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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 + i  }) L0 l4 q6 Y! d9 M
' Z9 M* x7 X, w5 f7 H0 W* Z- m$ Y
两本书:7 s9 x3 o' E; r0 T& u
1、Integration of Alternative Sources of Energy.pdf
9 p4 q  X+ d: Z; R9 EIEEE press  c1 o9 {2 i7 n1 W# E' c- ~
简要目录
; {; n+ Y& g7 s  u) I9 P1 ALTERNATIVE SOURCES OF ENERGY 1
. p% Y# Q4 D+ [/ k$ H1 L/ ]2 PRINCIPLES OF THERMODYNAMICS 28
/ C& v% k6 M$ X3 HYDROELECTRIC POWER PLANTS 573 u3 g& H. q' Z0 `
4 WIND POWER PLANTS 84
  u3 t! R, F# c/ Y6 v# t5 THERMOSOLAR POWER PLANTS 112
! ?. G0 U  F4 _- p# p6 PHOTOVOLTAIC POWER PLANTS 129
$ i# u. \& }3 |+ i5 u+ L7 I5 U. q5 |7 POWER PLANTS WITH FUEL CELLS 159* z# ~/ b: u7 S' L5 t- ^
8 BIOMASS-POWERED MICROPLANTS 1983 t. B# ^; X7 w" T. N$ ]; ^
9 MICROTURBINES 215, g$ R; F9 ]7 h& J2 G9 `
10 INDUCTION GENERATORS 233
# ]$ o& K2 g; ~$ ?$ {8 U7 L11 STORAGE SYSTEMS 262$ d. H) o* g! q1 k% p5 b" k
12 INTEGRATION OF ALTERNATIVE SOURCES
# _* s# z* n4 q0 N! BOF ENERGY 301$ j( C: d6 o2 x+ E, u: x- S
13 DISTRIBUTED GENERATION 333( Y; T9 Y6 L4 P2 R0 c. K* B4 i2 B/ ^
14 INTERCONNECTION OF ALTERNATIVE ENERGY
; u- p% z$ U1 z# Q4 [7 |$ q3 F0 ESOURCES WITH THE GRID 354
* v, p! k1 T3 F9 e1 o, F15 MICROPOWER SYSTEM MODELING WITH HOMER 379
7 Z" S8 E0 E; T7 B6 M2 p% ?' \7 }# mGlossary 416
% W' T' o$ r: a: DAPPENDIX A: DIESEL POWER PLANTS 419
9 O  N$ [4 ^# t; i  nAPPENDIX B: GEOTHERMAL ENERGY 431
" i+ W7 O& d, e! @' v9 }APPENDIX C: THE STIRLING ENGINE 438
/ S7 ?3 b" z2 H; i
, y; w8 j1 ]4 N* C
4 ^% M5 N. |' Z: }7 S5 h1 ~, w% P; D' S; p9 f# T) y; q
2、fuel cell system explained.pdf- X+ M; q* S* {6 T5 y: e
Wiley press
0 c" s1 I& K: {" F4 D* ^% T- s3 L简要目录
5 u5 T' Z1 s3 k8 F! T2 g1. Introduction ............................................................................. 1& e% m  [8 |  L
2. Efficiency and Open Circuit Voltage ..................................... 25
# u2 K- l5 Q: L& I0 B' F' m# d3. Operational Fuel Cell Voltages .............................................. 45- y* N$ W# j+ {& n
4. Proton Exchange Membrane Fuel Cells ................................ 67
! }: b5 }( s' [" x: b5. Alkaline Electrolyte Fuel Cells ............................................... 121
9 A* r1 p4 o' L  L" v( l- C5 j6. Direct Methanol Fuel Cells ..................................................... 141. |# d9 y) ~, M3 i
7. Medium and High Temperature Fuel Cells ........................... 163' n- b# c! d# J
8. Fuelling Fuel Cells .................................................................. 229$ I- F" z9 W- y
9. Compressors, Turbines, Ejectors, Fans, Blowers, and
& t" H2 ~, y% L  t+ B10. Delivering Fuel Cell Power ..................................................... 3315 O6 k# O7 |4 ^: g+ T
11. Fuel Cell Systems Analyzed .................................................. 3691 A: l/ G% @! M- _2 d
Appendix 1. Change in Molar Gibbs Free Energy Calculations ......... 391
* b* E' W: o; [" \" _. zAppendix 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 4 E3 Q' X4 K. {
    Fuel Cell Systems Explained7 ]8 M. }$ o1 O8 e* `/ Z
    Second Edition 2003出版的8 B. k$ s$ A: P0 o
    第一版是2000年1月出版的
    8 Y$ N4 p! w( K! ?下面是目录/ e5 j3 O) Z1 K6 a8 N* Q- z4 N
    Contents
    2 G* u+ s2 S' \7 Z' ^2 BPreface   ............................................................................................   xiii
    3 ]6 V# n/ P  K- H6 q% yForeword to the First Edition   ...........................................................   xv
    6 w& q; o! r% g  t' R' z/ j/ [Acknowledgements   .........................................................................   xvii
    - b  ?8 D2 O/ n6 T2 U/ N* NAbbreviations  ...................................................................................   xix
      t- p3 `9 J% I1 ESymbols  ...........................................................................................   xxi % @/ T2 T: h0 b: d9 I* F! _
    1. Introduction   .............................................................................   1 : N$ l& ~  c2 A
    1.1  Hydrogen Fuel Cells – Basic Principles  .....................................   1
    & Z3 j1 q: u8 b9 R( w7 m1.2  What Limits the Current?   ...........................................................   5
    ( @" T* B1 {+ o5 S- O/ R& s7 j" d1.3  Connecting Cells in Series – the Bipolar Plate   ..........................   6 " ^+ Q6 h  Q9 z) {6 F/ V2 z2 Z
    1.4  Gas Supply and Cooling   ............................................................   10 , q- Y" |) e6 N% y6 n5 H0 Y
    1.5  Fuel Cell Types  ..........................................................................   14
    9 }) a! `! R: Y% `1 N. V4 P1.6  Other Cells – Some Fuel Cells, Some Not   ................................   16
    3 f& f$ G0 l9 Y# v1.6.1  Biological Fuel Cells   ......................................................   17
    2 a/ u/ T) C3 V# U1 D; A1.6.2  Metal/Air Cells  ................................................................   17
    ! Q4 Y: m: x: k1.6.3  Redox Flow Cells or Regenerative Fuel Cells   ...............   18
    6 B  u% h9 E  g  K; q1.7  Other Parts of a Fuel Cell System   .............................................   19
    . {  e7 v% r) I9 N3 h3 }. W" j1.8  Figures Used to Compare Systems  ...........................................   21
    - \$ f- S4 S& k+ ~; s* n* a" y1.9  Advantages and Applications   ....................................................   22
    . F9 D  I1 |! w$ F. wReferences   .........................................................................................   24 ; p3 t* g# D8 a0 @
    2.  Efficiency and Open Circuit Voltage   .....................................   25
    * L! z3 o* ?, {2.1  Energy and the EMF of the Hydrogen Fuel Cell   ........................   25 5 U2 z4 I  ?4 j1 u+ P& s! A
    2.2  The Open Circuit Voltage of Other Fuel Cells and Batteries   .....   30
    2 d# V! a% v+ N2.3  Efficiency and Efficiency Limits   .................................................   31 % ~/ A/ F% p: n, N, B& f
    2.4  Efficiency and the Fuel Cell Voltage   ..........................................   34
    5 q) N; f/ y4 k6 d3 z2.5  The Effect of Pressure and Gas Concentration   .........................   35
    0 Q, I7 B; a. c  v' \. w2.5.1  The Nernst Equation   ......................................................   35   c0 z5 l" j; L# ]5 @* h
    2.5.2  Hydrogen Partial Pressure  .............................................   38
    9 H! t1 ?4 v% T- ?) b3 n, U2.5.3  Fuel and Oxidant Utilization   ...........................................   39 $ a1 ?0 d) u  w4 w0 u
    2.5.4  System Pressure  ............................................................   40
      N; v! m* r1 b- c2.5.5  An Application – Blood Alcohol Measurement   ...............   41
    ! S0 N7 d$ k4 V$ Z7 q( E+ x6 [2.6 Summary  ...................................................................................   42
    * I) r8 z4 ~( e6 _4 |; n6 n4 ^References   .........................................................................................   43
    : s8 N$ e7 R8 H6 H7 A3.  Operational Fuel Cell Voltages   ..............................................   45 3 f+ u6 `! @% i/ {2 M
    3.1 Introduction  ................................................................................   45 . _. W2 G: s# c# c
    3.2 Terminology  ...............................................................................   47 , P/ C2 _0 L" g  |
    3.3  Fuel Cell Irreversibilities – Causes of Voltage Drop   ..................   47 1 N# [0 L% o/ i) S+ f, D& }4 k
    3.4  Activation Losses  .......................................................................   48
    : u( z; E% n# c% u1 W0 k3 W1 i3.4.1  The Tafel Equation   ........................................................   48 9 Q# C2 i0 {9 F' D. t- f" ^- X5 X
