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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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来源: 互联网

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本帖最后由 bird841011 于 2009-6-16 16:39 编辑 + T9 z! T* x* |5 U! L' M& Z9 Z

  I; t( m7 d5 a' o两本书:" d: h5 J5 l1 A/ k8 V3 E
1、Integration of Alternative Sources of Energy.pdf
# t8 d5 M' L  o$ ZIEEE press4 Q  J. j% n& r( [6 W6 y
简要目录
( V& v+ ^9 O6 ?/ X2 C1 ALTERNATIVE SOURCES OF ENERGY 1
& x' x, [& a; m( W2 PRINCIPLES OF THERMODYNAMICS 28
/ p! |/ a* O/ `3 HYDROELECTRIC POWER PLANTS 57
2 p6 j! G4 Z" G  Q/ K4 WIND POWER PLANTS 84* O, w# o& v0 f" g7 @3 o+ @; o; d
5 THERMOSOLAR POWER PLANTS 112; ]1 ^# H- Q7 i
6 PHOTOVOLTAIC POWER PLANTS 129% ?7 A. F* @" |3 D- f
7 POWER PLANTS WITH FUEL CELLS 159
5 Q+ i% N+ G& W' h* r. }8 BIOMASS-POWERED MICROPLANTS 198. B; G/ K1 N% w5 Q. j
9 MICROTURBINES 215( Q: i1 @2 W" Y5 K" k
10 INDUCTION GENERATORS 233
5 o- [* g; X, w! b) A11 STORAGE SYSTEMS 262
7 ]/ R2 k4 \( i! _! l/ z. ]4 I12 INTEGRATION OF ALTERNATIVE SOURCES
6 R# V5 T$ I) K$ vOF ENERGY 301
' |- f1 y, x* y+ w' ^1 [- v; Y13 DISTRIBUTED GENERATION 3338 g9 @; C4 p$ Z- H' J4 f  P& N
14 INTERCONNECTION OF ALTERNATIVE ENERGY
: g, }5 V; X$ q6 c9 |SOURCES WITH THE GRID 3543 u# {0 ~  ]( e  {
15 MICROPOWER SYSTEM MODELING WITH HOMER 379& O# `5 j2 w9 B0 r# u
Glossary 416
: j; Y2 H6 J; P; o# E( B) GAPPENDIX A: DIESEL POWER PLANTS 4195 F! W" S) a3 h8 }
APPENDIX B: GEOTHERMAL ENERGY 4310 V7 L. J& x; P+ J) _, Q
APPENDIX C: THE STIRLING ENGINE 438
7 J$ |+ @0 I: P, O0 Z9 h+ h' X6 F  `: K* X" f. k
; _# v) Z2 J5 m( I

7 W; p5 w! `2 K! H/ N2、fuel cell system explained.pdf
# B. H) z- X; y5 a) qWiley press, w# e, s# c; O% o
简要目录9 |& B) d& W, q: R/ y' H8 y- \1 a
1. Introduction ............................................................................. 1
6 I" `- V0 D8 ]3 d2. Efficiency and Open Circuit Voltage ..................................... 25  m0 ^1 `' `/ {7 r
3. Operational Fuel Cell Voltages .............................................. 45( n7 c$ i) X- L, x, F; X0 V; |
4. Proton Exchange Membrane Fuel Cells ................................ 67
* [; d0 O4 \% }4 b/ r! \5. Alkaline Electrolyte Fuel Cells ............................................... 1218 J* J& q( c) v2 P  p% ~
6. Direct Methanol Fuel Cells ..................................................... 1414 m; r' l6 d0 O6 d" x
7. Medium and High Temperature Fuel Cells ........................... 1639 G4 b1 ?$ v* [) N' i9 ?- |
8. Fuelling Fuel Cells .................................................................. 2290 f8 z0 f& }2 e6 V3 m. G) L2 s6 P. B; g
9. Compressors, Turbines, Ejectors, Fans, Blowers, and
, A& v& ^* T- \3 s. l10. Delivering Fuel Cell Power ..................................................... 3315 _1 h% R" t6 L7 ^2 c2 u, D% S7 {
11. Fuel Cell Systems Analyzed .................................................. 369
  S2 g6 w4 O3 a" c4 U0 lAppendix 1. Change in Molar Gibbs Free Energy Calculations ......... 391
: s5 {' J6 |6 ~1 D5 \Appendix 2. Useful Fuel Cell Equations ............................................. 395

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    2016-3-17 22:07
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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 * J3 l1 }2 R6 `- g( }
    Fuel Cell Systems Explained
    8 h' v+ w& W" W( ^/ \Second Edition 2003出版的7 O4 u/ f3 ]( [9 {& N% c
    第一版是2000年1月出版的 $ V3 z( M0 n, D1 V0 z
    下面是目录
    ' d* _: Q" ]7 f% P" `3 ?Contents
    % r$ V9 e2 j; H/ z: [8 \- qPreface   ............................................................................................   xiii
    + h/ K; G! L4 j+ ^Foreword to the First Edition   ...........................................................   xv
    / N* a6 m* D, O+ b' c9 m, ^Acknowledgements   .........................................................................   xvii
    4 o: }! r4 K( N+ D% q" ]Abbreviations  ...................................................................................   xix
    # C: v2 }5 J* ?  i* m; zSymbols  ...........................................................................................   xxi
    $ z% r- G% r0 }3 k8 J/ t0 [1. Introduction   .............................................................................   1
    5 E5 K" T! k) M, A4 l7 z  {1.1  Hydrogen Fuel Cells – Basic Principles  .....................................   1
    ( [+ o* z# C1 b* P# W1.2  What Limits the Current?   ...........................................................   5
    8 j; t5 z$ x# l( |; |' R1.3  Connecting Cells in Series – the Bipolar Plate   ..........................   6 / J: C( i' k1 e* M1 W: o) M
    1.4  Gas Supply and Cooling   ............................................................   10
    1 m  c! J1 n4 S0 S- L1.5  Fuel Cell Types  ..........................................................................   14 9 s& D; p5 @" ~
    1.6  Other Cells – Some Fuel Cells, Some Not   ................................   16 , g/ B/ i& y: y7 [# H
    1.6.1  Biological Fuel Cells   ......................................................   17 ; ]# R- V$ g: k% c7 d
    1.6.2  Metal/Air Cells  ................................................................   17
      W3 b! }% l. U- N1.6.3  Redox Flow Cells or Regenerative Fuel Cells   ...............   18 / S2 }9 J3 G" L/ [8 D; J  `
    1.7  Other Parts of a Fuel Cell System   .............................................   19
    5 E1 ]/ j8 I. e) U! e* e' h: T: M1.8  Figures Used to Compare Systems  ...........................................   21 % A3 E6 h0 k1 k$ T: Y( q0 Q6 ^) x
    1.9  Advantages and Applications   ....................................................   22
    $ V9 k: h5 z1 U: zReferences   .........................................................................................   24
    : l0 t4 |3 @5 M3 B/ |6 g2 D! _2.  Efficiency and Open Circuit Voltage   .....................................   25
    - \- n# w( }( E% \8 |2 Y2.1  Energy and the EMF of the Hydrogen Fuel Cell   ........................   25
    9 ^$ Y6 R# ?5 J" Q$ z2.2  The Open Circuit Voltage of Other Fuel Cells and Batteries   .....   30 7 F4 Y3 j4 q6 V, p( Q
    2.3  Efficiency and Efficiency Limits   .................................................   31
    6 m% J# z4 P, J6 e; y2.4  Efficiency and the Fuel Cell Voltage   ..........................................   34
    . I) K7 Y* I; V) V& d; M+ ~6 Q/ M2.5  The Effect of Pressure and Gas Concentration   .........................   35
    & T. \) x* U5 E' r3 P2.5.1  The Nernst Equation   ......................................................   35 5 |* d( E) w' ~( x. S
    2.5.2  Hydrogen Partial Pressure  .............................................   38 7 x5 O; [' M$ w
    2.5.3  Fuel and Oxidant Utilization   ...........................................   39 0 n4 C8 ]/ j, k& l/ ~+ Y: r4 U
    2.5.4  System Pressure  ............................................................   40
    7 Y# s/ V! V) X2.5.5  An Application – Blood Alcohol Measurement   ...............   41
    + ]& G/ E* ]( d7 W1 O2 L6 S4 X2.6 Summary  ...................................................................................   42
    ) x3 f8 M  |9 I4 z, h, EReferences   .........................................................................................   43
    , o( @9 o& G% M3.  Operational Fuel Cell Voltages   ..............................................   45
    % f  Q+ w  S6 o8 I! f3.1 Introduction  ................................................................................   45 # _0 z. x/ J  ^4 U  t% A
    3.2 Terminology  ...............................................................................   47 ; b: ~3 `: X# a: a/ Z( u3 s, ^
    3.3  Fuel Cell Irreversibilities – Causes of Voltage Drop   ..................   47
    $ v- E1 W# F, w# n2 S3.4  Activation Losses  .......................................................................   48
    * L+ x: @5 a* G" Z+ u3.4.1  The Tafel Equation   ........................................................   48
    1 x% v2 T" k9 H' M3.4.2  The Constants in the Tafel Equation  ..............................   49
    / J' a: |4 l: L, k  G3.4.3  Reducing the Activation Overvoltage  .............................   52
    " A  \  E$ `7 p6 L, z8 k3 J. w. W3.4.4  Summary of Activation Overvoltage  ...............................   53 5 X, c; I: ~1 b+ @; U
