设为首页收藏本站|繁體中文 快速切换版块

 找回密码
 立即加入
搜索
查看: 11907|回复: 65

两本微网的书

   火... [复制链接]

该用户从未签到

尚未签到

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
关键字:
来源: 互联网

马上加入,结交更多好友,共享更多资料,让你轻松玩转电力研学社区!

您需要 登录 才可以下载或查看,没有账号?立即加入

×
本帖最后由 bird841011 于 2009-6-16 16:39 编辑
3 B( f9 |& e( Q2 s$ z" v3 ^# U1 d/ H: b& g+ n/ X' e3 r
两本书:
6 f* ?4 D: ^  L4 u, w5 j( c1、Integration of Alternative Sources of Energy.pdf1 `, H7 e% T$ D' k# s' d6 `
IEEE press
! b- X6 {1 O& ~- _3 T; L. J4 w简要目录9 r2 I) d3 b8 O: U* W  b$ E+ n
1 ALTERNATIVE SOURCES OF ENERGY 1
4 L7 R: C+ m7 ]5 @- `2 PRINCIPLES OF THERMODYNAMICS 28
* b' O5 {- M' A% _3 HYDROELECTRIC POWER PLANTS 57
! k9 a3 V& Y% Y( r, c4 WIND POWER PLANTS 84
* \7 ?: [% Z- z7 T/ R5 THERMOSOLAR POWER PLANTS 112$ C, k2 d5 B# t# M  R2 q
6 PHOTOVOLTAIC POWER PLANTS 129' z3 u0 n. ?8 m% O; v& C
7 POWER PLANTS WITH FUEL CELLS 159
: H8 o* j( H2 F8 e! u8 {' P8 BIOMASS-POWERED MICROPLANTS 198
* X4 \5 ^, Z& o: j1 A; O( e9 MICROTURBINES 215) \7 S5 `3 }" y
10 INDUCTION GENERATORS 233! T4 D. `( ~2 ?- B5 ?
11 STORAGE SYSTEMS 2622 \4 P6 z  L% s; Y+ j3 Z
12 INTEGRATION OF ALTERNATIVE SOURCES
% S/ {! S$ r, }2 |OF ENERGY 301
. m8 h: U, g$ C5 A* l  }13 DISTRIBUTED GENERATION 333
# k8 T; u  t  V14 INTERCONNECTION OF ALTERNATIVE ENERGY  O0 J/ F$ M/ c, Z, u- f
SOURCES WITH THE GRID 3543 ]0 {; ?8 x! `
15 MICROPOWER SYSTEM MODELING WITH HOMER 3792 B- y% G) X3 R3 v& B9 f8 ]7 a
Glossary 416
. L+ M& Z" \; xAPPENDIX A: DIESEL POWER PLANTS 419  x/ R$ o& I' u: X3 K2 @
APPENDIX B: GEOTHERMAL ENERGY 431
. T  V  `, a0 x! j0 j* l4 f* ?APPENDIX C: THE STIRLING ENGINE 438" {, o8 W7 r7 k7 B% E# b# {
) h; {; D( O/ j! s
( p" {. V( _. w( m

3 Q7 C. p2 X! e6 ?: p2、fuel cell system explained.pdf
5 j8 [" x3 u3 Y: S! O" h* w( n6 \Wiley press& z( b4 I$ e" F* z2 N
简要目录
6 L$ b' A9 D  _+ x! @2 O1. Introduction ............................................................................. 1! V3 J8 G  o! j: f3 V' Y
2. Efficiency and Open Circuit Voltage ..................................... 25
8 e3 V6 N# k& V- {; P( [3. Operational Fuel Cell Voltages .............................................. 45! \4 `; }  q9 p! d6 v
4. Proton Exchange Membrane Fuel Cells ................................ 67
0 J$ p! u- ^0 D" l, C5. Alkaline Electrolyte Fuel Cells ............................................... 1219 f+ Y; y4 h- ?) D$ Z. I* u8 D
6. Direct Methanol Fuel Cells ..................................................... 141' {9 A' b0 t# j+ u
7. Medium and High Temperature Fuel Cells ........................... 1635 F7 l1 [) b* T' v! S9 ~0 J
8. Fuelling Fuel Cells .................................................................. 229" B2 O9 n7 |. O( X! k
9. Compressors, Turbines, Ejectors, Fans, Blowers, and& q5 i5 \5 m9 ?3 }
10. Delivering Fuel Cell Power ..................................................... 331
+ E( c; O8 b* b6 ?4 T2 \" d11. Fuel Cell Systems Analyzed .................................................. 369
% s- R8 T8 r  j- Q! m) A# xAppendix 1. Change in Molar Gibbs Free Energy Calculations ......... 391# n3 b2 Q" w' ~- o
Appendix 2. Useful Fuel Cell Equations ............................................. 395

microgrid_2.rar

8.8 MB, 下载次数: 201, 下载积分: 威望 -2 点, 学分 -5 点

"真诚赞赏,手留余香"
还没有人打赏,支持一下
楼主热帖
帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

