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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 $ T" l% s4 L" j& H
3 @# d# Z. ~0 Q
两本书:" g$ |7 \# J5 ]' w
1、Integration of Alternative Sources of Energy.pdf
1 I3 ^7 ^. Z6 F) Q0 CIEEE press
; d+ n# P. M3 {  y, F简要目录
$ F; h" p6 N: |5 r- ?% j9 H6 B1 ALTERNATIVE SOURCES OF ENERGY 1& b8 B8 E/ e7 Z
2 PRINCIPLES OF THERMODYNAMICS 28* P; Q: h$ Q* h/ `( K; g
3 HYDROELECTRIC POWER PLANTS 57/ y7 _; F; _* B$ ^$ f
4 WIND POWER PLANTS 846 W6 I: f6 ?- A! B( d/ b
5 THERMOSOLAR POWER PLANTS 112
; Y1 |" D$ L' @, |& S& X6 PHOTOVOLTAIC POWER PLANTS 1294 o. c7 t3 O: D8 p* e* O& L6 P
7 POWER PLANTS WITH FUEL CELLS 159
, D* w8 l8 I3 e8 BIOMASS-POWERED MICROPLANTS 1988 S5 j- C" T# }. J3 ?
9 MICROTURBINES 215
, U# a. m  y: i+ o10 INDUCTION GENERATORS 2332 y2 u! q4 A# E+ X: c( S- U
11 STORAGE SYSTEMS 262* _+ l, M/ c' a  z! e1 e
12 INTEGRATION OF ALTERNATIVE SOURCES& b' X0 M  z7 m' [
OF ENERGY 301
8 F. P( c. o0 ^1 t13 DISTRIBUTED GENERATION 333+ I- J6 v3 x' Z, B1 P2 G3 N
14 INTERCONNECTION OF ALTERNATIVE ENERGY7 l) @+ Z! H6 p! X; X
SOURCES WITH THE GRID 354
* j- S8 T  k& V* Z9 c5 W15 MICROPOWER SYSTEM MODELING WITH HOMER 379
3 c/ r# T/ Z8 Y, V; l) T# Z" RGlossary 416
0 ]7 u# p: u3 ]4 [0 a4 TAPPENDIX A: DIESEL POWER PLANTS 419" C& J0 O; W# Q( b& E  [: C
APPENDIX B: GEOTHERMAL ENERGY 431: Y. F- p: B& X- ?
APPENDIX C: THE STIRLING ENGINE 438
4 n& K  f& f* x& H. p8 z  k6 w8 V4 R; s# s7 {2 o8 z

6 s' Q/ U+ k/ ~& F; S
, R! \7 w# E) D5 f2、fuel cell system explained.pdf* S) m! u: z3 W2 ?  m& v
Wiley press7 ~- x9 f+ w3 O. K/ g5 z0 ~
简要目录
; i% K# e9 I9 c1. Introduction ............................................................................. 16 T5 _$ Z6 `9 A! F! V
2. Efficiency and Open Circuit Voltage ..................................... 25
  l3 R& D/ w" t0 {- T3. Operational Fuel Cell Voltages .............................................. 45
/ b0 h/ S; t6 a3 k4 D4. Proton Exchange Membrane Fuel Cells ................................ 67# v9 C: n7 q  C4 _% ?4 m
5. Alkaline Electrolyte Fuel Cells ............................................... 121+ Q4 I) j5 K3 \6 t/ _/ M
6. Direct Methanol Fuel Cells ..................................................... 141
7 c5 X2 ~% B% k* F7. Medium and High Temperature Fuel Cells ........................... 163. U: r2 S/ W" z- B' j( [; T
8. Fuelling Fuel Cells .................................................................. 2294 ]1 P" I8 f& h3 L8 T
9. Compressors, Turbines, Ejectors, Fans, Blowers, and
- X1 ~5 W9 U+ U! H10. Delivering Fuel Cell Power ..................................................... 331
/ X+ [, G6 `% u  ?, f  i7 o. A11. Fuel Cell Systems Analyzed .................................................. 369
! ]# k7 K& T* M  I5 t5 x+ k! RAppendix 1. Change in Molar Gibbs Free Energy Calculations ......... 3912 O* S% s( U) x5 ~% Q1 ^$ |& G! l
Appendix 2. Useful Fuel Cell Equations ............................................. 395

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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 # h* r5 ^7 E, j9 X- a, F! X* W
    Fuel Cell Systems Explained
    6 |' g% n5 J) a( F  dSecond Edition 2003出版的
    , z# u: c' f* e$ e0 B第一版是2000年1月出版的 : j& U* k/ G* q
    下面是目录
    " N  a4 v6 i, h) BContents ! }% M0 J: P$ m" ~# V
    Preface   ............................................................................................   xiii 4 g; X* B, H+ @$ h% w9 R' Z! L& g( y
    Foreword to the First Edition   ...........................................................   xv
    # _/ m) H3 U. F: N# `* MAcknowledgements   .........................................................................   xvii $ t% L) z; n: F( Y5 H; N) s6 Q
    Abbreviations  ...................................................................................   xix 5 f' s9 s9 P7 J  [3 r
    Symbols  ...........................................................................................   xxi
    2 v- j1 ~  s6 D! \& ~5 K1. Introduction   .............................................................................   1
    5 i0 q& L! M( ]+ b; z. @4 P0 {* q2 o9 Q1.1  Hydrogen Fuel Cells – Basic Principles  .....................................   1 & q, X5 o) a7 q* `1 {
    1.2  What Limits the Current?   ...........................................................   5 9 C) [+ k7 r" c+ {# e& f; X
    1.3  Connecting Cells in Series – the Bipolar Plate   ..........................   6
    % r4 r* U4 ]% [+ V- N; o1.4  Gas Supply and Cooling   ............................................................   10
    9 p; w6 B# `: E& k' c1 m1.5  Fuel Cell Types  ..........................................................................   14
    : j1 {9 [8 P! c* [/ z$ b1.6  Other Cells – Some Fuel Cells, Some Not   ................................   16 7 }& G9 g8 t+ f9 x
    1.6.1  Biological Fuel Cells   ......................................................   17 7 |& H* o% Z: o6 U+ }
    1.6.2  Metal/Air Cells  ................................................................   17 ) w  U' L8 D; W+ M6 M/ |$ u
    1.6.3  Redox Flow Cells or Regenerative Fuel Cells   ...............   18
    0 w! Q! w: Y8 l, f+ y1.7  Other Parts of a Fuel Cell System   .............................................   19 / U. l% v. J, ?: L# e; k2 Y5 Z
    1.8  Figures Used to Compare Systems  ...........................................   21
    3 i3 N. d6 P3 V4 O9 o  c1 k6 C1.9  Advantages and Applications   ....................................................   22 ' F# ^# Y" t: c. x+ E: U) ?. T
    References   .........................................................................................   24
    7 A5 T* m! s$ o: ?  h* V2.  Efficiency and Open Circuit Voltage   .....................................   25
    5 p4 `3 t9 ]* C. g2 |1 ~% d8 N2.1  Energy and the EMF of the Hydrogen Fuel Cell   ........................   25 . L0 y) j/ @4 H! K2 L5 {9 k. T
    2.2  The Open Circuit Voltage of Other Fuel Cells and Batteries   .....   30 ! A  D& ]) ?& E* D
    2.3  Efficiency and Efficiency Limits   .................................................   31 4 Z  h* {# G$ U* h
    2.4  Efficiency and the Fuel Cell Voltage   ..........................................   34 5 Q4 `" J, Q. m) r, s
    2.5  The Effect of Pressure and Gas Concentration   .........................   35 . W0 z' r3 q' s& e. R: x* V7 K: i
    2.5.1  The Nernst Equation   ......................................................   35 + N& y' e9 k8 }0 w- k
    2.5.2  Hydrogen Partial Pressure  .............................................   38 : m, b7 X0 v6 t# t( k
    2.5.3  Fuel and Oxidant Utilization   ...........................................   39
    3 T6 d0 }0 l: ?+ }4 _2.5.4  System Pressure  ............................................................   40
    . a* \9 f) s- G3 V$ \2.5.5  An Application – Blood Alcohol Measurement   ...............   41
    6 Q/ z2 V& L  ]8 E( }& w  y2.6 Summary  ...................................................................................   42
    % U9 b* R- o! VReferences   .........................................................................................   43
    9 A/ n& Z- v( D7 u5 u4 Y1 c3.  Operational Fuel Cell Voltages   ..............................................   45
    5 p! r+ q* F( @8 e3.1 Introduction  ................................................................................   45 : g' R/ g0 q) G8 `. E
    3.2 Terminology  ...............................................................................   47 # [1 p; Q& O2 V
    3.3  Fuel Cell Irreversibilities – Causes of Voltage Drop   ..................   47
    ! z+ b; o  E$ {7 s3.4  Activation Losses  .......................................................................   48