    3.5  Fuel Crossover and Internal Currents   .......................................   53
    # o# y2 v& n+ C$ H3.6  Ohmic Losses   ............................................................................   56 * Q8 d" c% J- J: h& c
    3.7  Mass Transport or Concentration Losses  ..................................   57 / ^- t7 \- C! v% D! Q
    3.8  Combining the Irreversibilities   ...................................................   59
    ' q/ C; O' y+ {7 D5 c' i! W/ F' l( C3.9  The Charge Double Layer   .........................................................   61 ) {, L. w) Q* a' N
    3.10  Distinguishing the Different Irreversibilities  ................................   63 5 A) `0 r! Z/ X
    References   .........................................................................................   66
    3 M0 @, n4 a' q  }& D% @; |2 N4.  Proton Exchange Membrane Fuel Cells  ................................   67 ; I# ]  T6 r& m8 @
    4.1 Overview  ....................................................................................   67 * I: w4 ?1 x, ^9 H* q. D8 B
    4.2  How the Polymer Electrolyte Works   ..........................................   69 + P2 k4 s' h2 ~) j  h) Q2 Q" |
    4.3  Electrodes and Electrode Structure   ...........................................   72
    $ d2 T8 s' A. O) B. }( z$ E4.4  Water Management in the PEMFC  ............................................   75 0 m6 v8 Q+ s$ g/ X( V2 V
    4.4.1  Overview of the Problem  ................................................   75 & j% o* N% E* M% H, o; e& X% x' d
    4.4.2  Airflow and Water Evaporation   ......................................   76
    : u' l% X, I: |  U& t  I4 s: ?4.4.3  Humidity of PEMFC Air   ..................................................   80 4 L9 u+ Z) a% y5 y# d
    4.4.4  Running PEM Fuel Cells without Extra Humidification   ..   83
    - [; t% P: n! R) j* d3 l" k5 ~9 h4.4.5  External Humidification – Principles  ...............................   85
    ) ]0 s4 ~% i+ e; a: M4.4.6  External Humidification – Methods   ................................   87
    $ [6 L* |% J% ~# B: L) n3 v8 X4.5  PEM Fuel Cell Cooling and Air Supply   ......................................   90
    - I: G" i4 r( p9 W: R4.5.1  Cooling Using the Cathode Air Supply  ...........................   90 " u2 }' e9 ^  ~  A) h; \" J* i
    4.5.2  Separate Reactant and Cooling Air   ...............................   91
    8 G! z! B+ y: s# v" t4.5.3  Water Cooling of PEM Fuel Cells   ..................................   93
    + |" g. V  u6 t% i9 f5 j4.6  PEM Fuel Cell Connection – the Bipolar Plate   ..........................   94 1 G& \9 H3 o+ H' J9 {, C
    4.6.1 Introduction  ....................................................................   94 , _7 k  f) C! r2 p$ ?4 k# }7 \9 P, \8 `
    4.6.2  Flow Field Patterns on the Bipolar Plates   ......................   94
    0 ^& m( B- O2 E4.6.3  Making Bipolar Plates for PEM Fuel Cells   .....................   96
    5 l" ~# J/ [6 W8 N4 {& s# n. `) Q8 D4.6.4  Other Topologies   ...........................................................   100 / D4 `0 w  A. h4 B$ [  z: a% \" P; M% r
    4.7  Operating Pressure   ...................................................................   102 5 d% L1 h* M/ H; q4 |* p
    4.7.1  Outline of the Problem   ...................................................   102
    8 a6 ^  C6 F" P7 N7 b4.7.2  Simple Quantitative Cost/Benefit Analysis of Higher
    $ h+ g5 }" e6 B! rOperating Pressures   ......................................................   103 7 d- x3 s! R3 ~6 L1 p
    4.7.3  Other Factors Affecting Choice of Pressure   ..................   108
    6 n9 J# G5 @6 H3 M4.8  Reactant Composition   ...............................................................   110 . o' D4 a3 q) L
    4.8.1  Carbon Monoxide Poisoning  ..........................................   110
    ' p- z! m- L: b' ~- x4.8.2  Methanol and Other Liquid Fuels  ...................................   111
    ' y2 I' Q: F8 G0 h- Q4.8.3  Using Pure Oxygen in Place of Air  .................................   111
    ' ^, I6 d# z+ G4.9  Example Systems   ......................................................................   112 & \8 `2 F2 R) X3 T+ a, f
    4.9.1  Small 12-W System   .......................................................   112
    - Q) i9 Z- }$ t6 g4.9.2  Medium 2-kW System  ....................................................   114
    # Z8 }8 j4 t" V& S" W8 |4.9.3  205-kW Fuel Cell Engine   ...............................................   117 9 N# _! l. x: p5 W
    References   .........................................................................................   118 ' p; R6 ]* h* A! n
    5.  Alkaline Electrolyte Fuel Cells   ...............................................   121 4 [! g5 U1 [/ E
    5.1  Historical Background and Overview  .........................................   121 6 \$ @( w$ h6 d1 ?" H8 u9 b
    5.1.1  Basic Principles   .............................................................   121 7 D6 }7 O" P# c8 Z0 K% Y- `
    5.1.2  Historical Importance   .....................................................   121
    : z9 l, H1 Y6 _  x* c5.1.3  Main Advantages   ...........................................................   122 , g2 j8 ~$ ]7 ~2 G# Z* M6 U
    5.2  Types of Alkaline Electrolyte Fuel Cell   ......................................   124 0 \  T4 B; w  `% _4 g6 i6 e5 \
    5.2.1  Mobile Electrolyte   ..........................................................   124
    1 Q4 w5 k& ?/ g" ]: W8 k6 s6 `4 _5.2.2  Static Electrolyte Alkaline Fuel Cells  ..............................   127
    . V' C: C" g( ^& B, m5.2.3  Dissolved Fuel Alkaline Fuel Cells  .................................   129
    5 l  s- S( g8 l& t$ `1 h) i5.3  Operating Pressure and Temperature   .......................................   132
    3 D% D2 k! K- o- k5.4  Electrodes for Alkaline Electrolyte Fuel Cells   ............................   134
    4 V$ h, V% N( B0 _( @  B5 R3 \5.4.1 Introduction  ....................................................................   134 , g, w$ b8 m, R4 F; D/ B' Z
    5.4.2  Sintered Nickel Powder   .................................................   134 $ q8 r) k" M* I9 e$ B3 T1 _
    5.4.3 Raney Metals  .................................................................   135 / K4 S* e2 X; {4 c' J6 }3 @
    5.4.4  Rolled Electrodes  ...........................................................   135 + s! Q5 W+ l" }: M
    5.5  Cell Interconnections   .................................................................   137 7 S9 p9 s$ `/ u1 P$ y
    5.6  Problems and Development   ......................................................   137 4 V( G9 ]" [2 L: r6 @
    References   .........................................................................................   138
    1 e9 {4 B/ e2 k) [6.  Direct Methanol Fuel Cells   .....................................................   141 + ]4 k2 @! a% ?. g9 ]* k' Y( y
    6.1 Introduction  ................................................................................  141
    - Q; I5 S9 m: L7 K6.2  Anode Reaction and Catalysts   ..................................................   143
    : L3 ]3 o* s. Z7 j. J' b6 T- p6.2.1  Overall DMFC Reaction   .................................................   143 8 l2 _" H6 g* `* ?7 y9 ?0 D
    6.2.2  Anode Reactions in the Alkaline DMFC  .........................   144
    + f& g: E; J( A$ X) X& Q" f; i6.2.3  Anode Reactions in the PEM Direct Methanol FC   .........   144 2 O% F2 k/ s0 {* u
    6.2.4  Anode Fuel Feed   ...........................................................   146
    , _, [4 e" X- R6.2.5  Anode Catalysts  .............................................................   147 0 l" I4 q* ~/ J1 t6 v
    6.3  Electrolyte and Fuel Crossover   .................................................   148 + T' C! g2 |' \2 x$ Q; a+ z
    6.3.1  How Fuel Crossover Occurs   ..........................................   148 . W* Y5 Q; U3 {3 M" |9 |6 n# v, w
    6.3.2  Standard Techniques for Reducing Fuel Crossover   ......   149 - G  U+ e6 W; O+ U% Y/ n5 x
    6.3.3  Fuel Crossover Techniques in Development   .................   150
    0 d5 g/ `, b$ V  A3 i  H# C6.4  Cathode Reactions and Catalysts   .............................................   151 4 B+ I# {7 G- v; M+ ~5 Q% d
