开关式驱动无线功率传输系统若干问题的研究
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摘要
随着电子产品的迅速发展,功能愈加增多,对能量依赖也愈加增强,而拖着电缆或携带较大电池使电子产品的在便携性和应用范围方面受到了很大限制,这使得无线功率传输在近些年成为研究的热点。无线功率传输根据距离可分为三类：远距离电能传输、近距离电能传输和中等距离的电能传输。远距离电能的传输主要通过激光或微波实现,距离可以达到数十或数千公里,甚至更远；近距离电能传输通过电磁感应耦合原理实现了电能不通过电缆的非接触式传输,但距离较近,数十公分或更近；中等距离电能传输则为数米远的电能传输,目前主要通过强谐振耦合原理实现。本文主要研究基于中等距离的强谐振式的无线功率传输,距离有数米远,系统主要包含工频电能到高频电能的变换和无线功率收发,主要涉及电力电子的功率变换、电磁场理论和控制理论等。本文从以下几个方面对强谐振式无线功率传输系统进行了研究。
1.功率因数调整在有源功率因数调整方面,本文提出了一种具有隔离的无桥有源式功率因数调整线路,线路基于SEPIC拓扑,深入分析了该线路的各种电气特性,并进行了仿真,分析和仿真结果表明该线路具有较高功率因数,同时具有效率高、谐波小和安全性高等特点。针对无源式功率因数调整,填谷式线路是应用比较典型的无源功率调整线路,本文通过对经典的填谷式线路的详细分析,提出了一种增强的填谷式功率因数调整线路,进一步提高功率因素,并大大减小了谐波。
2.逆变线路目前常用电压馈电半桥或全桥逆变线路,由于开关管含有极间电容,电压馈电的桥式逆变线路在导通瞬间会产生较大电流冲击,容易造成非工作开关管的误导通,以及对非工作桥臂也造成较大干扰,本文综合电流馈电和电压馈电两种线路特点,提出了一种电流和电压联合馈电逆变线路,改善了功率开关管的驱动性能,大大减小了导通瞬间的电流冲击,在一定程度上降低了开关功耗,同时避免了对其他非工作功率管的干扰,减小了电磁干扰特性,增强了系统安全和稳定。
3.开关管高频驱动本文通过对传统白举供电驱动线路分析,提出了一种新的自举供电开关管驱动线路,使得驱动线路保持了白举供电线路的简单特性,又具有负电压关断功能,系统具有较好的可靠性。
4.强谐振耦合无线功率传输系统的馈电和受电传统馈电主要为线性馈电和开关式直接馈电,线性馈电效率极低,开关式直接馈电线路自身参数对谐振影响和限制较大。本文提出了一种串联-并联组合方式的间接馈电方案,实现了半桥线路的软开关,同时为并联谐振的间接馈电线路提供恒流源,使并联谐振线路避免了开关器件的影响,并且具有较好的谐振性能。在受电方面给出了一种串并联谐振线路在受电线路的应用,使得受电线路具有更好的负载特性,并且避免了受电线圈的阻抗对上一级谐振线路的影响,这一方式也可推广到非阻性负载。
5.谐振式无线功率传输拓扑分析以变压器原理分析为基础,进一步分析了漏感的产生,根据原边和次边采用串联或并联谐振补偿方式不同,衍生出四种拓扑,本文对各种拓扑进行了分析,给出了各种拓扑的电压、电流以及功率等特性,并对其中两种拓扑的频率问题进行了分析。
6.开关式间接馈电的强谐振式无线功率传输的深入分析和优化,在麻省理工学院学院研究团队所提谐振式无线功率传输方案的基础上,对该方案进行了更进一步的电气特性研究,归纳了多级串联谐振电压、电流和电阻的一些特性,并进一步分析了线圈电感、电容取值以及线圈电磁场和线圈匝数等参数,使之优化得到更大的传输功率和传输效率。
With the rapid development of electronic products, the power supply has become a bottleneck because dragging cables or carrying large batteries greatly restricts the use and development of electronic products, so such requirement makes the wireless power transmission has become a hot research in recent years. According to the transferring distance wireless power transmission (WPT) can be classified into three categories: non-contact power transmission, power transmission in long-distance and power transmission in middle-distance. Long-distance power transmission is primarily achieved by laser or microwave, and distance can reach tens of thousands of kilometers and even farther; non-contact power transmission can reach tens of centimeters without the cable. This paper studies the strong resonant medium-range wireless power transfer which can reach a few meters distance.Such system mainly contains power converters and high-frequency wireless power transferring, and mainly involving power electronics, electromagnetic theory and control theory. The strong resonant wireless power transmission is studied from the following aspects.