    ' w9 k: I+ F: L" s) W# z) y3.4.1  The Tafel Equation   ........................................................   48 # B0 i( ?* {- }& ]) s9 d9 C
    3.4.2  The Constants in the Tafel Equation  ..............................   49 + b/ r8 u  I4 U( ^5 l
    3.4.3  Reducing the Activation Overvoltage  .............................   52
    ( j& }8 t& G/ t2 c3.4.4  Summary of Activation Overvoltage  ...............................   53 2 {% p& y4 j& U6 G7 k0 w& q
    3.5  Fuel Crossover and Internal Currents   .......................................   53 ' u5 a8 X/ m) R) K
    3.6  Ohmic Losses   ............................................................................   56 5 J* h- U% W0 o7 d) i  n
    3.7  Mass Transport or Concentration Losses  ..................................   57 8 G1 O( w' z' j! o2 k& @. C! F
    3.8  Combining the Irreversibilities   ...................................................   59
    4 f! s9 K4 `6 D1 b3.9  The Charge Double Layer   .........................................................   61 4 R2 r# q9 ~8 p7 L+ d! @
    3.10  Distinguishing the Different Irreversibilities  ................................   63 5 R, ?1 x/ e# Z# C  _2 O
    References   .........................................................................................   66
    0 {: l4 J6 f0 t7 P7 ]+ h. q4.  Proton Exchange Membrane Fuel Cells  ................................   67 ; e4 a8 ]# [- t# r# r: R0 g1 q. C
    4.1 Overview  ....................................................................................   67
    : k- ^" l/ ]2 K2 K5 I4.2  How the Polymer Electrolyte Works   ..........................................   69
    " J8 c. r$ Q$ T4 k4.3  Electrodes and Electrode Structure   ...........................................   72
    6 r9 C- y  o" u5 {' I; v* }4.4  Water Management in the PEMFC  ............................................   75 3 ~/ j7 K6 ^: k6 W+ v8 K
    4.4.1  Overview of the Problem  ................................................   75
    " s' `% a+ Q2 v$ r( y- G4.4.2  Airflow and Water Evaporation   ......................................   76
    : f6 h- D3 ~6 Q8 a: {4.4.3  Humidity of PEMFC Air   ..................................................   80 1 Y" b; S& P' I8 f0 C
    4.4.4  Running PEM Fuel Cells without Extra Humidification   ..   83
    ; i4 V8 @- I1 k! m/ `$ _: |4.4.5  External Humidification – Principles  ...............................   85 8 f% ]( s8 t+ |5 y$ ~
    4.4.6  External Humidification – Methods   ................................   87
    2 ~. s  T9 M6 r( g) E7 o' G4.5  PEM Fuel Cell Cooling and Air Supply   ......................................   90
    : \: q" k( L0 R- d9 Y- Q0 `. Z4.5.1  Cooling Using the Cathode Air Supply  ...........................   90 $ V! c5 |% ~$ {+ O& k6 \/ G
    4.5.2  Separate Reactant and Cooling Air   ...............................   91 4 n9 O: T! ^( m; K
    4.5.3  Water Cooling of PEM Fuel Cells   ..................................   93
    # Q1 \' F: p) U5 z4.6  PEM Fuel Cell Connection – the Bipolar Plate   ..........................   94
    5 H& u: z2 {5 O+ m4.6.1 Introduction  ....................................................................   94 / ~9 t5 V# c' b5 d- c  R* O  `* |
    4.6.2  Flow Field Patterns on the Bipolar Plates   ......................   94 5 r! v9 Y+ i$ O% V4 ?2 A& W
    4.6.3  Making Bipolar Plates for PEM Fuel Cells   .....................   96 8 W8 [" |* a7 j: z3 k7 o
    4.6.4  Other Topologies   ...........................................................   100
    # \# g+ |7 A$ c# v# u/ h4 L/ w4.7  Operating Pressure   ...................................................................   102 - d5 O, ^: A3 G* k/ p
    4.7.1  Outline of the Problem   ...................................................   102 ; _* a% J! B4 o0 ~! t7 m2 c" ^+ r
    4.7.2  Simple Quantitative Cost/Benefit Analysis of Higher * ?$ f  M1 ~7 L1 ]
    Operating Pressures   ......................................................   103
    & g! a; D# c# C4 v! S. X4.7.3  Other Factors Affecting Choice of Pressure   ..................   108 % e* y0 @' F: t6 e/ J
    4.8  Reactant Composition   ...............................................................   110 & S7 H2 S$ [( M, d2 q# l2 i3 ?
    4.8.1  Carbon Monoxide Poisoning  ..........................................   110 " n8 ~9 ]* ~, d6 B& b0 ^- T
    4.8.2  Methanol and Other Liquid Fuels  ...................................   111 + @% {! J6 _$ p! t0 I, t; y5 y+ m
    4.8.3  Using Pure Oxygen in Place of Air  .................................   111 3 Y0 K! M9 E7 X+ K4 m
    4.9  Example Systems   ......................................................................   112
    . t; q  T! d1 S3 @) t/ h6 L% N  ?2 T4.9.1  Small 12-W System   .......................................................   112   T0 u: M# a) c% y# a( z  X( `5 a
    4.9.2  Medium 2-kW System  ....................................................   114 5 D, K+ m- T$ A6 i, \* X2 P& u
    4.9.3  205-kW Fuel Cell Engine   ...............................................   117
    ' \$ O# u4 s1 l' e. @References   .........................................................................................   118 . C% M, p% U6 L8 p- W
    5.  Alkaline Electrolyte Fuel Cells   ...............................................   121
    ( _- A+ \: U6 j9 ^5.1  Historical Background and Overview  .........................................   121 / x# {8 U( E& E; F; f+ v
    5.1.1  Basic Principles   .............................................................   121
    5 P( n8 `- E5 o4 J% v# V9 T5.1.2  Historical Importance   .....................................................   121
    0 Y; {2 \+ K1 s$ a% d6 t  D4 g+ G: Z( M5.1.3  Main Advantages   ...........................................................   122
    2 n$ Z$ T3 A$ m% F" m: V+ G4 ?5.2  Types of Alkaline Electrolyte Fuel Cell   ......................................   124 ( I+ i- C- m- Y, b, j  R( a
    5.2.1  Mobile Electrolyte   ..........................................................   124 $ e" {2 W" ?' K5 |
    5.2.2  Static Electrolyte Alkaline Fuel Cells  ..............................   127 2 x- ]6 Y( O( q5 E- ~; K
    5.2.3  Dissolved Fuel Alkaline Fuel Cells  .................................   129 6 E0 f8 U: T% n3 C  T
    5.3  Operating Pressure and Temperature   .......................................   132   Y/ Y' \9 m+ O) I/ D, P
    5.4  Electrodes for Alkaline Electrolyte Fuel Cells   ............................   134
    & D# W6 ?7 \- _0 Q8 _5.4.1 Introduction  ....................................................................   134
    7 W0 x+ M& X- S2 r6 l4 j. ?& K5.4.2  Sintered Nickel Powder   .................................................   134 % ^' A2 {$ P% r6 J! y
    5.4.3 Raney Metals  .................................................................   135
    & F1 J, b6 U9 n0 g$ U5.4.4  Rolled Electrodes  ...........................................................   135 . N& y/ f! o1 n5 k4 n
    5.5  Cell Interconnections   .................................................................   137 ' i% l; S  |, s
    5.6  Problems and Development   ......................................................   137 6 c  V  a( k' k, x& a
    References   .........................................................................................   138
    ( x+ b2 t" W+ f6.  Direct Methanol Fuel Cells   .....................................................   141 - @! O$ A4 M+ P! w! H; \, d  G
    6.1 Introduction  ................................................................................  141
    . N7 O% V, c  n0 n( f# E( Y6.2  Anode Reaction and Catalysts   ..................................................   143
    - b8 E& N2 }$ O6.2.1  Overall DMFC Reaction   .................................................   143