该用户从未签到

尚未签到

发表于 2009-6-16 16:21:45 | 显示全部楼层
不错 但能不能现简单介绍下传的东西

评分

参与人数 1威望 +1 收起 理由
201110301045 + 1 完成评分任务~

查看全部评分

"真诚赞赏,手留余香"
还没有人打赏,支持一下
帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】
  • TA的每日心情
    开心
    2016-3-17 22:07
  • 签到天数: 2 天

    连续签到: 1 天

    [LV.1]初来乍到

    累计签到:2 天
    连续签到:1 天
    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
    # \9 l# y( c: Y( M% X1 p& ]/ lFuel Cell Systems Explained
    . g# O% Q5 N8 h: d! ?* wSecond Edition 2003出版的9 k4 p4 x' ~! j4 L: p: O8 S
    第一版是2000年1月出版的 ) d. x1 G, x5 T4 D0 L
    下面是目录" U# T% l- R7 I4 p
    Contents
    / D2 c# |$ e' lPreface   ............................................................................................   xiii & \: T% W; G  @. W5 Z# X
    Foreword to the First Edition   ...........................................................   xv
    ! B4 [5 c& X7 @; E. k; m4 d' PAcknowledgements   .........................................................................   xvii & n# Q' t- K" ^2 C9 j6 ^
    Abbreviations  ...................................................................................   xix 8 b1 w* b! b. M3 K7 K
    Symbols  ...........................................................................................   xxi # W6 a1 n3 b8 g! e' A9 R8 u
    1. Introduction   .............................................................................   1
    ! k, g' R; l) s( P5 D2 o* f* W1.1  Hydrogen Fuel Cells – Basic Principles  .....................................   1
    9 Z, ]+ [/ E3 @, d& G9 H1.2  What Limits the Current?   ...........................................................   5 # _$ o7 L" `) v0 X! a& }$ E6 D* P
    1.3  Connecting Cells in Series – the Bipolar Plate   ..........................   6 / u: W6 j5 ^9 ^; r+ s
    1.4  Gas Supply and Cooling   ............................................................   10 0 U8 ~# i! n) c) s' M' y( [& }
    1.5  Fuel Cell Types  ..........................................................................   14 8 \7 h8 C( w$ ~% W/ J+ u  X
    1.6  Other Cells – Some Fuel Cells, Some Not   ................................   16
    : N3 O* f. E: w5 r& @: ?1.6.1  Biological Fuel Cells   ......................................................   17 ; w/ f) J4 x$ D' `* T" h" X
    1.6.2  Metal/Air Cells  ................................................................   17 & b/ B: q" x2 \. c! A) c
    1.6.3  Redox Flow Cells or Regenerative Fuel Cells   ...............   18
    ' I* B1 d7 v, Z9 l1.7  Other Parts of a Fuel Cell System   .............................................   19 9 e1 z: U! w! B: t  P
    1.8  Figures Used to Compare Systems  ...........................................   21 - J6 a5 n2 q0 P
    1.9  Advantages and Applications   ....................................................   22
    % q( {0 L% D* A! K0 v" `+ ^. _References   .........................................................................................   24 4 @( F" j* b: ?, Y
    2.  Efficiency and Open Circuit Voltage   .....................................   25
    8 ~& H: r0 V! I/ j8 @2.1  Energy and the EMF of the Hydrogen Fuel Cell   ........................   25
    6 f6 ], J( S! t& x9 [( D2.2  The Open Circuit Voltage of Other Fuel Cells and Batteries   .....   30 ' z4 e0 ?4 G9 K$ s$ u/ z' d8 Q
    2.3  Efficiency and Efficiency Limits   .................................................   31 ' {/ `( N1 ^- ?) z
    2.4  Efficiency and the Fuel Cell Voltage   ..........................................   34 ) e% w  H9 K  J+ I
    2.5  The Effect of Pressure and Gas Concentration   .........................   35
    3 q+ V) w, P! i$ n% V  C2.5.1  The Nernst Equation   ......................................................   35 + w# Y0 w2 Y' x3 m) \
    2.5.2  Hydrogen Partial Pressure  .............................................   38 $ l; q( W2 j7 \, m6 C
    2.5.3  Fuel and Oxidant Utilization   ...........................................   39
    5 S- P; A- ~% `. \2.5.4  System Pressure  ............................................................   40 2 F: _3 ]+ B, L. l
    2.5.5  An Application – Blood Alcohol Measurement   ...............   41 , s* ]) E6 W9 |" i. d8 {+ Z( X
    2.6 Summary  ...................................................................................   42
    8 O8 q$ ?  X% B- a" w) C) JReferences   .........................................................................................   43 4 ~- k* a6 K- d7 \6 v
    3.  Operational Fuel Cell Voltages   ..............................................   45 , j1 y; s5 S4 U3 `  U
    3.1 Introduction  ................................................................................   45 ; C  ]1 C! o* R
    3.2 Terminology  ...............................................................................   47
    ' }# v; V# K7 x# D3.3  Fuel Cell Irreversibilities – Causes of Voltage Drop   ..................   47
    6 p( A$ F$ j5 }$ S, D0 r' ]3.4  Activation Losses  .......................................................................   48   n3 S% r6 d- S; T
    3.4.1  The Tafel Equation   ........................................................   48 6 a* a( w. }1 h) b( h& `
    3.4.2  The Constants in the Tafel Equation  ..............................   49
    ( a1 m: T" {( e3.4.3  Reducing the Activation Overvoltage  .............................   52 . N5 M0 l# {4 r7 E! T