    6.5  Methanol Production, Storage, and Safety   ................................   152 * t  ~! J4 h: y% v! a5 d
    6.5.1  Methanol Production   ......................................................   152
    : |, r" U/ o, _$ W$ J3 P6.5.2  Methanol Safety   .............................................................   153 8 b: f" P$ D1 z7 E% a" v) Y' T2 C
    6.5.3  Methanol Compared to Ethanol   .....................................   155
    & T4 E" K9 V8 }0 u6.5.4  Methanol Storage   ..........................................................   156 $ X4 J6 T" D* o8 O$ ^
    6.6  Direct Methanol Fuel Cell Applications   ......................................   157
    . A4 {( w6 ^' `& hReferences   .........................................................................................   160
    " W+ X3 L5 d5 H5 R: M9 m7.  Medium and High Temperature Fuel Cells   ...........................   163 # ^9 t; d/ K" q) ?4 S4 o
    7.1 Introduction  ................................................................................  163
    + Y4 r0 h/ l" {# u. l0 R) y- N2 M7.2  Common Features   .....................................................................   165 : r7 o3 \3 D/ e" ?# P* H* F* Y/ E
    7.2.1  An Introduction to Fuel Reforming   .................................   165 ' i& v4 t. C; q3 v9 [4 N' H
    7.2.2  Fuel Utilization   ...............................................................   166 4 k4 I+ f: s! C; [9 D6 q6 i! a
    7.2.3  Bottoming Cycles   ...........................................................   168
    6 X9 q5 T8 r7 Q7.2.4  The Use of Heat Exchangers – Exergy and Pinch 7 n* |' z9 C- |/ t- X5 d( v: d
    Technology   ....................................................................   174 3 g' c: ~# K( G2 u6 S2 y9 N
    7.3  The Phosphoric Acid Fuel Cell (PAFC)   .....................................   177
    * d: r9 S" W$ L: l7.3.1  How It Works   .................................................................   177
    % j- \& A$ p7 g  S) H/ O/ q: ]7.3.2  Performance of the PAFC  ..............................................   182 ; b1 g0 A7 G9 p
    7.3.3  Recent Developments in PAFC   .....................................   184
    ( C. w  R/ G# y7.4  The Molten Carbonate Fuel Cell (MCFC)   ..................................   187 ; ^& Q# l. f& K+ q' t/ T6 P
    7.4.1  How It Works   .................................................................   187 8 x  k5 [# f/ [3 p- l
    7.4.2  Implications of Using a Molten Carbonate Electrolyte   ...   190
    + c: ?3 P# H5 i7 K: _! E" S# {7.4.3  Cell Components in the MCFC   ......................................   190
    8 F8 r/ Z( J' Y. i2 m" J7.4.4  Stack Configuration and Sealing  ....................................   195
    6 [9 R. {; a. L( u2 x4 o; d1 @7.4.5  Internal Reforming   .........................................................   196 6 [6 [3 |) h* F
    7.4.6  Performance of MCFCS  .................................................   198 1 z) u0 Z$ G, G6 F
    7.4.7  Practical MCFC Systems   ...............................................   202 # k5 A8 }, ~  G. u) x4 y
    7.5  The Solid Oxide Fuel Cell   ..........................................................   207
    9 D8 w' M- k  y. M/ `. J0 P# S/ d7.5.1  How It Works   .................................................................   207 6 ^+ L" [; [( ~1 W
    7.5.2 SOFC Components  ........................................................   209 ( Y: w, h4 k! T4 x/ r+ d
    7.5.3  Practical Design and Stacking Arrangements for the , r1 ]8 d+ x6 m4 ?2 ]- `
    SOFC   .............................................................................   213
    # [- J$ g3 q1 w+ V2 N8 N7.5.4  SOFC Performance   .......................................................   220
    : d3 p7 U0 e4 V$ o* I0 z3 p7.5.5  SOFC Combined Cycles, Novel System Designs and
    ! X0 B, _. N$ P9 T: N0 eHybrid Systems  ..............................................................   221 " l! _: Z$ J' n) Z+ p8 F1 {
    7.5.6  Intermediate Temperature SOFCs  .................................   225
    3 T4 E9 Z* R4 kReferences   .........................................................................................   226   W6 H5 U0 o. J5 \& ~/ e% S& c- F, y+ f
    8.  Fuelling Fuel Cells   ..................................................................   229
    : v4 l* X: J" B: [- T- v8.1 Introduction  ................................................................................  229   L9 r$ X3 h/ o
    8.2  Fossil Fuels   ...............................................................................   232
    7 N3 E" ]2 }. M  P7 h( M- J8.2.1 Petroleum  ......................................................................   232
    6 ~1 i) W- L4 {% _  c% w8.2.2  Petroleum in Mixtures: Tar Sands, Oil Shales, Gas
    ! Y+ y4 r* e4 d4 jHydrates, and LPG   ........................................................   233 9 u( F" B5 _5 D
    8.2.3  Coal and Coal Gases  .....................................................   234 5 t4 }0 \/ X/ N7 x& n0 ~9 v
    8.2.4  Natural Gas  ....................................................................   235 + k8 M% f4 u3 b( K! c( w$ }2 f
    8.3 Bio-Fuels  ...................................................................................  236
    9 r8 J# \& O* Y7 c; E8.4  The Basics of Fuel Processing   ..................................................   238 ' ], Z/ A( k- u$ {! k' l0 _! \) z
    8.4.1  Fuel Cell Requirements   .................................................   238
    . ?3 [( m' Y: q6 A" q8.4.2 Desulphurization  ............................................................   239
    ; N9 {/ A: C6 v  u8 N- t, q7 m! i8.4.3  Steam Reforming   ...........................................................   241
    3 f3 x" L  A; u: c" w8.4.4  Carbon Formation and Pre-Reforming  ...........................   244
    / e+ A3 P# {0 i8.4.5  Internal Reforming   .........................................................   246
      ]) H) ^" `* ]) A  T' b: R3 P4 P8.4.6  Direct Hydrocarbon Oxidation  ........................................   248
    " R' F/ |% y( R: k8.4.7  Partial Oxidation and Autothermal Reforming  ................   248
    - H; _3 a$ |, ~* _8.4.8  Hydrogen Generation by Pyrolysis or Thermal
    7 c! s6 i- z, |/ Q9 e4 z0 x$ j石皮解ing of Hydrocarbons   .............................................   250 " j7 z  l' f$ ]( d$ ]
    8.4.9  Further Fuel Processing – Carbon Monoxide Removal   .   250 # u) l$ ~* |+ w1 B9 O' E
    8.5  Practical Fuel Processing – Stationary Applications  ..................   252 1 \$ e2 f3 o: Y
    8.5.1  Conventional Industrial Steam Reforming   .....................   252 6 i0 u' h" ?/ m+ Y3 Q8 G
    8.5.2  System Designs for Natural Gas Fed PEMFC and " o  V( H" J2 [/ W7 r7 i4 ^& O
    PAFC Plants with Steam Reformers  ..............................   253
    ( B9 e$ h! W3 t+ @  n! X2 p& T8.5.3  Reformer and Partial Oxidation Designs   .......................   257
    - c1 }0 O: [; e9 ~7 Q. E3 Z8.6  Practical Fuel Processing – Mobile Applications   .......................   263
    / r; B( W3 g4 V0 l% ?8 u3 i8.6.1  General Issues  ...............................................................   263
    2 F' K/ u2 v; |  y8.6.2  Methanol Reforming for Vehicles  ...................................   264 3 L7 ]6 e3 A! _  k1 U( T# [5 A
    8.6.3  Micro-Scale Methanol Reactors  .....................................   267
    , |( B  [5 W4 ^5 g& Q/ D+ n/ j4 B8.6.4  Gasoline Reforming   .......................................................   269 8 \% h' I1 X7 h6 O
    8.7 Electrolysers  ..............................................................................  270
    ) h$ P* U; F" c2 Q; X1 I( f8.7.1  Operation of Electrolysers   .............................................   270 % r( q& {" q% j) G  z% F# d6 a. a4 n3 p
    8.7.2  Applications of Electrolysers   ..........................................   272 - Z8 \0 K2 }; d4 l6 s0 w
    8.7.3  Electrolyser Efficiency  ....................................................   272 . t1 q/ }3 X# P
    8.7.4  Generating at High Pressure   .........................................   273 ) v0 k4 A( j( Z5 G! L& W& Z: |  X2 h
    8.7.5 Photo-Electrolysis  ..........................................................   275
    - ^* N- F% `7 J# n7 x8.8  Biological Production of Hydrogen   ............................................   275 / S1 o# i7 k5 u
