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A Comprehensive Guide to Measuring the Power and Energy of Modern Systems

為了解決Electrical engineer的問題，作者Lee, Victor,Choi, Jee Whan,Cameron, Kirk 這樣論述：

Victor Lee is a principal engineer and research scientist at Intel’s Parallel Computing Lab. His research interests include emerging applications, application analysis and auto-tuning as well as computer architecture. He is currently working on analyzing the HW/SW interactions between HPC/Big-data a

pplications and modern processor architecture and on developing innovative architecture features to improve application and processor (performance and energy) efficiency. Victor received a B.S. in Electrical Engineering from University of Washington in 1994, S.M. in Electrical Engineering and Comput

er Science from Massachusetts Institute of Technology in 1996. He joined Intel in 1997 and had worked on many Intel processors include Intel Pentium Pro, Intel Pentium 4, and Intel Itanium processors. In 2002, Victor moved to Intel Labs and spearheaded the many-core research which eventually lead to

the Intel Many Integrated Core architecture and the first Intel Xeon Phi coprocessor product. He is a senior member of IEEE. He has 30+ professional publications, 15+ granted patents and more than 30 pending patent applications worldwide. Jee Choi is a postdoctoral research at IBM TJ Watson Researc

h Center. Kirk W. Cameron is a professor of computer science and a research fellow in the College of Engineering at Virginia Tech. The central theme of his research is to improve power and performance efficiency in high performance computing (HPC) systems and applications. Prof. Cameron is a pioneer

and leading expert in Green Computing. Cameron is also the Green IT columnist for IEEE Computer, Green500 co-founder, founding member of SPECPower, EPA consultant, Uptime Institute Fellow, and co-founder of power management software startup company MiserWare. His advanced power measurement software

infrastructure for research, (PowerPack), is used by dozens of research groups around the world. His power management software, Granola, is used by hundreds of thousands of people in more than 160 countries.

Electrical engineer進入發燒排行的影片

應用多目標基因演算法求解貴重物品之防盜裝置選址問題

為了解決Electrical engineer的問題，作者陳佩均 這樣論述：

摘　要 iABSTRACT ii致　謝 iii目　錄 iv表目錄 vi圖目錄 vii第一章 緒論 11.1 研究背景與動機 11.2 研究目的 31.3 研究流程 4第二章 文獻探討 72.1 防盜設備 72.2 無線射頻辨識 92.2.1 RFID之應用 112.3 設施選址問題 142.3.1　選址問題類型 152.3.2　覆蓋問題 152.4 啟發式演算法 182.4.1　基因演算法 192.4.2　多目標基因演算法 192.4.3　多目標基因演算法應用 20第三章 研究方法 223.1 問題描述與假設 223.2

研究架構 233.3 數學模型 253.4 多目標基因演算法求解步驟 28第四章 案例分析 354.1　　初始建構 354.2　　參數設計 364.3　　績效衡量指標 394.4　　實驗結果 46第五章 結論與建議 525.1　　結論 525.2　　建議 53參考文獻 54

Accessories for Hv and Ehv Extruded Cables: Volume 2: Land and Submarine AC/DC Applications

為了解決Electrical engineer的問題，作者 這樣論述：

The Study Committee B1 of CIGRE (Insulated Cables) covers underground and submarine, AC and DC, Insulated Cable Systems. SC B1 (formerly SC 21) was established in 1927 and celebrated its 80th anniversary during the 2007 Study Committee meeting in Osaka (Japan).Pierre Argaut graduated as an Electrica

l Engineer from the ＂Institut d’Electrotechnique de Grenoble＂ in 1971. He joined Delle-Alsthom (Now part of Alstom Grid) in Nov 1971 and took several positions before heading the R&D Department on GIS. After being Operation Manager of South European Pipeline, he joined SILEC in 1988 and retired at t

he end of 2010. His last position with SILEC was Senior Vice President. In Study Committee B1 (Insulated Cables) Pierre has held position of Working Group Member (21.09;21.06;21.07;21.17), French SC Member, Working Group Convener (B1.19), Special Reporter (2010), Advisory Group Convener (Tutorial Ad

visory Group till 2010) and is currently Chairman of SC B1 since 2010. He received the Technical Committee Award in 2000 and Distinguished Member Award in 2002.