    3.4.2  The Constants in the Tafel Equation  ..............................   49 6 Z7 W9 j0 V0 L, s1 H
    3.4.3  Reducing the Activation Overvoltage  .............................   52 : C. P0 J: w" c0 B/ k
    3.4.4  Summary of Activation Overvoltage  ...............................   53
    4 R: x* G/ S( @  v: P5 B3.5  Fuel Crossover and Internal Currents   .......................................   53 5 e8 W" N. X2 q, m; x, S* s/ l$ A
    3.6  Ohmic Losses   ............................................................................   56 7 ^, P! R% k& T0 [; ~  v
    3.7  Mass Transport or Concentration Losses  ..................................   57
    " r; `2 [1 ~- D* a- {3.8  Combining the Irreversibilities   ...................................................   59
    " x( n2 y. E7 b! t" ~8 b( o3.9  The Charge Double Layer   .........................................................   61   f; H! e8 B8 Q% _" g2 P  d
    3.10  Distinguishing the Different Irreversibilities  ................................   63
    + r9 D8 B! J% BReferences   .........................................................................................   66 7 R& P/ x9 r( P9 s  L' w3 o
    4.  Proton Exchange Membrane Fuel Cells  ................................   67
    5 f! A5 [- b/ U( K; x: n- F# t& X4.1 Overview  ....................................................................................   67
    4 N  d8 H& k9 S0 d$ p2 ^4 T: n4.2  How the Polymer Electrolyte Works   ..........................................   69
    1 L: P* _5 V5 A  I2 v" B2 f' U% ?4.3  Electrodes and Electrode Structure   ...........................................   72
    ; n" l- c" Q5 m5 F) h1 F7 f0 `4.4  Water Management in the PEMFC  ............................................   75 " m6 F9 ~0 c% P$ h) p+ D' F
    4.4.1  Overview of the Problem  ................................................   75 * T# X6 G: L( n4 s0 `& Y) q1 x
    4.4.2  Airflow and Water Evaporation   ......................................   76
    3 J0 a. Y: b% L4.4.3  Humidity of PEMFC Air   ..................................................   80 8 H8 R, f3 g' z+ e
    4.4.4  Running PEM Fuel Cells without Extra Humidification   ..   83 + f6 |* }3 _% }3 W
    4.4.5  External Humidification – Principles  ...............................   85 . ^% Z7 y/ e; ]
    4.4.6  External Humidification – Methods   ................................   87 + {7 N7 C2 b' ~
    4.5  PEM Fuel Cell Cooling and Air Supply   ......................................   90
    : O" [, n5 m8 `4.5.1  Cooling Using the Cathode Air Supply  ...........................   90 2 e' e$ y- n) `, o! Z
    4.5.2  Separate Reactant and Cooling Air   ...............................   91
    6 K" O9 }7 v" \' l7 k# P4 \4.5.3  Water Cooling of PEM Fuel Cells   ..................................   93
    2 @# d8 U5 Q' f& t4.6  PEM Fuel Cell Connection – the Bipolar Plate   ..........................   94 6 c8 \% m& s1 D* _
    4.6.1 Introduction  ....................................................................   94 ' ^5 H, d: G$ I
    4.6.2  Flow Field Patterns on the Bipolar Plates   ......................   94
    4 x$ [1 f) P* c6 F( L1 d8 k: J4.6.3  Making Bipolar Plates for PEM Fuel Cells   .....................   96 6 ?# I7 U2 e* _( N' R
    4.6.4  Other Topologies   ...........................................................   100
    ; Y# h/ G8 E$ g; k+ W8 G* Z* z4.7  Operating Pressure   ...................................................................   102
    ( H  S; l* x9 b* l, [4.7.1  Outline of the Problem   ...................................................   102 3 s0 }3 m% H$ D* m
    4.7.2  Simple Quantitative Cost/Benefit Analysis of Higher
    $ P( F$ q0 u; IOperating Pressures   ......................................................   103
    " K9 W6 }7 j3 e3 I% }7 y4.7.3  Other Factors Affecting Choice of Pressure   ..................   108
    # {( V9 D3 @; c. v/ O4.8  Reactant Composition   ...............................................................   110
    8 W9 @! c: T" m9 O  z4.8.1  Carbon Monoxide Poisoning  ..........................................   110 2 `  _4 f! L8 x9 ~! [
    4.8.2  Methanol and Other Liquid Fuels  ...................................   111 ) c. m8 J( y( P+ y/ c/ C
    4.8.3  Using Pure Oxygen in Place of Air  .................................   111
      E2 j3 f) B: l5 p" P! C4.9  Example Systems   ......................................................................   112
    ) }3 _+ }/ ^* s: l4.9.1  Small 12-W System   .......................................................   112 2 m0 l% p2 p6 r" N1 K
    4.9.2  Medium 2-kW System  ....................................................   114 1 h1 P' s: O. A8 B9 s$ J; u9 A
    4.9.3  205-kW Fuel Cell Engine   ...............................................   117
    - B1 u' u+ f+ E, Q# w) oReferences   .........................................................................................   118 0 C# c9 b: {8 _, v: _0 J: f
    5.  Alkaline Electrolyte Fuel Cells   ...............................................   121
    6 `1 f: u1 l# o0 I+ L5.1  Historical Background and Overview  .........................................   121 + {' v, N) A: F, i' _2 ?/ l
    5.1.1  Basic Principles   .............................................................   121
    - z9 U+ @7 J( X+ U" _% h: k5.1.2  Historical Importance   .....................................................   121
    6 M+ }  N; y, P% p5.1.3  Main Advantages   ...........................................................   122
    ' Q- S2 ]8 {6 n& q* S5.2  Types of Alkaline Electrolyte Fuel Cell   ......................................   124 3 d+ z7 Z# Y# Z
    5.2.1  Mobile Electrolyte   ..........................................................   124
    " B' J' [& ^. g9 m  W2 j5.2.2  Static Electrolyte Alkaline Fuel Cells  ..............................   127 + L9 R+ ?$ h0 K; `4 X2 _: o
    5.2.3  Dissolved Fuel Alkaline Fuel Cells  .................................   129 ) P0 T* n' O: `
    5.3  Operating Pressure and Temperature   .......................................   132 5 O# s+ A1 R' b# X- n
    5.4  Electrodes for Alkaline Electrolyte Fuel Cells   ............................   134 + R6 d/ v  Y: [1 Q1 Y
    5.4.1 Introduction  ....................................................................   134 : A/ K5 g0 N: I, g# K, T( ^7 B
    5.4.2  Sintered Nickel Powder   .................................................   134
    , r0 z* |6 c/ P/ Y2 q% r5.4.3 Raney Metals  .................................................................   135 2 E+ h4 N) ~( @. `0 Q* Q1 p
    5.4.4  Rolled Electrodes  ...........................................................   135 4 ?5 T/ C8 I; M
    5.5  Cell Interconnections   .................................................................   137
    $ O4 M" _, T7 b7 ~  u5.6  Problems and Development   ......................................................   137
    & A6 Y6 F8 g5 f3 jReferences   .........................................................................................   138 : {1 N2 k8 z! a( A8 k
    6.  Direct Methanol Fuel Cells   .....................................................   141 3 w% Q. q& B  f0 P. {
    6.1 Introduction  ................................................................................  141 2 x6 G+ z0 |: O
    6.2  Anode Reaction and Catalysts   ..................................................   143 ) w# v  f* C  Y$ E
    6.2.1  Overall DMFC Reaction   .................................................   143
    , ]6 Q& Z3 w4 d$ X. ^, G6.2.2  Anode Reactions in the Alkaline DMFC  .........................   144
    # t( a! a6 u, A6.2.3  Anode Reactions in the PEM Direct Methanol FC   .........   144