    3.4.4  Summary of Activation Overvoltage  ...............................   53
    3 p, V% I' m2 z9 W6 D- h- d3.5  Fuel Crossover and Internal Currents   .......................................   53 + @$ }. a  C. p7 D- s& ~
    3.6  Ohmic Losses   ............................................................................   56
    - a' G. c3 ?; _( ]( q  v3.7  Mass Transport or Concentration Losses  ..................................   57 0 V4 i" n, z- L
    3.8  Combining the Irreversibilities   ...................................................   59
    & F; j- `. K( I4 j4 N3.9  The Charge Double Layer   .........................................................   61 # E  c0 c$ m% c3 @- t+ d' L: k
    3.10  Distinguishing the Different Irreversibilities  ................................   63
    & f! E2 M& a3 ]3 M9 d; a0 E. ^References   .........................................................................................   66
    $ d( H. ]1 b1 S/ @+ E2 l: W  }4.  Proton Exchange Membrane Fuel Cells  ................................   67
    * Y2 p( l) K5 d1 b, X% O4.1 Overview  ....................................................................................   67 ' l. n; M: W) O3 H9 p
    4.2  How the Polymer Electrolyte Works   ..........................................   69 . I. |, |: i" d# e  Y) D
    4.3  Electrodes and Electrode Structure   ...........................................   72 ' N  C# h1 q0 v& Z
    4.4  Water Management in the PEMFC  ............................................   75
    * R2 t3 s) Z" u8 O. y) l4.4.1  Overview of the Problem  ................................................   75 . A8 _1 `" W- f6 O
    4.4.2  Airflow and Water Evaporation   ......................................   76 * D  G( m8 X$ T6 c( d( y5 Y
    4.4.3  Humidity of PEMFC Air   ..................................................   80 # x( @7 ~" b. b
    4.4.4  Running PEM Fuel Cells without Extra Humidification   ..   83 3 n9 c4 Q1 [. Q+ x* D
    4.4.5  External Humidification – Principles  ...............................   85 5 J; p& n% _. K/ |& R* t3 @
    4.4.6  External Humidification – Methods   ................................   87 8 r* I$ P  f' Y* C& ?
    4.5  PEM Fuel Cell Cooling and Air Supply   ......................................   90
    / z/ \- a* ~8 D; u4.5.1  Cooling Using the Cathode Air Supply  ...........................   90 0 C8 N. R3 A/ c
    4.5.2  Separate Reactant and Cooling Air   ...............................   91 4 ]! h; c. w4 y
    4.5.3  Water Cooling of PEM Fuel Cells   ..................................   93
    . K+ L% Z: H( R5 F" T& t/ f: D4.6  PEM Fuel Cell Connection – the Bipolar Plate   ..........................   94
    0 v1 ~: K' A" y4 `+ {/ e4.6.1 Introduction  ....................................................................   94
    5 _# b6 s: Z5 v, O  l! J+ y% X! a9 W4.6.2  Flow Field Patterns on the Bipolar Plates   ......................   94
    ) Z4 D4 W& n3 P$ R  J" r3 V4.6.3  Making Bipolar Plates for PEM Fuel Cells   .....................   96
    6 X* Y) V1 f1 \( o3 M9 ], O4.6.4  Other Topologies   ...........................................................   100 * u) S/ H6 d& ?% f5 `6 R2 H  s, P
    4.7  Operating Pressure   ...................................................................   102
    2 t$ n$ G+ a; g9 z" I2 p2 J5 N4.7.1  Outline of the Problem   ...................................................   102 : Q* {* i0 x$ D9 Q2 C+ F
    4.7.2  Simple Quantitative Cost/Benefit Analysis of Higher ( j: S5 _. M$ g0 [
    Operating Pressures   ......................................................   103
    ( W+ Q, O0 x7 J: Y0 J4 q6 K7 ~1 D1 Q4.7.3  Other Factors Affecting Choice of Pressure   ..................   108
    # H2 l6 K& v) f" @+ M  g4 Y4.8  Reactant Composition   ...............................................................   110
    & L+ H( B; ?# R. ]" P4.8.1  Carbon Monoxide Poisoning  ..........................................   110
    9 v) B- V( g% L# h' [6 p. R, X# s4.8.2  Methanol and Other Liquid Fuels  ...................................   111
    , v' K9 \, u3 l0 M0 ?4.8.3  Using Pure Oxygen in Place of Air  .................................   111 % p7 L6 `0 X6 H. j/ i' u; Q, K
    4.9  Example Systems   ......................................................................   112 " e1 {' N$ h, v, v+ q
    4.9.1  Small 12-W System   .......................................................   112 / W" ^4 J/ S8 S$ o
    4.9.2  Medium 2-kW System  ....................................................   114 3 C" [" S" G& ^1 t
    4.9.3  205-kW Fuel Cell Engine   ...............................................   117
    ( u5 Z* t4 y9 jReferences   .........................................................................................   118
    % ?, b  ^  ^& t# O9 z5.  Alkaline Electrolyte Fuel Cells   ...............................................   121
    . l: t7 X3 F4 g1 D5.1  Historical Background and Overview  .........................................   121
    ; g! Y( \5 z% a5.1.1  Basic Principles   .............................................................   121 3 M1 P2 z6 E) F1 U, x! g7 C
    5.1.2  Historical Importance   .....................................................   121