    ! M% C* p* Q* `7 C# L6.2.2  Anode Reactions in the Alkaline DMFC  .........................   144
    2 C) [8 p8 I3 _- y' y" |& ?6.2.3  Anode Reactions in the PEM Direct Methanol FC   .........   144
    ; ~! ?; Z3 U) O1 O* k/ e: _6.2.4  Anode Fuel Feed   ...........................................................   146 2 @- I" W5 L% R  v2 G) x
    6.2.5  Anode Catalysts  .............................................................   147
    + [: g) E9 p: Q! g" Y; V  t0 G+ O' z6.3  Electrolyte and Fuel Crossover   .................................................   148 9 Y; m2 N8 f8 F( \. U2 ?* \
    6.3.1  How Fuel Crossover Occurs   ..........................................   148
    * d! A8 d  X( d( Y" e. r6.3.2  Standard Techniques for Reducing Fuel Crossover   ......   149 ) m9 |3 a* ?' U5 b
    6.3.3  Fuel Crossover Techniques in Development   .................   150
    ! j3 `% o3 k3 P+ v! @6.4  Cathode Reactions and Catalysts   .............................................   151
    1 \* Y; v7 F7 ], l: W6.5  Methanol Production, Storage, and Safety   ................................   152 2 `) V# M! y. c& u& p# o
    6.5.1  Methanol Production   ......................................................   152 , z$ t' u  V9 g8 Q  K
    6.5.2  Methanol Safety   .............................................................   153
      ?" @) S/ m0 Z6.5.3  Methanol Compared to Ethanol   .....................................   155   u* f1 Y; p7 m6 Z; `
    6.5.4  Methanol Storage   ..........................................................   156 + o5 ?. {7 T" r- Q% c
    6.6  Direct Methanol Fuel Cell Applications   ......................................   157 3 \1 Q3 v7 {9 C, w
    References   .........................................................................................   160 2 N, j7 Y# U. p
    7.  Medium and High Temperature Fuel Cells   ...........................   163 $ h( U) L8 W# q3 ^& \, Y
    7.1 Introduction  ................................................................................  163 + ~' S4 \% G4 z# t
    7.2  Common Features   .....................................................................   165 , I" J) r% o7 l% x, _9 R7 l. s. s8 p
    7.2.1  An Introduction to Fuel Reforming   .................................   165 2 [$ z& C7 w# \: N9 _; C
    7.2.2  Fuel Utilization   ...............................................................   166 ; d+ s. t6 X7 e( ?
    7.2.3  Bottoming Cycles   ...........................................................   168 + Z7 \$ y% V5 V2 j! v9 K" z
    7.2.4  The Use of Heat Exchangers – Exergy and Pinch " Y% `0 T8 U2 }; P; G7 k
    Technology   ....................................................................   174 $ f" D- w9 W5 o- u0 Y1 `
    7.3  The Phosphoric Acid Fuel Cell (PAFC)   .....................................   177 * d( m' C. ?! \) j- r& l  @
    7.3.1  How It Works   .................................................................   177 9 _% w6 y2 J: x2 m) ^
    7.3.2  Performance of the PAFC  ..............................................   182   ^& j7 b" [4 g6 U0 ^* U) p: O
    7.3.3  Recent Developments in PAFC   .....................................   184 1 s# O# a% y( D2 {8 ^$ C
    7.4  The Molten Carbonate Fuel Cell (MCFC)   ..................................   187
    & ^  J6 Q7 a/ ^: i9 K7.4.1  How It Works   .................................................................   187
    0 D- B( J+ h) m7.4.2  Implications of Using a Molten Carbonate Electrolyte   ...   190 7 B6 L0 A6 {+ |2 Y/ s) I& q* D6 ]
    7.4.3  Cell Components in the MCFC   ......................................   190
    % o2 ^& i; |7 h& X7 I* @7.4.4  Stack Configuration and Sealing  ....................................   195
    6 Y9 s) J+ F1 H* D4 V. _; E- f4 J7.4.5  Internal Reforming   .........................................................   196 . I+ g# }3 ?0 M2 w$ _) `, _) g
    7.4.6  Performance of MCFCS  .................................................   198 2 g! k1 o! j) ^( u2 ~) d4 T
    7.4.7  Practical MCFC Systems   ...............................................   202
    " ^2 v3 _  _- u+ L* P7.5  The Solid Oxide Fuel Cell   ..........................................................   207 ; K0 s: {# J. Z# s3 ^" h  S0 H' `
    7.5.1  How It Works   .................................................................   207 ( Q' U. r+ r7 G1 U* |+ J
    7.5.2 SOFC Components  ........................................................   209 ; t  \7 }' Z) M! e
    7.5.3  Practical Design and Stacking Arrangements for the
    9 j% ?" x9 Q& O+ ^: ]SOFC   .............................................................................   213
    " Z) z) m, n; l& x$ e7.5.4  SOFC Performance   .......................................................   220 + |# O1 W; F/ x% m+ X0 y
    7.5.5  SOFC Combined Cycles, Novel System Designs and 3 L  H, W" ~# g( _- t# @
    Hybrid Systems  ..............................................................   221 . H3 \$ k6 f$ b! w/ F, h8 T
    7.5.6  Intermediate Temperature SOFCs  .................................   225 & q: t6 D, m% [7 D  U" }5 _
    References   .........................................................................................   226 , i% O$ [9 X( |4 T4 m, w, B, ~4 j
    8.  Fuelling Fuel Cells   ..................................................................   229 2 `1 ], B5 j+ Q5 _6 I0 c, Y
    8.1 Introduction  ................................................................................  229
      W& Q6 Q/ ]  _( E: p8.2  Fossil Fuels   ...............................................................................   232 + c1 E( p8 g, |& }& ]. [: v9 j6 ~* R3 Q
    8.2.1 Petroleum  ......................................................................   232 8 B, e/ u2 O& V. J) R
    8.2.2  Petroleum in Mixtures: Tar Sands, Oil Shales, Gas 4 }  U2 `: J- {) M
    Hydrates, and LPG   ........................................................   233 3 q2 O$ u2 u$ m" Q
    8.2.3  Coal and Coal Gases  .....................................................   234 ! b" o5 a, w7 w. F" V2 d8 E* n
    8.2.4  Natural Gas  ....................................................................   235 9 V, I, }) @& d& b
    8.3 Bio-Fuels  ...................................................................................  236 4 v9 M0 V1 E& }2 A. Q' R$ V! }
    8.4  The Basics of Fuel Processing   ..................................................   238
    - N' T8 W0 F) x8.4.1  Fuel Cell Requirements   .................................................   238 5 A4 U& y4 i: z- ~' |0 L
    8.4.2 Desulphurization  ............................................................   239 1 {# G7 w, D! ^! [
    8.4.3  Steam Reforming   ...........................................................   241
    & O0 O- D6 ~% J& H8.4.4  Carbon Formation and Pre-Reforming  ...........................   244 9 a) w4 A4 y3 A# R
    8.4.5  Internal Reforming   .........................................................   246
    / K3 U: I1 G, S& l/ B6 F8.4.6  Direct Hydrocarbon Oxidation  ........................................   248 + }$ ]4 x% h( G2 I" j$ Q
    8.4.7  Partial Oxidation and Autothermal Reforming  ................   248
      R- `4 `, {# i1 M8.4.8  Hydrogen Generation by Pyrolysis or Thermal
    ( A+ N6 k% q, {1 {石皮解ing of Hydrocarbons   .............................................   250
    6 ?, W( W' }; b  i/ C+ {5 k7 D. H$ `8.4.9  Further Fuel Processing – Carbon Monoxide Removal   .   250
    # ~% C. }2 o# v# L6 L1 i' i8.5  Practical Fuel Processing – Stationary Applications  ..................   252
    8 J  S! o- m/ Z6 o9 U! Q* q8.5.1  Conventional Industrial Steam Reforming   .....................   252 ; _4 d; d( d- x* o" a
