2 compensated resonant converter provides better efficiency than S-SP compensated resonant converter in case of variant air gap condition by which mutual inductance changes. A novel LC-LC2 compensated resonant converter topology with high efficiency and good controllable voltage gain is presented in this paper. An additional receiving side inductor working together with the receiving coil has the contribution to work with a large range of air gap distance. Due to this property, proposed compensation technique is effective for IPT based EV charging application. Voltage gain with independent of load and input impedance having ZPA of the proposed resonant converter are observed by the frequency domain analysis. On the other hand, time domain analysis gives the circuit operation. A 500 W LC-LC2 compensated resonant converter prototype is built to testify the theoretical analysis. To observe the efficiency-comparison, an S-SP compensated resonant converter with a similar amount of output power under different air gap is also presented. In order to justify the effectiveness, the proposed compensation method is verified by the laboratory results. The highest efficiency of the proposed compensated resonant converter is 93% with output power of 500 W at 140-mm air gap between the two sides of the IPT (inductive power transfer) transformer. |
Author | Mekhilef, Saad Bassi, Hussain Alam, Md Rawa, Muhyaddin |
Author_xml | – sequence: 1 givenname: Md surname: Alam fullname: Alam, Md – sequence: 2 givenname: Saad surname: Mekhilef fullname: Mekhilef, Saad – sequence: 3 givenname: Hussain surname: Bassi fullname: Bassi, Hussain – sequence: 4 givenname: Muhyaddin surname: Rawa fullname: Rawa, Muhyaddin |
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CitedBy_id | crossref_primary_10_1016_j_egyr_2023_10_008 crossref_primary_10_1016_j_aeue_2020_153081 crossref_primary_10_1109_ACCESS_2019_2937891 crossref_primary_10_3390_en15155613 crossref_primary_10_3390_en14112999 crossref_primary_10_1109_ACCESS_2023_3344041 crossref_primary_10_3390_en15207816 |
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Snippet | A novel LC-LC2 compensated resonant converter topology with high efficiency and good controllable voltage gain is presented in this paper. An additional... Furthermore, Vab can be regarded as a sine wave. [...]the simplified voltage across the battery can be written as, V0=1π∫0πVab(sinωt)dωt=2πVab From Equations... |
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SubjectTerms | Batteries Computer engineering Converters Diodes Efficiency Electric vehicles Energy Energy conversion efficiency Inductance inductive power transfer (IPT) load independent voltage gain R&D Receivers & amplifiers Renewable resources Research & development resonant converter Sine waves Voltage Voltage gain Wireless networks zero phase angle (ZPA) |
Title | Analysis of LC-LC2 Compensated Inductive Power Transfer for High Efficiency and Load Independent Voltage Gain |
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