    & E+ L) @( @+ f" X6 Z& c9 v5.1.3  Main Advantages   ...........................................................   122 7 r7 s7 B4 @' y+ C
    5.2  Types of Alkaline Electrolyte Fuel Cell   ......................................   124
    4 D1 |2 j: g8 T9 @5.2.1  Mobile Electrolyte   ..........................................................   124
    6 N5 }: w4 }  e1 u5.2.2  Static Electrolyte Alkaline Fuel Cells  ..............................   127
    ! M/ @" W, S! }. j  {$ `  A. M0 I5.2.3  Dissolved Fuel Alkaline Fuel Cells  .................................   129 6 _: U; A0 E2 w3 P% w: U0 ~
    5.3  Operating Pressure and Temperature   .......................................   132
    & D6 C- X1 l! G- C+ ^- T5.4  Electrodes for Alkaline Electrolyte Fuel Cells   ............................   134
    $ e+ ?3 P' Z1 |- S- }0 C4 s5.4.1 Introduction  ....................................................................   134
    / v' n- b) E, W& x( ~1 y5.4.2  Sintered Nickel Powder   .................................................   134
    # C0 z/ H! O- j% l# r5.4.3 Raney Metals  .................................................................   135
    - _# Q9 ?' B4 s5.4.4  Rolled Electrodes  ...........................................................   135
      }+ o2 \% v5 k- Z; V5 B- d% K5.5  Cell Interconnections   .................................................................   137 1 N+ z  d6 N2 p: s& V# B
    5.6  Problems and Development   ......................................................   137
    / r! ^( B5 w; r* K" v1 G1 HReferences   .........................................................................................   138
    1 v7 g2 s0 v; ]$ q3 I6.  Direct Methanol Fuel Cells   .....................................................   141
    4 i1 a6 t, m, {  B9 y6.1 Introduction  ................................................................................  141 ! X) U8 w! [* X2 v4 Q5 i5 `& [
    6.2  Anode Reaction and Catalysts   ..................................................   143
    $ M) y, q7 ^0 {' W4 B" v$ g* L6.2.1  Overall DMFC Reaction   .................................................   143
    $ X! f6 m# R$ P3 N6.2.2  Anode Reactions in the Alkaline DMFC  .........................   144
    4 P: p8 ?8 w' h# a. ?, b6.2.3  Anode Reactions in the PEM Direct Methanol FC   .........   144
    9 D; a2 O9 F( B% v( q) h: [; h5 e6.2.4  Anode Fuel Feed   ...........................................................   146 ( f$ l1 d6 `; y! Y" N! u
    6.2.5  Anode Catalysts  .............................................................   147
    5 Q4 ^8 v4 s' i5 l6.3  Electrolyte and Fuel Crossover   .................................................   148 1 c/ O; P6 ~2 {' c/ h
    6.3.1  How Fuel Crossover Occurs   ..........................................   148 # G9 ^. I) a* Q! G8 C! [- ]% H% T
    6.3.2  Standard Techniques for Reducing Fuel Crossover   ......   149
    - a! W* r6 Y# z7 q6.3.3  Fuel Crossover Techniques in Development   .................   150
    7 Q8 a% q# u! x8 E% o4 J6.4  Cathode Reactions and Catalysts   .............................................   151 ) ~" \  l; _0 r# c" _% b" F
    6.5  Methanol Production, Storage, and Safety   ................................   152
    3 V0 k( E  n+ J, O% p3 c6.5.1  Methanol Production   ......................................................   152 . b, S" D3 V* [
    6.5.2  Methanol Safety   .............................................................   153
    - ^* n. v3 S( F" d3 v6.5.3  Methanol Compared to Ethanol   .....................................   155
    : i' l6 o4 s: b8 }1 Z$ t6.5.4  Methanol Storage   ..........................................................   156
    7 \3 \! D( V5 ~9 @( Z0 C6.6  Direct Methanol Fuel Cell Applications   ......................................   157 # H* {7 C2 n+ e6 c2 A' i
    References   .........................................................................................   160
    $ D9 i. z$ x! o3 P0 y1 D7.  Medium and High Temperature Fuel Cells   ...........................   163 + k- b3 k# x' H: O* G
    7.1 Introduction  ................................................................................  163 : s8 g. _; E0 J* i
    7.2  Common Features   .....................................................................   165
    ( f! |2 h, w" I% T6 J7.2.1  An Introduction to Fuel Reforming   .................................   165
    4 I" q% g* \( l; Y7 d7.2.2  Fuel Utilization   ...............................................................   166 . r, T1 d2 z8 C/ Z. J8 A) u; `! @2 R( ?
    7.2.3  Bottoming Cycles   ...........................................................   168 4 {( N2 ~4 A0 @) N) b9 S8 j
    7.2.4  The Use of Heat Exchangers – Exergy and Pinch # v. t  j* b, t1 e, ]7 B
    Technology   ....................................................................   174
    1 @  p4 x* Z/ o& P4 e8 R7 @7.3  The Phosphoric Acid Fuel Cell (PAFC)   .....................................   177
    ) m# r; b0 W, n$ g, A3 `/ D. _7.3.1  How It Works   .................................................................   177 $ c8 G1 W6 @* E8 V$ C
    7.3.2  Performance of the PAFC  ..............................................   182 % o2 x7 w' e' ]  ?/ k/ p/ x
    7.3.3  Recent Developments in PAFC   .....................................   184