    8.8.1 Introduction  ....................................................................   275 * q+ n! O; w- f# Y0 `7 Z
    8.8.2 Photosynthesis  ..............................................................   276 % h1 W5 s) k' z- t$ x& L$ ?
    8.8.3  Hydrogen Production by Digestion Processes  ...............   278 " d+ g* H* x9 v/ H( C) d
    8.9  Hydrogen Storage I – Storage as Hydrogen   .............................   279 " l1 U# B/ D! f, \: a
    8.9.1  Introduction to the Problem  ............................................   279
    0 v% F# d0 G& W* @% X8.9.2 Safety  .............................................................................   280 9 ~; n& n1 S7 ^7 s% d" r" V
    8.9.3  The Storage of Hydrogen as a Compressed Gas  ..........   282
    & }0 k, J, W9 F6 M% w8.9.4  Storage of Hydrogen as a Liquid   ...................................   284
    % D) X4 ]* w- ?" s% b8.9.5  Reversible Metal Hydride Hydrogen Stores  ...................   286
    + a5 `0 N$ c# {6 |# T8.9.6  Carbon Nanofibres  .........................................................   289 ! i) T  W& R5 j4 H$ n( S$ s. E4 N
    8.9.7  Storage Methods Compared  ..........................................   291
    0 A8 `' c. g! m7 d8 U) B8.10  Hydrogen Storage II – Chemical Methods  .................................   293 * y$ k& X. Q% Z) Q5 g# U' m& ^1 j
    8.10.1 Introduction  ....................................................................   293 0 P1 Y; ?% \1 R& g/ a4 M2 T  ~2 L
    8.10.2 Methanol  ........................................................................   293 6 \4 v, Z0 F0 [
    8.10.3  Alkali Metal Hydrides   .....................................................   295 8 ]# U7 u, e! R7 U8 a; ^
    8.10.4  Sodium Borohydride   ......................................................   297
    % X2 C1 \6 P0 M, h2 y& m$ _8.10.5 Ammonia  ........................................................................   301 7 D1 `5 L0 Q; [4 x& N
    8.10.6  Storage Methods Compared  ..........................................   304
    $ V. z' L0 K: V8 Q; B* o/ h  C; ^References   .........................................................................................   305 + A; A* H3 J2 z
    9.  Compressors, Turbines, Ejectors, Fans, Blowers, and 9 U3 O; M1 U! D- \$ w+ d# k
    Pumps  ......................................................................................   309 0 j6 F5 \+ B4 P3 F
    9.1 Introduction  ................................................................................  309 7 U; y4 F' W6 x# i; H6 ?
    9.2  Compressors – Types Used   ......................................................   310
    ) N/ Z. ~  I& g4 C% K9.3  Compressor Efficiency  ...............................................................   312 , ]: \  b0 e  H3 Y& m' m  A  X
    9.4  Compressor Power   ....................................................................   314 / r; U8 }* c6 @  m: A% O
    9.5  Compressor Performance Charts   ..............................................   315 7 Y/ H* |5 W7 U& U
    9.6  Performance Charts for Centrifugal Compressors  .....................   318 # [/ i0 n/ T$ G0 ^2 @( }) M
    9.7  Compressor Selection – Practical Issues   ..................................   320 9 M2 \' x2 l2 r: S* q7 K* \' ]
    9.8 Turbines  .....................................................................................  321
    3 K& j- a  E6 V( C: Q# w9 H' {9.9 Turbochargers  ...........................................................................  325
    " z% O, ~/ Q/ C( Y  e6 T9.10  Ejector Circulators   .....................................................................   326
    & @7 V! Y- h* ]; J9.11  Fans and Blowers   ......................................................................   327
    ! d2 a4 W. ^8 E. }9.12 Membrane/Diaphragm Pumps  ...................................................   328
    * \2 i( N2 ]+ j2 F7 U- ^0 ~! SReferences   .........................................................................................   330
    $ e4 p* U; I% t, G1 a' B10.  Delivering Fuel Cell Power  .....................................................   331 & a0 X9 L, l8 H8 E4 m$ }% D; D
    10.1 Introduction  ................................................................................   331
    ( N9 g7 z1 I$ ^+ O% J) x! q10.2  DC Regulation and Voltage Conversion   ....................................   332
    $ h: o0 _$ I, |' _- ~10.2.1  Switching Devices  ..........................................................   332 2 ^2 p" y) ^* i
    10.2.2  Switching Regulators   .....................................................   334
    3 X/ _' N" q" ^5 [$ |10.3 Inverters  .....................................................................................   339 ! x# Q: l5 ^6 ^7 ^% Y: P& o, a
    10.3.1  Single Phase  ..................................................................   339
    6 Y; r1 g9 ^7 v( O3 a; y  Y! t10.3.2  Three Phase   ..................................................................   344
    . e1 f/ s) O5 w: a9 m8 S10.3.3  Regulatory Issues and Tariffs   ........................................   346
    ! c' a( f% U- |& w10.3.4  Power Factor Correction   ................................................   348
    6 ~: G% [1 w. I: X+ i10.4  Electric Motors   ...........................................................................   349
    " G& N9 \+ c( R5 M10.4.1  General Points   ...............................................................   349 7 ~0 T$ {9 A0 ^4 q' K1 t% A
    10.4.2  The Induction Motor   .......................................................   350 5 x9 |4 o& K3 q8 z0 h
    10.4.3  The Brushless DC Motor  ................................................   352
    / |. Z. L4 ]7 N: ^0 U) H10.4.4  Switched Reluctance Motors   .........................................   355   R0 U9 _- S( O  E
    10.4.5  Motors Efficiency   ...........................................................   357
    # U, a7 l6 U4 g10.4.6  Motor Mass   ....................................................................   361 % n; ~% |5 X) l5 {: Y
    10.5  Fuel Cell/Battery or Capacitor Hybrid Systems   .........................   362
    / d, X4 k. E; C4 u; NReferences   .........................................................................................   367 0 F/ m( d2 ^# v+ X% k5 y! [' t( ~6 i
    11.  Fuel Cell Systems Analyzed   ..................................................   369 ; K) L6 b* v4 X: q; _2 O$ t% g. g
    11.1 Introduction  ................................................................................   369
    3 k8 ^7 U4 Q) \8 C! F11.2  Energy Systems   ........................................................................   370 5 ~8 F" h; j( R4 {! b+ e1 E
    11.3 Well-To-Wheels Analysis  ...........................................................   371
      {9 k# e$ U" C11.3.1  Importance of Well-to-Wheels Analysis   .........................   371 3 d: E  Z. r% C0 M4 O. z1 x
    11.3.2 Well-to-Tank Analysis   ....................................................   372
    : K# K) V0 N7 M/ X% J11.3.3  Main Conclusions of the GM Well-to-Wheels Study   ......   374
    # |; P- S' _* o) g/ m' Y; p11.4  Power-Train or Drive-Train Analysis  ..........................................   375
    . U/ Q! H& o5 B; E9 f11.5  Example System I – PEMFC Powered Bus  ...............................   377 " r# W( `+ C6 a5 k2 Y/ K7 U/ p
    11.6  Example System II – Stationary Natural Gas Fuelled System  ...   382
    0 n# e3 J0 y5 d: g11.6.1 Introduction  ....................................................................   382
    6 Q: W" V" e  L11.6.2  Flow Sheet and Conceptual Systems Designs   ..............   382
    4 I* H, U$ \% ~9 o. {; l) a: [11.6.3  Detailed Engineering Designs   .......................................   386 " j; Q' A5 K- P! Z4 g( c$ P7 A) ~2 a
    11.6.4  Further Systems Analysis   ..............................................   387
    % }" q8 B2 Y) w+ F9 L2 g# }, q4 b11.7  Closing Remarks   .......................................................................   388
      j1 y, T5 x: g; \! a$ [References   .........................................................................................   389
    & |2 t, g+ R0 F1 f, Z$ d3 t0 aAppendices
    8 w) c9 d. y0 a+ x0 vAppendix 1. Change in Molar Gibbs Free Energy Calculations  .........   391 * [4 K: `8 h3 Q- I5 ?
