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Book
Energy-Efficient Computing and Communication
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Year: 2020 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Abstract

Information and communication technology (ICT) is reponsible for up to 10% of world power consumption. In particular, communications and computing systems are indispensable elements in ICT; thus, determining how to improve the energy efficiency in communications and computing systems has become one of the most important issues for realizing green ICT. Even though a number of studies have been conducted, most of them focused on one aspect—either communications or computing systems. However, salient features in communications and computing systems should be jointly considered, and novel holistic approaches across communications and computing systems are strongly required to implement energy-efficient systems. In addition, emerging systems, such as energy-harvesting IoT devices, cyber-physical systems (CPSs), autonomous vehicles (AVs), and unmanned aerial vehicles (UAVs), require new approaches to satisfy their strict energy consumption requirements in mission-critical situations. The goal of this Special Issue is to disseminate the recent advances in energy-efficient communications and computing systems. Review and survey papers on these topics are welcome. Potential topics include, but are not limited to, the following: • energy-efficient communications: from physical layer to application layer; • energy-efficient computing systems; • energy-efficient network architecture: through SDN/NFV/network slicing; • energy-efficient system design; • energy-efficient Internet of Things (IoT) and Industrial IoT (IIoT); • energy-efficient edge/fog/cloud computing; • new approaches for energy-efficient computing and communications (e.g., AI/ML and data-driven approaches); • new performance metrics on energy efficiency in emerging systems; • energy harvesting and simultaneous wireless information and power transfer (SWIPT); • smart grid and vehicle-to-grid (V2G); and • standardization and open source activities for energy efficient systems.


Book
Energy-Efficient Computing and Communication
Author:
Year: 2020 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Bookmark

Abstract

Information and communication technology (ICT) is reponsible for up to 10% of world power consumption. In particular, communications and computing systems are indispensable elements in ICT; thus, determining how to improve the energy efficiency in communications and computing systems has become one of the most important issues for realizing green ICT. Even though a number of studies have been conducted, most of them focused on one aspect—either communications or computing systems. However, salient features in communications and computing systems should be jointly considered, and novel holistic approaches across communications and computing systems are strongly required to implement energy-efficient systems. In addition, emerging systems, such as energy-harvesting IoT devices, cyber-physical systems (CPSs), autonomous vehicles (AVs), and unmanned aerial vehicles (UAVs), require new approaches to satisfy their strict energy consumption requirements in mission-critical situations. The goal of this Special Issue is to disseminate the recent advances in energy-efficient communications and computing systems. Review and survey papers on these topics are welcome. Potential topics include, but are not limited to, the following: • energy-efficient communications: from physical layer to application layer; • energy-efficient computing systems; • energy-efficient network architecture: through SDN/NFV/network slicing; • energy-efficient system design; • energy-efficient Internet of Things (IoT) and Industrial IoT (IIoT); • energy-efficient edge/fog/cloud computing; • new approaches for energy-efficient computing and communications (e.g., AI/ML and data-driven approaches); • new performance metrics on energy efficiency in emerging systems; • energy harvesting and simultaneous wireless information and power transfer (SWIPT); • smart grid and vehicle-to-grid (V2G); and • standardization and open source activities for energy efficient systems.


Book
Energy-Efficient Computing and Communication
Author:
Year: 2020 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Bookmark

Abstract

Information and communication technology (ICT) is reponsible for up to 10% of world power consumption. In particular, communications and computing systems are indispensable elements in ICT; thus, determining how to improve the energy efficiency in communications and computing systems has become one of the most important issues for realizing green ICT. Even though a number of studies have been conducted, most of them focused on one aspect—either communications or computing systems. However, salient features in communications and computing systems should be jointly considered, and novel holistic approaches across communications and computing systems are strongly required to implement energy-efficient systems. In addition, emerging systems, such as energy-harvesting IoT devices, cyber-physical systems (CPSs), autonomous vehicles (AVs), and unmanned aerial vehicles (UAVs), require new approaches to satisfy their strict energy consumption requirements in mission-critical situations. The goal of this Special Issue is to disseminate the recent advances in energy-efficient communications and computing systems. Review and survey papers on these topics are welcome. Potential topics include, but are not limited to, the following: • energy-efficient communications: from physical layer to application layer; • energy-efficient computing systems; • energy-efficient network architecture: through SDN/NFV/network slicing; • energy-efficient system design; • energy-efficient Internet of Things (IoT) and Industrial IoT (IIoT); • energy-efficient edge/fog/cloud computing; • new approaches for energy-efficient computing and communications (e.g., AI/ML and data-driven approaches); • new performance metrics on energy efficiency in emerging systems; • energy harvesting and simultaneous wireless information and power transfer (SWIPT); • smart grid and vehicle-to-grid (V2G); and • standardization and open source activities for energy efficient systems.