    8.5.2  System Designs for Natural Gas Fed PEMFC and 1 C. g& f8 s' ?
    PAFC Plants with Steam Reformers  ..............................   253 * C# K7 Y% ?2 e% M5 W
    8.5.3  Reformer and Partial Oxidation Designs   .......................   257 9 F( c. v9 h0 n( X8 O6 P
    8.6  Practical Fuel Processing – Mobile Applications   .......................   263
    / W$ b8 O2 |  D. `7 f2 x8.6.1  General Issues  ...............................................................   263 ; K  i) |/ ~# `' b! \4 @
    8.6.2  Methanol Reforming for Vehicles  ...................................   264
    # J! \5 {( x/ ^0 K, X8.6.3  Micro-Scale Methanol Reactors  .....................................   267 * y( i, G5 \# j* {% {0 O( E
    8.6.4  Gasoline Reforming   .......................................................   269 + n6 M$ ]* M2 q- n7 ]) u9 i$ E
    8.7 Electrolysers  ..............................................................................  270
    & o5 @7 L. R* n8.7.1  Operation of Electrolysers   .............................................   270
    & s! X9 ]  @# w7 n4 W/ J8.7.2  Applications of Electrolysers   ..........................................   272
    $ R, g" |6 o: O/ M8.7.3  Electrolyser Efficiency  ....................................................   272   U& \0 W% i/ ^- z  ^3 r2 ~% c
    8.7.4  Generating at High Pressure   .........................................   273 6 [& o: s/ ]3 d$ I
    8.7.5 Photo-Electrolysis  ..........................................................   275 3 H% `+ \  F  l. Y
    8.8  Biological Production of Hydrogen   ............................................   275
    + v1 E6 f7 w- P+ N0 f) K; d, h8.8.1 Introduction  ....................................................................   275 5 C# X6 P* E! D1 g3 I9 _8 W3 D
    8.8.2 Photosynthesis  ..............................................................   276 # G  u/ l3 S0 e4 X4 j3 n: |
    8.8.3  Hydrogen Production by Digestion Processes  ...............   278 4 y; N9 k% i7 @3 s0 t
    8.9  Hydrogen Storage I – Storage as Hydrogen   .............................   279 2 z  w* l5 p! A% {. S2 K
    8.9.1  Introduction to the Problem  ............................................   279 ) s- b8 y0 K. R; E1 h+ s% p6 J& }
    8.9.2 Safety  .............................................................................   280
    + l' ^( ^/ q4 \2 n0 N6 m7 c4 I' e. V8.9.3  The Storage of Hydrogen as a Compressed Gas  ..........   282
    $ \: x1 ?' l6 a/ T. S- J8.9.4  Storage of Hydrogen as a Liquid   ...................................   284 / C. G5 e  S! p$ g
    8.9.5  Reversible Metal Hydride Hydrogen Stores  ...................   286
    2 ^( Y3 U% n  H/ D6 m) U; }$ W8.9.6  Carbon Nanofibres  .........................................................   289 # U% L, _+ U. Y
    8.9.7  Storage Methods Compared  ..........................................   291 8 p  |8 u# [; w8 y6 b; U8 ^" C( ~* I
    8.10  Hydrogen Storage II – Chemical Methods  .................................   293 - D5 h! F$ g8 z
    8.10.1 Introduction  ....................................................................   293 , e; M! X% P" e" F: G
    8.10.2 Methanol  ........................................................................   293 ! @0 C- b- k, T' J
    8.10.3  Alkali Metal Hydrides   .....................................................   295
    % P* A1 e- @! j8.10.4  Sodium Borohydride   ......................................................   297
    * S: }5 L$ Y; p$ F8.10.5 Ammonia  ........................................................................   301 5 M' ~0 ?8 @; j0 Q7 y* d
    8.10.6  Storage Methods Compared  ..........................................   304
      M7 O* A2 S0 p7 _9 NReferences   .........................................................................................   305 7 S5 X$ u; }3 F% C$ t* Y
    9.  Compressors, Turbines, Ejectors, Fans, Blowers, and
    " b, O4 O) f4 w" H8 x4 E% i9 gPumps  ......................................................................................   309
    7 W9 V, N7 X' j3 j3 c1 l9.1 Introduction  ................................................................................  309 ' E- u& P& _( i/ N4 {* ^
    9.2  Compressors – Types Used   ......................................................   310 - a8 R3 ~. _4 s, z9 \9 e& k3 O9 `
    9.3  Compressor Efficiency  ...............................................................   312
    2 V/ S& W2 H% ^# C9.4  Compressor Power   ....................................................................   314
    " H6 ~, B: P2 d- T2 W9 i9.5  Compressor Performance Charts   ..............................................   315
    + G* A* y* [. r( r9 z7 f9.6  Performance Charts for Centrifugal Compressors  .....................   318 * W% u. g* x5 }3 Q7 m* {
    9.7  Compressor Selection – Practical Issues   ..................................   320   M9 E. F: ~4 u4 Y# r" j7 r
    9.8 Turbines  .....................................................................................  321 8 p  H8 \. R  r. o
    9.9 Turbochargers  ...........................................................................  325
    ; {8 x4 t! C& e; Z' k; Q1 P9.10  Ejector Circulators   .....................................................................   326
    ! n- q% m2 m: i9.11  Fans and Blowers   ......................................................................   327 : `& ~+ L0 B* Y, f( ]
    9.12 Membrane/Diaphragm Pumps  ...................................................   328 # e. r  P' p6 ?; q7 D* ]) [+ K% [
    References   .........................................................................................   330
    & v) K' M1 d. o* y5 n$ C6 Q% x10.  Delivering Fuel Cell Power  .....................................................   331 " ^0 b% }/ x# p6 O1 j/ U
    10.1 Introduction  ................................................................................   331
    9 E/ J8 X9 j" O10.2  DC Regulation and Voltage Conversion   ....................................   332
    , P7 l8 U, `+ c  Z, Y2 W+ q10.2.1  Switching Devices  ..........................................................   332
    1 r4 \0 s- Q4 v10.2.2  Switching Regulators   .....................................................   334 9 v5 a1 ^. ?0 Z7 H  A
    10.3 Inverters  .....................................................................................   339
    7 i) z6 z& [. g10.3.1  Single Phase  ..................................................................   339 * U0 G) ?. @" I9 i  z* l9 o
    10.3.2  Three Phase   ..................................................................   344 6 F! \1 w5 }2 A9 I  W4 T4 H& x
    10.3.3  Regulatory Issues and Tariffs   ........................................   346 6 m" k7 |# i9 o! `. L* g
    10.3.4  Power Factor Correction   ................................................   348 7 g, h5 j* d: Y" w' E2 Q4 k! z" z# x
    10.4  Electric Motors   ...........................................................................   349
    ; X: E* Y9 K& e* S4 n10.4.1  General Points   ...............................................................   349 0 g# w3 a9 }% R. S+ ~
    10.4.2  The Induction Motor   .......................................................   350
    6 U; I/ v8 c7 K4 v6 U6 u: V10.4.3  The Brushless DC Motor  ................................................   352 0 N, b) S0 N8 a/ K$ M