    7 ?/ o2 k2 `1 _5 K# U! X+ |7.4  The Molten Carbonate Fuel Cell (MCFC)   ..................................   187 / Y2 Z) v- n% P* R; {2 }
    7.4.1  How It Works   .................................................................   187 % C" G1 |" H& B$ ^# R( ^
    7.4.2  Implications of Using a Molten Carbonate Electrolyte   ...   190 8 A5 i6 H, Z  K8 p+ g
    7.4.3  Cell Components in the MCFC   ......................................   190
    # a( @2 }$ n0 s! ]7.4.4  Stack Configuration and Sealing  ....................................   195
    2 C  }) l0 [2 G! X% |% M/ t% b7.4.5  Internal Reforming   .........................................................   196
    . V% m3 o+ }- _7 l' [! ~% \7.4.6  Performance of MCFCS  .................................................   198
    2 Z/ m! ~4 U0 M9 ]" U  {- Y7.4.7  Practical MCFC Systems   ...............................................   202 2 h+ s& G0 J2 z) ^1 \( d
    7.5  The Solid Oxide Fuel Cell   ..........................................................   207
    1 o& g9 i7 y2 b& ~, z4 T3 r7.5.1  How It Works   .................................................................   207   r5 L% y2 f2 e8 Z/ j; [6 K
    7.5.2 SOFC Components  ........................................................   209 ; K) _- G5 q+ [3 m* v" M
    7.5.3  Practical Design and Stacking Arrangements for the
    2 [  X2 |9 w4 @. V0 r. ISOFC   .............................................................................   213
    $ b) I) @# ]( a- _& [7.5.4  SOFC Performance   .......................................................   220 ' g6 Z8 z; t! H2 }( t
    7.5.5  SOFC Combined Cycles, Novel System Designs and
    ( D7 r* [1 K" F7 Q4 N, P* EHybrid Systems  ..............................................................   221
    9 k! M* C* G+ i7.5.6  Intermediate Temperature SOFCs  .................................   225 9 f. y# h0 q5 H. d
    References   .........................................................................................   226
    9 T$ m: I! z- p5 Y/ j2 F8.  Fuelling Fuel Cells   ..................................................................   229 1 f$ `+ x4 h( a/ q, {* k" i  [$ y  O
    8.1 Introduction  ................................................................................  229 ; e- h1 G/ z4 d7 v3 G
    8.2  Fossil Fuels   ...............................................................................   232 " u% Z5 F" ?4 b. z/ I! I  X6 A
    8.2.1 Petroleum  ......................................................................   232
    ; o1 {5 b7 _" s% `& X8.2.2  Petroleum in Mixtures: Tar Sands, Oil Shales, Gas + [. u. ~+ k. r9 y, _! y
    Hydrates, and LPG   ........................................................   233 " u! Q; ^: ]- ~; K8 K; N
    8.2.3  Coal and Coal Gases  .....................................................   234
    . ?3 g2 ]. d5 K9 |8.2.4  Natural Gas  ....................................................................   235
    2 k- P3 B# d0 Q5 [8.3 Bio-Fuels  ...................................................................................  236 ) p. \  u& H% \8 P! V, h8 M$ U& _
    8.4  The Basics of Fuel Processing   ..................................................   238 " ~8 Y8 Q8 ]9 }5 ]# Z
    8.4.1  Fuel Cell Requirements   .................................................   238   d' \2 y4 N$ r; Y8 N9 B3 M: [4 \
    8.4.2 Desulphurization  ............................................................   239
    ) K1 J( s* S7 S; \/ r8.4.3  Steam Reforming   ...........................................................   241 % O4 B6 S) `2 @+ }
    8.4.4  Carbon Formation and Pre-Reforming  ...........................   244 2 t; W  e: u& t8 c* m+ S. U
    8.4.5  Internal Reforming   .........................................................   246
    $ b7 R1 E* F# n2 U, ~6 g6 f  G8.4.6  Direct Hydrocarbon Oxidation  ........................................   248 5 i" g& Z: G! X7 r% ]
    8.4.7  Partial Oxidation and Autothermal Reforming  ................   248
    7 g& M3 M$ u+ v( z* \' S& e/ j8.4.8  Hydrogen Generation by Pyrolysis or Thermal
    ( B- O' _3 @: X% H5 h. _石皮解ing of Hydrocarbons   .............................................   250
    : P* k6 H( i) H; a0 ^7 W6 O' B8.4.9  Further Fuel Processing – Carbon Monoxide Removal   .   250
    ' H! @5 A" q  @. N8.5  Practical Fuel Processing – Stationary Applications  ..................   252
    * s# v- g, v2 [9 o8.5.1  Conventional Industrial Steam Reforming   .....................   252
    & m$ Y( j9 h8 h5 r! J8.5.2  System Designs for Natural Gas Fed PEMFC and ! {* t3 Y$ F& e  v3 Z+ c8 N2 M$ i
    PAFC Plants with Steam Reformers  ..............................   253 * F0 Z* [% ^, p8 c& U! Z
    8.5.3  Reformer and Partial Oxidation Designs   .......................   257 $ E( Q! N/ Z2 G" |7 Q
    8.6  Practical Fuel Processing – Mobile Applications   .......................   263 * X0 [* O2 H5 k1 y. t0 j" ?0 G
    8.6.1  General Issues  ...............................................................   263 ! D7 a9 h# ]- E; B: O
    8.6.2  Methanol Reforming for Vehicles  ...................................   264 ( t3 A9 J! y; D0 Z. E3 `, R0 |
    8.6.3  Micro-Scale Methanol Reactors  .....................................   267 % x2 z4 _/ M' G% E0 \! W