Book
Wireless Power/Data Transfer, Energy Harvesting System Design
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Abstract

This book focuses on emerging wireless power/data and energy harvesting technologies, and highlights their fundamental requirements, followed by recent advancements. It provides a various technical overview and analysis of key techniques for wireless power/data and energy harvesting system design. The state-of-the-art system introduced in this book will benefit designers looking to develop wireless power transfer and energy harvesting technologies in a variety of fields, such as wearable, implantable devices, home appliances, and electric vehicles.

Keywords

Technology: general issues --- Energy industries & utilities --- wireless power transfer --- capacitive power transfer --- parallel-plate contactless power --- MIMO --- NOMA --- precoding --- power allocation --- user-clustering --- power splitter --- mobile sensor --- hopping sensor --- relocation protocol --- energy efficient protocol --- internet of things (IoTs) --- wireless sensor networks (WSNs) --- simulation --- inductive power --- dual impedance --- dual band --- reflected resistance --- frequency splitting --- multiple coils --- mutual inductance --- parasitic effect --- practical mutual inductance --- transfer impedance --- wearable heater --- inductive-power transmission --- textile coil --- impedance matching network --- parasitic resistance --- power loss --- reflection coefficient --- Smith chart --- cylindrical joint --- electromagnetic fields --- rotation-free structure --- soil sensing --- decision agriculture --- smart farming --- Wireless Power Transfer (WPT) --- compensation topology --- optimal load --- output power level --- electric vehicle (EV) --- capacitive power transfer (CPT) systems --- wireless power transfer (WPT) systems --- e-class inverter --- wireless resonance energy link system --- cognitive radio --- energy harvesting --- full-duplex relay --- simultaneous wireless information and power transfer (SWIPT) --- zero-forcing precoding --- shielded loop coil --- SAR --- coupled resonance --- coil resistance --- substrate size --- implantable biomedical microsystems --- data telemetry --- low power --- high data rate --- binary phase-shift keying demodulation --- electric vehicle --- center alignment point --- ferrite antenna --- laser wireless power transmission --- PV module --- maximum power point --- battery charging --- wirelessly-powered cage --- inductive power transmission --- implantable medical device --- animal experiment --- reference circuit --- inductive link --- implantable device --- line regulation --- wireless power telemetry --- supply independence --- balanced coil --- foreign object detection --- Maxwell bridge --- metal object detection --- wireless power transmission (WPT) --- power conversion efficiency (PCE) --- mm-sized implant --- duty cycle --- pulsed power transmission --- power transfer efficiency (PTE) --- rectifier


Book
Wireless Power/Data Transfer, Energy Harvesting System Design
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Export citation

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Bookmark

Abstract

This book focuses on emerging wireless power/data and energy harvesting technologies, and highlights their fundamental requirements, followed by recent advancements. It provides a various technical overview and analysis of key techniques for wireless power/data and energy harvesting system design. The state-of-the-art system introduced in this book will benefit designers looking to develop wireless power transfer and energy harvesting technologies in a variety of fields, such as wearable, implantable devices, home appliances, and electric vehicles.

Keywords

wireless power transfer --- capacitive power transfer --- parallel-plate contactless power --- MIMO --- NOMA --- precoding --- power allocation --- user-clustering --- power splitter --- mobile sensor --- hopping sensor --- relocation protocol --- energy efficient protocol --- internet of things (IoTs) --- wireless sensor networks (WSNs) --- simulation --- inductive power --- dual impedance --- dual band --- reflected resistance --- frequency splitting --- multiple coils --- mutual inductance --- parasitic effect --- practical mutual inductance --- transfer impedance --- wearable heater --- inductive-power transmission --- textile coil --- impedance matching network --- parasitic resistance --- power loss --- reflection coefficient --- Smith chart --- cylindrical joint --- electromagnetic fields --- rotation-free structure --- soil sensing --- decision agriculture --- smart farming --- Wireless Power Transfer (WPT) --- compensation topology --- optimal load --- output power level --- electric vehicle (EV) --- capacitive power transfer (CPT) systems --- wireless power transfer (WPT) systems --- e-class inverter --- wireless resonance energy link system --- cognitive radio --- energy harvesting --- full-duplex relay --- simultaneous wireless information and power transfer (SWIPT) --- zero-forcing precoding --- shielded loop coil --- SAR --- coupled resonance --- coil resistance --- substrate size --- implantable biomedical microsystems --- data telemetry --- low power --- high data rate --- binary phase-shift keying demodulation --- electric vehicle --- center alignment point --- ferrite antenna --- laser wireless power transmission --- PV module --- maximum power point --- battery charging --- wirelessly-powered cage --- inductive power transmission --- implantable medical device --- animal experiment --- reference circuit --- inductive link --- implantable device --- line regulation --- wireless power telemetry --- supply independence --- balanced coil --- foreign object detection --- Maxwell bridge --- metal object detection --- wireless power transmission (WPT) --- power conversion efficiency (PCE) --- mm-sized implant --- duty cycle --- pulsed power transmission --- power transfer efficiency (PTE) --- rectifier