    10.4.4  Switched Reluctance Motors   .........................................   355 : C- X# R6 K; j
    10.4.5  Motors Efficiency   ...........................................................   357 . Q7 V9 G: k+ E3 i' L% q  d) B
    10.4.6  Motor Mass   ....................................................................   361 5 X+ b3 X& |2 ?4 j
    10.5  Fuel Cell/Battery or Capacitor Hybrid Systems   .........................   362
    + l8 U3 s4 Y# V2 O- P$ \4 F4 @References   .........................................................................................   367
    - D' b) C; v+ y& H11.  Fuel Cell Systems Analyzed   ..................................................   369
    . r: O# ], k) `( e+ N11.1 Introduction  ................................................................................   369
    0 ?- c# @" v( l- D+ b. F" q9 p8 S; [11.2  Energy Systems   ........................................................................   370
    - n, B8 c; R( ^  v: r6 b11.3 Well-To-Wheels Analysis  ...........................................................   371 ( B* Z$ W& ~$ l' y
    11.3.1  Importance of Well-to-Wheels Analysis   .........................   371 $ O  }( N1 c) S
    11.3.2 Well-to-Tank Analysis   ....................................................   372
    / ^6 i8 q/ q  I/ [  b. F11.3.3  Main Conclusions of the GM Well-to-Wheels Study   ......   374
    # b$ i- g! H" T8 L" Y11.4  Power-Train or Drive-Train Analysis  ..........................................   375 . Y( S/ W8 O4 q4 {( @
    11.5  Example System I – PEMFC Powered Bus  ...............................   377 ( M: D, P: q6 _5 s% c5 j0 N9 k
    11.6  Example System II – Stationary Natural Gas Fuelled System  ...   382 * y, @+ Y$ }/ C7 U. a
    11.6.1 Introduction  ....................................................................   382 * t+ {1 u. u0 F, M
    11.6.2  Flow Sheet and Conceptual Systems Designs   ..............   382
    3 ?& u6 h9 V2 D$ T& }4 r  n11.6.3  Detailed Engineering Designs   .......................................   386 * F. u& M9 i* e* ]! O& Q
    11.6.4  Further Systems Analysis   ..............................................   387 ( Q3 A& x0 W3 a) c" t$ W7 Q/ z
    11.7  Closing Remarks   .......................................................................   388 & k! |' L7 ~$ [$ e; w1 N
    References   .........................................................................................   389
    4 Q  [1 n2 |* N' [, K2 QAppendices
    : b5 v& ^: s7 S2 e! a7 c6 oAppendix 1. Change in Molar Gibbs Free Energy Calculations  .........   391
    $ T: c: c- M. F. QA1.1 Hydrogen Fuel Cell   ........................................................   391
    5 C+ S# l; B$ z0 D% l4 ^4 `1 e* iA1.2 The Carbon Monoxide Fuel Cell   ....................................   393
    # K, b4 M/ n6 Q" zReferences   .............................................................................   394 ; Z0 o% B, O- S0 @2 y; D
    Appendix 2. Useful Fuel Cell Equations  .............................................   395 7 o+ C+ G% }8 z/ u. x3 }6 d! a/ f4 E
    A2.1 Introduction  ....................................................................   395
    " B6 V  n9 |6 l8 ?A2.2 Oxygen and Air Usage  ...................................................   396 - M. I- Q+ I' L
    A2.3 Air Exit Flow Rate   ..........................................................   397 * i( I9 K/ Z% i3 ^$ P' L1 J
    A2.4 Hydrogen Usage   ............................................................   398 7 @9 \5 i. L6 Y5 N, U
    A2.5 Water Production   ...........................................................   399
    / g. g4 Z# |3 z% g# P% [. O8 wA2.6 Heat Produced   ...............................................................   399 $ ?7 I- l) i& N( _! \
    Index   ...............................................................................................  401
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    第二本比较新 06年出的
    , A) Q, K1 i+ J( ]/ G) h  P' ECONTRIBUTORS xvii  k; P) g# [& ?, [  v
    FOREWORD xix4 c" |8 c/ h8 ~
    PREFACE xxi8 s6 t! `7 ]# `4 `
    ACKNOWLEDGMENTS xxiii
    3 R9 G* B7 J5 j- M4 t! [! VABOUT THE AUTHORS xxv
    4 d9 x/ g! V8 g5 M/ ^* f, w% p1 ALTERNATIVE SOURCES OF ENERGY 13 M6 ^8 D" Q" S) D/ P
    1.1 Introduction 1! d# g# {7 n4 K0 s  K6 [- u. P
    1.2 Renewable Sources of Energy 2! ]! h! ?* _, }, v0 y5 j* Z9 r! c
    1.3 Renewable Energy Versus Alternative Energy 4  Y: m2 L" a, p6 ^2 w5 w* B
    1.4 Planning and Development of Integrated Energy 86 W! }) i' Y/ q; T& e  A/ i
    1.4.1 Grid-Supplied Electricity 9! H, q+ S+ p' {
    1.4.2 Load 10. z% p6 y  f( h, p/ |
    1.4.3 Distributed Generation 10
    % a9 t7 j6 r/ w3 q+ f) M1.5 Renewable Energy Economics 116 e1 `6 o; {  ]. ~  ^5 O# i
    1.5.1 Calculation of Electricity Generation Costs 12" h; I; T  X6 @1 `5 u9 ^* Y; S/ E
    1.6 European Targets for Renewables 145 `% M- e5 B7 ^: y+ D4 o
    1.6.1 Demand-Side Management Options 15
    ) O- X+ U2 ~& M: d; J: R. ~1.6.2 Supply-Side Management Options 16
    5 C3 `: A  C& P: ^) ^1.7 Integration of Renewable Energy Sources 19
    ' k( P4 U9 f0 L" ]$ \5 v1.7.1 Integration of Renewable Energy in the United States 20  r9 z/ g6 I) B  S, z9 ?
    1.7.2 Energy Recovery Time 210 s: T4 p( c6 m' y. e
    1.7.3 Sustainability 236 Y5 {* B% M7 l2 J* p
    1.8 Modern Electronic Controls of Power Systems 26
    # l+ e$ I* D* y5 F" hReferences 27
    : C% `% Z2 r8 g2 PRINCIPLES OF THERMODYNAMICS 28
    5 m$ f) x" m+ w3 R, ?) {2.1. Introduction 280 s1 n7 N  {! J- u1 C, H
    2.2. State of a Thermodynamic System 29
    5 Q9 P/ b- p5 W2.3. Fundamental Laws and Principles 360 i: B: i: C: O) v
    2.3.1 Example in a Nutshell 374 i8 m+ j( f* G4 L# a8 ?4 ^' n
    2.3.2 Practical Problems Associated with Carnot Cycle Plant 40/ D! ~2 A8 x- {4 F) F8 K4 f8 E# |
    2.3.3 Rankine Cycle for Power Plants 41
    - N' I* m# j$ p1 q! }7 _2.3.4 Brayton Cycle for Power Plants 44
    # `( z7 V1 _( l$ {$ Q2.3.5 Energy and Power 46- {- P1 ?+ g" t6 [6 {+ o" G: M
    2.4 Examples of Energy Balance 47- P2 |( j( K- m5 F0 Q6 O9 y1 T
    2.4.1 Simple Residential Energy Balance 47- [8 n; f0 e& ^2 V6 i; A
    2.4.2 Refrigerator Energy Balance 48
    - y# @0 L& I& B1 C9 ?- [2.4.3 Energy Balance for a Water Heater 49- e. H9 Q( K& q5 E
    2.4.4 Rock Bed Energy Balance 51
    ' c) j( }: h7 X' z* |2.4.5 Array of Solar Collectors 51
    % O% z6 `& x% A6 B% ~2.4.6 Heat Pump 52
    " }7 a) P8 V" D( x% J5 [2.4.7 Heat Transfer Analysis 53
    : P$ w) I! T5 J4 M; [2.5 Planet Earth: A Closed But Not Isolated System 54# y* O5 E8 c% Y/ ^% d: ^6 c
    References 569 N% _2 p/ X, H+ t/ N6 Y/ `
    3 HYDROELECTRIC POWER PLANTS 57; S, {" Z; g# p( T6 B
    3.1 Introduction 57
    ( I3 b" b. \/ ^/ s0 D3.2 Determination of the Useful Power 58% L: \% @( }  ~
    3.3 Expedient Topographical and Hydrological Measurements 60$ L" z% ^, o, N8 P$ C
    3.3.1 Simple Measurement of Elevation 60
    0 r& k4 g" [& E3.3.2 Global Positioning Systems for Elevation Measurement 60
    2 i2 M+ H9 D  L0 s/ R. l3.3.3 Specification of Pipe Losses 62
      x) h) w3 Q9 `9 z3.3.4 Expedient Measurements of Stream Water Flow 63
    5 ^( _) v0 ]& a) w7 W* b3.3.5 Civil Works 67( C5 I. ^0 F2 y
    3.4 Generating Unit 67
    % _: h0 n9 E6 x8 i- o3.4.1 Regulation Systems 673 c: g( O3 i! {* P
    3.4.2 Butterfly Valves 68
    3 K4 `' _1 U: A: f3.5 Waterwheels 68