    / V: N/ N+ @; ?7 u' a6.2.4  Anode Fuel Feed   ...........................................................   146
    1 [( n$ ?9 S8 j# V" [8 o6.2.5  Anode Catalysts  .............................................................   147 6 c4 [" U5 ~. M: e. `1 _
    6.3  Electrolyte and Fuel Crossover   .................................................   148
    " D6 u) C% d9 ]  R6.3.1  How Fuel Crossover Occurs   ..........................................   148 . {, F$ N, {) X" R% d
    6.3.2  Standard Techniques for Reducing Fuel Crossover   ......   149
    ; }1 B' ~+ g0 I+ ]/ {6 T: F( r0 Q" ^5 w6.3.3  Fuel Crossover Techniques in Development   .................   150   A2 k. g9 x+ i8 c& e2 ^
    6.4  Cathode Reactions and Catalysts   .............................................   151 " E* g( |' ?- T6 c; e
    6.5  Methanol Production, Storage, and Safety   ................................   152 $ w4 Q' Z1 J5 Z6 L; S
    6.5.1  Methanol Production   ......................................................   152 6 \3 d% n9 D1 T" j4 U
    6.5.2  Methanol Safety   .............................................................   153 , \! I; O  H7 p5 a- h
    6.5.3  Methanol Compared to Ethanol   .....................................   155 3 Q# A, `5 W* Y3 q
    6.5.4  Methanol Storage   ..........................................................   156
    * m' J" S" u& `  k5 [9 ^5 T: c6.6  Direct Methanol Fuel Cell Applications   ......................................   157
    ) x; g/ {, T" _4 T6 H/ [( sReferences   .........................................................................................   160 : P; J  U. Q' S
    7.  Medium and High Temperature Fuel Cells   ...........................   163 0 J8 _4 Y7 O( M+ K4 N: `* |# u
    7.1 Introduction  ................................................................................  163 0 v8 f" e$ M' K
    7.2  Common Features   .....................................................................   165 : d0 p0 T$ Y) B, F0 e
    7.2.1  An Introduction to Fuel Reforming   .................................   165
    0 Z% {$ @9 s- x8 @7.2.2  Fuel Utilization   ...............................................................   166
    2 h( B. d  {# p* g& E, x7.2.3  Bottoming Cycles   ...........................................................   168
    8 e4 j. @( F! }) z; }. X7.2.4  The Use of Heat Exchangers – Exergy and Pinch 3 f- F2 {2 D; m) k3 u& `. w1 `
    Technology   ....................................................................   174 & B7 F0 J! A5 Z2 s
    7.3  The Phosphoric Acid Fuel Cell (PAFC)   .....................................   177 - Q  n. K! @/ j7 h* I7 Z
    7.3.1  How It Works   .................................................................   177
    8 q) o: z0 f& c1 P7.3.2  Performance of the PAFC  ..............................................   182 7 C' v3 p& j- R* V# C
    7.3.3  Recent Developments in PAFC   .....................................   184
    4 Y. H# l3 c* k. l- Z/ f8 B% K7.4  The Molten Carbonate Fuel Cell (MCFC)   ..................................   187 0 V% @% D* t* j4 B( f
    7.4.1  How It Works   .................................................................   187 - k- X2 t* [9 B- ]
    7.4.2  Implications of Using a Molten Carbonate Electrolyte   ...   190 ! [# x5 i' ]) B$ T. l0 ^
    7.4.3  Cell Components in the MCFC   ......................................   190
    - M0 n, y" u" L7.4.4  Stack Configuration and Sealing  ....................................   195
    4 S) k3 c7 D% W/ @5 ^: b8 _7.4.5  Internal Reforming   .........................................................   196
    5 X7 C# \$ o# M2 |1 F, R$ J* W* o7.4.6  Performance of MCFCS  .................................................   198
    " a# _) O, @: [# n& |8 a7.4.7  Practical MCFC Systems   ...............................................   202 1 x$ Z$ a3 ]# ]" ~" ~' Y
    7.5  The Solid Oxide Fuel Cell   ..........................................................   207 : |9 x' G) B& d) q
    7.5.1  How It Works   .................................................................   207
    9 w, b; G& v, E& V% {* h$ Q7.5.2 SOFC Components  ........................................................   209
    - g) [2 `* w, g- u& O# a7.5.3  Practical Design and Stacking Arrangements for the * t% c. p8 h4 t% Y
    SOFC   .............................................................................   213 + ^. J" N4 N6 X) p, n/ x; g$ K
    7.5.4  SOFC Performance   .......................................................   220 5 g* \% h* o  d5 w# d6 h
    7.5.5  SOFC Combined Cycles, Novel System Designs and 0 ^6 \$ h7 c% ?8 I1 G  z3 J3 w  D' V
    Hybrid Systems  ..............................................................   221
    # T4 e0 Q, D/ C, _' S7.5.6  Intermediate Temperature SOFCs  .................................   225 . i) r  d( ^1 V) P+ K# J
    References   .........................................................................................   226
    0 Y- g4 i$ t' U" U6 {8.  Fuelling Fuel Cells   ..................................................................   229
    2 g" T  P1 n6 e+ L8.1 Introduction  ................................................................................  229 2 b3 B# A4 U& n, ^# e
    8.2  Fossil Fuels   ...............................................................................   232 ) f% R- R: v% f. C
    8.2.1 Petroleum  ......................................................................   232   j$ I0 ?; X7 d& F* q
    8.2.2  Petroleum in Mixtures: Tar Sands, Oil Shales, Gas 2 s4 ]  _# K/ h( n6 P+ m
    Hydrates, and LPG   ........................................................   233
    3 C( p+ K' Y- y7 O3 {, ]5 X8.2.3  Coal and Coal Gases  .....................................................   234
    + [/ t" o2 n& E0 Z8 @- b3 e8.2.4  Natural Gas  ....................................................................   235
    5 S5 e1 s! W+ y8.3 Bio-Fuels  ...................................................................................  236
    9 z" p- b( P) y; X+ }4 O8.4  The Basics of Fuel Processing   ..................................................   238
    8 j: U; q- d  ~+ j8.4.1  Fuel Cell Requirements   .................................................   238 " a; n5 p% i# @8 H1 D" x% @
    8.4.2 Desulphurization  ............................................................   239
    & g. |9 i7 r4 P' H1 Y! p) t) {/ M; d8.4.3  Steam Reforming   ...........................................................   241 ; a" c/ W" S, O3 h4 S: |, ~
    8.4.4  Carbon Formation and Pre-Reforming  ...........................   244
    8 u! L9 L0 L5 k4 e0 k4 {, b8.4.5  Internal Reforming   .........................................................   246
    3 u: C  F5 \8 A% l6 U( Z+ w8.4.6  Direct Hydrocarbon Oxidation  ........................................   248 1 ?1 K! K7 S% w- i% ^- z) L7 `
    8.4.7  Partial Oxidation and Autothermal Reforming  ................   248 8 y0 O6 g! ]3 B( L* O& U
    8.4.8  Hydrogen Generation by Pyrolysis or Thermal
    2 s0 k7 l, D. S, T/ w5 w石皮解ing of Hydrocarbons   .............................................   250
      A' u4 H5 r' c: A8.4.9  Further Fuel Processing – Carbon Monoxide Removal   .   250 ; n7 H/ `; z0 T  s$ O3 d: {6 o- }8 Q
    8.5  Practical Fuel Processing – Stationary Applications  ..................   252
    ! J1 S- b1 Q: T8.5.1  Conventional Industrial Steam Reforming   .....................   252
    : ?) V, [7 @! ]0 ]; u7 J! D8.5.2  System Designs for Natural Gas Fed PEMFC and
    + _! Q0 r6 j; \# FPAFC Plants with Steam Reformers  ..............................   253 ' e5 z6 c3 C' P
    8.5.3  Reformer and Partial Oxidation Designs   .......................   257 8 I& t" `% _) {6 ]" f+ u
