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两本微网的书

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发表于 2009-6-16 16:12:19 | 显示全部楼层 |阅读模式
论文文献
标题: 两本微网的书
作者: FELIX A. FARRET, M. GODOY SIMO˜ ES, James Larminie, Andrew Dicks(估计写了也没啥用)
所属专业方向: 电力系统及其自动化
摘要: 两本书:
1、Integration of Alternative Sources of Energy.pdf
2、fuel cell system explained.pdf
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本帖最后由 bird841011 于 2009-6-16 16:39 编辑 $ X* G+ i" Y9 M' `  F, x7 ], c

( n$ L9 @6 P: ]; g5 u- ]0 i. E两本书:
5 f1 W) P% _( g& [1、Integration of Alternative Sources of Energy.pdf" a  z/ q; g, M$ Z6 n& A* J1 A7 H' i
IEEE press' E. t: ?) f/ ^" o# s
简要目录& z# I/ q  W' k! x
1 ALTERNATIVE SOURCES OF ENERGY 1
0 `7 a2 l2 |) M4 A6 B* ?  x2 PRINCIPLES OF THERMODYNAMICS 288 s0 B8 N2 E6 C# r
3 HYDROELECTRIC POWER PLANTS 57
; i7 s$ X2 f% z8 {! T/ Y: |4 WIND POWER PLANTS 847 V8 J$ I1 b. x  O6 l" p- f
5 THERMOSOLAR POWER PLANTS 112! P9 E* w' J& f. h+ h
6 PHOTOVOLTAIC POWER PLANTS 1293 S- Y# L3 r. B' ?/ o7 ^$ s
7 POWER PLANTS WITH FUEL CELLS 159' w# |6 k! {) H4 }' u9 P/ ?0 h
8 BIOMASS-POWERED MICROPLANTS 198* h  P: s6 \2 K: q: L0 ^8 P
9 MICROTURBINES 2155 |5 I% J! d1 [9 S" W3 X
10 INDUCTION GENERATORS 233
3 i3 |) F( q7 P/ T' a0 R11 STORAGE SYSTEMS 262' w& @6 v% G* |0 x$ z$ `: K
12 INTEGRATION OF ALTERNATIVE SOURCES! E, ?( V# L0 C- s3 J
OF ENERGY 301$ u& `& ^& M6 t% ]4 H9 ?# a7 a. R
13 DISTRIBUTED GENERATION 333! V2 z( T4 n- L/ M# n/ T/ j
14 INTERCONNECTION OF ALTERNATIVE ENERGY
- O. l1 |+ q+ C- p' z6 y3 O7 fSOURCES WITH THE GRID 354! j' v4 Z4 R6 U5 H
15 MICROPOWER SYSTEM MODELING WITH HOMER 379- ~$ n1 O3 u: F/ z/ v
Glossary 416
0 ^6 `, z6 H% oAPPENDIX A: DIESEL POWER PLANTS 419$ \* b, i9 L5 r) U4 x$ e3 H
APPENDIX B: GEOTHERMAL ENERGY 431* ?8 S$ L1 _: S% w1 A
APPENDIX C: THE STIRLING ENGINE 438& H. T6 b% T6 C( D
, r* a+ M  K" J/ |- D7 S

9 ~8 r) n( i0 P7 Z0 |% S7 y7 d7 _, P0 k# k2 J. _
2、fuel cell system explained.pdf, N% l5 a! Z8 N0 s+ v3 y
Wiley press( C' @2 v$ Q) A1 N5 Z  ~
简要目录
4 H# k' v& ^* w5 ^$ [& {1. Introduction ............................................................................. 1' L; x2 X. w4 T) ]! Z
2. Efficiency and Open Circuit Voltage ..................................... 25+ ]/ K( ]0 i% J! o$ C. ~) h5 b1 w
3. Operational Fuel Cell Voltages .............................................. 45$ [/ B& l* ^/ p* U5 l2 v
4. Proton Exchange Membrane Fuel Cells ................................ 67. }2 H  I$ e2 N
5. Alkaline Electrolyte Fuel Cells ............................................... 1210 c; ^0 O0 p' O. h, k- @
6. Direct Methanol Fuel Cells ..................................................... 141
3 ^! e# G# d8 V# R% m8 M7. Medium and High Temperature Fuel Cells ........................... 163, n2 u7 e. W; w
8. Fuelling Fuel Cells .................................................................. 229
2 ^( c2 h* T' l& b. U+ \* s: t$ P9. Compressors, Turbines, Ejectors, Fans, Blowers, and
" t1 D) k' ^$ _& F; [10. Delivering Fuel Cell Power ..................................................... 331* R6 q. Y9 z: G, Z8 [2 U7 H+ W
11. Fuel Cell Systems Analyzed .................................................. 369
9 J3 i+ h: ~% t9 H. c' cAppendix 1. Change in Molar Gibbs Free Energy Calculations ......... 391
9 \# x* u6 z+ K3 e- jAppendix 2. Useful Fuel Cell Equations ............................................. 395

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    [LV.1]初来乍到

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    发表于 2009-6-16 16:44:17 | 显示全部楼层
    刚下下来 先把目录贴出来
    : q3 S1 n3 [2 d8 }* [6 _Fuel Cell Systems Explained3 H3 G& X  R+ x. \
    Second Edition 2003出版的" y# c# q7 V7 l6 Z
    第一版是2000年1月出版的
    2 ?4 V0 b& i) z下面是目录+ g+ y) B% J1 X
    Contents
    ' Z6 R5 R) k; g+ s7 jPreface   ............................................................................................   xiii
      l/ e$ c. B6 x3 ^4 z6 M1 jForeword to the First Edition   ...........................................................   xv ! S" R( L; \7 z( t5 D- H3 i
    Acknowledgements   .........................................................................   xvii
    6 l- i9 |$ n7 G1 \; R5 _Abbreviations  ...................................................................................   xix ; a. O# Y! ]9 ~7 P- m! e& c
    Symbols  ...........................................................................................   xxi
    ; b2 v+ K/ a" s1. Introduction   .............................................................................   1 9 ^' {. v2 D9 M5 D' [$ d
    1.1  Hydrogen Fuel Cells – Basic Principles  .....................................   1
    $ t8 o8 F; F$ \. Z1.2  What Limits the Current?   ...........................................................   5
    # k8 Y  l; I& S( Z1.3  Connecting Cells in Series – the Bipolar Plate   ..........................   6
    & Q; R9 o& Q" V. I1.4  Gas Supply and Cooling   ............................................................   10 6 ]$ Q# F8 p/ f% I
    1.5  Fuel Cell Types  ..........................................................................   14
    2 c4 i7 k  t6 R+ [1.6  Other Cells – Some Fuel Cells, Some Not   ................................   16 & e  n& x5 Y% q9 g
    1.6.1  Biological Fuel Cells   ......................................................   17 " o2 J# S$ U; [/ F
    1.6.2  Metal/Air Cells  ................................................................   17
    3 l4 ^- i) k% ?; O1 ~7 a1.6.3  Redox Flow Cells or Regenerative Fuel Cells   ...............   18
    - u' H' W& O1 Q4 `( i1.7  Other Parts of a Fuel Cell System   .............................................   19 1 d' r  k+ o1 I. e
    1.8  Figures Used to Compare Systems  ...........................................   21
    + s% V* C; P9 q7 v1 ~! p* }1.9  Advantages and Applications   ....................................................   22 0 M" B1 t) u0 A* g; \4 l( p
    References   .........................................................................................   24 ! u1 S+ n: o* ^9 B2 L. W( U
    2.  Efficiency and Open Circuit Voltage   .....................................   25
    9 Y7 E5 ~# M6 \% c+ }2.1  Energy and the EMF of the Hydrogen Fuel Cell   ........................   25 4 s+ c. E4 b! [' q$ Z5 Y7 y4 A
    2.2  The Open Circuit Voltage of Other Fuel Cells and Batteries   .....   30
    , d( w7 s' j! g' z7 G: q* k4 U7 [" @2.3  Efficiency and Efficiency Limits   .................................................   31 ) V; s5 Z  c: |7 I/ R8 L0 Y9 x' ^( o
    2.4  Efficiency and the Fuel Cell Voltage   ..........................................   34
    ! ?8 I7 M+ N  D! o7 {) L7 P8 r  s3 z2.5  The Effect of Pressure and Gas Concentration   .........................   35
    2 V+ s+ G, u: h2.5.1  The Nernst Equation   ......................................................   35 7 i6 d3 W8 l+ `) `
    2.5.2  Hydrogen Partial Pressure  .............................................   38 7 A* Q9 a$ a9 K$ u
    2.5.3  Fuel and Oxidant Utilization   ...........................................   39
    ( Z5 `1 v* j' U* t2 ?2.5.4  System Pressure  ............................................................   40
    2 t9 y% x/ h; M; Q  Q& b7 D2.5.5  An Application – Blood Alcohol Measurement   ...............   41 8 F* t$ k2 G. D% P$ F9 u0 U. \# p
    2.6 Summary  ...................................................................................   42
    0 H& C8 N: Q& ~0 DReferences   .........................................................................................   43 7 c7 i2 l9 P7 k: z1 D& j; P
    3.  Operational Fuel Cell Voltages   ..............................................   45
    8 ^$ g6 i, t8 L: n4 P3 W3.1 Introduction  ................................................................................   45 9 [# O" h' V( N; [$ ?