    A1.1 Hydrogen Fuel Cell   ........................................................   391
    2 Y$ d% l. U* kA1.2 The Carbon Monoxide Fuel Cell   ....................................   393 # {( }+ \% `7 L+ q- R
    References   .............................................................................   394 ' e6 M3 M, B' Y2 V( c: M: P# [- [
    Appendix 2. Useful Fuel Cell Equations  .............................................   395 8 d5 O- h6 G( |
    A2.1 Introduction  ....................................................................   395
    : r: I+ @2 x: k. J5 P. YA2.2 Oxygen and Air Usage  ...................................................   396
    $ f3 M# N5 F$ uA2.3 Air Exit Flow Rate   ..........................................................   397
    : t0 M( P8 t2 K( [1 c. nA2.4 Hydrogen Usage   ............................................................   398
    - x4 K. m( m" }8 I! I3 Y+ HA2.5 Water Production   ...........................................................   399
    ! ]+ q, F. c8 x# ]: qA2.6 Heat Produced   ...............................................................   399
    8 i. X7 j" Z, P/ B3 ^Index   ...............................................................................................  401
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    第二本比较新 06年出的 2 o% j& }9 {% V( U( R9 I7 R
    CONTRIBUTORS xvii8 |% y( A3 y/ [6 M0 V
    FOREWORD xix8 L! h2 T8 I8 n0 O1 K& C4 h! Y
    PREFACE xxi6 b3 q, L/ ]! W0 K( ]. l
    ACKNOWLEDGMENTS xxiii
    8 u/ C1 @* V' R) F2 ]/ SABOUT THE AUTHORS xxv
    , y" W' z) Z6 x' w1 ALTERNATIVE SOURCES OF ENERGY 1, d; v' H& o: s. L
    1.1 Introduction 1. E7 V$ N3 g7 K" b7 k" Y! d4 D! o( L+ I
    1.2 Renewable Sources of Energy 2
    8 k5 R2 d; z  M$ f' H5 F3 q1.3 Renewable Energy Versus Alternative Energy 4
    ' x, o8 M! l/ ^/ y* Z  @# P, W9 U' c1.4 Planning and Development of Integrated Energy 8: H7 E- ~/ a$ `6 t4 E9 A  a6 Y  W
    1.4.1 Grid-Supplied Electricity 9
    . ^) u: G1 g3 o/ ^3 T& h5 ~  V8 O' L1.4.2 Load 10
    # h+ h0 t- i* g/ A. n% R1.4.3 Distributed Generation 10& }- V4 B& x  w
    1.5 Renewable Energy Economics 11
    ' d: Q) ?' m) P1.5.1 Calculation of Electricity Generation Costs 12
    0 g' ?6 a; S) o' o! ^( _1.6 European Targets for Renewables 14$ x/ ~% @. x& a8 d4 S" ^% u
    1.6.1 Demand-Side Management Options 151 o& e8 d$ J) v& y! L* n
    1.6.2 Supply-Side Management Options 16$ ^, w. Z. ~  a0 r: J
    1.7 Integration of Renewable Energy Sources 19
    / [! y% Z5 b; I& D6 \- q3 G% h7 S5 f  g1.7.1 Integration of Renewable Energy in the United States 20" d4 d: E# b+ Z5 Y$ a  T
    1.7.2 Energy Recovery Time 210 I& R; U1 e1 ^: ~% g
    1.7.3 Sustainability 23# E6 z6 E5 |3 Q/ Y
    1.8 Modern Electronic Controls of Power Systems 26
    2 Z9 r9 c$ ~6 Y' Y" P! p# tReferences 27/ Z% n. A5 g3 c; n
    2 PRINCIPLES OF THERMODYNAMICS 28
    4 \3 [, l2 o# b4 R$ b+ ~2.1. Introduction 28+ {2 ~7 Q' p$ P/ s( {
    2.2. State of a Thermodynamic System 29
    3 n( w  _/ ~6 N- P# q; J2.3. Fundamental Laws and Principles 36' N9 J2 d) i, C: S9 T8 [8 W+ k
    2.3.1 Example in a Nutshell 37
    $ Z! H# w  Z! h2.3.2 Practical Problems Associated with Carnot Cycle Plant 40
    $ Z+ w; Q$ I4 j* |4 ~2 v; W8 |# o5 a2.3.3 Rankine Cycle for Power Plants 41
    ) e/ v" h+ r2 J2 ?+ Z# d& c2.3.4 Brayton Cycle for Power Plants 44
    ) S0 N4 H) f, `" `! f2.3.5 Energy and Power 468 k8 `# ?% o+ H
    2.4 Examples of Energy Balance 47
    $ f% T9 S7 L( T2 O; |6 ~: ^2.4.1 Simple Residential Energy Balance 47
    4 s8 y: B6 U4 j, w/ x* {2.4.2 Refrigerator Energy Balance 481 T) _* {3 l) f2 Y6 C
    2.4.3 Energy Balance for a Water Heater 49% Q6 P6 I7 ^( X
    2.4.4 Rock Bed Energy Balance 51
    * _3 R! S; a6 F2.4.5 Array of Solar Collectors 51
    ) ~0 L/ F3 a5 ?/ p7 X- z2.4.6 Heat Pump 52/ P- J- x; t9 P
    2.4.7 Heat Transfer Analysis 53
    2 ^" Y) U) O+ U8 e. B2.5 Planet Earth: A Closed But Not Isolated System 54
    7 y/ p" ~, [% |# G- g# F$ o  SReferences 56
    7 x- d9 [& n8 O9 c3 HYDROELECTRIC POWER PLANTS 57
    : S9 E9 }0 W& R& i* M9 [! ~" C3 A3.1 Introduction 57
    ; `6 a9 K9 ?: `+ _' v- O3.2 Determination of the Useful Power 58
    . u  X5 o* Q& Z" Y2 a3.3 Expedient Topographical and Hydrological Measurements 60% B; j. P* E+ G, k+ l
    3.3.1 Simple Measurement of Elevation 60
    ) z3 s% @; w$ m' }2 w3.3.2 Global Positioning Systems for Elevation Measurement 607 c3 T/ a, c  n  @; t/ K# w
    3.3.3 Specification of Pipe Losses 62: g. s0 M" z4 L7 m0 F+ ^
    3.3.4 Expedient Measurements of Stream Water Flow 63: i# r) S9 ~! o/ Q* z! s
    3.3.5 Civil Works 67
    ! i- M: W+ D" b. h. i3.4 Generating Unit 67
    4 b$ D( e  I% b9 C( s& O7 _3.4.1 Regulation Systems 675 q: A7 W7 g* \5 w  Q) ?% A; s2 O) B
    3.4.2 Butterfly Valves 68' p* p+ B& f7 h& t3 J8 W# ^3 Z
    3.5 Waterwheels 682 t, F) V4 i  {
    3.6 Turbines 70
    ! l& \7 i1 r9 c7 K' s; N- ^3.6.1 Pelton Turbine 71
    ' ]1 a) r% s. p/ D# c3.6.2 Francis Turbine 747 k' E, e3 E1 u; [  j
    3.6.3 Michel–Banki Turbine 778 D0 P, b4 k. r
    3.6.4 Kaplan or Hydraulic Propeller Turbine 79
    % a* h4 i( z5 Z3.6.5 Deriaz Turbines 80! Q8 {- K) X/ I) n! w* s! {: E
    3.6.6 Water Pumps Working as Turbines 80% z  Q6 [$ |. G2 c5 H  L
    3.6.7 Specification of Hydro Turbines 81
    + _2 W- N* m8 ]References 82
    ; N* _7 F& x# H1 y4 WIND POWER PLANTS 84+ r% x, E! p; C2 \! G
    4.1 Introduction 84# h: a/ |0 I% s5 b4 s