    8.6  Practical Fuel Processing – Mobile Applications   .......................   263
    2 }: u! K# y% l% V8.6.1  General Issues  ...............................................................   263 / `. J, w! G' S, ?/ P( c
    8.6.2  Methanol Reforming for Vehicles  ...................................   264 . z+ z+ p7 a  Q& n! T
    8.6.3  Micro-Scale Methanol Reactors  .....................................   267
    # Z: S  i0 _7 i1 T8 c* {4 P2 z: |8.6.4  Gasoline Reforming   .......................................................   269
    ( K# D  D% @2 f6 j* R5 W# k8.7 Electrolysers  ..............................................................................  270
    2 n1 ?8 {8 B1 g' M, w, m8.7.1  Operation of Electrolysers   .............................................   270
    - }1 l, Q. \0 U6 t4 r3 V8.7.2  Applications of Electrolysers   ..........................................   272 , m9 O! t% o2 E0 P* f# B4 M
    8.7.3  Electrolyser Efficiency  ....................................................   272 9 K6 p+ g& J, b5 u& D
    8.7.4  Generating at High Pressure   .........................................   273
    * t& [# U3 s  [0 V9 C8.7.5 Photo-Electrolysis  ..........................................................   275   n8 U, F3 W+ X3 h0 P
    8.8  Biological Production of Hydrogen   ............................................   275
    : I2 S# C  J+ I3 y& N0 b8.8.1 Introduction  ....................................................................   275 : P: E2 i. x7 _2 w2 L4 x
    8.8.2 Photosynthesis  ..............................................................   276
    & A1 `6 f3 t0 i0 |& U8.8.3  Hydrogen Production by Digestion Processes  ...............   278 ! }0 E8 t8 O0 {5 o7 H% l9 g( a
    8.9  Hydrogen Storage I – Storage as Hydrogen   .............................   279
    " Z' R) g% G9 o6 I  m8.9.1  Introduction to the Problem  ............................................   279 9 _: q! B* e, k  o( m  y  j, t1 H6 n% [
    8.9.2 Safety  .............................................................................   280
    ! N  N/ W. f/ t& P" c) ^8.9.3  The Storage of Hydrogen as a Compressed Gas  ..........   282 - _# m/ r0 N. A" F/ t3 U# I! [
    8.9.4  Storage of Hydrogen as a Liquid   ...................................   284 * V/ A' c) I0 `9 H7 |4 ]! n9 V3 B
    8.9.5  Reversible Metal Hydride Hydrogen Stores  ...................   286 5 H/ w5 K4 _* K/ s; R6 i+ i
    8.9.6  Carbon Nanofibres  .........................................................   289
    2 P% r3 n7 ^/ W. g8.9.7  Storage Methods Compared  ..........................................   291 / ]) S! R! S2 i! \- p4 b; z
    8.10  Hydrogen Storage II – Chemical Methods  .................................   293 / P% V( b/ y0 Y- ^: c1 i
    8.10.1 Introduction  ....................................................................   293 ; C# U( c( V4 }' @9 ?
    8.10.2 Methanol  ........................................................................   293
    * N5 T# P7 V+ C5 W& b8.10.3  Alkali Metal Hydrides   .....................................................   295
    $ c# N  b1 G0 Y, e8.10.4  Sodium Borohydride   ......................................................   297   T; K5 |- H5 H  u3 x
    8.10.5 Ammonia  ........................................................................   301
    ; Z7 U: Q4 K! f6 q: F( S4 _( X8.10.6  Storage Methods Compared  ..........................................   304 - R* u4 _2 |  n& G
    References   .........................................................................................   305 # U  y' k$ X( K5 [; u) F
    9.  Compressors, Turbines, Ejectors, Fans, Blowers, and + \  _# G0 ?/ J3 O, e3 P
    Pumps  ......................................................................................   309 0 Z5 F1 V9 a0 i; d, Q6 v9 V
    9.1 Introduction  ................................................................................  309
    8 r0 h& r9 \. l' t9.2  Compressors – Types Used   ......................................................   310
    + b1 [4 E- r  V5 V9.3  Compressor Efficiency  ...............................................................   312 ) Y; A7 K: w( Z) d) q
    9.4  Compressor Power   ....................................................................   314 - S% I2 T, F$ V% O
    9.5  Compressor Performance Charts   ..............................................   315 1 B/ [: k& E: ]. }* O3 P' P2 X
    9.6  Performance Charts for Centrifugal Compressors  .....................   318
      |  Q$ E$ I" z+ w* p( p9.7  Compressor Selection – Practical Issues   ..................................   320 # a6 g& |' e1 f
    9.8 Turbines  .....................................................................................  321
    6 t+ _  J  ]8 z* l& s( p2 m% D9.9 Turbochargers  ...........................................................................  325 " W# a; l  S* h$ B
    9.10  Ejector Circulators   .....................................................................   326 + T9 k2 z& i6 l* l- L6 p
    9.11  Fans and Blowers   ......................................................................   327 / p* M" n- A) o
    9.12 Membrane/Diaphragm Pumps  ...................................................   328 5 r( a+ p$ g; Q& K! E
    References   .........................................................................................   330 % Q/ d; L1 b( G! }$ u8 {
    10.  Delivering Fuel Cell Power  .....................................................   331 , P2 @3 y! R& Z) n5 A6 O
    10.1 Introduction  ................................................................................   331 ' X, _- l2 Z4 m: I
    10.2  DC Regulation and Voltage Conversion   ....................................   332 / u; d7 h1 m% T) D: w  [  T2 R
    10.2.1  Switching Devices  ..........................................................   332
    " a& v, K) D) r3 X; V10.2.2  Switching Regulators   .....................................................   334 ) e2 M0 _3 o0 _3 M. R* f
    10.3 Inverters  .....................................................................................   339
    3 Y% p7 s* \. r1 j* u10.3.1  Single Phase  ..................................................................   339 ' a- \5 k& g2 f2 y! h' y8 Z
    10.3.2  Three Phase   ..................................................................   344 * m- D: }7 A( J* }0 ~
    10.3.3  Regulatory Issues and Tariffs   ........................................   346
    + ]$ [: O( [3 S1 e% r) `10.3.4  Power Factor Correction   ................................................   348 % H+ p* V3 X; j" U3 j& z" g; L+ U
    10.4  Electric Motors   ...........................................................................   349 ; f) z, X' W% L- X2 R+ A& f
    10.4.1  General Points   ...............................................................   349
    ! s. k8 t, K5 @! ^4 b10.4.2  The Induction Motor   .......................................................   350 6 P; {- Q* O" A0 G( q$ s4 P
    10.4.3  The Brushless DC Motor  ................................................   352
    0 c" Q# Z' B! K10.4.4  Switched Reluctance Motors   .........................................   355 4 j% w7 \! k& H1 M2 Y
    10.4.5  Motors Efficiency   ...........................................................   357
      {5 D% d, T- g3 n7 i: N- Y10.4.6  Motor Mass   ....................................................................   361
    9 q3 E# Y* F+ G- q/ S10.5  Fuel Cell/Battery or Capacitor Hybrid Systems   .........................   362
    / Z, h4 T' ?8 G2 s! i4 B. d; ?References   .........................................................................................   367 9 ]$ g- l- [- [) t9 B0 I2 K0 }