    8.6.4  Gasoline Reforming   .......................................................   269
    * M# e. J) K$ Q. U& p8.7 Electrolysers  ..............................................................................  270
    ( }$ E8 N' k3 [- O! |8.7.1  Operation of Electrolysers   .............................................   270
    % L+ @% a; L) y8.7.2  Applications of Electrolysers   ..........................................   272 ' m% I3 {6 c3 \- \  Z# P, r/ n
    8.7.3  Electrolyser Efficiency  ....................................................   272
    + P( \; y- p1 A8.7.4  Generating at High Pressure   .........................................   273 ( s  P6 R0 c- Z* W/ N6 o
    8.7.5 Photo-Electrolysis  ..........................................................   275 $ R. W# W4 P6 \  r
    8.8  Biological Production of Hydrogen   ............................................   275
    3 m( ?4 U# n# n* r) i6 d8.8.1 Introduction  ....................................................................   275 # N  I- E) A$ i& x; W& Z
    8.8.2 Photosynthesis  ..............................................................   276
    . s& P; y0 g; m2 V* [8.8.3  Hydrogen Production by Digestion Processes  ...............   278
    & d) d% n. k# i5 a; m8.9  Hydrogen Storage I – Storage as Hydrogen   .............................   279 $ z5 T- A  G. M% Y2 f; n! B7 Z
    8.9.1  Introduction to the Problem  ............................................   279 & [: I2 v+ T  ?
    8.9.2 Safety  .............................................................................   280 # w6 h2 U# r9 C3 t% Q! L
    8.9.3  The Storage of Hydrogen as a Compressed Gas  ..........   282 : V+ A3 E( Z6 @' e
    8.9.4  Storage of Hydrogen as a Liquid   ...................................   284 . q% w$ B. {2 P4 R! [4 i2 Q
    8.9.5  Reversible Metal Hydride Hydrogen Stores  ...................   286 / V% h" h2 I( E: d2 y
    8.9.6  Carbon Nanofibres  .........................................................   289 2 A- i5 h" O+ {+ s' f" d
    8.9.7  Storage Methods Compared  ..........................................   291 , y# P# U  j0 G- S6 l/ u, ~
    8.10  Hydrogen Storage II – Chemical Methods  .................................   293
    7 F- h, H( b5 V  ^4 T! @8.10.1 Introduction  ....................................................................   293 ; u; d3 O$ x, z0 H% Y8 x1 }4 b
    8.10.2 Methanol  ........................................................................   293
    9 v/ G; W/ {' v, d8.10.3  Alkali Metal Hydrides   .....................................................   295 0 X$ t1 G" q9 e, W
    8.10.4  Sodium Borohydride   ......................................................   297
    4 ^) q3 g/ E+ U! {) I4 f8.10.5 Ammonia  ........................................................................   301 ) y/ S! o/ |/ C4 f4 N
    8.10.6  Storage Methods Compared  ..........................................   304 % R+ ]+ v' ~  o& z: f5 z/ ]
    References   .........................................................................................   305
    9 Q2 `% f4 ]  m% L5 w9.  Compressors, Turbines, Ejectors, Fans, Blowers, and
    + t% f) m6 z, P, w  A1 P/ ]Pumps  ......................................................................................   309
    : g1 U% t* m: C9.1 Introduction  ................................................................................  309
    1 t* j) u9 K1 l, ^9.2  Compressors – Types Used   ......................................................   310
    5 t! x% v1 |9 z9 d5 n4 N9.3  Compressor Efficiency  ...............................................................   312 4 W4 F9 P7 w* Q: L& R  R% |
    9.4  Compressor Power   ....................................................................   314
    1 r( }# H& L5 a8 {9.5  Compressor Performance Charts   ..............................................   315
    5 ]( p* ^5 j: _! U- ]: R9.6  Performance Charts for Centrifugal Compressors  .....................   318
    : ^# K( v! c% t( i5 e9.7  Compressor Selection – Practical Issues   ..................................   320
    1 I" q+ ?) ^  F" G8 I: f9.8 Turbines  .....................................................................................  321 . f7 u4 r7 i; V% \0 O
    9.9 Turbochargers  ...........................................................................  325
    8 u$ l' X$ \% C9.10  Ejector Circulators   .....................................................................   326 5 K1 b! f9 y+ {; l0 o: }2 `
    9.11  Fans and Blowers   ......................................................................   327 ' r, k: R; |0 ^, h
    9.12 Membrane/Diaphragm Pumps  ...................................................   328 0 O3 e7 s" G! G0 l
    References   .........................................................................................   330
      Q  E0 g$ A0 A) ]/ e1 w10.  Delivering Fuel Cell Power  .....................................................   331
    8 M9 p; l& e7 {0 p. K- _4 }10.1 Introduction  ................................................................................   331
    $ z! b- o7 X9 P5 S! r% K. y7 f" G/ F10.2  DC Regulation and Voltage Conversion   ....................................   332