    4.2 Appropriate Location 85" k" t$ N* t2 }7 \" S0 X& t
    4.2.1 Evaluation of Wind Intensity 85
    ( x+ s' I- E* i% t* c2 \* v4 ?4.2.2 Topography 93# B& k; }+ W, Y# u2 K4 D0 W
    4.2.3 Purpose of the Energy Generated 95
    " R9 f' ^7 u: h* \  `& C8 C4.2.4 Means of Access 95# w. U7 u' g9 s, r- X& z
    4.3 Wind Power 959 e* o1 j  g, f1 Z
    4.4 General Classification of Wind Turbines 97
    ; J' Z- G; c! E/ d5 @4 s2 B3 @4.4.1 Rotor Turbines 99
    2 @. D9 x) P5 S  E; ^4.4.2 Multiple-Blade Turbines 990 P8 }' E" L" K6 \
    4.4.3 Drag Turbines (Savonius) 100
    ! [; X# `" v0 o/ H$ C4.4.4 Lifting Turbines 101
    ( }6 H; z8 l: A- ~  ]6 Q* v4 |  u$ B4 S4.4.5 System TARP–WARP 102
    2 h* ~+ {4 S1 p( f/ j4.4.6 Accessories 103+ v8 t0 U6 [, |1 ]' e0 F
    4.5 Generators and Speed Control Used in Wind Power Energy 104
    , U# P. S/ R$ k& f3 a" ]4.6 Analysis of Small Generating Systems 107/ D+ w7 ]' @- u8 ^/ I, k
    References 110* @7 T4 k. [3 s4 d( N
    5 THERMOSOLAR POWER PLANTS 112' n. U  C9 P7 n# D* a' W; K
    5.1 Introduction 112& [2 X/ [5 y- G5 R
    5.2 Water Heating by Solar Energy 112- [& t( |6 K3 q/ Q, f! C2 G
    5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 115
    5 [: P5 F* t; B9 f5.4 Heating Domestic Water 118: D0 ~- g5 p7 Y( C9 X
    5.5 Thermosolar Energy 119/ p0 L) i2 [( R. t# L1 i! i4 q* w
    5.5.1 Parabolic Trough 120
    & U2 i/ C* l& H+ D* u0 N# y2 h5.5.2 Parabolic Dish 122
    ' ^% a; H! c8 a% ^  `/ i6 G* t* w# J) @8 j5.5.3 Solar Power Tower 124
    1 x2 x+ b0 Q* \, b3 U) T5.5.4 Production of Hydrogen 1250 y6 [9 {8 X  ^  Q" E
    5.6 Economical Analysis of Thermosolar Energy 126
    8 T$ Q$ g, ^, m" _. {( NReferences 127) A5 v/ t( K4 c) L
    CONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129
    - T+ M/ A1 E% K* P& I0 K2 {- k6.1 Introduction 1292 W* u9 t! Y3 X
    6.2 Solar Energy 130
    ) c0 v: \+ S9 n) n6.3 Generation of Electricity by Photovoltaic Effect 132
    6 V5 ]* B" }9 G& @7 t6.4 Dependence of a PV Cell Characteristic on Temperature 135
    ; p0 r5 H) J/ x7 G( R6.5 Solar Cell Output Characteristics 137
    0 H+ X& @2 X+ H7 Z3 H8 g$ V- w: f6.6 Equivalent Models and Parameters for Photovoltaic Panels 139/ k3 @# D1 D# b  u: c
    6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 140! A0 |8 c2 a) H6 T: P
    6.6.2 Model of a PV Panel Consisting of n Cells in Series 142! Z: X) n( Q( H- O, {, P
    6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 144
    * S: j2 _5 w; e" x7 t: Q6.7 Photovoltaic Systems 145
    & y4 ?  Z) l( j% v7 b6.7.1 Illumination Area 146
    * F3 V8 _  ~* w3 E: w) n0 z6.7.2 Solar Modules and Panels 146
    8 K- g) k" H8 G  g6.7.3 Aluminum Structures 146
    ) k, R2 l. w  S/ N& ~2 i6.7.4 Load Controller 148; O0 c5 p% v0 R$ u+ z; c2 X
    6.7.5 Battery Bank 148
    ! D, ^7 C" u' V; U4 O* M' L# o6.8 Applications of Photovoltaic Solar Energy 149: ^, n2 c! S# d7 g! Q& X& t7 [
    6.8.1 Residential and Public Illumination 1490 o$ p* }( e3 S! b' T
    6.8.2 Stroboscopic Signaling 150# e3 }' x4 w' M8 Y
    6.8.3 Electric Fence 150
    5 g4 S  q+ o) v8 N8 X  i! F% W, @$ |6.8.4 Telecommunications 151/ O4 T1 c' d  t+ ]7 [; M: M
    6.8.5 Water Supply and Micro-Irrigation Systems 151( T$ {& q  u6 b* d3 V/ q4 X8 b
    6.8.6 Control of Plagues and Conservation of6 _' w4 [  C. k8 q
    Food and Medicine 153/ Q8 S( e6 P6 w
    6.8.7 Hydrogen and Oxygen Generation by Electrolysis 154
    7 a/ c) X. d0 ~/ L) @6.8.8 Electric Power Supply 155
    - Q3 F" [5 d) U+ A) I6.8.9 Security and Alarm Systems 156& X. n1 T0 F0 x! d! w  }
    6.9 Economical Analysis of Solar Energy 156" n( t5 M: H2 b) \7 r
    References 157/ S8 {# b6 g3 V0 y8 k
    7 POWER PLANTS WITH FUEL CELLS 159
    " M+ i4 o, z' Y& g. R& N7.1 Introduction 159* s: t8 G' u: [# U  K
    7.2 The Fuel Cell 160. `% I3 e, m6 S! m1 I; a+ g
    7.3 Commercial Technologies for Generation of Electricity 162
    ) I4 x, w8 H# g; K. Z& J7.4 Practical Issues Related to Fuel Cell Stacking 169& d& x! q$ l# Y7 F
    7.4.1 Low- and High-Temperature Fuel Cells 169
    " A; e6 E6 x7 H) C# u- f' V7.4.2 Commercial and Manufacturing Issues 170
    4 }  E: i( O! A3 {x CONTENTS7.5 Constructional Features of Proton Exchange+ R# _8 j& G9 j5 Z. V; ?- B
    Membrane Fuel Cells 1711 H/ w" J0 z% D  h* d) K& b
    7.6 Constructional Features of Solid Oxide Fuel Cells 173* {1 x+ K4 H& h/ }: d5 i2 L; R) x
    7.7 Water, Air, and Heat Management 1751 D! C6 p( M6 _- b  C, ?" v' k
    7.8 Load Curve Peak Shaving with Fuel Cells 176+ N% \$ }! {3 _6 U
    7.8.1 Maximal Load Curve Flatness at Constant Output Power 1762 c( x5 g& a0 o1 {# |" L! a# K( O
    7.8.2 Amount of Thermal Energy Necessary 178& F  u4 r8 p% K( i& o
    7.9 Reformers, Electrolyzer Systems, and Related Precautions 180
    ! x0 l& B' J! H% u! b7.10 Advantages and Disadvantages of Fuel Cells 181# R8 K0 Q, k# [) x2 o1 P
    7.11 Fuel Cell Equivalent Circuit 182. q6 Z0 @( P1 q& G( f0 J' p
    7.12 Practical Determination of the Equivalent Model Parameters 188
    : d( p0 I# R. }; D' V6 g+ T; w7.12.1 Example of Determination of FC Parameters 1913 Q7 q! K9 Q/ b2 c8 A/ ], M
    7.13 Aspects of Hydrogen as Fuel 194  U' a# z# R# e# d8 {1 m
    7.14 Future Perspectives 195
    . V. w( `4 Q- e, ]7 d, cReferences 196. ?& X. L7 M* }' I! W
    8 BIOMASS-POWERED MICROPLANTS 198* u: ]( }* a) G! G; t
    8.1 Introduction 198
      Q% e/ _. G/ q4 o& A! R2 D9 P9 I8.2 Fuel from Biomass 202
    - H- C3 p: N1 P8 c1 o6 L8.3 Biogas 204