    11.  Fuel Cell Systems Analyzed   ..................................................   369
    4 @. N  K7 B3 ], V2 [, P4 M. I% @11.1 Introduction  ................................................................................   369 * l' p. d% g3 V% m
    11.2  Energy Systems   ........................................................................   370 # N' p- E+ a: h# p' R: F6 W8 |
    11.3 Well-To-Wheels Analysis  ...........................................................   371 , T5 P1 y0 ?* K3 p& [1 S
    11.3.1  Importance of Well-to-Wheels Analysis   .........................   371
    " p5 f+ ^3 E: E" A  h11.3.2 Well-to-Tank Analysis   ....................................................   372 ( U# }: Q( H# t, c# X6 Y) s
    11.3.3  Main Conclusions of the GM Well-to-Wheels Study   ......   374
    ' X; ^6 O1 l% ^- K  X- n! m5 S% H! T  u11.4  Power-Train or Drive-Train Analysis  ..........................................   375 ! s& M. U' f1 p- J! C
    11.5  Example System I – PEMFC Powered Bus  ...............................   377 " @, I- ~% v* [' \1 Z
    11.6  Example System II – Stationary Natural Gas Fuelled System  ...   382
    & S& a9 O7 K' Z11.6.1 Introduction  ....................................................................   382
    3 i$ |0 M% C8 W' a11.6.2  Flow Sheet and Conceptual Systems Designs   ..............   382 ; g( {+ e6 p9 O  O3 J
    11.6.3  Detailed Engineering Designs   .......................................   386
    6 d6 Q) H7 T5 K+ Q3 F8 G% Y11.6.4  Further Systems Analysis   ..............................................   387 1 F' i8 n5 K$ z  X- ^
    11.7  Closing Remarks   .......................................................................   388
    9 m% i1 {( B4 UReferences   .........................................................................................   389 - a" n1 P% o3 i: H, a) V6 G
    Appendices
    4 [6 m2 @* t* Y/ \1 ~Appendix 1. Change in Molar Gibbs Free Energy Calculations  .........   391 7 Q( m; b5 n, V" R/ G) {1 P5 N
    A1.1 Hydrogen Fuel Cell   ........................................................   391
    $ a3 ?, T* y) Z9 j/ A; m8 JA1.2 The Carbon Monoxide Fuel Cell   ....................................   393 4 J$ [5 \3 m! t! r* b4 q! ]6 f+ A
    References   .............................................................................   394 2 v  n% o# h4 O5 `2 Y+ a, S0 o
    Appendix 2. Useful Fuel Cell Equations  .............................................   395 0 L$ B1 I5 E( K+ O
    A2.1 Introduction  ....................................................................   395   M" z1 t8 U' ], D% y
    A2.2 Oxygen and Air Usage  ...................................................   396 8 h8 K* k& |. O
    A2.3 Air Exit Flow Rate   ..........................................................   397
    # \( H, g' |3 ]0 o+ `, b3 b: q; ZA2.4 Hydrogen Usage   ............................................................   398 5 r, U$ s" T- T+ \4 y  e4 W
    A2.5 Water Production   ...........................................................   399 7 x4 P4 I0 }0 w' T) I
    A2.6 Heat Produced   ...............................................................   399 0 d: ^& H. d* _4 P$ y6 R$ u
    Index   ...............................................................................................  401
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    , C, M; d( {$ G% xCONTRIBUTORS xvii$ C/ \+ H% e, P8 A2 |3 L- y. m
    FOREWORD xix8 d) p; i- M, V, E* B! `9 t
    PREFACE xxi
    & _1 _1 m, ?+ h* E7 l; o- {ACKNOWLEDGMENTS xxiii
    $ e# I" [( d. k+ D: _ABOUT THE AUTHORS xxv# G# Z$ T5 p0 x; U1 K2 [
    1 ALTERNATIVE SOURCES OF ENERGY 1& |! x: P" b. \* N' S8 a
    1.1 Introduction 1
    2 r9 d6 {+ s; d1.2 Renewable Sources of Energy 25 _* k0 F# \) a
    1.3 Renewable Energy Versus Alternative Energy 4
    ( C, r1 M3 @+ Z* m( B/ Y! h/ f9 E1.4 Planning and Development of Integrated Energy 8
    # D4 }! S" x" z2 n8 O1.4.1 Grid-Supplied Electricity 9
    6 f3 O' \3 }1 {+ _$ \9 y1.4.2 Load 10
    8 O# e, |; p; c7 n) j1.4.3 Distributed Generation 10
    9 D; n1 Y% F+ F6 }) B1.5 Renewable Energy Economics 11
    1 S: M* f1 k! n) ?' F1.5.1 Calculation of Electricity Generation Costs 12* i8 {  ~( X, j( E  m' P' r
    1.6 European Targets for Renewables 14
    # ^% x2 r0 n' m8 B8 d: f% Z1 Z4 i1.6.1 Demand-Side Management Options 15
    - k; W! m* K+ c$ B1.6.2 Supply-Side Management Options 16
    ( w: W( q1 @& i! @' f; i! u1.7 Integration of Renewable Energy Sources 19( r4 h; t* n1 T: a: V2 y- j
    1.7.1 Integration of Renewable Energy in the United States 20
    # X* h4 ]* u5 @& h) N2 r( a( \1.7.2 Energy Recovery Time 21
    , y8 l, ~4 b  l1 I+ d1.7.3 Sustainability 23
      O' w4 s& }: {# S5 O& H# j& S4 Q1.8 Modern Electronic Controls of Power Systems 263 L, ]3 n" C. Q' T# n6 _
    References 27
    ' O5 D1 y; L+ ~  h* f% {; i2 PRINCIPLES OF THERMODYNAMICS 28/ k& Z# ^/ r* R& ^  Y% E
    2.1. Introduction 28, e0 F$ J5 t8 S; B  F
    2.2. State of a Thermodynamic System 29( \- N/ F% L5 k( H0 n
    2.3. Fundamental Laws and Principles 36
    & O; h: S9 r9 [8 r2.3.1 Example in a Nutshell 37' ^+ a9 w2 {1 z0 U0 X' Q9 s' f
    2.3.2 Practical Problems Associated with Carnot Cycle Plant 40# i) G. m' a. T% {7 e
    2.3.3 Rankine Cycle for Power Plants 41
    8 ^7 C' T2 i0 y* f4 `$ l2.3.4 Brayton Cycle for Power Plants 444 P: y8 b# K- _, u3 K# `3 j! P! E
    2.3.5 Energy and Power 46( R5 y0 J: x) ]" L
    2.4 Examples of Energy Balance 47
    % Q/ y! W' H/ f6 T& z2.4.1 Simple Residential Energy Balance 47
    6 }3 r2 C% Q) U' ~' A# z2.4.2 Refrigerator Energy Balance 48$ ~/ z/ G& ^5 t8 U1 a8 Z" }/ P
    2.4.3 Energy Balance for a Water Heater 49( J6 ]; [& P+ \! ^- u0 ]
    2.4.4 Rock Bed Energy Balance 51, `( |3 m! u7 @4 S( s
    2.4.5 Array of Solar Collectors 51
    % z. {  G$ U/ g+ ?& L$ C6 i2.4.6 Heat Pump 52
    ( G- W' g5 V/ q. i4 W: ^1 s+ Z6 i2.4.7 Heat Transfer Analysis 53' S: @1 v0 _' L) c: h8 u
    2.5 Planet Earth: A Closed But Not Isolated System 549 {) X7 C' R" g+ |/ W& g
    References 56+ C+ j$ j3 V+ K4 H! Z9 r# o
    3 HYDROELECTRIC POWER PLANTS 57
      e  \; o; ~' G+ L) V3.1 Introduction 57
    , r0 l: i8 Z& A# O& a3.2 Determination of the Useful Power 58
    / Y9 v0 L7 W4 _- j4 A- {* C9 z3.3 Expedient Topographical and Hydrological Measurements 60
    9 C" i9 W7 K$ _: i3 ~/ Z3.3.1 Simple Measurement of Elevation 60
    0 R) _0 T# u  P% F3.3.2 Global Positioning Systems for Elevation Measurement 60
    8 j/ l* K) W4 o2 A7 M3.3.3 Specification of Pipe Losses 62
    6 a% q+ T* m2 f6 Q3.3.4 Expedient Measurements of Stream Water Flow 63& d8 p- W8 h1 m1 a6 P, O) u* Z; C+ ^
    3.3.5 Civil Works 671 l8 b& K  t$ \  F; T, w1 Z
    3.4 Generating Unit 67
    1 {) @( O; E5 C# g% S& a/ a3.4.1 Regulation Systems 67
    ( W' W6 F; }, U7 `5 \. |3.4.2 Butterfly Valves 68% B, U7 [4 B+ D
    3.5 Waterwheels 68- @( Q+ _' ?1 [) \, ^( t
    3.6 Turbines 70
    - g  V3 `: |' w0 {8 k3.6.1 Pelton Turbine 71  p; p' v2 y# S4 ?; w& ]
    3.6.2 Francis Turbine 74/ z9 K" C0 e  {  K& o
    3.6.3 Michel–Banki Turbine 77, U, [( D8 r( D  ^4 h
    3.6.4 Kaplan or Hydraulic Propeller Turbine 79
    " M8 r. y, b, B# a# E; |( q3.6.5 Deriaz Turbines 80( l2 g8 V1 b  x. d
    3.6.6 Water Pumps Working as Turbines 80" X* F- X& X7 H, d  n
    3.6.7 Specification of Hydro Turbines 810 y; p! q- o0 ^3 A2 ]
    References 82
    : t5 D8 [5 d/ u( N8 F) b4 WIND POWER PLANTS 84
    " z$ q* R* L. Q! l8 X8 u4.1 Introduction 84
    / n1 Y# N" e. Q" S% L+ ]6 f4.2 Appropriate Location 85
    2 W; O5 Y" a1 r6 h  d% H3 a4.2.1 Evaluation of Wind Intensity 85
      _% v" U: y) ?% B1 \( o4.2.2 Topography 935 Z5 i' X$ ~$ |8 [2 r
    4.2.3 Purpose of the Energy Generated 95
    2 f8 `& d5 H3 N4.2.4 Means of Access 952 @4 ^) N# j3 c7 o! X& ?