    ' Z. J9 }9 V& U2 S3.6 Turbines 70) Y5 J) R" N6 W# K3 M; l# `3 p
    3.6.1 Pelton Turbine 71
    + f$ c! G8 a) O/ P9 ^% o3.6.2 Francis Turbine 74
    7 H5 d# M; Y1 v6 h2 `( n* ?. E: H3.6.3 Michel–Banki Turbine 77; w2 j0 O) J& K6 z. ?9 U
    3.6.4 Kaplan or Hydraulic Propeller Turbine 79
    ( j- T; @% t% P/ F& t# o7 o% ?3.6.5 Deriaz Turbines 80$ V; b9 F" A* P- r; g
    3.6.6 Water Pumps Working as Turbines 80: G0 {- c, F+ c; _; O& {
    3.6.7 Specification of Hydro Turbines 81
    , |/ B/ }% {9 m0 VReferences 82) h$ J' r" j2 b
    4 WIND POWER PLANTS 84  |3 h5 W' {: l$ q# ?0 M6 Q$ g
    4.1 Introduction 84
    + z# G2 A# p! }) h) v" Q4.2 Appropriate Location 85
    $ c9 C+ E/ a8 z7 J) n7 u  ~* g4.2.1 Evaluation of Wind Intensity 85
    ( P9 i  X; Y5 n8 u9 a8 r& V4.2.2 Topography 93
    ! s7 H6 s3 e( v$ z0 O* m4.2.3 Purpose of the Energy Generated 95
    / F# f( d, g  n# q$ R0 y4.2.4 Means of Access 95* c1 G, w! j) g! Z# U1 R- ^
    4.3 Wind Power 95
    ) {- L1 J8 x' s' N7 p' k4.4 General Classification of Wind Turbines 97
    ' t- M# V, o+ [2 d3 ]! O4.4.1 Rotor Turbines 99% s: ?1 e; A* r% _& J$ f* S1 L& Q: |
    4.4.2 Multiple-Blade Turbines 990 B) U  h6 `& P  y4 s
    4.4.3 Drag Turbines (Savonius) 100" y2 M6 Z7 A* J: w& k' J( ?  u6 y$ Z
    4.4.4 Lifting Turbines 101
      P) a* @* w# a5 ]( w- e3 T0 w% |4.4.5 System TARP–WARP 102* t0 h8 s' i8 r5 t
    4.4.6 Accessories 1034 f9 ?. v( s4 t: K3 z& b  G+ Q
    4.5 Generators and Speed Control Used in Wind Power Energy 104
    ) s9 A6 q$ d! N# d$ h" y+ j; o4.6 Analysis of Small Generating Systems 107
    / o' l4 z4 M  c1 [" M, b3 l, T' DReferences 110
    . w7 E- ?) _0 y/ U( ?5 THERMOSOLAR POWER PLANTS 1128 w: e+ C! `+ g: r
    5.1 Introduction 1124 h7 N4 n. l! s# q: [3 e. s: {
    5.2 Water Heating by Solar Energy 112% i9 f( \. L- [' y; z
    5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 115
    ( ], B* f/ y  `4 i5.4 Heating Domestic Water 118
      A, n, F4 q& Y# E- L5.5 Thermosolar Energy 119
    ) G9 Y5 _1 d/ k' i& y+ n6 Q5.5.1 Parabolic Trough 1203 w: Q& B% w0 v
    5.5.2 Parabolic Dish 122
    8 |. c/ Y( E; W2 ~! y5.5.3 Solar Power Tower 1241 p% }+ j- z- M* Q& a& `+ \/ g- ?
    5.5.4 Production of Hydrogen 125+ H" V1 {- @4 L9 C! W6 `. f
    5.6 Economical Analysis of Thermosolar Energy 126
    # r- }& p, [6 s6 w- hReferences 127' q+ P$ w/ e% D" S2 B* c5 o
    CONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129
    1 S6 n; w5 {+ D4 |6.1 Introduction 129
    / I0 t) J- s1 I* B4 e  l; h6.2 Solar Energy 130# N, I* `% z. x7 q( I
    6.3 Generation of Electricity by Photovoltaic Effect 132
    ; ^( q/ I# |* m/ A4 E- K6.4 Dependence of a PV Cell Characteristic on Temperature 1351 Y% k; C- G; G
    6.5 Solar Cell Output Characteristics 1370 ?! X' N3 |, M
    6.6 Equivalent Models and Parameters for Photovoltaic Panels 139
      k4 T% {/ T, g7 T; V0 A. D6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 140+ v- V2 H- q0 p2 P% y$ U! p: Z
    6.6.2 Model of a PV Panel Consisting of n Cells in Series 142
    : c+ _& l) L* ?; b6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 144
    - i+ C! n: i  n- H' g6.7 Photovoltaic Systems 145
    & _* L4 `7 n3 d7 o. k5 n6.7.1 Illumination Area 146
      ?3 c9 z% r+ s$ r) @6.7.2 Solar Modules and Panels 146
    9 u3 q6 `& y( Q! O6.7.3 Aluminum Structures 146. c6 O& T% g  X8 n& m4 {
    6.7.4 Load Controller 148& \: z7 U& g7 C. S& u* w, h
    6.7.5 Battery Bank 148
    . x7 j$ K/ B# Q+ W. _6.8 Applications of Photovoltaic Solar Energy 149
    , v. B* x3 Z. P6 q5 v3 U6.8.1 Residential and Public Illumination 149
    3 q" I  p7 W+ K+ _( ?, `6.8.2 Stroboscopic Signaling 150
    7 B9 P5 L7 z! h1 O; }/ k6.8.3 Electric Fence 150
    : I2 `. d2 e) l5 Z* O; l, G+ q0 i6.8.4 Telecommunications 151
    # v7 k4 t' I. C: i  N( ]5 C6 E6.8.5 Water Supply and Micro-Irrigation Systems 151
    ! @: i: f. z2 E; {; ~! F6.8.6 Control of Plagues and Conservation of2 O5 N7 d* c3 X
    Food and Medicine 1535 X" ^5 _3 X  O5 e8 R2 `
    6.8.7 Hydrogen and Oxygen Generation by Electrolysis 154
    - _% A. C$ r& K4 Z/ G6.8.8 Electric Power Supply 155
    3 K5 y9 h' L/ }3 z- N: r6.8.9 Security and Alarm Systems 156
    , n; x+ M  o, ]4 ]- m" X7 o9 }- x# a6.9 Economical Analysis of Solar Energy 156
    2 X& W* _* _: p2 @, d. kReferences 157
    5 v! H- `# L: F7 POWER PLANTS WITH FUEL CELLS 159
    : F# W1 Q3 k# T" O7.1 Introduction 159& e$ t8 N2 M% B' j& K1 ]3 q
    7.2 The Fuel Cell 160/ R6 Y) C0 C7 ^
    7.3 Commercial Technologies for Generation of Electricity 162
    1 H% N! p3 M: W9 ^% D7.4 Practical Issues Related to Fuel Cell Stacking 169
    2 ?- X+ N. ^" d7.4.1 Low- and High-Temperature Fuel Cells 169
    - m8 C: R* D) R6 e& F/ o+ F7.4.2 Commercial and Manufacturing Issues 170
    4 b! Y; j; w& e% K/ ?1 V( f7 f0 V" b2 ex CONTENTS7.5 Constructional Features of Proton Exchange
    3 K( U9 [0 H5 L* Y3 J/ WMembrane Fuel Cells 171
    4 w; P) I, z5 W7.6 Constructional Features of Solid Oxide Fuel Cells 1732 v) G0 E4 J/ B3 N
    7.7 Water, Air, and Heat Management 175! z9 i0 m/ Z( E" h: z  x
    7.8 Load Curve Peak Shaving with Fuel Cells 176
    3 H! j" _8 z, W7.8.1 Maximal Load Curve Flatness at Constant Output Power 176
    ' n2 Z4 |8 A$ u5 A" Z7.8.2 Amount of Thermal Energy Necessary 178
    : W7 p' H' G7 ^% \$ ~/ S7.9 Reformers, Electrolyzer Systems, and Related Precautions 180
    2 z2 t+ S& O' Y0 }3 d7.10 Advantages and Disadvantages of Fuel Cells 181
    5 q7 H$ I! z  m  u4 N9 ?* w% F1 G9 i7.11 Fuel Cell Equivalent Circuit 182
    , W, }( v% W. x6 C% [: p* d6 |( g1 M/ s4 a7.12 Practical Determination of the Equivalent Model Parameters 188
    & k  P; ^2 Y+ Y! {$ O7.12.1 Example of Determination of FC Parameters 191
    . W( `; L) h: ^& r, ^: Y7.13 Aspects of Hydrogen as Fuel 194
    0 o- |* a; y, m6 V, V7.14 Future Perspectives 195
    7 H8 Y3 R5 t  c9 N8 JReferences 196
    / U5 H6 q* |) i  J7 T& n8 BIOMASS-POWERED MICROPLANTS 198* y( N- d! m. n# x3 Y
    8.1 Introduction 198
      x5 W& `: M9 o3 A( B' e' s+ K1 H$ f8.2 Fuel from Biomass 2022 e# K7 U; q5 ^; p0 P
    8.3 Biogas 204
    $ _: J! k9 [5 d( r' g8.4 Biomass for Biogas 205
    ( \' c( V) U/ x0 t3 X8.5 Biological Formation of Biogas 206
    $ d/ E/ M- p5 y5 t% t8.6 Factors Affecting Biodigestion 207
    / t0 x* |$ i" p- V" q$ p8.7 Characteristics of Biodigesters 209) p  l, g4 ]* A' s2 O: R! p; P4 T
    8.8 Construction of Biodigester 210
    : v9 m+ F  L4 A0 J4 w  z' K8.8.1 Sizing a Biodigester 211+ R" \* q5 T/ @! s
    8.9 Generation of Electricity Using Biogas 211  E- l+ h% c6 d) v- n- z# F9 O
    References 214
    3 N# l9 F* H9 j9 MICROTURBINES 215
    ! G; A8 i) {* q# [5 _. E9.1 Introduction 215% d2 O1 r+ h. r; C
    9.2 Princples of Operation 217
    . q6 H/ k9 M5 ~( A  z9.3 Microturbine Fuel 219
    - s0 s# c# b7 N9.4 Control of Microturbines 220; N0 L5 ]: ?2 U, y
    9.4.1 Mechanical-Side Structure 220
    ; c8 D* g' ~; J* c1 ~; |9.4.2 Electrical-Side Structure 222; |  Q2 B6 x% L, ^7 Q
    9.4.3 Control-Side Structure 2247 Y  e3 D4 a* V; M- }) a
    CONTENTS xi9.5 Efficiency and Power of Microturbines 2288 j; [9 S% V, I$ c
    9.6 Site Assessment for Installation of Microturbines 230
    , y, k& g+ [1 s3 i! n& Z* d( w# GReferences 231" v' i9 W8 k" l$ b7 s
    10 INDUCTION GENERATORS 233; `0 ^/ f/ X* x2 u3 V0 [
    10.1 Introduction 2331 B- a6 q: W! o" u; ]
    10.2 Principles of Operation 234
    & ?' o5 w3 H3 j10.3 Representation of Steady-State Operation 236& R4 C" \, \) [2 M
