17.3 A 1.25GHz Fully Integrated DC-DC Converter Using Electromagnetically Coupled Class-D LC Oscillators

Alessandro Novello, Gabriele Atzeni, Giorgio Cristiano, Mathieu Coustans, Taekwang Jang
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Abstract

Over the past years, the constant reduction in the size of consumer electronics has strengthened the demand for fully integrated power management circuits. Buck converters offer high efficiency, but they cannot satisfy the stringent size requirements because bulky off-chip inductors are required [1]. Switched-capacitor (SC) approaches provide fully integrated power management solutions; however, their power density is limited by the on-chip capacitance density [2]. Resonant switched capacitor (ReSC) converters need 3D die-stacked inductors or PCB-integrated inductors to achieve appropriate power density values, posing challenges for monolithic integration [3]. A fully integrated ReSC has been presented [4], which implements an on-chip resonator, avoiding any external or 3D stacked passive components. However, the switching losses associated with the four transistors driving the resonator limit the switching frequency to 10s of MHz, bounding the power density scaling to 0.097W/mm 2.
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17.3采用电磁耦合d类LC振荡器的1.25GHz全集成DC-DC变换器
在过去的几年里,消费电子产品的尺寸不断缩小,加强了对完全集成电源管理电路的需求。降压变换器具有很高的效率,但由于需要笨重的片外电感,因此无法满足严格的尺寸要求[1]。开关电容器(SC)方法提供完全集成的电源管理解决方案;然而,它们的功率密度受到片上电容密度的限制[2]。谐振开关电容(ReSC)转换器需要3D模叠电感或pcb集成电感来实现合适的功率密度值,这对单片集成提出了挑战[3]。已经提出了一种完全集成的ReSC[4],它实现了片上谐振器,避免了任何外部或3D堆叠无源元件。然而,与驱动谐振器的四个晶体管相关的开关损耗将开关频率限制在10s MHz,将功率密度限制在0.097W/ mm2。
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