    3.2 Terminology  ...............................................................................   47
    * w- I7 y& a9 A" e3.3  Fuel Cell Irreversibilities – Causes of Voltage Drop   ..................   47
    & U- d3 N, L% G4 j, P4 S* {" p2 J2 T3.4  Activation Losses  .......................................................................   48 * P; i' @0 B3 V; f' p. m) b
    3.4.1  The Tafel Equation   ........................................................   48
    " o  y) ?5 n0 |" j- ], |3 S3.4.2  The Constants in the Tafel Equation  ..............................   49 " d2 Q& O7 b, z& b* D; b- b
    3.4.3  Reducing the Activation Overvoltage  .............................   52 8 J$ A) c4 b. h( E( r
    3.4.4  Summary of Activation Overvoltage  ...............................   53
    5 _) I* `5 k. e+ U3.5  Fuel Crossover and Internal Currents   .......................................   53 $ E5 t5 ]. m) a: `! y. U8 _, K
    3.6  Ohmic Losses   ............................................................................   56 $ x( D( }) z# v7 g
    3.7  Mass Transport or Concentration Losses  ..................................   57 . k3 V' ~0 ]0 q) L- X4 x
    3.8  Combining the Irreversibilities   ...................................................   59
    " `2 |' O6 ^1 C; e( g$ q* ^6 K  K' \3.9  The Charge Double Layer   .........................................................   61
    3 S& f( p1 {/ a3.10  Distinguishing the Different Irreversibilities  ................................   63 , l( S8 ]8 p/ _& a5 j
    References   .........................................................................................   66
    , e$ ^1 u# J3 k7 [; O9 b- z% ?% A4.  Proton Exchange Membrane Fuel Cells  ................................   67 , B3 N8 P5 e7 e
    4.1 Overview  ....................................................................................   67
    0 O2 j3 [* F. k: m+ G4.2  How the Polymer Electrolyte Works   ..........................................   69 6 `. P3 K! z' k& S
    4.3  Electrodes and Electrode Structure   ...........................................   72 3 v+ u: v9 l8 k+ C4 X6 I% c* @
    4.4  Water Management in the PEMFC  ............................................   75 1 |% P3 Z; V" f8 A& @8 b# j
    4.4.1  Overview of the Problem  ................................................   75 ' N, b9 c1 {% h0 x0 E: n$ S0 J
    4.4.2  Airflow and Water Evaporation   ......................................   76
    / z7 `6 W: g3 ^4.4.3  Humidity of PEMFC Air   ..................................................   80 ) a  C" b$ i6 O
    4.4.4  Running PEM Fuel Cells without Extra Humidification   ..   83
    1 Z1 T# ]( G! o# U5 A5 J  v" |4.4.5  External Humidification – Principles  ...............................   85 ( s* s0 z2 S* K) B4 w3 B7 X
    4.4.6  External Humidification – Methods   ................................   87 * o' |1 R3 ~8 T# t
    4.5  PEM Fuel Cell Cooling and Air Supply   ......................................   90
    * E% l( {+ i2 \0 |4.5.1  Cooling Using the Cathode Air Supply  ...........................   90 & t, Q: r# W" @1 L) v/ B
    4.5.2  Separate Reactant and Cooling Air   ...............................   91
    1 H. f* O0 d( x4.5.3  Water Cooling of PEM Fuel Cells   ..................................   93
      p& |8 f+ X& x7 X, n% z; T$ q4.6  PEM Fuel Cell Connection – the Bipolar Plate   ..........................   94
    7 {5 `4 Y' f; W2 |3 [5 ^5 v4.6.1 Introduction  ....................................................................   94 / l0 B' x  V9 c% |! ~
    4.6.2  Flow Field Patterns on the Bipolar Plates   ......................   94
    & B7 E8 r1 c5 t2 [/ b' _. h. R) K4.6.3  Making Bipolar Plates for PEM Fuel Cells   .....................   96
    $ k1 Z2 ~8 V1 v4.6.4  Other Topologies   ...........................................................   100
    ) ?; h' n+ P" S# R4.7  Operating Pressure   ...................................................................   102 2 j2 w2 z; K% T  @( \! z( l8 a
    4.7.1  Outline of the Problem   ...................................................   102
    0 G  B! T4 w' b5 m, Y& z4.7.2  Simple Quantitative Cost/Benefit Analysis of Higher
    ( B4 X2 Q( k) j" f. l1 [# H: K( j# IOperating Pressures   ......................................................   103
    9 w3 M- K. R( J7 d% E2 ?4 D  P4.7.3  Other Factors Affecting Choice of Pressure   ..................   108
    7 |  i, W* P  V4 h4.8  Reactant Composition   ...............................................................   110 , R9 }. z1 s/ K# U* }
    4.8.1  Carbon Monoxide Poisoning  ..........................................   110
    , V; `' A; e: a, R% z0 S( }. k3 n% D4.8.2  Methanol and Other Liquid Fuels  ...................................   111 9 b2 [8 v/ R: n( @, s* y
    4.8.3  Using Pure Oxygen in Place of Air  .................................   111
    ( a: k3 }1 x7 g( I$ y5 `6 z9 m+ Q4.9  Example Systems   ......................................................................   112
    5 [; h7 [# M5 G/ O; V  r5 a. e4.9.1  Small 12-W System   .......................................................   112 ; H2 I* c6 K5 ~  A8 e
    4.9.2  Medium 2-kW System  ....................................................   114 ( M+ c2 _0 W; V, A% E
    4.9.3  205-kW Fuel Cell Engine   ...............................................   117
    & X5 r4 F' E& Y; K6 F: CReferences   .........................................................................................   118
    7 A1 x+ R" Y$ ?9 _  A5.  Alkaline Electrolyte Fuel Cells   ...............................................   121
    $ b- ]2 a2 D& L# g* Z3 ]) ?/ {5.1  Historical Background and Overview  .........................................   121 ( X! I0 S# [- m% E) |# C
    5.1.1  Basic Principles   .............................................................   121 ' O4 q# u2 Q4 a9 t: {% e" A' g; V0 A
    5.1.2  Historical Importance   .....................................................   121 7 X0 ^' u. {( y/ O0 g& S4 U
    5.1.3  Main Advantages   ...........................................................   122
    $ L- x+ ^4 ^, j; ^' P* G4 I/ j) e5.2  Types of Alkaline Electrolyte Fuel Cell   ......................................   124
    5 ^- Y, B$ \. f7 o9 u' \5.2.1  Mobile Electrolyte   ..........................................................   124
    ( h4 o& U5 _; D! t( w+ u. |9 B8 l' e) G5.2.2  Static Electrolyte Alkaline Fuel Cells  ..............................   127
    . l& J& u4 g6 w: I$ p. c5.2.3  Dissolved Fuel Alkaline Fuel Cells  .................................   129 0 {7 F, C$ @9 d. _. j" F, D& E
    5.3  Operating Pressure and Temperature   .......................................   132
    * f( v! U+ }, A6 @6 Z# K% R+ t5.4  Electrodes for Alkaline Electrolyte Fuel Cells   ............................   134
    , i9 [2 y) {; Z$ g/ Q  z5.4.1 Introduction  ....................................................................   134 % v7 b: w; q/ s! n( t- J
    5.4.2  Sintered Nickel Powder   .................................................   134
    : ~1 E) |' j) ?7 t  r9 n" F7 w5.4.3 Raney Metals  .................................................................   135 / [8 A: i; n! n  p- z
    5.4.4  Rolled Electrodes  ...........................................................   135 " W, j# @8 l( I  h- v3 L+ U9 r  k% }' r
    5.5  Cell Interconnections   .................................................................   137 0 J1 A9 X& c" @# z
    5.6  Problems and Development   ......................................................   137
    , _- N' k; i4 W3 r" R) YReferences   .........................................................................................   138
    1 s! Q4 o% `9 _  k4 n0 I6.  Direct Methanol Fuel Cells   .....................................................   141   H. j8 v4 E" H+ T6 s8 n! O
    6.1 Introduction  ................................................................................  141 ' l6 n3 ^  e5 |8 B2 o* H# C1 B* F
    6.2  Anode Reaction and Catalysts   ..................................................   143
    - a& x" k8 Q3 x: Z1 B6.2.1  Overall DMFC Reaction   .................................................   143 5 v4 l# g/ Y' a# }
    6.2.2  Anode Reactions in the Alkaline DMFC  .........................   144 9 f) {; U1 m' R; _/ K) Z. N
    6.2.3  Anode Reactions in the PEM Direct Methanol FC   .........   144 9 f+ j0 U% g$ U  W9 T( d2 b
    6.2.4  Anode Fuel Feed   ...........................................................   146
    . q. ^' |, v& a- p/ f; P  Z6.2.5  Anode Catalysts  .............................................................   147 + ^6 Y% q  g# K$ ~
    6.3  Electrolyte and Fuel Crossover   .................................................   148 " M: \: V2 [; ~3 V4 D1 \