    + s0 n. Z; W( ^8 W8.4 Biomass for Biogas 205
    6 X- S. q! q  m: e5 ^; X+ |/ @% S8.5 Biological Formation of Biogas 206& Y% A' X, N: h! A4 r* G8 F2 {8 C, l
    8.6 Factors Affecting Biodigestion 207; d6 w1 ?% s* C! ]6 h) F: X1 L
    8.7 Characteristics of Biodigesters 2094 r+ R. A! A! N, G. k
    8.8 Construction of Biodigester 210
    - `: Z7 b4 z: [: B$ I8.8.1 Sizing a Biodigester 211
    ; c$ L. U/ a, h2 c8.9 Generation of Electricity Using Biogas 2110 j) t. P  j! X1 t
    References 214
    7 _! M: _  e: O: l' G9 MICROTURBINES 215) G6 n  F$ k% m
    9.1 Introduction 2151 s) L$ Z' k3 M4 v, Q6 I' [! V2 v
    9.2 Princples of Operation 217* u) [6 y( ?4 \# ^( f/ Q7 L
    9.3 Microturbine Fuel 219
    # h! C1 K. E6 ]' ^9.4 Control of Microturbines 220
    0 Z5 p/ q+ i& }( O8 ]9.4.1 Mechanical-Side Structure 220
    * j  u: m( q  H( X; Z; v9.4.2 Electrical-Side Structure 222
    ) N, n1 p" Y4 Y; d% v7 @1 L2 y9.4.3 Control-Side Structure 224
    ) J6 Y8 T! l7 ]! z1 sCONTENTS xi9.5 Efficiency and Power of Microturbines 228
    % J5 C; X5 ]5 R+ h9.6 Site Assessment for Installation of Microturbines 2301 u: J+ D9 w3 F. P% H, {2 o
    References 231* N) i" l5 N# T: `" m
    10 INDUCTION GENERATORS 233
    $ ]" N# H7 b. G% Y! a10.1 Introduction 233' b* I' M+ g" R0 n8 U  @
    10.2 Principles of Operation 234
    # m$ x2 T7 K- w& Z7 r7 G+ C+ A10.3 Representation of Steady-State Operation 236
    4 L( r% [- y3 Z- @, M10.4 Power and Losses Generated 237
    ( [+ ^' Y) q+ G+ g. I0 ~9 l4 R10.5 Self-Excited Induction Generator 240
    ( A6 @3 R$ i. p, Z3 ]3 H: ]10.6 Magnetizing Curves and Self-Excitation 242
    + m' N, q& q8 a) s10.7 Mathematical Description of the Self-Excitation Process 2438 ~; T  c8 t' Y) }" }3 J9 p
    10.8 Interconnected and Stand-Alone Operation 2460 W' {, W( B6 ~: J: p# U
    10.9 Speed and Voltage Control 248
      |& ?, B4 A* B& I0 {10.9.1 Frequency, Speed, and Voltage Controls 249- \- U8 T% l' j# L; |8 S. ^
    10.9.2 Load Control Versus Source Control3 w- `# k- i& \! a% Q* e9 ]- n2 A
    for Induction Generators 2505 y* F2 w& a) J, ^
    10.9.3 The Danish Concept 254. I* ^* v* I& B/ ]! Z
    10.9.4 Variable-Speed Grid Connection 255$ z: ~1 W$ w( T" L& q$ _. r
    10.9.5 Control by the Load Versus Control by% k4 S* N2 M& B1 r! o
    the Source 256# w3 c  l, o2 A6 u- m
    10.10 Economical Aspects 258* e8 {5 p. f- y! X  b- _
    References 2592 t: i. J+ j( n- w' f: ]! C# r
    11 STORAGE SYSTEMS 262
    0 A4 r8 C/ t2 F; k5 Q7 q4 r5 w11.1 Introduction 262
    3 S. t4 l; }. s4 a2 I( Y11.2 Energy Storage Parameters 2655 V/ r( b5 D1 Q% Q' M1 L( E& m1 I0 A9 J
    11.3 Lead–Acid Batteries 268
    $ R) m; {, p2 J1 {4 ^1 |11.3.1 Constructional Features 268
    " F& {& M) k+ ~8 u11.3.2 Battery Charge–Discharge Cycles 269$ O3 ^! F0 M7 C- ?9 u7 Q+ f
    11.3.3 Operating Limits and Parameters 271
    ! N4 R+ {! O" a7 s/ X# @11.3.4 Maintenance of Lead–Acid Batteries 273
    / P' W  M8 d/ G4 k  a4 Y11.3.5 Sizing Lead–Acid Batteries for DG Applications 273
    # \9 ]/ ^/ f0 o, ^11.4 Ultracapacitors 276" e3 K$ k# q( B: b* W/ t
    11.4.1 Double-Layer Ultracapacitors 2774 Z6 C- y# y3 d  ?
    11.4.2 High-Energy Ultracapacitors 278
    6 k# Z" Y( K8 L. j8 Q3 w4 d11.4.3 Applications of Ultracapacitors 2793 }  r: p4 u* c4 Y
    xii CONTENTS11.5 Flywheels 2822 ?; r2 Y, E. m. A
    11.5.1 Advanced Performance of Flywheels 282
    % p1 Y' \& P! J0 }8 ~11.5.2 Applications of Flywheels 282( ?! I6 n$ [  r( N# M' j! K7 h
    11.5.3 Design Strategies 284
    * l! M% h9 m) O/ E8 L11.6 Superconducting Magnetic Storage System 286
    + V% h0 j- u0 M) S4 f( Z11.6.1 SMES System Capabilities 287
    ; {" r5 X3 s0 p. m11.6.2 Developments in SMES Systems 288
    : h, F' [& `- O! {% |" y/ }0 R11.7 Pumped Hydroelectric Energy Storage 2903 `$ }( \: l1 o; t
    11.7.1 Storage Capabilities of Pumped Systems 291
    7 ?& v5 q- v1 n. [! s" H! B8 c11.8 Compressed Air Energy Storage 292& p5 D0 X6 ~9 X3 m% Q
    11.9 Storage Heat 294
    2 B& C$ |6 w8 U& i8 P% l11.10 Energy Storage as an Economic Resource 295
    + N& b% Z; u1 ZReferences 299- N0 f" i! K7 ?( [; l* K
    12 INTEGRATION OF ALTERNATIVE SOURCES1 b5 v( i3 j3 Q& U3 Y+ y
    OF ENERGY 301
    : K( D1 D! k, v2 H/ N% H* h12.1 Introduction 3017 B  g( X' m/ ~
    12.2 Principles of Power Injection 302
    * `8 U9 R' ]* m- u- a12.2.1 Converting Technologies 302% p! I! r7 J2 J. C/ Y( {
    12.2.2 Power Converters for Power Injection$ T: e4 P( {8 U7 Y0 n0 r) p: `+ y$ v
    into the Grid 304
    4 R# a% L4 U; n* @& c/ d: M" \) L12.2.3 Power Flow 306
    : n( |# L3 x; T8 y8 [! u9 c5 E12.3 Instantaneous Active and Reactive Power2 r8 y" C( B0 ]- k: r! z' V8 v
    Control Approach 309
    % e% C, Z$ N( J5 F) I12.4 Integration of Multiple Renewable Energy Sources 312
    ' O- a% ]5 ]4 l12.4.1 DC-Link Integration 315
    $ ?: B' Z& q( V3 Z* Y! Z: D. \) K12.4.2 AC-Link Integration 3160 E% z3 ]# A" Z* F
    12.4.3 HFAC-Link Integration 3179 q" j4 ~# [  i  h; m' r
    12.5 Islanding and Interconnection Control 320
      L3 A' o* t7 R12.6 DG Control and Power Injection 325
    ; h6 e8 f: G7 a; iReferences 331/ `1 B: `( I' `& ]5 S/ @3 H
    13 DISTRIBUTED GENERATION 333
    * r! k- p6 o4 S# d2 s13.1 Introduction 333/ ]5 A; ~" q- i- g) x% V( z& N, o
    13.2 The Purpose of Distributed Generation 335& u5 j7 W$ r1 w8 A2 E  A
    13.3 Sizing and Siting of Distributed Generation 338
    + V4 a. N& }! b4 B* d9 y8 ^13.4 Demand-Side Management 339