1. Power factor correction As for passive power factor corrector,Valley-fill circuit is a typical passive power corrector, and the classic valley-fill circuit has been analyzed in detail in the paper, and an enhanced valley-fill power factor correction circuit is proposed which improves the power factor furtherly with less harmonics. This paper has proposed an isolated and bridgeless active power factor corrector based on SEPIC topology, and electrical characteristics of the circuit has been analyzed and simulated, and such circuit further improve the efficiency with a high power factor, less harmonic and high security.
2. High-frequency inverter, the inverter fed by voltage souece will engender large transient current because of the electrode capacitance, and such current can cause greate interference and mislead the other MOSFET to conduct. Acording to features of current-fed and voltage-fed inverter, a combined current and voltage feed circuit has been proposed, so that driving performance to power switch has been improved with less disturbance to other power switch, less electromagnetic interference and enhanced system security and stability.
3. High-frequency driver, high-frequency driver is the key to the switching power converter, and it can impact directly on the stability and security of the system. In this paper, based on the traditional bootstrap drive cicuit a novel bootstrap drive circuit has been proposed, which maintains the simplicity of the bootstrap circuit, but it also can shutdown MOSFET/IGBT with negative voltage, and so the system has better reliability.
4. Feeding and pick-up of power in the RWPT system, this paper has proposed an indirect power feeding circuit with the combinations of serial-parallel resonance to achieve a soft-switching in the half-bridge circuit, and to feed power to parallel resonance indirectly with a constant current source, and such scheme keep the parallel resonance away from interference of switching devices, while the serial resonance compensates reactive power of the parallel resonance. This paper presents a pick-up circuit with serial-parallel resonant circuit, such crcuit has a better characteristics with a wide range of load, and avoids impacting on the impedance of the primary resonant circuit.
5. RWPT topology analysis, based on analysis of the transformer principle, this paper presents further analysis of the leakage inductance. According to serial or parallel resonant compensation is applied in the primary and secondary side a variety of topologies are derived. This paper analyzed the voltage, current and power characteristics of various topologies, and wherein the frequency splitting of the two topologies are analyzed.
6. Analysis and optimization of the RWPT system fed indirectly by switching power, based on scheme of RWPT proposed by MIT Institute research team, the electrical characteristics of RWPT system were studied further. This paper summed up some electrical characteristics of a multi-stage series resonance, and further analysis has been carried out on the coil inductance, capacitance values and the number of turns to make greater transmission power and transmission efficiency.
1.功率因数调整在有源功率因数调整方面,本文提出了一种具有隔离的无桥有源式功率因数调整线路,线路基于SEPIC拓扑,深入分析了该线路的各种电气特性,并进行了仿真,分析和仿真结果表明该线路具有较高功率因数,同时具有效率高、谐波小和安全性高等特点。针对无源式功率因数调整,填谷式线路是应用比较典型的无源功率调整线路,本文通过对经典的填谷式线路的详细分析,提出了一种增强的填谷式功率因数调整线路,进一步提高功率因素,并大大减小了谐波。
2.逆变线路目前常用电压馈电半桥或全桥逆变线路,由于开关管含有极间电容,电压馈电的桥式逆变线路在导通瞬间会产生较大电流冲击,容易造成非工作开关管的误导通,以及对非工作桥臂也造成较大干扰,本文综合电流馈电和电压馈电两种线路特点,提出了一种电流和电压联合馈电逆变线路,改善了功率开关管的驱动性能,大大减小了导通瞬间的电流冲击,在一定程度上降低了开关功耗,同时避免了对其他非工作功率管的干扰,减小了电磁干扰特性,增强了系统安全和稳定。
3.开关管高频驱动本文通过对传统白举供电驱动线路分析,提出了一种新的自举供电开关管驱动线路,使得驱动线路保持了白举供电线路的简单特性,又具有负电压关断功能,系统具有较好的可靠性。
4.强谐振耦合无线功率传输系统的馈电和受电传统馈电主要为线性馈电和开关式直接馈电,线性馈电效率极低,开关式直接馈电线路自身参数对谐振影响和限制较大。本文提出了一种串联-并联组合方式的间接馈电方案,实现了半桥线路的软开关,同时为并联谐振的间接馈电线路提供恒流源,使并联谐振线路避免了开关器件的影响,并且具有较好的谐振性能。在受电方面给出了一种串并联谐振线路在受电线路的应用,使得受电线路具有更好的负载特性,并且避免了受电线圈的阻抗对上一级谐振线路的影响,这一方式也可推广到非阻性负载。
5.谐振式无线功率传输拓扑分析以变压器原理分析为基础,进一步分析了漏感的产生,根据原边和次边采用串联或并联谐振补偿方式不同,衍生出四种拓扑,本文对各种拓扑进行了分析,给出了各种拓扑的电压、电流以及功率等特性,并对其中两种拓扑的频率问题进行了分析。
6.开关式间接馈电的强谐振式无线功率传输的深入分析和优化,在麻省理工学院学院研究团队所提谐振式无线功率传输方案的基础上,对该方案进行了更进一步的电气特性研究,归纳了多级串联谐振电压、电流和电阻的一些特性,并进一步分析了线圈电感、电容取值以及线圈电磁场和线圈匝数等参数,使之优化得到更大的传输功率和传输效率。