    6.3.1  How Fuel Crossover Occurs   ..........................................   148
    & u% C+ J/ O( m0 C; Y6.3.2  Standard Techniques for Reducing Fuel Crossover   ......   149
    : _; e) N% [6 G2 Z& R) ?6.3.3  Fuel Crossover Techniques in Development   .................   150
    8 X& s9 J7 Q1 ^8 f2 o6.4  Cathode Reactions and Catalysts   .............................................   151   S$ H4 N8 r4 p+ h+ q2 ~0 }7 {
    6.5  Methanol Production, Storage, and Safety   ................................   152
      S, S  g' y$ q7 t# \2 E1 N$ h6.5.1  Methanol Production   ......................................................   152
    " L+ H& M0 U4 o) U6.5.2  Methanol Safety   .............................................................   153 4 M. m4 c6 [8 @( X* l
    6.5.3  Methanol Compared to Ethanol   .....................................   155 - \( @0 U; D2 b) |( U
    6.5.4  Methanol Storage   ..........................................................   156 + b! E% K6 s$ d, l. \% X+ ^
    6.6  Direct Methanol Fuel Cell Applications   ......................................   157
    + Q) {& q/ T5 t$ X3 k$ I! M' uReferences   .........................................................................................   160 ! B! C' m" @. z- T
    7.  Medium and High Temperature Fuel Cells   ...........................   163 8 a2 T3 W4 j8 t
    7.1 Introduction  ................................................................................  163
    0 q- K! Y+ K: D: g6 t+ ~  |7.2  Common Features   .....................................................................   165
    & ]8 G4 i7 o5 W" X5 d7 M, @7.2.1  An Introduction to Fuel Reforming   .................................   165 + Y$ W& S8 a: F; t: V" g. g! `8 Z
    7.2.2  Fuel Utilization   ...............................................................   166 # o" n- |# y. ?7 W$ ?
    7.2.3  Bottoming Cycles   ...........................................................   168 3 A) I9 r5 @. u" B! S
    7.2.4  The Use of Heat Exchangers – Exergy and Pinch
    " J2 s" i" h3 s9 p8 U; {; w1 S  ZTechnology   ....................................................................   174 ' `1 a4 a8 v5 e
    7.3  The Phosphoric Acid Fuel Cell (PAFC)   .....................................   177
    ( |$ ]/ E8 n2 C4 n# a- j7.3.1  How It Works   .................................................................   177 7 t7 Y) g/ e3 Y$ d) D$ g' S1 C  G
    7.3.2  Performance of the PAFC  ..............................................   182 5 x$ a4 c+ `3 d; e
    7.3.3  Recent Developments in PAFC   .....................................   184 1 M, G) i5 q$ c: K7 V/ w
    7.4  The Molten Carbonate Fuel Cell (MCFC)   ..................................   187
    " b3 X2 g5 f. P9 O% N$ f7.4.1  How It Works   .................................................................   187
    " t+ n& l! Y; L8 i7.4.2  Implications of Using a Molten Carbonate Electrolyte   ...   190
    ! ~8 @# A$ W& y7.4.3  Cell Components in the MCFC   ......................................   190 ; A$ e6 m0 G/ ^9 L
    7.4.4  Stack Configuration and Sealing  ....................................   195
    ; V$ s3 ?3 c4 z7 }! p) B1 e7.4.5  Internal Reforming   .........................................................   196
    4 A" z2 N# Y7 q0 r7 q$ R1 I7.4.6  Performance of MCFCS  .................................................   198
    " m" s9 h) B; k- z* |) r7.4.7  Practical MCFC Systems   ...............................................   202 $ d  p# h' d3 z$ s+ D+ i
    7.5  The Solid Oxide Fuel Cell   ..........................................................   207 8 W6 X. X7 l% a1 }: C' i1 t: A
    7.5.1  How It Works   .................................................................   207 2 X# J# A' e0 I
    7.5.2 SOFC Components  ........................................................   209 ( [( L& f' ]" K3 Q3 U) J
    7.5.3  Practical Design and Stacking Arrangements for the 9 o+ c3 ^( O7 l1 _" u: H
    SOFC   .............................................................................   213 % y/ N/ @; H5 J  [/ F
    7.5.4  SOFC Performance   .......................................................   220
    7 U# Q4 c. f  }7.5.5  SOFC Combined Cycles, Novel System Designs and
    ) u) W" G7 n% L- E2 fHybrid Systems  ..............................................................   221 ' ^: o- q$ d" L) \' J9 X; W
    7.5.6  Intermediate Temperature SOFCs  .................................   225
    : ~9 E, j( I/ I# j( B3 h4 u9 LReferences   .........................................................................................   226
    % @  i2 i- ^4 R/ b' b% O3 c8.  Fuelling Fuel Cells   ..................................................................   229
    . ?, A" k& x5 {) y" M+ [0 v8.1 Introduction  ................................................................................  229
    % f2 H8 b# O9 |8 t' m' |8.2  Fossil Fuels   ...............................................................................   232
    8 i/ D3 i; x' l' M8.2.1 Petroleum  ......................................................................   232 + {! D( g2 H4 t# N* K$ I
    8.2.2  Petroleum in Mixtures: Tar Sands, Oil Shales, Gas
    * x; ]; c: f4 k3 F8 QHydrates, and LPG   ........................................................   233 % c1 K5 w' c. }; p
    8.2.3  Coal and Coal Gases  .....................................................   234 ' w' b, m: A7 a: A# t
    8.2.4  Natural Gas  ....................................................................   235
    7 v) T  B5 _" ^8 f6 y" p9 _1 {8.3 Bio-Fuels  ...................................................................................  236
    . d% Q( K4 |1 R2 W+ ^* f8.4  The Basics of Fuel Processing   ..................................................   238 - s: @% S3 g% d! \5 |
    8.4.1  Fuel Cell Requirements   .................................................   238 2 j! r; A' O! _( n/ X" f# b
    8.4.2 Desulphurization  ............................................................   239
    , s6 Y4 l; W5 D( U  @2 _( I; j! }8.4.3  Steam Reforming   ...........................................................   241 7 w  H/ W! b( P, [
    8.4.4  Carbon Formation and Pre-Reforming  ...........................   244
    . l+ c# f" U( Q% E: s8.4.5  Internal Reforming   .........................................................   246 ( @: s* k0 R. L+ ~, S) e) q2 Q9 Y
    8.4.6  Direct Hydrocarbon Oxidation  ........................................   248 1 R" H4 ^, Z" e9 N- E" T5 A# ]2 r' ^
    8.4.7  Partial Oxidation and Autothermal Reforming  ................   248 ( k5 t5 X) r# H0 \/ E
    8.4.8  Hydrogen Generation by Pyrolysis or Thermal 6 b( t) W' J( G* I% _
    石皮解ing of Hydrocarbons   .............................................   250
    * g9 `4 ^7 M' H8 H: {8.4.9  Further Fuel Processing – Carbon Monoxide Removal   .   250 " o! S7 y8 V; \8 q; s
    8.5  Practical Fuel Processing – Stationary Applications  ..................   252
    * U2 `  d7 w7 ]' @4 ]4 y: ]! G8.5.1  Conventional Industrial Steam Reforming   .....................   252 ! P! |# C9 j; {8 t: w- W% C/ h
    8.5.2  System Designs for Natural Gas Fed PEMFC and 4 T1 D( R) l$ o- F; c* `) L* H
    PAFC Plants with Steam Reformers  ..............................   253 ' s* V! L3 |. \. E0 W! P
    8.5.3  Reformer and Partial Oxidation Designs   .......................   257
    6 h5 C( X% L% b3 P8.6  Practical Fuel Processing – Mobile Applications   .......................   263 / r* y7 t) m. ^( L
    8.6.1  General Issues  ...............................................................   263
    7 z% ^, z: y( i8.6.2  Methanol Reforming for Vehicles  ...................................   264
    . m' }$ d9 ?% U2 `8 X" \! q( `" [8.6.3  Micro-Scale Methanol Reactors  .....................................   267
    2 L* G- M* }3 m& _/ b8.6.4  Gasoline Reforming   .......................................................   269
    2 G  p: r) R0 S5 a8.7 Electrolysers  ..............................................................................  270 / M9 ?" @( E( S! H& M5 ~
    8.7.1  Operation of Electrolysers   .............................................   270 8 V( g1 n4 N5 Y8 u5 F+ l
    8.7.2  Applications of Electrolysers   ..........................................   272 6 D9 p, v3 ]% B0 L& ?9 {, H4 [% d* B
    8.7.3  Electrolyser Efficiency  ....................................................   272 % w$ b& S+ C: D% y( a5 O0 c% v
    8.7.4  Generating at High Pressure   .........................................   273
    % ^" D; o+ M! y8.7.5 Photo-Electrolysis  ..........................................................   275 5 `  q5 Z8 J) @3 f, l" }
    8.8  Biological Production of Hydrogen   ............................................   275 5 z  T  M3 c: p* n; S* G