    4.3 Wind Power 95- z9 w" D! c' L; X
    4.4 General Classification of Wind Turbines 97! J. D1 L$ [6 W. W/ F$ c- R
    4.4.1 Rotor Turbines 995 C: P. N( q! p; U) W
    4.4.2 Multiple-Blade Turbines 99: a/ F; O; c' @0 C2 A+ x
    4.4.3 Drag Turbines (Savonius) 100
    0 Q4 V. p0 ^  Y# Y4.4.4 Lifting Turbines 1019 i2 \: }( x& x  L
    4.4.5 System TARP–WARP 1020 T2 ]6 x4 X7 M4 x6 w
    4.4.6 Accessories 103
    : H- r  R7 S9 ]; M% E* }4 i4.5 Generators and Speed Control Used in Wind Power Energy 104
    4 m+ ^; `) @( E- `* G0 |$ f4.6 Analysis of Small Generating Systems 107- P2 D9 M! p. g' N! o
    References 110
    4 D6 z* l- t5 T* S5 THERMOSOLAR POWER PLANTS 112/ w* x1 f1 d- p0 B2 R
    5.1 Introduction 112
    ; v: g  F% S" M/ l1 M1 S5.2 Water Heating by Solar Energy 112
    7 E$ y7 d1 u, k8 k+ {' N5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 1156 @' J6 j* r& Q1 Q
    5.4 Heating Domestic Water 1187 F$ ~5 _" g! e7 Z3 I& q0 ]2 i
    5.5 Thermosolar Energy 119
    - o. L3 X# Q5 X' ]2 A6 B" t5.5.1 Parabolic Trough 120" e, G) V6 G# b1 n- ~
    5.5.2 Parabolic Dish 1223 n8 x3 H, [" p! z6 F2 h$ T8 ^2 u) K
    5.5.3 Solar Power Tower 124
    4 e$ K; Z- K) ?: y) a4 s% I5.5.4 Production of Hydrogen 125
    5 ^7 }# ^+ K; z) d5.6 Economical Analysis of Thermosolar Energy 126
    4 I, c2 S( z2 }* HReferences 127/ B& _( A; O1 D2 A" d
    CONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129% m/ K- a0 R6 Y2 P+ H% R  V
    6.1 Introduction 1293 ]/ X0 J+ J* k$ Z, D* H% w7 M
    6.2 Solar Energy 1307 y' |; H$ X  B' r5 X  O
    6.3 Generation of Electricity by Photovoltaic Effect 132
    , Y% g3 K1 V2 {6.4 Dependence of a PV Cell Characteristic on Temperature 135
    6 L, D3 A1 E. d( }6.5 Solar Cell Output Characteristics 137
    8 ~$ d5 h* e  d% i. J6.6 Equivalent Models and Parameters for Photovoltaic Panels 139
    2 w1 s% z& F7 X* \! k6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 1406 U7 B% f6 \  |0 F8 \. Y, U9 O% a
    6.6.2 Model of a PV Panel Consisting of n Cells in Series 142
    ( j8 X9 \* e- n" n, u6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 144
    + Y( X! V& i4 s6 ~5 x* y6.7 Photovoltaic Systems 1451 W6 p; D0 y3 _! c1 q& i
    6.7.1 Illumination Area 146# k( O( I) c; [3 S0 K2 f$ b/ ]
    6.7.2 Solar Modules and Panels 146: |) p0 {0 [1 }( [% c5 D( F/ o5 q
    6.7.3 Aluminum Structures 146) A% g+ r, P, X4 i( T
    6.7.4 Load Controller 148- M. \9 T/ I" Z5 P
    6.7.5 Battery Bank 148$ N) @' s9 ?8 e- |: I, b7 d
    6.8 Applications of Photovoltaic Solar Energy 149! m7 v' C* A; n7 l% V4 m" L* _
    6.8.1 Residential and Public Illumination 149
    - ^# k( G/ L1 p. a! p5 o5 e* G# r6.8.2 Stroboscopic Signaling 150
    ( ~8 {; O0 T0 ?* u6 F( B6.8.3 Electric Fence 150
    3 ^8 x; t4 R# l+ J$ Q6.8.4 Telecommunications 151
    . Z& H: S  R* c6.8.5 Water Supply and Micro-Irrigation Systems 151
    ( ~3 P- k. j5 t/ ~: M- I7 i5 `! {3 m6.8.6 Control of Plagues and Conservation of
    $ K$ k2 `. a0 {9 j+ ~Food and Medicine 153
    , P/ W: ]; k; F! J5 i" h6.8.7 Hydrogen and Oxygen Generation by Electrolysis 154
    , s9 }# h8 T5 t6.8.8 Electric Power Supply 155% r& g& h# h9 H' F' N0 E1 R2 t0 Y
    6.8.9 Security and Alarm Systems 156- W" W) u1 w! q3 |' F0 T- E" G
    6.9 Economical Analysis of Solar Energy 156
    # y& t, f( m# L' uReferences 157
    ) f7 h4 {" s* c6 }5 ?7 POWER PLANTS WITH FUEL CELLS 159. z  z- [! u" h1 g5 W2 R2 R
    7.1 Introduction 159
    % E  y6 G3 c* q# y  R3 k5 o7.2 The Fuel Cell 160
    8 @2 `/ Q7 D1 h" @  ^+ ]7.3 Commercial Technologies for Generation of Electricity 162
    0 W1 M5 B) U- N7.4 Practical Issues Related to Fuel Cell Stacking 169
    ; s; z2 G$ ]$ P6 e7.4.1 Low- and High-Temperature Fuel Cells 169
    8 |! I7 F  B9 h" j- ]7.4.2 Commercial and Manufacturing Issues 170
    6 J, D$ V. y5 ^( ux CONTENTS7.5 Constructional Features of Proton Exchange" g" C# }9 M2 M  N
    Membrane Fuel Cells 171# q* m2 ~* G* _  o9 W. l
    7.6 Constructional Features of Solid Oxide Fuel Cells 173, v* f5 R7 {$ p, l2 j) \+ o
    7.7 Water, Air, and Heat Management 175" L: d% a' U/ }- J. u  U- @
    7.8 Load Curve Peak Shaving with Fuel Cells 1765 [8 r) V: m3 U8 g" F( X7 }
    7.8.1 Maximal Load Curve Flatness at Constant Output Power 176
    ( S; V  j$ G9 `. ]8 Z+ w7.8.2 Amount of Thermal Energy Necessary 178
    " X: u2 U) d' c) o0 m, f7.9 Reformers, Electrolyzer Systems, and Related Precautions 1807 w& b3 s" E* J! z7 h* y
    7.10 Advantages and Disadvantages of Fuel Cells 181. r9 k8 B% S/ y; w
    7.11 Fuel Cell Equivalent Circuit 182
    " J" x  ]; L5 a9 B$ U+ G$ t7.12 Practical Determination of the Equivalent Model Parameters 188: s$ Q" U% K) ^9 s2 P" a
    7.12.1 Example of Determination of FC Parameters 191$ k# r( |( |3 t$ ]* K' A9 T
    7.13 Aspects of Hydrogen as Fuel 194( w, j: z/ [- k  r- o1 b- P
    7.14 Future Perspectives 195
    ; U: k" p, ]9 q' w8 |References 196
    / \7 V" Y4 b+ S( c( H+ P' F: H8 BIOMASS-POWERED MICROPLANTS 198
    . o. k0 U; E: r# Q' u8.1 Introduction 198
    3 T5 m2 e7 o: j* U8.2 Fuel from Biomass 2024 O: U: ]  e: J2 @) g# G
    8.3 Biogas 204
    1 i. v3 ?* O9 p3 E8.4 Biomass for Biogas 205
    ) c+ e8 i6 _* @- E3 z  M8.5 Biological Formation of Biogas 206
    6 a  Y, `8 v% X2 A4 P8.6 Factors Affecting Biodigestion 207# W0 [6 \# V+ R6 C  |
    8.7 Characteristics of Biodigesters 209
    ! u: F- v2 ?  b2 s8.8 Construction of Biodigester 210
    8 k# c2 S7 }, e2 j/ O- V+ T3 J! Z2 D8.8.1 Sizing a Biodigester 211# M+ Z0 h5 r, K% I7 l
    8.9 Generation of Electricity Using Biogas 211