    10.4 Power and Losses Generated 237  x& R# d1 H, q, c, a- @6 Q  ]) ?
    10.5 Self-Excited Induction Generator 240
    " x( v% R# Z/ h. i$ v: S3 H; W10.6 Magnetizing Curves and Self-Excitation 242
    + P$ ?$ ]5 y6 C7 l" f2 |10.7 Mathematical Description of the Self-Excitation Process 2439 W1 V8 _3 a* x: _3 A
    10.8 Interconnected and Stand-Alone Operation 246% K& @/ ]. h, O9 s; i/ A
    10.9 Speed and Voltage Control 248
    5 Q, s; h& q3 {$ D6 a1 N" R7 {10.9.1 Frequency, Speed, and Voltage Controls 249
    5 c& y& n6 ^% o1 c/ r% K3 V* W10.9.2 Load Control Versus Source Control
    # I) G) F; U3 a3 A  j8 Tfor Induction Generators 250+ g, p  l) e9 K+ N
    10.9.3 The Danish Concept 254
    ! e/ n" }& u% f  E& Y- Y10.9.4 Variable-Speed Grid Connection 255
    2 W+ x! O$ y! ]  z& I$ y4 ^! H; Y10.9.5 Control by the Load Versus Control by8 q' h0 q0 q. a& u+ E3 i% ^
    the Source 256
    2 @6 K6 ~6 l" Y% Q; M$ J10.10 Economical Aspects 258) C1 M+ c. W4 p
    References 259
    9 h5 u6 M* Q6 {  V; h) K% ?8 q11 STORAGE SYSTEMS 262
    + Y. j5 M. Y* V: m0 M* P11.1 Introduction 262$ C1 P5 u! b7 f/ m$ p1 X
    11.2 Energy Storage Parameters 2652 L4 D+ W- ]/ u/ s" c
    11.3 Lead–Acid Batteries 268! y! d# J$ e) k/ Z+ d8 D3 A
    11.3.1 Constructional Features 268# \; e5 u+ Q# d( D5 h
    11.3.2 Battery Charge–Discharge Cycles 269
    5 a4 ~6 v- Y+ |- p4 J* h" ~. {11.3.3 Operating Limits and Parameters 271
    1 x. ~$ v4 e3 Z. X, T. x$ i11.3.4 Maintenance of Lead–Acid Batteries 273
    ) q/ O2 n, v5 b$ A, p* j  H11.3.5 Sizing Lead–Acid Batteries for DG Applications 273; j- e# s" f) T; n) x# t- N* o
    11.4 Ultracapacitors 2765 u  D! c2 H) Q! O. @) t7 _
    11.4.1 Double-Layer Ultracapacitors 277
    * T7 I8 d* z( ~1 p7 J( a& V! m11.4.2 High-Energy Ultracapacitors 2781 S5 F. V5 s3 X2 ?4 _, S
    11.4.3 Applications of Ultracapacitors 279+ \+ X5 u+ m7 [* B% E* @
    xii CONTENTS11.5 Flywheels 282
    : ~7 h, K; i+ @11.5.1 Advanced Performance of Flywheels 282. E! L% g: p; U
    11.5.2 Applications of Flywheels 282# \7 I# l' n1 Q  T- B& P6 O( T
    11.5.3 Design Strategies 2848 t' x; T  J7 @; `% m1 F% b9 F: N
    11.6 Superconducting Magnetic Storage System 286
    & j: K+ u% ~8 i3 g# w9 D11.6.1 SMES System Capabilities 287! p# M! V# y7 {2 l1 {8 I
    11.6.2 Developments in SMES Systems 288- T7 }9 c4 }& h2 X) f$ d5 a5 H
    11.7 Pumped Hydroelectric Energy Storage 290) M, P1 c9 m: p/ w" W( @$ W: }" J
    11.7.1 Storage Capabilities of Pumped Systems 291. z3 E  L; H( q# S7 @6 a4 }) s
    11.8 Compressed Air Energy Storage 292: U3 c0 W) t. t& i3 b% {' I
    11.9 Storage Heat 2948 z" h# I' [/ w2 ]0 L
    11.10 Energy Storage as an Economic Resource 2952 T: Y. l, n9 y  K- n0 v% j
    References 299' a0 r9 h3 O. h5 _
    12 INTEGRATION OF ALTERNATIVE SOURCES& k5 L" c: v4 e6 a
    OF ENERGY 301
    4 x# V' ?  E- J9 i( V12.1 Introduction 301
    7 o7 Y" D1 l: q12.2 Principles of Power Injection 302
    , i) M$ h! O/ M+ u1 c12.2.1 Converting Technologies 302. \( Y( {: C0 C: ^
    12.2.2 Power Converters for Power Injection2 M) j9 N1 O6 B5 e$ D0 p
    into the Grid 304
    , d: B* z& G/ w4 w3 }8 ~% Q% R12.2.3 Power Flow 3065 x  u- _5 B* C7 m7 o& D; X& D! r5 k
    12.3 Instantaneous Active and Reactive Power
    ' ~/ m! y/ V% [: _Control Approach 3093 \0 p1 o- j7 }+ e( m$ ]7 T
    12.4 Integration of Multiple Renewable Energy Sources 3127 ]3 ~5 N% \8 E/ k
    12.4.1 DC-Link Integration 315% G4 c3 T+ `, E  n% `' U# Y
    12.4.2 AC-Link Integration 3165 j5 F  q2 R' x. _7 s* r
    12.4.3 HFAC-Link Integration 317
    3 }# u% D: H1 p12.5 Islanding and Interconnection Control 320
    0 F0 T6 ?1 h* r( E; V& k; U12.6 DG Control and Power Injection 325
    . {5 o$ m+ g3 d7 D; s7 P/ K* VReferences 331
    - M" ?9 u3 \% u% ~1 B% Q9 [, G13 DISTRIBUTED GENERATION 333
      o0 n- v  A( t, H13.1 Introduction 3333 O1 j# m) J+ r* a3 H
    13.2 The Purpose of Distributed Generation 3350 _8 @& T% y4 \* L5 e( R3 ~
    13.3 Sizing and Siting of Distributed Generation 338, M+ n! U) X  V2 k
    13.4 Demand-Side Management 3394 z$ {4 E; }; g% y/ C; P
    13.5 Optimal Location of Distributed Energy Sources 340
    4 z1 ^" b6 T0 O9 ~* PCONTENTS xiii13.5.1 DG Influence on Power and Energy8 z4 H" M4 t0 r5 Q5 U
    Losses 3420 ~5 ?' r. s. H6 x. U9 m: P% L
    13.5.2 Estimation of DG Influence on Power- S8 e8 F0 S; n7 T
    Losses of Subtransmission Systems 3466 N6 _0 ?' d( j; ?1 D) R( z
    13.5.3 Equivalent of Subtransmission Systems/ N- \: t# V* T* S0 I) Z: |5 Q
    Using Experimental Design 3484 P2 n# w' g, E9 j; k$ \% j
    13.6 Algorithm of Multicriterial Analysis 350$ s1 F1 X; I( E
    References 3522 D5 d% f& `( b1 {; o5 G# q7 c
    14 INTERCONNECTION OF ALTERNATIVE ENERGY