    8.8.1 Introduction  ....................................................................   275 8 _0 S- W( y/ h$ C
    8.8.2 Photosynthesis  ..............................................................   276 ! l4 `9 S" t; w0 O* x5 h! n
    8.8.3  Hydrogen Production by Digestion Processes  ...............   278 $ k4 j7 w# y5 H. ~+ [( W
    8.9  Hydrogen Storage I – Storage as Hydrogen   .............................   279
    ( G  f: o8 ~8 O# Y/ y8.9.1  Introduction to the Problem  ............................................   279
    # X) m! I2 R& |8.9.2 Safety  .............................................................................   280 3 i0 I, F8 M# c
    8.9.3  The Storage of Hydrogen as a Compressed Gas  ..........   282 , f5 T) [6 E9 X/ ~
    8.9.4  Storage of Hydrogen as a Liquid   ...................................   284
    $ B& ]* f2 e! g. k8.9.5  Reversible Metal Hydride Hydrogen Stores  ...................   286 9 q+ W$ b3 h; A% N5 E
    8.9.6  Carbon Nanofibres  .........................................................   289 2 C1 d- z" K1 m) b# |6 D( x
    8.9.7  Storage Methods Compared  ..........................................   291
    5 `) J% s) v# ~7 w8 m8.10  Hydrogen Storage II – Chemical Methods  .................................   293
    9 k+ c! o' W) O. |+ h8.10.1 Introduction  ....................................................................   293
    $ X- @% Z. j9 B& S, r6 o$ F8.10.2 Methanol  ........................................................................   293
    8 ^) P- l" G. ]) l8.10.3  Alkali Metal Hydrides   .....................................................   295 $ M( w% j0 H) e$ y
    8.10.4  Sodium Borohydride   ......................................................   297 ) M' o# i- L8 d# [  a! o
    8.10.5 Ammonia  ........................................................................   301 5 G1 L& m; R# ^# D* S% g! L
    8.10.6  Storage Methods Compared  ..........................................   304
    4 a. K6 g+ A0 v" @' V6 YReferences   .........................................................................................   305
    8 l2 ^6 J9 U. l+ k; n$ p! L9.  Compressors, Turbines, Ejectors, Fans, Blowers, and
    2 v  s( d& ~, p. CPumps  ......................................................................................   309 : q% `3 Y! ~- ?1 ^& M2 f$ V
    9.1 Introduction  ................................................................................  309
    / h5 a; P) d0 S$ }  I9.2  Compressors – Types Used   ......................................................   310
    * J% a, s# X- x/ p# ^: Z" g2 r9.3  Compressor Efficiency  ...............................................................   312 ! v: L. C( R0 e+ v; b7 ~/ F
    9.4  Compressor Power   ....................................................................   314
    8 R0 p9 T! z8 q0 t% R9.5  Compressor Performance Charts   ..............................................   315 - i0 w/ y0 |9 E, ?! d
    9.6  Performance Charts for Centrifugal Compressors  .....................   318
    4 M3 I; ?) y+ y; r# ]( Z; h9.7  Compressor Selection – Practical Issues   ..................................   320
    ) @, |4 A4 ^! N/ B! M+ ]9.8 Turbines  .....................................................................................  321 ) Z3 E* H! w9 F) C7 M& x$ s- d
    9.9 Turbochargers  ...........................................................................  325 ' o" X/ {, ?: e3 B" f5 q( l; O
    9.10  Ejector Circulators   .....................................................................   326 9 H5 p- V5 B4 P+ ?* t8 P) }8 G
    9.11  Fans and Blowers   ......................................................................   327
      f6 Z+ l- _8 k9.12 Membrane/Diaphragm Pumps  ...................................................   328 6 t7 r1 T0 @9 e: d
    References   .........................................................................................   330 1 G$ p) D' c- }0 e/ E7 G
    10.  Delivering Fuel Cell Power  .....................................................   331
    ; S4 a4 W5 I: \% V  L! {: h4 c2 ]10.1 Introduction  ................................................................................   331 2 o, D1 G  m+ }4 `$ {
    10.2  DC Regulation and Voltage Conversion   ....................................   332 6 H! X0 a/ C# ^0 z2 C7 p5 _# P* D
    10.2.1  Switching Devices  ..........................................................   332
    3 _1 ~4 ?: c7 ]" ^- H4 A( V10.2.2  Switching Regulators   .....................................................   334 0 a1 j, x0 O6 F. \/ u
    10.3 Inverters  .....................................................................................   339 / B0 F, Q* u6 U) Z0 ^, J" C
    10.3.1  Single Phase  ..................................................................   339
    5 }& a$ G! F4 D3 s  W10.3.2  Three Phase   ..................................................................   344
    8 S$ w/ |- `8 y! v10.3.3  Regulatory Issues and Tariffs   ........................................   346
    ) ^  D" ^9 R  d( h10.3.4  Power Factor Correction   ................................................   348 - \; o; P5 p& t
    10.4  Electric Motors   ...........................................................................   349 " `' ], Q( o7 [+ r$ ]& Z% a
    10.4.1  General Points   ...............................................................   349
    * ?5 q7 g8 s& p! |10.4.2  The Induction Motor   .......................................................   350 1 ]  m% `2 O; W
    10.4.3  The Brushless DC Motor  ................................................   352 " T9 X7 J' Z' g# F6 [
    10.4.4  Switched Reluctance Motors   .........................................   355 5 d& H, X7 J  l$ g1 c) j7 n  }4 v
    10.4.5  Motors Efficiency   ...........................................................   357 " p6 n+ r3 g4 d  X- B& A  z
    10.4.6  Motor Mass   ....................................................................   361 . c5 D, n+ `+ P+ g5 l4 q. \  `; T
    10.5  Fuel Cell/Battery or Capacitor Hybrid Systems   .........................   362 / a& Y1 T3 H1 ?! \1 G
    References   .........................................................................................   367 9 W4 ^, T$ M! }( d: E
    11.  Fuel Cell Systems Analyzed   ..................................................   369
    ' M+ q! M2 E' b11.1 Introduction  ................................................................................   369 # U  b4 B$ b% p) t5 D' C4 Q' Z
    11.2  Energy Systems   ........................................................................   370
    ; v7 }$ k- F9 y' Q11.3 Well-To-Wheels Analysis  ...........................................................   371 5 w7 O( `6 C3 Q0 d: Z; f
    11.3.1  Importance of Well-to-Wheels Analysis   .........................   371 ; a9 E) ]9 D' Y( H
    11.3.2 Well-to-Tank Analysis   ....................................................   372
    + e5 b9 X; @: u$ |0 W11.3.3  Main Conclusions of the GM Well-to-Wheels Study   ......   374   p+ L: N# s/ p2 Y' {
    11.4  Power-Train or Drive-Train Analysis  ..........................................   375 3 p1 w+ t+ E0 y& c7 j" u# `
    11.5  Example System I – PEMFC Powered Bus  ...............................   377
    . Y9 X/ I! f. o' y3 A11.6  Example System II – Stationary Natural Gas Fuelled System  ...   382
    0 q: `# J" X% f8 g2 k11.6.1 Introduction  ....................................................................   382
    2 l/ H, l* Y  B5 I: Z11.6.2  Flow Sheet and Conceptual Systems Designs   ..............   382 5 p- Z0 u8 K6 d1 m6 n' u
    11.6.3  Detailed Engineering Designs   .......................................   386 - B+ ~% X9 a6 W
    11.6.4  Further Systems Analysis   ..............................................   387 3 u# u/ R2 L/ X+ M. T& O* Q2 Z
    11.7  Closing Remarks   .......................................................................   388 2 @1 z% L' g/ c5 M# m8 S
    References   .........................................................................................   389
    1 b+ V+ V% N, U2 j! E3 \Appendices / }5 ^( v, |1 y7 e
    Appendix 1. Change in Molar Gibbs Free Energy Calculations  .........   391 1 J. k3 H' J( H9 p$ f% C5 x' c- K
    A1.1 Hydrogen Fuel Cell   ........................................................   391 + B* E7 l0 K/ i, @- p1 P4 R
    A1.2 The Carbon Monoxide Fuel Cell   ....................................   393 7 ~- o  U. b" ^6 w4 Q" _7 e* h0 s
    References   .............................................................................   394 2 Q  H; A( N  I) G- R6 ~2 e+ K% A
    Appendix 2. Useful Fuel Cell Equations  .............................................   395 ( o) w+ s* a- l8 R$ ?