With the rapid development of electronic products, the power supply has become a bottleneck because dragging cables or carrying large batteries greatly restricts the use and development of electronic products, so such requirement makes the wireless power transmission has become a hot research in recent years. According to the transferring distance wireless power transmission (WPT) can be classified into three categories: non-contact power transmission, power transmission in long-distance and power transmission in middle-distance. Long-distance power transmission is primarily achieved by laser or microwave, and distance can reach tens of thousands of kilometers and even farther; non-contact power transmission can reach tens of centimeters without the cable. This paper studies the strong resonant medium-range wireless power transfer which can reach a few meters distance.Such system mainly contains power converters and high-frequency wireless power transferring, and mainly involving power electronics, electromagnetic theory and control theory. The strong resonant wireless power transmission is studied from the following aspects.
1. Power factor correction As for passive power factor corrector,Valley-fill circuit is a typical passive power corrector, and the classic valley-fill circuit has been analyzed in detail in the paper, and an enhanced valley-fill power factor correction circuit is proposed which improves the power factor furtherly with less harmonics. This paper has proposed an isolated and bridgeless active power factor corrector based on SEPIC topology, and electrical characteristics of the circuit has been analyzed and simulated, and such circuit further improve the efficiency with a high power factor, less harmonic and high security.
2. High-frequency inverter, the inverter fed by voltage souece will engender large transient current because of the electrode capacitance, and such current can cause greate interference and mislead the other MOSFET to conduct. Acording to features of current-fed and voltage-fed inverter, a combined current and voltage feed circuit has been proposed, so that driving performance to power switch has been improved with less disturbance to other power switch, less electromagnetic interference and enhanced system security and stability.
3. High-frequency driver, high-frequency driver is the key to the switching power converter, and it can impact directly on the stability and security of the system. In this paper, based on the traditional bootstrap drive cicuit a novel bootstrap drive circuit has been proposed, which maintains the simplicity of the bootstrap circuit, but it also can shutdown MOSFET/IGBT with negative voltage, and so the system has better reliability.
4. Feeding and pick-up of power in the RWPT system, this paper has proposed an indirect power feeding circuit with the combinations of serial-parallel resonance to achieve a soft-switching in the half-bridge circuit, and to feed power to parallel resonance indirectly with a constant current source, and such scheme keep the parallel resonance away from interference of switching devices, while the serial resonance compensates reactive power of the parallel resonance. This paper presents a pick-up circuit with serial-parallel resonant circuit, such crcuit has a better characteristics with a wide range of load, and avoids impacting on the impedance of the primary resonant circuit.
5. RWPT topology analysis, based on analysis of the transformer principle, this paper presents further analysis of the leakage inductance. According to serial or parallel resonant compensation is applied in the primary and secondary side a variety of topologies are derived. This paper analyzed the voltage, current and power characteristics of various topologies, and wherein the frequency splitting of the two topologies are analyzed.
6. Analysis and optimization of the RWPT system fed indirectly by switching power, based on scheme of RWPT proposed by MIT Institute research team, the electrical characteristics of RWPT system were studied further. This paper summed up some electrical characteristics of a multi-stage series resonance, and further analysis has been carried out on the coil inductance, capacitance values and the number of turns to make greater transmission power and transmission efficiency.
引文
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