      G/ u* p, ]! H% h! _/ u4 @+ f8 [SOURCES WITH THE GRID 354
    ; \, t- ~! R5 _4 h! {* P- MBenjamin Kroposki, Thomas Basso, Richard DeBlasio,# V( {6 O6 T' B8 D$ j5 y! U
    and N. Richard Friedman
    ! S7 P0 ~3 I8 L4 M% R6 u14.1 Introduction 354
    0 A' d8 U% W, ?6 w: r14.2 Interconnection Technologies 357" f3 f3 V" P. B; V% k/ Z4 E6 g
    14.2.1 Synchronous Interconnection 3575 a/ n: N3 O" ~0 G# \$ R
    14.2.2 Induction Interconnection 358  w( a0 z' w2 i3 B) e5 t
    14.2.3 Inverter Interconnection 359
    ) B" k$ V7 N* |5 M) I9 r14.3 Standards and Codes for Interconnection 3599 D' q- M. a$ ^3 Z/ c
    14.3.1 IEEE 1547 360$ |; \5 o# x' I9 {9 ?& M2 }
    14.3.2 National Electrical Code 361
    8 ^1 ^* ~% l+ j; z2 }14.3.3 UL Standards 362
    , W0 B6 X6 `6 H: F+ i! K14.4 Interconnection Considerations 3643 @$ ]2 ]7 y) x3 e# k9 c- [' ]
    14.4.1 Voltage Regulation 364
    8 v8 a) n  Z2 f14.4.2 Integration with Area EPS Grounding 365# _) h, ^; d$ u  W8 G
    14.4.3 Synchronization 365* R) W/ o' D; K. g  B
    14.4.4 Isolation 3659 A8 x! s) z3 a0 ?" L
    14.4.5 Response to Voltage Disturbance 366
    # h2 N( }) C! E* _0 a14.4.6 Response to Frequency Disturbance 367% B- Z: K/ Y- t! j1 V
    14.4.7 Disconnection for Faults 368
    5 M5 j' s; F! S7 B) e  t+ U14.4.8 Loss of Synchronism 369( l: _; b9 ]( i  k) i5 w7 I
    14.4.9 Feeder Reclosing Coordination 369
    5 p& j7 }' h7 P14.4.10 DC Injection 370- h; r/ _* ]2 R9 G
    14.4.11 Voltage Flicker 371
    : }. V1 ]2 k6 G% i- z0 @5 j: S14.4.12 Harmonics 371
    & W4 e, H* i" m0 g  a14.4.13 Unintentional Islanding Protection 373
    4 l; O% `' ?0 `" K) j) q. W14.5 Interconnection Examples for Alternative Energy Sources 373* L* O% T8 b1 I+ M- U
    14.5.1 Synchronous Generator for Peak Demand Reduction 375
    ; N+ g2 c& M% \! s5 Vxiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 3751 Y- F- T" w( W' Q" r! l. a4 A  D2 q5 N
    References 378* f9 a6 \  U8 Y& J  F
    15 MICROPOWER SYSTEM MODELING WITH HOMER 3797 c6 W, K  l4 D+ N
    Tom Lambert, Paul Gilman, and Peter Lilienthal- m8 K" s% [" M7 k: _
    15.1 Introduction 379: _) b" j! F6 M1 o( h
    15.2 Simulation 381
    5 O; w" `0 p4 v. Y2 k$ D# W15.3 Optimization 385
    # e9 Z7 L0 J! F0 U! g2 w8 L& U15.4 Sensitivity Analysis 3883 D0 Q+ M; k6 c% l! _; I4 w, \7 r
    15.4.1 Dealing with Uncertainty 3896 X) b# j* N+ R/ T
    15.4.2 Sensitivity Analyses on Hourly Data Sets 391
    - l& b* n5 Z4 y- A' A15.5 Physical Modeling 393: z- N; G9 h7 O% ?7 |) [' f
    15.5.1 Loads 393/ `4 ^- S& q3 E! b% a* G
    15.5.2 Resources 395; N! Y3 z# Q  a1 a) R" H
    15.5.3 Components 397
    - N# J: z& l) g/ J5 ?15.5.4 System Dispatch 408( `! `3 s- _7 P9 }0 o
    15.6 Economic Modeling 414/ [; D; [5 h0 c/ o/ X
    References 416
    5 x! z( G/ ?5 B" ZGlossary 416* j/ X- B+ d8 n
    APPENDIX A: DIESEL POWER PLANTS 419
    : V( u% m/ h" \0 I8 ?A.1 Introduction 419' c- x6 g& G" P) s* w; M; u* w! z
    A.2 Diesel Engine 420. J. q5 G" o- H" W
    A.3 Principal Components of a Diesel Engine 4210 L% M! B$ C3 a+ y2 p9 z
    A.3.1 Fixed Parts 421
    ! m1 S$ A7 {2 C- G" D/ N1 LA.3.2 Moving Parts 421
      F3 I: K7 G$ p; x2 W2 s2 E$ u6 z0 D3 XA.3.3 Auxiliary Systems 422
    0 W* P: A. i  OA.4 Terminology of Diesel Engines 422# x! l9 X+ u/ _- S. V# X
    A.4.1 Diesel Cycle 422
    ; v+ k2 R) C) D3 b; M2 tA.4.2 Combustion Process 424/ v# H# \3 `- \9 a7 T/ q
    A.5 Diesel Engine Cycle 425% {7 J) K4 K( A6 Z$ x
    A.5.1 Relative Diesel Engine Cycle Losses 425( N9 P  g# X) m  }; z
    A.5.2 Classification of Diesel Engines 4263 n: W  W$ @7 A8 ]+ n* H' m* _
    A.6 Types of Fuel Injection Pumps 427; B, p, ^" e( m, h6 q
    A.7 Electrical Conditions of Generators Driven by
    2 B& o& p/ j( f5 }) XDiesel Engines 4277 X2 Z' m( P7 F/ b
    References 429, a2 R, f, o* N) n
    CONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 431
    8 P6 W* N8 Z9 J( C8 g  V+ p0 ~: r5 KB.1 Introduction 4310 H+ A5 ~+ v; {; h% O
    B.2 Geothermal as a Source of Energy 432  K8 Z  P2 O" k* E* S! x
    B.2.1 Geothermal Economics 4340 N* a! k) H- L% a5 E. f, o, Y3 w
    B.2.2 Geothermal Electricity 4350 X) q* }+ ], ^0 h+ k
    B.2.3 Geothermal/Ground Source Heat Pumps 436
    6 X+ R0 b5 x1 q+ B$ n0 gReferences 437
    + G" H6 b$ y; r/ _- O2 dAPPENDIX C: THE STIRLING ENGINE 4384 G4 G& S8 @0 _3 J, |4 y* r
    C.1 Introduction 4387 M- \5 m6 N9 I* X0 u
    C.2 Stirling Cycle 439; ^" |+ ?3 W  H( k
    C.3 Displacer Stirling Engine 442
    ' X9 ]1 F/ \8 ]4 j) y% I3 tC.4 Two-Piston Stirling Engine 444
    ( n+ b* U/ H2 h; k( ?References 446
    : z* K2 ]" G1 r3 _: i1 pINDEX 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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