    A2.1 Introduction  ....................................................................   395
    , r  w& r! a' r# S3 J2 IA2.2 Oxygen and Air Usage  ...................................................   396
    " l3 m, G# q$ E6 aA2.3 Air Exit Flow Rate   ..........................................................   397
    # H, E! T) h1 H# j) ]; @A2.4 Hydrogen Usage   ............................................................   398 * a+ ~5 s* L  }& P
    A2.5 Water Production   ...........................................................   399
    . K/ N- @3 a) L4 I" N4 w$ @A2.6 Heat Produced   ...............................................................   399 : B- _8 P% q! |7 p- k, E( ?: P" `
    Index   ...............................................................................................  401
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    - C6 s) z" |6 U/ d1 oCONTRIBUTORS xvii+ e1 G" ^3 x. R
    FOREWORD xix
      e9 t* Q. q% SPREFACE xxi
    ( L- p. g+ y- s: {* l& QACKNOWLEDGMENTS xxiii
    6 ]3 O) ~4 s1 Y5 V. k: D7 CABOUT THE AUTHORS xxv) b$ H- y( O  N8 v4 F
    1 ALTERNATIVE SOURCES OF ENERGY 1. \! H' _/ X# x& m
    1.1 Introduction 1
    ' L! h' ^2 n' K) r1 \1.2 Renewable Sources of Energy 27 ^2 v8 f/ T" P6 ~) J" H
    1.3 Renewable Energy Versus Alternative Energy 4
    2 Y) L/ l- ]0 K5 ?8 y) K# P' g; j1.4 Planning and Development of Integrated Energy 8# ^( W8 D9 d8 S$ O+ b+ `
    1.4.1 Grid-Supplied Electricity 9' D& T6 P9 W3 h3 O) r& r: x7 p8 E9 U
    1.4.2 Load 10
      ~; r7 {+ a; m- }% d. h% M$ J: X! _1.4.3 Distributed Generation 10
    ) E0 }# y! @% c% v& Z1 w, ?1.5 Renewable Energy Economics 11
    4 k1 L* F$ |. Z1 U1 |9 m1.5.1 Calculation of Electricity Generation Costs 12
    ; f2 z/ y( x& h% Y1.6 European Targets for Renewables 141 ^* w" q% @0 W2 i
    1.6.1 Demand-Side Management Options 15* d  m+ V" S6 O. P: k( x- r
    1.6.2 Supply-Side Management Options 16
    ( C' M, y/ ?8 D* w3 H1.7 Integration of Renewable Energy Sources 19( P+ q- e1 K" c: }5 j3 D, o& p* O
    1.7.1 Integration of Renewable Energy in the United States 20
    . d5 U+ g+ B6 Y. m, T: \1.7.2 Energy Recovery Time 21
    * A$ I" c6 H4 J! i  _' z1.7.3 Sustainability 235 R7 T: k, X2 l
    1.8 Modern Electronic Controls of Power Systems 26
    . S2 Z0 R7 g4 K; D) o, V( oReferences 27/ G( ^( a& P( X4 A, j
    2 PRINCIPLES OF THERMODYNAMICS 28
    2 A5 m+ r1 \  e: v2.1. Introduction 28+ d9 A2 t  K$ Q( H, O+ i. [9 P4 m( Z
    2.2. State of a Thermodynamic System 29
    2 K3 K. K: I6 X  d  r2.3. Fundamental Laws and Principles 369 h# T3 B6 i5 ^1 @5 e0 A
    2.3.1 Example in a Nutshell 370 r4 a  L, w  X, h, |1 o
    2.3.2 Practical Problems Associated with Carnot Cycle Plant 40* r! S( j! Z) F& g6 @
    2.3.3 Rankine Cycle for Power Plants 41
    5 ^! Z& y" {8 z& E8 ]* `3 U2.3.4 Brayton Cycle for Power Plants 44% ^, V1 j; W0 m. @# p4 _
    2.3.5 Energy and Power 46& z1 F! T" }; Q) N( r! l
    2.4 Examples of Energy Balance 47& ]! P8 l4 @1 a, m6 c9 h
    2.4.1 Simple Residential Energy Balance 478 ?- ~0 A* {2 A1 ?7 g% A
    2.4.2 Refrigerator Energy Balance 48
    , t: x# K3 M% G* ?, b2.4.3 Energy Balance for a Water Heater 49) Y$ [6 @. G# A) n$ c
    2.4.4 Rock Bed Energy Balance 51, M4 R) a3 `! }2 c' t5 \
    2.4.5 Array of Solar Collectors 51% Y5 n/ K1 {8 h8 t! h) g4 E4 N8 T" O
    2.4.6 Heat Pump 52
    + p) z3 r* y& |! E2 u% {2.4.7 Heat Transfer Analysis 53
    # b2 u: ], \. l2.5 Planet Earth: A Closed But Not Isolated System 54
      R& T. f: S/ W% J9 AReferences 56
    . ^% ?" W7 m3 ~3 HYDROELECTRIC POWER PLANTS 57
    8 Q2 N6 j; J0 Q* ]3.1 Introduction 57
    + D0 O' V* E' I1 J3.2 Determination of the Useful Power 58% _! d' L  O# F" X; z
    3.3 Expedient Topographical and Hydrological Measurements 60
    ' L# Z6 d2 y% ~5 x* e3 n- J! N! G3.3.1 Simple Measurement of Elevation 601 J( [/ m2 y- e; B) z0 c2 v
    3.3.2 Global Positioning Systems for Elevation Measurement 60( N$ d% v1 ?  ?0 v0 E: O
    3.3.3 Specification of Pipe Losses 628 R: P2 E! I  H0 U8 c9 i
    3.3.4 Expedient Measurements of Stream Water Flow 63( z/ c  i2 }  C" Y; V
    3.3.5 Civil Works 677 T6 }8 N' V6 u/ s
    3.4 Generating Unit 67
    : r- y) |, K% g* a3.4.1 Regulation Systems 67
    . {! I; o$ i) H+ e7 @" B5 K3.4.2 Butterfly Valves 68; J) e% y* b0 m3 _
    3.5 Waterwheels 68
    3 p& m! Y! s, S& B3.6 Turbines 70
    , {/ N7 S+ Z, @+ F5 r4 ]. G3.6.1 Pelton Turbine 71  [6 _# h- P1 w$ I" Q
    3.6.2 Francis Turbine 74
    3 }6 R9 Z% z" p7 d0 E4 Z+ d3.6.3 Michel–Banki Turbine 77
    , H- R3 j% p# k6 a4 A9 V' \3.6.4 Kaplan or Hydraulic Propeller Turbine 79
    3 d* i) ~$ B6 Y4 R3.6.5 Deriaz Turbines 80
    ) W$ {( K( [6 Y, A7 m$ t& g$ s. }3.6.6 Water Pumps Working as Turbines 80
    + H8 f* K1 \5 R$ E3.6.7 Specification of Hydro Turbines 818 W, k" t4 I8 \$ I
    References 82. o3 s% h; s8 C+ Y# o4 p  I
    4 WIND POWER PLANTS 84( ]& V. `$ C* R' n1 }! H" [2 G' S
    4.1 Introduction 84/ p& \! e/ {1 v, C. K" a* S
    4.2 Appropriate Location 85; ?/ m7 Z; @8 s& s( X1 w4 w
    4.2.1 Evaluation of Wind Intensity 85
    % I' \  \" w) U4.2.2 Topography 939 c3 b4 l8 Y" ]3 ?4 ]
    4.2.3 Purpose of the Energy Generated 95& G0 X% `: T' A4 I
    4.2.4 Means of Access 95
    ) Y6 L! N( {, A" c4.3 Wind Power 95
    / R( k4 w8 n& `8 K/ T* P( I" v5 y) i- y: j4.4 General Classification of Wind Turbines 97
    - y+ h6 K/ B! D. q0 r6 m4.4.1 Rotor Turbines 99
    " Y* V0 j  w9 g$ Z4.4.2 Multiple-Blade Turbines 99
    ) a) |% x( ^* G0 y% F2 `4.4.3 Drag Turbines (Savonius) 100
