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LEADER 00000cam a2200577Ii 4500
001 908199946
003 OCoLC
005 20240129213017.0
006 m o d
007 cr unu||||||||
008 150430s2014 enka ob 001 0 eng d
020 9781118960530
020 111896053X
020 1118729102
020 9781118729106
029 1 DEBBG|bBV042683257
029 1 DEBSZ|b446584622
029 1 GBVCP|b835873730
035 (OCoLC)908199946
037 CL0500000583|bSafari Books Online
040 UMI|beng|erda|epn|cUMI|dDEBBG|dOCLCF|dDEBSZ|dGBVCP|dCEF
|dTKN|dUAB|dUKAHL|dOCLCO|dOCLCQ|dOCLCO|dOCLCL
049 INap
082 04 621.312
082 04 621.312
099 eBook O'Reilly for Public Libraries
100 1 Chaudhuri, Nilanjan Ray,|d1981-|eauthor.|1https://
id.oclc.org/worldcat/entity/E39PCjJgDgpdwvm4JBGTR3Xq33
245 10 Multi-terminal direct-current grids :|bmodeling, analysis,
and control /|cNilanjan Ray Chaudhuri, Balarko Chaudhuri,
Rajat Majumder, Amirnaser Yazdani.|h[O'Reilly electronic
resource]
264 1 Chichester :|bJohn Wiley & Sons :|bIEEE Press,|c[2014]
264 4 |c©2014
300 1 online resource (1 volume) :|billustrations
336 text|btxt|2rdacontent
337 computer|bc|2rdamedia
338 online resource|bcr|2rdacarrier
504 Includes bibliographical references and index.
505 0 Cover -- Title Page -- Copyright -- Dedication -- Foreword
-- Preface -- Acronyms -- Symbols -- Chapter 1:
Fundamentals -- 1.1 Introduction -- 1.2 Rationale Behind
MTDC Grids -- 1.3 Network Architectures of MTDC Grids --
1.4 Enabling Technologies and Components of MTDC Grids --
1.5 Control Modes in MTDC Grid -- 1.6 Challenges for MTDC
Grids -- 1.7 Configurations of MTDC Converter Stations --
1.8 Research Initiatives on MTDC Grids -- 1.9 Focus and
Scope of the Monograph -- Chapter 2: The Voltage-Sourced
Converter (VSC) -- 2.1 Introduction -- 2.2 Ideal Voltage-
Sourced Converter -- 2.3 Practical Voltage-Sourced
Converter -- 2.4 Control -- 2.5 Simulation -- 2.6 Symbols
of the VSC -- Chapter 3: Modeling, Analysis, and
Simulation of AC-MTDC Grids -- 3.1 Introduction -- 3.2
MTDC Grid Model -- 3.3 AC Grid Model -- 3.4 AC-MTDC Load
flow Analysis -- 3.5 AC-MTDC Grid Model for Nonlinear
Dynamic Simulation -- 3.6 Small-signal Stability Analysis
of AC-MTDC Grid -- 3.7 Transient Stability Analysis of AC-
MTDC Grid -- 3.8 Case Studies -- 3.9 Case Study 1: The
North Sea Benchmark System -- 3.10 Case Study 2: MTDC Grid
Connected to Equivalent AC Systems -- 3.11 Case Study 3:
MTDC Grid Connected to Multi-machine AC System -- Chapter
4: Autonomous Power Sharing -- 4.1 Introduction -- 4.2
Steady-state Operating Characteristics -- 4.3 Concept of
Power Sharing -- 4.4 Power Sharing in MTDC Grid -- 4.5 AC-
MTDC Grid Load flow Solution -- 4.6 Post-contingency
Operation -- 4.7 Linear Model -- 4.8 Case Study -- Chapter
5: Frequency Support -- 5.1 Introduction -- 5.2
Fundamentals of Frequency Control -- 5.3 Inertial and
Primary Frequency Support from Wind Farms -- 5.4 Wind
Farms in Secondary Frequency Control (AGC) -- 5.5 Modified
Droop Control for Frequency Support -- 5.6 AC-MTDC Load
Flow Solution -- 5.7 Post-Contingency Operation -- 5.8
Case Study.
505 8 Chapter 6: Protection of MTDC Grids -- 6.1 Introduction --
6.2 Converter Station Protection -- 6.3 DC Cable Fault
Response -- 6.4 Fault-blocking Converters -- 6.5 DC
Circuit Breakers -- 6.6 Protection Strategies --
References -- Index -- End User License Agreement.
520 A generic DC grid model that is compatible with the
standard AC system stability model is presented and used
to analyse the interaction between the DC grid and the
host AC systems. A multi-terminal DC (MTDC) grid
interconnecting multiple AC systems and offshore energy
sources (e.g. wind farms) across the nations and
continents would allow effective sharing of intermittent
renewable resources and open market operation for secure
and cost-effective supply of electricity. However, such DC
grids are unprecedented with no operational experience.
Despite lots of discussions and specific visions for
setting up such MTDC grids particularly in Europe, none
has yet been realized in practice due to two major
technical barriers: Lack of proper understanding about the
interaction between a MTDC grid and the surrounding AC
systems. Commercial unavailability of efficient DC side
fault current interruption technology for conventional
voltage sourced converter systems This book addresses the
first issue in details by presenting a comprehensive
modeling, analysis and control design framework. Possible
methodologies for autonomous power sharing and exchange of
frequency support across a MTDC grid and their impact on
overall stability is covered. An overview of the state-of-
the-art, challenges and on-going research and development
initiatives for DC side fault current interruption is also
presented.
588 Description based on print version record.
590 O'Reilly|bO'Reilly Online Learning: Academic/Public
Library Edition
650 0 Electric power distribution|xDirect current.
650 6 Électricité|xDistribution|xCourant continu.
650 7 Electric power distribution|xDirect current|2fast
700 1 Chaudhuri, Balarko,|d1977-|eauthor.|1https://id.oclc.org/
worldcat/entity/E39PCjrpghgmQHfFq8RxFmjJym
700 1 Majumder, Rajat,|d1977-|eauthor.|1https://id.oclc.org/
worldcat/entity/E39PCjy6Ffk3ggbbyTkJxHt4mb
700 1 Yazdani, Amirnaser,|d1972-|eauthor.|1https://id.oclc.org/
worldcat/entity/E39PCjrpj83RgYWTTtqXyyFywK
710 2 IEEE Press
776 08 |iPrint version:|aChaudhuri, Nilanjan Ray, 1981-|tMulti-
terminal direct-current grids|z9781118729106
|w(OCoLC)885445608
856 40 |uhttps://ezproxy.naperville-lib.org/login?url=https://
learning.oreilly.com/library/view/~/9781118960530/?ar
|zAvailable on O'Reilly for Public Libraries
938 Askews and Holts Library Services|bASKH|nAH27080472
938 Askews and Holts Library Services|bASKH|nAH27113090
994 92|bJFN