    0 q2 K& o6 Y5 w1 E8 c* N$ ?References 214
    , u; R  V! d- B% m# v: ?) @% I9 MICROTURBINES 215
    & W. _/ U3 z. `! e2 {5 }( K8 X9.1 Introduction 215. Y* B8 \2 O  N% X
    9.2 Princples of Operation 217
    ; n2 H: q1 I6 o9.3 Microturbine Fuel 219* o, |; ]5 X( M5 Q6 g3 m
    9.4 Control of Microturbines 2207 C- j% _' D) h& p4 R* k
    9.4.1 Mechanical-Side Structure 220( q/ l) j6 m8 i; V4 _2 @  B
    9.4.2 Electrical-Side Structure 222
    8 m2 q- u) H' D+ Z8 d3 @9 F9.4.3 Control-Side Structure 224
    3 ^0 R' o$ Q, e# ECONTENTS xi9.5 Efficiency and Power of Microturbines 228
    3 r. w' M& m. x- b% G1 ]# z9.6 Site Assessment for Installation of Microturbines 2306 _2 W9 j' [& U: V  P: A
    References 231/ c+ u7 w4 B! h3 `& i' S
    10 INDUCTION GENERATORS 2335 m/ T3 N9 |- h6 q  n5 q% B
    10.1 Introduction 233
    ' \8 T+ y6 L( S4 I8 N) w8 v  W7 f10.2 Principles of Operation 234' z6 N, s. U, ?! u2 W3 s2 R" y, a
    10.3 Representation of Steady-State Operation 236) ~4 G# n: Q) m- x5 U) m1 e$ h/ [3 }
    10.4 Power and Losses Generated 237
    " {* F7 h* s1 ?" B5 x7 _. O: }10.5 Self-Excited Induction Generator 240
    1 [+ g/ t5 b) u/ K10.6 Magnetizing Curves and Self-Excitation 242
    # v2 X3 w, T4 F& u7 ?. Q7 r10.7 Mathematical Description of the Self-Excitation Process 2439 M8 O7 Q+ ^) J5 w$ U! a0 G
    10.8 Interconnected and Stand-Alone Operation 2469 [% c: \/ a$ a3 f+ V
    10.9 Speed and Voltage Control 248: Z5 P5 y3 n' W9 ?; ^: t4 A: \
    10.9.1 Frequency, Speed, and Voltage Controls 2498 q- q8 ~1 @* N/ E! n$ E5 Q) N) {: h
    10.9.2 Load Control Versus Source Control
    + k7 _3 f' M0 J! vfor Induction Generators 250
    " W) d3 r! m8 w) [! l3 h7 i, q! u10.9.3 The Danish Concept 254- G0 u! |' S0 f+ P+ f2 `
    10.9.4 Variable-Speed Grid Connection 255
    5 r8 f# S( R' b3 A! }, N& |# u5 U10.9.5 Control by the Load Versus Control by
      p- {7 H: A6 Y3 `8 Cthe Source 256
    . _: P+ S( g9 ~5 P10.10 Economical Aspects 258
    : U  R" B) A4 ~( d9 M* cReferences 259# S0 Y+ i6 ]% y4 l
    11 STORAGE SYSTEMS 2620 i3 u( D/ J, o8 i* t1 g9 b& _( E- S
    11.1 Introduction 262  U$ x3 c* X2 T
    11.2 Energy Storage Parameters 265
    2 `' ?5 l, T' Z9 K0 {! Z11.3 Lead–Acid Batteries 268, I/ m1 h( S+ a( R2 j
    11.3.1 Constructional Features 268
    / `4 v, T0 S/ d6 M5 F+ X11.3.2 Battery Charge–Discharge Cycles 269$ u5 S: }3 q8 k7 U* G2 X
    11.3.3 Operating Limits and Parameters 271% |8 u- |' G1 ?3 I  u
    11.3.4 Maintenance of Lead–Acid Batteries 273- a/ q. D9 g* q0 O5 J2 g9 z. w
    11.3.5 Sizing Lead–Acid Batteries for DG Applications 273
    . {" L( C* |( E1 q11.4 Ultracapacitors 276
    # a- A% k6 H/ }$ u11.4.1 Double-Layer Ultracapacitors 277
    8 G' z! U: K3 M3 Z( d11.4.2 High-Energy Ultracapacitors 278
    " q7 t  R6 I! ^  ?2 q" R4 ~0 B11.4.3 Applications of Ultracapacitors 279
    ( j& P$ |' q+ Exii CONTENTS11.5 Flywheels 282! q2 U; z1 z0 {9 I8 A& `( Y. R2 n
    11.5.1 Advanced Performance of Flywheels 282
    - U( m2 ]! D' `# `7 V% Q11.5.2 Applications of Flywheels 282" k5 ?# A; P1 K3 U1 H6 i8 }
    11.5.3 Design Strategies 284
    ( ^4 d+ B' K) ]+ C) ^; W11.6 Superconducting Magnetic Storage System 286) c' k3 N6 e7 F9 z1 K# t# v
    11.6.1 SMES System Capabilities 287+ Y# p' l5 u) X, C& I8 j
    11.6.2 Developments in SMES Systems 2882 G4 U. [! K- `4 N) ^
    11.7 Pumped Hydroelectric Energy Storage 290
    3 B: l' t6 v3 J' {" V3 ~11.7.1 Storage Capabilities of Pumped Systems 291
    ! ?2 ^3 ^4 h6 t4 \" _11.8 Compressed Air Energy Storage 292
    1 C( f; w6 Y/ l& }% ]% }( I11.9 Storage Heat 294
    2 b% A; Y% c2 e3 f. m11.10 Energy Storage as an Economic Resource 295
    6 ?# |- Y7 C. AReferences 299/ c9 `. W/ S% z1 Y. I- W* m
    12 INTEGRATION OF ALTERNATIVE SOURCES
      W2 e& v0 i! r$ \. N3 I! y; J$ ]/ |OF ENERGY 3016 `3 t2 ^! h" `1 ]4 {" l$ @: p
    12.1 Introduction 301, |; _8 ?/ V* P2 ^* ]
    12.2 Principles of Power Injection 302
    ; E0 g3 f8 t, D; s/ `12.2.1 Converting Technologies 302% G" X! g8 U9 Z. J/ t
    12.2.2 Power Converters for Power Injection& |! m8 s* x, n' u9 i6 H$ O
    into the Grid 304
    8 }  b% c8 l4 x9 L9 M/ k; y# O: F6 ^12.2.3 Power Flow 306
    ! T+ a) r% L. z+ A! g- h12.3 Instantaneous Active and Reactive Power2 w5 _; y, ~7 a0 A
    Control Approach 309
    : D7 ~( e- {! c' v' b5 \12.4 Integration of Multiple Renewable Energy Sources 312
    1 A* X+ Y" {. w3 V' Y2 |12.4.1 DC-Link Integration 315) e1 Q) o4 B  F, }
    12.4.2 AC-Link Integration 3161 G/ J, ^; ?) v7 g/ P
    12.4.3 HFAC-Link Integration 317
    0 x! W" S/ O7 t% R5 b: m6 _12.5 Islanding and Interconnection Control 320! r, y$ C% g6 m. X
    12.6 DG Control and Power Injection 325+ I6 h- P% O1 H0 a( ?) P3 ]
    References 331
    4 b' d( p/ Y, n/ H13 DISTRIBUTED GENERATION 333# P, w0 x% e7 J. `; S9 P7 c% M
    13.1 Introduction 333/ t7 M6 R( L5 m2 T6 @: \" A& Y
    13.2 The Purpose of Distributed Generation 335
    1 `, e& \4 s& |( y13.3 Sizing and Siting of Distributed Generation 3384 X: G) W2 k& r- w* X; N, O" a, c0 l
    13.4 Demand-Side Management 339
    + n4 _; D  L  z' q5 D5 x13.5 Optimal Location of Distributed Energy Sources 340* @: `2 f# i: O3 K
    CONTENTS xiii13.5.1 DG Influence on Power and Energy  Z3 L* R5 r& t: _) V% x' R+ S
    Losses 342  A6 x( d2 T8 W5 t7 V4 u0 r6 q
    13.5.2 Estimation of DG Influence on Power
    & W) I8 b. ^& I) J3 y0 Q2 i0 QLosses of Subtransmission Systems 346
    ( ~" _+ v: c8 X& b2 a: A  i13.5.3 Equivalent of Subtransmission Systems: M- o  J9 o8 O: b& ?