    ! f- f" m( F+ {* L9 r- U" J4.4.4 Lifting Turbines 1018 j# N1 o! S' a3 B& s$ O" v4 A8 q
    4.4.5 System TARP–WARP 102
    ! r# C$ V, T' |( p6 {% W4.4.6 Accessories 1039 T2 H  ~3 i' j. Z1 E( Y9 G
    4.5 Generators and Speed Control Used in Wind Power Energy 1048 ~! i! w/ P: a0 b- A. D
    4.6 Analysis of Small Generating Systems 107
    & c; l* O6 ?5 ^' u: M& r: xReferences 110  ^7 J8 v$ d& n, p+ M
    5 THERMOSOLAR POWER PLANTS 112. ]$ O2 _1 n1 `6 B: [8 q
    5.1 Introduction 112
    + I! v8 Y: v$ c( a% P: K5.2 Water Heating by Solar Energy 112
    ) t* R' F; k% b( V$ z8 a% |) T5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 1157 e1 J- ]! Q8 `' @: A3 {
    5.4 Heating Domestic Water 118- F+ r3 z1 S9 P/ N7 Y  [
    5.5 Thermosolar Energy 1199 I( i, t" Y# m$ r8 o8 U
    5.5.1 Parabolic Trough 120  ~, f7 z' p; V; K
    5.5.2 Parabolic Dish 1228 X) m3 V2 W* o& _- ^
    5.5.3 Solar Power Tower 124/ ^' j8 p+ h6 o' y
    5.5.4 Production of Hydrogen 125
    3 L! }3 W6 Z7 y/ e% o4 t; r% w$ O5.6 Economical Analysis of Thermosolar Energy 126
    3 v; ?9 y8 ~' p( L8 \4 A6 NReferences 127* q! N+ R! c* q
    CONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129( v5 ?, S* k4 o$ t
    6.1 Introduction 129
    - f" c: A1 X7 I% a* a$ h6 b+ Y6.2 Solar Energy 130
    * l0 U0 K3 m% L, c9 j8 O7 A  T" M. K6.3 Generation of Electricity by Photovoltaic Effect 132
    " g. w" E  d9 A# H6.4 Dependence of a PV Cell Characteristic on Temperature 135  z" i; O; O  M4 l
    6.5 Solar Cell Output Characteristics 137' v, ~6 j4 z$ e: z. T& y* S* V
    6.6 Equivalent Models and Parameters for Photovoltaic Panels 139
    6 H2 t# a0 i! n" @+ x6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 140
    ; j- B) s; U& k- r, P  f* \" `( S  e! w6.6.2 Model of a PV Panel Consisting of n Cells in Series 142+ o& b8 j  _3 x9 o+ J% \
    6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 1446 u3 p# M) m/ ~4 s
    6.7 Photovoltaic Systems 145+ F. r( c1 j. M* P8 R8 q; F  ~
    6.7.1 Illumination Area 146; \: c1 r% h; {3 k
    6.7.2 Solar Modules and Panels 146
    4 n$ c, K- I  e; W+ C2 ^% r8 z6.7.3 Aluminum Structures 146
    ( }9 L% n1 D0 I) X. U1 x6.7.4 Load Controller 148
    " @- k9 [5 ?0 h* t0 u. }1 {6.7.5 Battery Bank 1483 v5 E3 K4 a- h- }. K3 R
    6.8 Applications of Photovoltaic Solar Energy 149
    6 ]8 ]9 ~  I+ I3 C7 t7 G" ]* A+ u6.8.1 Residential and Public Illumination 149  Q( }( w- Z' z; s' Q4 _
    6.8.2 Stroboscopic Signaling 150
    6 B* z! Z. u( ]" G/ Q: B6.8.3 Electric Fence 150/ F5 w- `! d+ i2 h. B+ I
    6.8.4 Telecommunications 151
    - r4 _" N$ K* e0 F0 X$ U' R6.8.5 Water Supply and Micro-Irrigation Systems 151
    * p; g3 }; c+ W9 j6.8.6 Control of Plagues and Conservation of. @% A: B# }: T
    Food and Medicine 153
    ! I. M" P& ~9 F# d5 s6.8.7 Hydrogen and Oxygen Generation by Electrolysis 154" {: R* A' l, b1 \( i: |% P
    6.8.8 Electric Power Supply 155
      l* R; Z8 o- e9 x9 E6.8.9 Security and Alarm Systems 156
    * C7 D; D1 w' ?. ^. p" C( B2 L5 d6.9 Economical Analysis of Solar Energy 156
    # u7 D. @& P) y; v; X6 Z8 T6 ^/ O( MReferences 1575 L) L3 e, L/ A6 i  c" E: ~, d7 w, ~
    7 POWER PLANTS WITH FUEL CELLS 159; z( }$ `. h/ w. c
    7.1 Introduction 159$ b) |$ H! W; ?
    7.2 The Fuel Cell 160
    ' A: T7 `% q3 `7.3 Commercial Technologies for Generation of Electricity 162+ o3 l* y/ ?: `* g9 L
    7.4 Practical Issues Related to Fuel Cell Stacking 169( r9 [# P6 l# x3 ?5 i$ c# M  k
    7.4.1 Low- and High-Temperature Fuel Cells 169; O6 S( Y  v3 J6 z9 X* o. y3 c
    7.4.2 Commercial and Manufacturing Issues 170
    . ^( J# y6 a) L7 rx CONTENTS7.5 Constructional Features of Proton Exchange
    / K6 b% l% g! F7 g/ WMembrane Fuel Cells 171
    4 d1 d1 x. ]6 l) K* d7.6 Constructional Features of Solid Oxide Fuel Cells 173, o# O7 R, J3 b, ], T
    7.7 Water, Air, and Heat Management 175
    - X- r- c3 D4 w" S- L. N7.8 Load Curve Peak Shaving with Fuel Cells 176+ |1 Q: L# N1 g7 v
    7.8.1 Maximal Load Curve Flatness at Constant Output Power 176% f5 a7 s$ v5 Q3 p* e' ^8 i
    7.8.2 Amount of Thermal Energy Necessary 178& ]- ?- [4 A1 s7 E) @
    7.9 Reformers, Electrolyzer Systems, and Related Precautions 180
    & U. I0 ^& v: \7 t% E" _8 l3 w0 }7.10 Advantages and Disadvantages of Fuel Cells 181
    2 e1 n- W" Q* u) i7.11 Fuel Cell Equivalent Circuit 182
    # M* X  O' m9 }1 t* w2 K7.12 Practical Determination of the Equivalent Model Parameters 1885 Z3 c. K5 D/ V- l8 n
    7.12.1 Example of Determination of FC Parameters 191
    7 M3 k% I2 Y. n& R7.13 Aspects of Hydrogen as Fuel 194- L) n% H0 k, ]; R/ p1 I
    7.14 Future Perspectives 195( I. b. B/ ?+ ?; }2 y9 {* s/ F
    References 196
    + p. i! G9 ], |. [8 BIOMASS-POWERED MICROPLANTS 198
    # m9 n1 {% N. \! X- E6 @8.1 Introduction 198) B4 [) u% e  U0 z" o
    8.2 Fuel from Biomass 202
    / l: z( w' i" F  c. W' Q7 H8.3 Biogas 204
    3 Y# l& A1 c1 y" p. C+ j: }8.4 Biomass for Biogas 205
    ) X2 i0 n4 L/ z9 i- Y/ Z: M8.5 Biological Formation of Biogas 206
    % c& M5 H5 |# Q) ]/ A+ B0 a8.6 Factors Affecting Biodigestion 207
    1 @( d- b; v* _# U% P/ y% S+ [( N* `8.7 Characteristics of Biodigesters 209
    5 N- l, C! g- p$ U5 d+ R8.8 Construction of Biodigester 210
    * V! s0 o2 Z& h2 l( J4 A* s8.8.1 Sizing a Biodigester 2111 N, r# ~5 Y" `! g; c
    8.9 Generation of Electricity Using Biogas 211
    , ]# m& L) z( ~, S. u$ Y: G4 }References 214
    6 \- Z$ z* m4 S, D9 MICROTURBINES 215$ p/ \' r! u$ Y$ z$ D0 r$ p
    9.1 Introduction 215
    4 ^  M% G0 c; {1 V5 f# `) {% d9.2 Princples of Operation 217& z- E2 y: {6 G1 x- b8 f, O/ C