具備頻率追踪迴路之低功耗混頻器優先接收機設計

為了解決Electrical engineer的問題，作者吳銓益 這樣論述：

摘要 iAbstract iii誌 謝 vContent viList of Figures ixList of Tables xiiiChapter 1 Introduction 11.1 Application and Development of Wireless Sensor Networks 11.2 The Challenges of Wireless Sensor Networks 21.3 Duty-cycled Rendezvous Schemes of Wireless Sensor Netwo

rks 51.4 Considerations of the Low-power Wireless Systems 71.5 Thesis Organization 10Chapter 2 Receiver Design Consideration 112.1 Design Considerations of Low Power Receivers 112.1.1 Power Consumption 122.1.1.1 Reduction of Voltage Supply 122.1.1.2 Architectu

re Design of a Receiver 152.1.1.3 System Modulation and Startup Mechanism 172.1.2 Sensitivity 182.1.3 Interference Immunity 192.2 State-of-the-Art in Wake-Up Receivers 212.2.1 Direct Envelop Detection Receiver 212.2.2 Super-Regenerative Receiver 222.2.3 Low I

F Receiver 232.2.4 Injection Locked Receiver 252.2.5 Subsampling Receiver 252.2.6 Uncertain IF Receiver 282.2.7 Mixer-first Receiver 292.3 Chapter Conclusion 30Chapter 3 Mixer-first Receiver with N-path Passive Methodology 323.1 Path number selection of N-Pa

th Passive Mixers 333.2 Single-to-Differential Passive Mixer 353.2.1 The Input Impedance of the Two-path Passive Mixer 353.2.1.1 Input impedance of Zero-IF SDPM 373.2.1.2 Input Impedance of Heterodyne SDPM 423.2.1.3 Input Impedance with LO Harmonics Influence 463.2.2

Frequency Response of Single-to-Differential Passive Mixer 493.2.2.1 Input Frequency Response of SDPM 493.2.2.2 Zero-IF Output Frequency Response of SDPM 513.2.2.3 Heterodyne Output Frequency Response of SDPM 523.2.3 Noise Analysis of Single-to-Differential Passive Mixer 543

.3 Frequency Tracking Mechanism 573.4 Chapter Conclusion 62Chapter 4 433 MHz Mixer-First Receiver with a Self-Frequency Tracking Loop 634.1 OOK Receiver 634.1.1 RF Front-End Matching Network 644.1.2 Self-Adjusted Frequency Tracking Circuit 674.1.2.1 Phase Freque

ncy Detector and Charge Pump 714.1.2.2 4-bit DAC 724.1.3 IF Band Gain and Demodulation Path 724.1.4 Data Acquisition Path with Envelop Detector and Comparator 744.1.5 Digital Control LC Oscillator 754.2 OOK/BFSK Receiver 774.2.1 Calibration/ Demodulation Selector

784.2.2 BFSK Demodulation Path 794.2.3 Digital Comparator 814.2.4 Data Correlator 824.3 Measurement and Discussion 854.3.1 Measurement Setup 854.3.2 Measurement Results 864.4 Chapter Conclusion 102Chapter 5 Self-powering Wireless Soil-pH and Electrical

Conductance Monitoring IC with Hybrid Microbial Electrochemical and Photovoltaic Energy Harvesting 1035.1 Motivation 1035.2 Self-powering Wireless Soil-pH and Electrical Conductance Monitoring IC with Hybrid Microbial Electrochemical and Photovoltaic Energy Harvesting 1065.2.1 Dual

-Input Dual-Output Power Management Unit 1075.2.2 Sensor Readout Circuitry 1085.2.3 Self-Frequency Tracking Receiver 1115.2.4 Chirp-Modulation Transmitter 1155.3 Measurement setup and results 1185.3.1 DIDO PMU Measurement Results 1185.3.2 SRC Measurement Results

1205.3.3 SFT-RX Measurement Results 1225.3.4 CMTX Measurement Results 1255.4 Summary 127Chapter 6 Conclusion and Future Work 128Reference 129Publication List 136