    Using Experimental Design 3487 Z$ p, U) l6 k
    13.6 Algorithm of Multicriterial Analysis 350, q! ]" ^% u( S
    References 352: {! b! P6 \/ h: e
    14 INTERCONNECTION OF ALTERNATIVE ENERGY& C0 E7 B) z0 o5 X. P) Z7 h7 @
    SOURCES WITH THE GRID 3549 b( j# h( m2 ~: K
    Benjamin Kroposki, Thomas Basso, Richard DeBlasio,& J5 A6 A8 o  d% c
    and N. Richard Friedman
    ' Q1 I9 G2 Q% }14.1 Introduction 354
    9 [: `( n5 ]( s- `14.2 Interconnection Technologies 357
    / }& \) a: {; ~$ W9 g14.2.1 Synchronous Interconnection 357
    5 `/ }8 x4 o  j6 J% ]' B3 e14.2.2 Induction Interconnection 358
    3 K# d9 @8 A6 T" x: N; W! ]0 `7 W& z14.2.3 Inverter Interconnection 359! S3 S0 d% h0 G- B
    14.3 Standards and Codes for Interconnection 359& A4 o2 N3 G0 U' x0 X2 y9 D
    14.3.1 IEEE 1547 360
    * A9 R+ k" |9 s6 D2 l9 l14.3.2 National Electrical Code 3613 L& l) a( M! O+ D! q- a0 Y% D* [
    14.3.3 UL Standards 362
    3 x* F: M# Q" Y3 p  J0 T! H- u) |14.4 Interconnection Considerations 3644 j# B3 C8 C5 ?: r; C
    14.4.1 Voltage Regulation 364
    0 q+ s4 ?" n: H/ R& t14.4.2 Integration with Area EPS Grounding 3658 T7 \4 [7 ]. }
    14.4.3 Synchronization 365) X3 O5 S/ W, l* ?
    14.4.4 Isolation 365+ J3 N) a/ w, h  D
    14.4.5 Response to Voltage Disturbance 3662 K5 N: z/ I; c# a7 v
    14.4.6 Response to Frequency Disturbance 367
    $ e6 H8 R$ Y" ~: g# ~) I14.4.7 Disconnection for Faults 368
    " u& J) q+ V4 I8 W2 j14.4.8 Loss of Synchronism 369- p2 v( x3 L, b* G- w6 o
    14.4.9 Feeder Reclosing Coordination 369
    # U9 ?) E% i8 V+ g% q14.4.10 DC Injection 370! D# h1 T: H8 N/ e
    14.4.11 Voltage Flicker 371
    ' w- u) k- t  t14.4.12 Harmonics 3717 r+ \) W, V$ L+ Q
    14.4.13 Unintentional Islanding Protection 373
    # u5 X# j% I5 l8 l0 Y4 ^14.5 Interconnection Examples for Alternative Energy Sources 373
    1 ~; ~! @# L( A; h  E5 ~8 t14.5.1 Synchronous Generator for Peak Demand Reduction 375
    ) T# Z+ c# F0 F' Qxiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 3751 y0 i4 W: T" n# @9 X* O5 ]- k
    References 3782 g: k% g. m# b2 i2 e
    15 MICROPOWER SYSTEM MODELING WITH HOMER 379% @, N4 z* _# t8 ]4 d
    Tom Lambert, Paul Gilman, and Peter Lilienthal
    * ^* @) m( y( a; ^# z8 L; \; g15.1 Introduction 379
    / B- x! }( {% b6 ]! J15.2 Simulation 381
    & o- b1 w) N" V" d15.3 Optimization 3854 w. a: X# x5 ]' F6 }4 B* Y& t
    15.4 Sensitivity Analysis 388
    # E% m4 A' O# Y$ n+ L15.4.1 Dealing with Uncertainty 389
    7 x4 R7 c- e8 U; n' G$ C15.4.2 Sensitivity Analyses on Hourly Data Sets 391
      [' r0 G1 V: p$ W6 \6 z) D, B15.5 Physical Modeling 393
    5 @3 @9 L5 y* u15.5.1 Loads 393
    / m, a! D# z/ M. [" K# U15.5.2 Resources 395
    . R- L" `0 V) N* F# G, b15.5.3 Components 3971 F# i& C; k# o; l( {3 b$ C) x
    15.5.4 System Dispatch 408% C6 S/ _; z& E. [% ]
    15.6 Economic Modeling 4145 v$ L% W% A5 U& r# F2 F; G
    References 4163 X+ D3 D# f! Y5 \9 i' G" A( W8 X) `3 h
    Glossary 416
    & s5 K, S/ Z- L6 u0 f7 ]3 wAPPENDIX A: DIESEL POWER PLANTS 419
    & P& o6 P* P( lA.1 Introduction 419
    : m$ s, [- Z3 q- |2 QA.2 Diesel Engine 420
    # ?; y! v9 K, GA.3 Principal Components of a Diesel Engine 421
    , Z8 L# {0 f8 U! ZA.3.1 Fixed Parts 421. R; x$ D4 Q) P3 k% d5 @3 R( \8 a
    A.3.2 Moving Parts 4216 r. Q3 `3 G) ]+ J7 u
    A.3.3 Auxiliary Systems 422
    1 K" R% V8 C' WA.4 Terminology of Diesel Engines 422! q2 O) I- ?( s3 P  T
    A.4.1 Diesel Cycle 422
    % {# R. `2 w- k) ?+ q& oA.4.2 Combustion Process 424
    3 f: Z+ d& m! Q6 T8 _! X# L  {A.5 Diesel Engine Cycle 425
    $ i2 f& k: w- ^, [, iA.5.1 Relative Diesel Engine Cycle Losses 425/ \) `. ]+ F' g+ w3 a& ~
    A.5.2 Classification of Diesel Engines 426
    , w# A3 V) V' S7 aA.6 Types of Fuel Injection Pumps 427" N: M! q. R3 w  Y* _/ o
    A.7 Electrical Conditions of Generators Driven by
    & _! M* C$ F( U6 H- T# mDiesel Engines 427* ~  V+ |( C9 j4 F) _) H
    References 4297 U" L- I5 V# O1 P% N
    CONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 431
    ; e# I) O0 |- r7 J1 x* dB.1 Introduction 431& T3 U/ ]* G  Y* `+ l) L
    B.2 Geothermal as a Source of Energy 4328 p! C* Z' f1 o7 W$ [4 C
    B.2.1 Geothermal Economics 434
    # t) q/ m) F6 s1 M6 D  N3 F* ^B.2.2 Geothermal Electricity 435+ A, _* W5 z5 O7 O
    B.2.3 Geothermal/Ground Source Heat Pumps 436
    4 R3 G; Q/ e! |9 fReferences 4371 q- |1 F$ c- R9 ?! {7 b
    APPENDIX C: THE STIRLING ENGINE 438/ p" l& k/ P" X/ A$ E
    C.1 Introduction 438% z* q. O5 e) o7 a! e6 p9 X
    C.2 Stirling Cycle 439) a; K1 |; L' E! d7 b0 h( t
    C.3 Displacer Stirling Engine 442
    . h8 v5 D2 I  ZC.4 Two-Piston Stirling Engine 444( s) J# ?! i5 m! \
    References 446
    4 p  A- n; L8 N. a* l1 wINDEX 447
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    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

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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
    擦汗
    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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