    9.3 Microturbine Fuel 219
    9 S" J: c) |; Z2 C  o  h* a' ~9.4 Control of Microturbines 220' Z3 S+ L* ~  i) ^4 z
    9.4.1 Mechanical-Side Structure 2205 y* C7 f* D1 e; L& J+ B- ?
    9.4.2 Electrical-Side Structure 222, R4 g5 i' g% m: E- @4 M  @, Q( {
    9.4.3 Control-Side Structure 224
    - c' ~4 R: v- m3 eCONTENTS xi9.5 Efficiency and Power of Microturbines 228) `7 y* L% y- R, v
    9.6 Site Assessment for Installation of Microturbines 230
    " F" W8 G! k( k6 y3 p3 ^References 2311 |0 r  v: I- w
    10 INDUCTION GENERATORS 233" C# P: M; p0 i% X/ }- v
    10.1 Introduction 233
    & J' E. X; T0 y$ g( j5 w10.2 Principles of Operation 234' g9 T/ F: Y# f4 c/ h3 G4 v6 r
    10.3 Representation of Steady-State Operation 236
    3 }" e2 ^& c# D10.4 Power and Losses Generated 237
    & J3 R" {0 }/ R8 }3 @2 t4 U1 x10.5 Self-Excited Induction Generator 2408 y- [+ @4 j0 ^" O; X
    10.6 Magnetizing Curves and Self-Excitation 242, b( x, U9 m7 i
    10.7 Mathematical Description of the Self-Excitation Process 243
    " m% Z  o+ c* _' |* [4 ]3 R% D10.8 Interconnected and Stand-Alone Operation 246
    ' n* T7 @+ Y# z0 |6 `: P10.9 Speed and Voltage Control 248
    3 e( Z$ {/ Y  `10.9.1 Frequency, Speed, and Voltage Controls 249
    4 l! O* y4 S0 S6 u' k6 Z# H10.9.2 Load Control Versus Source Control! A9 k4 f7 A3 F7 w0 u* e. Y6 z3 ?
    for Induction Generators 250. |% p, b' j$ s7 K0 B6 v
    10.9.3 The Danish Concept 254
    2 ^$ t. t" p9 Q6 ?! q" G10.9.4 Variable-Speed Grid Connection 255
    4 _: h2 W2 z4 Y  k10.9.5 Control by the Load Versus Control by
    $ K" @1 e3 _6 B! L) E. u8 Xthe Source 256
    3 |1 J0 @2 l" F/ T9 C9 k% D2 e10.10 Economical Aspects 2589 w, i% _7 ]: _: i% s. n% m$ p
    References 259
    0 o2 b4 }6 J7 H1 c' f" D11 STORAGE SYSTEMS 262/ K# ]8 s! D# I
    11.1 Introduction 2622 ]& D; v% _- P6 Y
    11.2 Energy Storage Parameters 2655 o5 F& \9 ]9 Z" u
    11.3 Lead–Acid Batteries 268
    ! w2 D% `" o7 y. u4 f11.3.1 Constructional Features 268
    % u5 ]* k& y( K% H0 i11.3.2 Battery Charge–Discharge Cycles 2691 i* X+ Z' T6 Z( I7 C" x
    11.3.3 Operating Limits and Parameters 271
    " `3 j6 o9 |9 k3 [9 Y9 ~6 d11.3.4 Maintenance of Lead–Acid Batteries 273$ `% M+ n- S7 V) {8 O$ V$ R
    11.3.5 Sizing Lead–Acid Batteries for DG Applications 2739 b4 R- Z4 ]8 G4 y/ I' n
    11.4 Ultracapacitors 276# D4 u- `8 F( a& D
    11.4.1 Double-Layer Ultracapacitors 277
    * p0 g: ^; A5 T- g7 y11.4.2 High-Energy Ultracapacitors 2785 o/ _0 P" E# N& g( m
    11.4.3 Applications of Ultracapacitors 279
    ; C0 M+ n' S" c$ X8 A2 b; Txii CONTENTS11.5 Flywheels 282
    & K3 q3 f, ]) x" h9 m; w$ G# k11.5.1 Advanced Performance of Flywheels 282
    ) d" b3 g& X8 ^* S# y4 \; c11.5.2 Applications of Flywheels 282* V( K1 p1 o% e6 k: r, n# o9 b$ x
    11.5.3 Design Strategies 284
    + S8 W) a0 ~; |4 l( c/ q( G2 Q11.6 Superconducting Magnetic Storage System 286- g  x" U% ?) o
    11.6.1 SMES System Capabilities 2872 ]- r" v( S; G7 N
    11.6.2 Developments in SMES Systems 288: Y3 m# E9 M& F) H, j, V- |
    11.7 Pumped Hydroelectric Energy Storage 2909 Z, Q+ ?: h; y0 s- `, B
    11.7.1 Storage Capabilities of Pumped Systems 291$ t( t3 U3 n% T4 c0 ]9 l. X: g7 q6 z
    11.8 Compressed Air Energy Storage 2929 F# U% B( x4 i9 F, I/ q' `  t! w6 r
    11.9 Storage Heat 294
    5 D7 M  Q4 N2 Q11.10 Energy Storage as an Economic Resource 295
    : Y6 X7 C$ N  T5 O% A5 aReferences 299
    % P, F$ s: c% C2 D) U0 B12 INTEGRATION OF ALTERNATIVE SOURCES
    2 z" H0 I: K# W! I/ B+ u3 LOF ENERGY 301) b# ^+ a! I; Q/ Y5 N8 e: |' O. I$ v% o
    12.1 Introduction 301) {4 Y# V, J1 l, y
    12.2 Principles of Power Injection 302/ ]% ~. \* u- m2 l5 S
    12.2.1 Converting Technologies 302+ _1 L, k2 S$ ]5 Z7 g
    12.2.2 Power Converters for Power Injection
    9 T2 c7 ^- S3 w, winto the Grid 304
    * z, G* A: e0 w8 D12.2.3 Power Flow 3063 v# H& T0 Z; C. L
    12.3 Instantaneous Active and Reactive Power! _' A* p$ T. f  ~0 m
    Control Approach 3093 A6 w* m' x( V6 L' e
    12.4 Integration of Multiple Renewable Energy Sources 312
    : E- a, m- ?1 w, j( U# k. [. O! Z12.4.1 DC-Link Integration 315
    7 k8 A9 h1 o' E; ~12.4.2 AC-Link Integration 316
    $ r" Z6 |$ ?% \  }5 k$ H1 ~1 l4 z& W12.4.3 HFAC-Link Integration 317
    + M; k' T0 x2 A% x8 H, E) ?- M3 J12.5 Islanding and Interconnection Control 320
    7 b0 ?: D- J2 |5 I: a8 c. J12.6 DG Control and Power Injection 325. Y" A2 y7 T! i2 n
    References 331: V! Z/ |; P' f
    13 DISTRIBUTED GENERATION 333
    6 D  _' H  T; J3 J6 [: X/ z9 o3 G0 X: c13.1 Introduction 3332 W: A7 C9 m3 b, r6 y) E
    13.2 The Purpose of Distributed Generation 335
    1 L" ?, ^* j1 R13.3 Sizing and Siting of Distributed Generation 338) g2 q1 }  e2 D! c
    13.4 Demand-Side Management 339
    2 s2 m% {0 _9 |13.5 Optimal Location of Distributed Energy Sources 340
    ! n+ K# _) i1 K2 QCONTENTS xiii13.5.1 DG Influence on Power and Energy
      f$ ~/ d0 ~2 M" x" W( @. [- LLosses 342
    ) M3 F( H" Q$ {. r$ S: {13.5.2 Estimation of DG Influence on Power3 ^! b" s/ C0 o- W
    Losses of Subtransmission Systems 346
    ' ~' i" m1 J& y1 Q0 [3 W13.5.3 Equivalent of Subtransmission Systems* T2 a' Y3 ]2 V1 Q
    Using Experimental Design 348
    3 @8 W3 F& |. r8 W$ G* a" b9 S& F' g13.6 Algorithm of Multicriterial Analysis 350
    " m( v! W. U  lReferences 352
    6 U8 {& h2 b: R7 f# W14 INTERCONNECTION OF ALTERNATIVE ENERGY
