电子系统的电源变换器感知设计

Sangyoung Park, Younghyun Kim, Jaehyun Park, N. Chang
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引用次数: 0

摘要

半导体的缩放使得单个部件不能再共享相同的供电电压,有些芯片甚至需要多个不同的供电电压水平。每个设备的输入输出电压标准规格不同,使用多个电源电压等级。各种设备,如显示器,RF, USB, SD卡等,增加了供电电压等级的数量。此外,由于耦合噪声,模拟设备通常不允许共享电源。然而,这些组件通常由单一电源供电,如电池。因此,电源转换器,如片上和片外开关模式DC-DC转换器,低差线性稳压器和电荷泵,即使在单个电路板上也大量填充。众所周知,电源转换器的效率足够高,但在电源管理政策制定过程中往往被忽视。然而,它们的实际转换效率根据设备活动和电源模式有很大差异,这有时会导致效率大大低于数据表中提供的值。此外,硬件设计人员通常会根据器件的最大供电电流对功率转换器进行优化,甚至进行过度设计,而器件在运行时的实际功耗可能在很大程度上与能量最优工作点相抵消。本教程涵盖了电源转换器感知设计的广泛主题,并介绍了几个设计实践;I)功率转换器的基础知识和转换效率,ii)功率转换器电压转换开销,iii)嵌入式系统的功率转换器感知设计,iv)能量收集设备的最大能量传输。
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Power Converter-aware Design of Electronics Systems
Semiconductor scaling makes the individual part can no longer share the same supply voltage, and some chips even require multiple different supply voltage levels. Different input and output voltage standard specification of each device make use of multiple supply voltage levels. Various devices such as display, RF, USB, SD card, etc. increase the number of supply voltage levels. Moreover, analog devices often do not allow sharing power supply due to coupling noise. However, those components are commonly powered by a single power source such as a battery. Consequently, power converters such as onand off-chip switching-mode DC–DC converters, low-dropout linear regulators and charge pumps are largely populated even on a single circuit board. Efficiency of the power converters is known to be high enough and often ignored during power management policy development. However, their actual conversion efficiency varies significantly according to device activity and power mode, which sometimes results in substantially lower efficiency than the value provided in datasheets. Moreover, hardware designers generally optimize the power converters for the maximum power supply current of the device and even perform over-design while the actual device power consumption during runtime could be largely offset from the energy-optimal operating point. This tutorial paper covers a wide range of topics on power converter-aware design and introduces several design practices; i) power converter basics and the conversion efficiency, ii) power converter voltage transition overhead, iii) power converter-aware design of embedded systems, and iv) maximum energy transfer of energy harvesting devices.
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IPSJ Transactions on System LSI Design Methodology
IPSJ Transactions on System LSI Design Methodology Engineering-Electrical and Electronic Engineering
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