    / t, |% d1 K! h- z9 a$ ]13.5 Optimal Location of Distributed Energy Sources 340$ C" ^1 K. X0 O( }; K4 f
    CONTENTS xiii13.5.1 DG Influence on Power and Energy
    , b' Z1 x( `- ~8 hLosses 342
    / S  c  [3 A$ ]( u13.5.2 Estimation of DG Influence on Power
    # A" V. G3 c5 Y' s, h( fLosses of Subtransmission Systems 3462 Y1 K( t0 _2 {' P1 z6 L; N
    13.5.3 Equivalent of Subtransmission Systems
    7 k; l. q4 L4 ~+ H5 m# v1 kUsing Experimental Design 348( x9 ]; X) Y3 M- S9 c
    13.6 Algorithm of Multicriterial Analysis 350* |+ Q5 ]& J) w. |4 B
    References 352
    * V& V6 p; X$ w14 INTERCONNECTION OF ALTERNATIVE ENERGY+ B, k+ m# t/ l4 M, k0 Q& }8 _/ x
    SOURCES WITH THE GRID 354  R* I. m5 l& M2 `# x5 F8 T& e/ H8 I
    Benjamin Kroposki, Thomas Basso, Richard DeBlasio,
    - B; }! ?+ Q# H5 Kand N. Richard Friedman
    $ y6 y' p1 W' h, w( p) D14.1 Introduction 3548 R, `" A  p5 a7 K, I7 P
    14.2 Interconnection Technologies 357
    # d8 ?2 J4 x  X- G2 b$ R2 T14.2.1 Synchronous Interconnection 357
    * K6 s. u  D" k14.2.2 Induction Interconnection 358" y/ M: h8 P( O
    14.2.3 Inverter Interconnection 359
    . x" i5 S/ ^, P. l& ]! s14.3 Standards and Codes for Interconnection 359# M( K' i9 ~- o+ l7 J, j3 A$ p
    14.3.1 IEEE 1547 360
    % ~6 x& I( v3 E& y/ V14.3.2 National Electrical Code 361
    ( R* c* z+ Z8 @% J& e  M14.3.3 UL Standards 362
    * E4 j$ W( k) p$ N5 G: ~$ I3 m14.4 Interconnection Considerations 3648 \: Q" j; W; ~4 w2 ?& [+ G
    14.4.1 Voltage Regulation 364  |3 H! J& n, q  I; p/ C2 u
    14.4.2 Integration with Area EPS Grounding 365
    - b% r/ k. K# f5 p( S14.4.3 Synchronization 365
    ) Y: p$ @  W9 C# @0 p14.4.4 Isolation 365
    3 W0 ^6 n% r$ U' ]9 x14.4.5 Response to Voltage Disturbance 366$ V  B2 ~1 N; }! @6 f1 a9 z1 {
    14.4.6 Response to Frequency Disturbance 367/ z4 I0 [5 ?' o  P! z5 P
    14.4.7 Disconnection for Faults 3682 r) E% L/ W, f. V1 j4 C! N
    14.4.8 Loss of Synchronism 3699 p4 T( U3 ^2 k! n% O- q
    14.4.9 Feeder Reclosing Coordination 3698 {) K( ]7 l% I1 R* y) D6 F
    14.4.10 DC Injection 370& O8 r7 w7 O; J0 k9 s5 X
    14.4.11 Voltage Flicker 371
    , l& D7 H/ \' F14.4.12 Harmonics 371: g& T; t: d3 ~# H' {
    14.4.13 Unintentional Islanding Protection 373
    . V. G$ P3 P- g' X14.5 Interconnection Examples for Alternative Energy Sources 373( x9 I1 s$ `1 v; R& D! v0 V# ^; M
    14.5.1 Synchronous Generator for Peak Demand Reduction 3751 @6 G- `" M1 A- Z! f7 V
    xiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 375
    9 l4 k& C7 i3 H+ R6 t( [References 378- Q9 X7 K8 A/ ~2 u, g, s
    15 MICROPOWER SYSTEM MODELING WITH HOMER 379. Q" x3 d& U5 b# A! r
    Tom Lambert, Paul Gilman, and Peter Lilienthal' ^# O( [* }; h5 m+ T# q
    15.1 Introduction 379, B9 F+ r! a6 U# Z7 \7 [
    15.2 Simulation 381
    ) c' W$ m0 m& f. _& l! |# J15.3 Optimization 385! }2 ^# z2 W6 I& m
    15.4 Sensitivity Analysis 388# C& t$ k0 X! ]( G9 k$ @/ @
    15.4.1 Dealing with Uncertainty 389" c) Q8 ^# s1 `2 G( A% k* b/ N" H
    15.4.2 Sensitivity Analyses on Hourly Data Sets 3919 h: a9 Z: x6 j2 O
    15.5 Physical Modeling 393
    + C" M( z% [6 h3 `# n) M6 ~15.5.1 Loads 393- F' g$ k% y) Y, N
    15.5.2 Resources 395* }& d" k2 ]3 y$ J$ t6 a) ^
    15.5.3 Components 397
    " b+ U) D2 v; v( O4 B. r  a( ^* i15.5.4 System Dispatch 408
    ) _; }( w5 l& x3 m15.6 Economic Modeling 414
    1 n# d. R' I& O2 ^7 t1 b0 j% T. ]References 4161 X- f; H& f, `0 ]( @% ]
    Glossary 416
    , H9 R# f8 [. k  \2 |# o# VAPPENDIX A: DIESEL POWER PLANTS 419- W) h3 Q# K" J. L) V2 h
    A.1 Introduction 419
    % f9 M& e" l- d* oA.2 Diesel Engine 420
    3 E4 m$ n* ^$ p; f4 B9 ~+ ~! ]A.3 Principal Components of a Diesel Engine 421% _8 U0 H( a; |, R! I( p
    A.3.1 Fixed Parts 421* l1 }; y. g: `, K/ J0 h
    A.3.2 Moving Parts 421
    1 k8 n6 v. X; G1 L2 d1 CA.3.3 Auxiliary Systems 4227 ^. p1 ^: m2 R+ f6 {" m
    A.4 Terminology of Diesel Engines 422
    + G! E) i' T8 J# H" P" EA.4.1 Diesel Cycle 422
    / t) G/ O9 X3 f- L, Y: tA.4.2 Combustion Process 424) o  ^$ ^! T& v- H# M$ U9 x
    A.5 Diesel Engine Cycle 425
    % y" w6 k: y% w0 IA.5.1 Relative Diesel Engine Cycle Losses 425* L0 e( J$ b3 _
    A.5.2 Classification of Diesel Engines 426
    4 F1 @  k& H6 {4 \7 a* Y9 D2 t9 G' EA.6 Types of Fuel Injection Pumps 427
    ! _* x; T3 X2 DA.7 Electrical Conditions of Generators Driven by+ Z% f) y: ]" L' y
    Diesel Engines 427* q4 D  ]) }* I- D
    References 429. I# w' y+ s  R7 j! Z8 m
    CONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 4310 y$ a  J# E/ @; }* B! x6 v* r
    B.1 Introduction 431
    6 a5 W& s3 f# |. g! ], FB.2 Geothermal as a Source of Energy 432
    % z5 S7 Q8 I. M* A& Z& ^7 @+ w2 ^B.2.1 Geothermal Economics 434
    6 s* ~9 N8 n9 TB.2.2 Geothermal Electricity 435% W. H! m) B7 w* [1 O( E  H) p- U
    B.2.3 Geothermal/Ground Source Heat Pumps 436; Z# z% g2 y$ J( C5 A" W
    References 437
    6 f; a# n: @* ~. j4 b$ |( y" p- {APPENDIX C: THE STIRLING ENGINE 438
    4 Z  n. F  U( n' u0 cC.1 Introduction 438
    ) D) a  I, o7 {3 t* A2 ^C.2 Stirling Cycle 439; c1 X; l  m) v# A" E0 E& g6 A
    C.3 Displacer Stirling Engine 442
    . `4 Z- E6 K7 d* _C.4 Two-Piston Stirling Engine 4447 B" c. C* h5 W- p( a' [
    References 446
    + B2 |1 F: s6 J0 V. m2 hINDEX 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
    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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