    $ H2 }& D' V( f  c" WSOURCES WITH THE GRID 3542 M, B% o: p5 ?: m+ r' `, z* |
    Benjamin Kroposki, Thomas Basso, Richard DeBlasio,5 ~3 G4 O. J1 j
    and N. Richard Friedman% A. k2 O0 g- L/ }+ o
    14.1 Introduction 354
    : E8 L7 W* f' P) }0 q14.2 Interconnection Technologies 3573 s+ s, \! O0 Q& _; `9 r% s* y% G
    14.2.1 Synchronous Interconnection 357
    6 r( ^2 c4 U' u2 K4 V5 w0 a14.2.2 Induction Interconnection 358
    8 c8 ~% `6 [/ S; E( I  G$ F14.2.3 Inverter Interconnection 359
    1 j$ M. B6 [) d' R, C14.3 Standards and Codes for Interconnection 359
    4 o, U3 L# ^2 L/ E  f14.3.1 IEEE 1547 360
    ; o. ^  O8 b, @4 m7 A- H# A+ s; S7 m14.3.2 National Electrical Code 361. m3 Y, t9 W* b' ^! n% N3 Y
    14.3.3 UL Standards 3627 Q+ n! a) p' i) b5 R# ?9 S
    14.4 Interconnection Considerations 364- @: S9 a+ o3 R
    14.4.1 Voltage Regulation 364
    # p( \8 H8 x' C" `3 T14.4.2 Integration with Area EPS Grounding 365
      m* F9 Q# ?6 c8 S5 o( K14.4.3 Synchronization 365( @; |9 I, U7 C6 P! [# @
    14.4.4 Isolation 365) h) V$ o) f3 d4 b1 o  Y
    14.4.5 Response to Voltage Disturbance 366
    * j0 O. J, q0 V6 I14.4.6 Response to Frequency Disturbance 367" X" W5 p% L& C; p' T
    14.4.7 Disconnection for Faults 368, q% b/ c; a: v9 T6 i! t6 i
    14.4.8 Loss of Synchronism 369
      }( c7 _. o) {. P14.4.9 Feeder Reclosing Coordination 369! ?$ B3 e5 A" ?. d% J! z
    14.4.10 DC Injection 370
    9 p, P% |2 V- P  W3 F14.4.11 Voltage Flicker 371
    . S/ b' N8 s( @% R8 e- J4 Q9 i4 }/ _14.4.12 Harmonics 3717 @) m( }  w8 x
    14.4.13 Unintentional Islanding Protection 373" C. e& S4 N  ?% z
    14.5 Interconnection Examples for Alternative Energy Sources 373$ N6 V& y* [3 M2 R2 ^- p
    14.5.1 Synchronous Generator for Peak Demand Reduction 375
    1 F  w* g0 S, D# V" X. m+ Fxiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 375* f$ Z# o: ^1 c+ Y0 N- ^0 i0 [
    References 378: t+ v' Q2 v" C; P1 D* f
    15 MICROPOWER SYSTEM MODELING WITH HOMER 3790 |! k+ b* E5 s  {7 D& k
    Tom Lambert, Paul Gilman, and Peter Lilienthal4 n8 ]$ A( ]5 r5 e( O. ^
    15.1 Introduction 379% C2 I# q. J: V! Q
    15.2 Simulation 381
    . d- b& F) P' T# ^15.3 Optimization 385- r. z( h* e& r5 {4 @/ V
    15.4 Sensitivity Analysis 388
    / f, B) N0 h1 C! J  R15.4.1 Dealing with Uncertainty 389
    5 [" x  w# X/ h$ a* Z, U15.4.2 Sensitivity Analyses on Hourly Data Sets 391/ H( G6 c8 L0 t8 ]( d. q3 W- e9 {
    15.5 Physical Modeling 393
    # @) K( h$ o$ c/ y" a15.5.1 Loads 393; m( b" h. x' g3 b8 M
    15.5.2 Resources 3953 V$ L) K1 O2 N+ M
    15.5.3 Components 397
    / t& [% j4 n/ g  U15.5.4 System Dispatch 408' D: a# r# r# X; Q6 c: v: t
    15.6 Economic Modeling 414, }/ m9 }' D# O
    References 4167 L0 P4 I. q# ~- [5 l$ Z
    Glossary 416$ \, q& @3 B( m# n0 Y3 O4 g
    APPENDIX A: DIESEL POWER PLANTS 419
    ; h+ d# `! e& x; {4 Y; F; GA.1 Introduction 419
    $ H  r) D. a9 K; Q2 qA.2 Diesel Engine 420' Z6 V) R: j; Z1 a* q, c7 F
    A.3 Principal Components of a Diesel Engine 421
    8 f3 n; |; r9 P2 f6 H6 _, [A.3.1 Fixed Parts 421& y$ v: C9 Q. j  Y* E: M
    A.3.2 Moving Parts 421
    ! `6 h' o& l# o7 W; bA.3.3 Auxiliary Systems 422
    7 [8 W; n  f. R0 c! j+ [A.4 Terminology of Diesel Engines 422
    2 m7 x4 }$ X4 ^A.4.1 Diesel Cycle 4222 u; V: ?! L5 x5 N. A" j
    A.4.2 Combustion Process 424
    & ^' B) O/ q/ q  t/ o* f+ zA.5 Diesel Engine Cycle 4252 t# }2 x# J0 L/ h* J: K- y
    A.5.1 Relative Diesel Engine Cycle Losses 425- d5 J8 x; Y4 o
    A.5.2 Classification of Diesel Engines 426
    + j, A, D8 P% f* t( P! f2 X6 }A.6 Types of Fuel Injection Pumps 427
    ! L) q2 T/ g. K6 wA.7 Electrical Conditions of Generators Driven by  c$ ~6 i" D+ ?
    Diesel Engines 427
    1 A& E4 J$ t& k3 I8 pReferences 429: E% I/ K- L1 j0 Z
    CONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 431
    & U3 C/ b* o  o& L$ ?, ]) w+ OB.1 Introduction 431
    4 z' E. l  K0 r1 s& T4 nB.2 Geothermal as a Source of Energy 4328 i* j. G6 q0 u1 m! b& h
    B.2.1 Geothermal Economics 434
    $ p# N( j. t( f0 Y" F9 p  C" TB.2.2 Geothermal Electricity 435
    3 L' i9 D; X. ^5 a8 U7 X3 dB.2.3 Geothermal/Ground Source Heat Pumps 436
    & k/ S8 O; ?' E2 G0 mReferences 437
    4 r0 H! {: m# y/ p  {- s+ }2 GAPPENDIX C: THE STIRLING ENGINE 438
    : ^' `  a# v! X0 }" u) uC.1 Introduction 438
    3 {% c& ?& b; @2 r2 hC.2 Stirling Cycle 439, R" g- z9 C$ C3 f
    C.3 Displacer Stirling Engine 442
    % e% X- D2 I# Z3 t2 c6 ZC.4 Two-Piston Stirling Engine 444
    8 E5 V3 T7 b1 X, F& N+ Q! ?% QReferences 446
    ) m1 Q. s! C; y) c* u$ W  `INDEX 447
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    发表于 2009-6-16 16:50:16 | 显示全部楼层
    英文原版的,看不懂呀,还是谢谢。
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  • TA的每日心情
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    2021-1-29 14:27
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    [LV.3]偶尔看看II

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    发表于 2009-6-16 21:59:29 | 显示全部楼层
    谢谢,英文的,看起来比较费劲。
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    发表于 2009-6-25 21:43:51 | 显示全部楼层
    英文,有些恐怖呀!
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    发表于 2009-7-10 21:16:06 | 显示全部楼层
    好像看啊,就是看不到。地方地方 地方法大幅度大幅度飞 地方飞好想看啊,hao
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    发表于 2009-7-13 14:15:11 | 显示全部楼层
    谢谢,正需要这方面的资料
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