    ( P7 _3 l' s$ w& L10.2.1  Switching Devices  ..........................................................   332
    % v2 N; y1 }, Z10.2.2  Switching Regulators   .....................................................   334 - C* i- Y. ]6 o/ ~
    10.3 Inverters  .....................................................................................   339
    / W* Q0 }& J% W5 M10.3.1  Single Phase  ..................................................................   339 5 L0 h0 S' p5 P6 @' w! S9 v( u
    10.3.2  Three Phase   ..................................................................   344 : Q+ o9 A) B% M0 C/ R) F* O; o1 M
    10.3.3  Regulatory Issues and Tariffs   ........................................   346 + [# u7 \' E3 N/ B6 v0 Y' k
    10.3.4  Power Factor Correction   ................................................   348 ( Y8 s( f8 y* R' F' [' Y
    10.4  Electric Motors   ...........................................................................   349 ! |: b' `1 Z3 E" r* G  k8 _
    10.4.1  General Points   ...............................................................   349
    5 n8 Q/ Q3 R5 H) T" b" A10.4.2  The Induction Motor   .......................................................   350
    4 h% H+ T- H1 S) c7 l10.4.3  The Brushless DC Motor  ................................................   352 / F( K5 M3 l; B; R  A3 V. j: `
    10.4.4  Switched Reluctance Motors   .........................................   355
    . X9 ?# Q: H/ p% U& P10.4.5  Motors Efficiency   ...........................................................   357
    0 V# E. I/ ]2 f/ ^9 }: \10.4.6  Motor Mass   ....................................................................   361 / K; A3 ^) t; S' _! \3 F
    10.5  Fuel Cell/Battery or Capacitor Hybrid Systems   .........................   362 0 c7 J; X# r, M4 U9 M8 o+ q
    References   .........................................................................................   367
    3 Z4 N6 X; K7 j6 _11.  Fuel Cell Systems Analyzed   ..................................................   369 6 P$ i* x; q! @
    11.1 Introduction  ................................................................................   369 5 S  h; N/ ~' f  ~% L. B- j. Y  L
    11.2  Energy Systems   ........................................................................   370 9 q0 r, B) S9 Y) F) f
    11.3 Well-To-Wheels Analysis  ...........................................................   371
    ; v1 @& p7 Z4 z+ P6 Y. M11.3.1  Importance of Well-to-Wheels Analysis   .........................   371
    $ b7 y: w2 ]2 f& ^+ m11.3.2 Well-to-Tank Analysis   ....................................................   372 / p+ ^, [3 R! X6 P" S; x4 B
    11.3.3  Main Conclusions of the GM Well-to-Wheels Study   ......   374
    9 @7 F4 E6 j# @" s9 \, W11.4  Power-Train or Drive-Train Analysis  ..........................................   375
    # y4 u0 T  h! C3 l9 i: K11.5  Example System I – PEMFC Powered Bus  ...............................   377 ' Q, K! {- Y& [/ V$ T
    11.6  Example System II – Stationary Natural Gas Fuelled System  ...   382
    , ?' W% y& d. i( u4 H11.6.1 Introduction  ....................................................................   382 : R, g, r) V/ I) e. Q* [7 R& B
    11.6.2  Flow Sheet and Conceptual Systems Designs   ..............   382
    / c) y+ o6 t+ H" ^/ s+ d, J  n3 l) b11.6.3  Detailed Engineering Designs   .......................................   386 $ G4 q6 R+ o( d( k- v& e+ b
    11.6.4  Further Systems Analysis   ..............................................   387
    ! e9 S& j4 x9 V: j# B' F& B11.7  Closing Remarks   .......................................................................   388
    0 x/ Q, n2 J5 ~, U5 T) [References   .........................................................................................   389 " U7 C1 A( r: `: \& G( I2 b
    Appendices
    5 ~" w- S. n, P: B+ _Appendix 1. Change in Molar Gibbs Free Energy Calculations  .........   391
    . Q( _# {) V: `1 D6 v6 H; VA1.1 Hydrogen Fuel Cell   ........................................................   391 ; v5 q2 c% r# k; n3 s$ A
    A1.2 The Carbon Monoxide Fuel Cell   ....................................   393 0 P$ w' }' Y2 L& D0 V7 O
    References   .............................................................................   394 2 {1 U2 q! ?; ?* u( Y( |( ~# j3 u
    Appendix 2. Useful Fuel Cell Equations  .............................................   395
    + x; W" r* i  W# `A2.1 Introduction  ....................................................................   395 ' g" y' W) E4 K  E' {8 W" L3 ]
    A2.2 Oxygen and Air Usage  ...................................................   396 * s' ~# }5 {/ C9 e6 o
    A2.3 Air Exit Flow Rate   ..........................................................   397 , y' L! E9 S3 i/ `) Q  G: q
    A2.4 Hydrogen Usage   ............................................................   398
    # A+ x( O8 `$ }3 ^9 A3 `5 FA2.5 Water Production   ...........................................................   399
    7 u5 K0 z# B! u/ FA2.6 Heat Produced   ...............................................................   399 / O) L, W8 G* ?) O" h. V  r
    Index   ...............................................................................................  401
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