Book
Wireless Power/Data Transfer, Energy Harvesting System Design
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

Loading...
Export citation

Choose an application

Bookmark

Abstract

This book focuses on emerging wireless power/data and energy harvesting technologies, and highlights their fundamental requirements, followed by recent advancements. It provides a various technical overview and analysis of key techniques for wireless power/data and energy harvesting system design. The state-of-the-art system introduced in this book will benefit designers looking to develop wireless power transfer and energy harvesting technologies in a variety of fields, such as wearable, implantable devices, home appliances, and electric vehicles.

Keywords

Technology: general issues --- Energy industries & utilities --- wireless power transfer --- capacitive power transfer --- parallel-plate contactless power --- MIMO --- NOMA --- precoding --- power allocation --- user-clustering --- power splitter --- mobile sensor --- hopping sensor --- relocation protocol --- energy efficient protocol --- internet of things (IoTs) --- wireless sensor networks (WSNs) --- simulation --- inductive power --- dual impedance --- dual band --- reflected resistance --- frequency splitting --- multiple coils --- mutual inductance --- parasitic effect --- practical mutual inductance --- transfer impedance --- wearable heater --- inductive-power transmission --- textile coil --- impedance matching network --- parasitic resistance --- power loss --- reflection coefficient --- Smith chart --- cylindrical joint --- electromagnetic fields --- rotation-free structure --- soil sensing --- decision agriculture --- smart farming --- Wireless Power Transfer (WPT) --- compensation topology --- optimal load --- output power level --- electric vehicle (EV) --- capacitive power transfer (CPT) systems --- wireless power transfer (WPT) systems --- e-class inverter --- wireless resonance energy link system --- cognitive radio --- energy harvesting --- full-duplex relay --- simultaneous wireless information and power transfer (SWIPT) --- zero-forcing precoding --- shielded loop coil --- SAR --- coupled resonance --- coil resistance --- substrate size --- implantable biomedical microsystems --- data telemetry --- low power --- high data rate --- binary phase-shift keying demodulation --- electric vehicle --- center alignment point --- ferrite antenna --- laser wireless power transmission --- PV module --- maximum power point --- battery charging --- wirelessly-powered cage --- inductive power transmission --- implantable medical device --- animal experiment --- reference circuit --- inductive link --- implantable device --- line regulation --- wireless power telemetry --- supply independence --- balanced coil --- foreign object detection --- Maxwell bridge --- metal object detection --- wireless power transmission (WPT) --- power conversion efficiency (PCE) --- mm-sized implant --- duty cycle --- pulsed power transmission --- power transfer efficiency (PTE) --- rectifier --- wireless power transfer --- capacitive power transfer --- parallel-plate contactless power --- MIMO --- NOMA --- precoding --- power allocation --- user-clustering --- power splitter --- mobile sensor --- hopping sensor --- relocation protocol --- energy efficient protocol --- internet of things (IoTs) --- wireless sensor networks (WSNs) --- simulation --- inductive power --- dual impedance --- dual band --- reflected resistance --- frequency splitting --- multiple coils --- mutual inductance --- parasitic effect --- practical mutual inductance --- transfer impedance --- wearable heater --- inductive-power transmission --- textile coil --- impedance matching network --- parasitic resistance --- power loss --- reflection coefficient --- Smith chart --- cylindrical joint --- electromagnetic fields --- rotation-free structure --- soil sensing --- decision agriculture --- smart farming --- Wireless Power Transfer (WPT) --- compensation topology --- optimal load --- output power level --- electric vehicle (EV) --- capacitive power transfer (CPT) systems --- wireless power transfer (WPT) systems --- e-class inverter --- wireless resonance energy link system --- cognitive radio --- energy harvesting --- full-duplex relay --- simultaneous wireless information and power transfer (SWIPT) --- zero-forcing precoding --- shielded loop coil --- SAR --- coupled resonance --- coil resistance --- substrate size --- implantable biomedical microsystems --- data telemetry --- low power --- high data rate --- binary phase-shift keying demodulation --- electric vehicle --- center alignment point --- ferrite antenna --- laser wireless power transmission --- PV module --- maximum power point --- battery charging --- wirelessly-powered cage --- inductive power transmission --- implantable medical device --- animal experiment --- reference circuit --- inductive link --- implantable device --- line regulation --- wireless power telemetry --- supply independence --- balanced coil --- foreign object detection --- Maxwell bridge --- metal object detection --- wireless power transmission (WPT) --- power conversion efficiency (PCE) --- mm-sized implant --- duty cycle --- pulsed power transmission --- power transfer efficiency (PTE) --- rectifier

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