    该用户从未签到

    尚未签到

    发表于 2009-6-16 16:46:45 | 显示全部楼层
    恩 这本书我手里也有 写的比较详细
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】
  • TA的每日心情
    开心
    2016-3-17 22:07
  • 签到天数: 2 天

    连续签到: 1 天

    [LV.1]初来乍到

    累计签到:2 天
    连续签到:1 天
    发表于 2009-6-16 16:46:45 | 显示全部楼层
    第二本比较新 06年出的 0 Q, Y( B7 l& k7 p4 E5 S3 e9 f
    CONTRIBUTORS xvii
    9 }! T( r- g  `8 B( v; M7 s2 nFOREWORD xix. ?/ x3 e: m2 X  z& i
    PREFACE xxi1 @0 m; s6 ~1 B( e
    ACKNOWLEDGMENTS xxiii
    ( j9 k0 m  T0 E+ D! z- M+ TABOUT THE AUTHORS xxv9 V# P$ m; l$ q
    1 ALTERNATIVE SOURCES OF ENERGY 1
    ( u+ z, ^0 {5 P4 e% I1.1 Introduction 1. ]& c& G5 }# N
    1.2 Renewable Sources of Energy 2
    # n8 X4 J1 c3 b1 [1.3 Renewable Energy Versus Alternative Energy 4& N! `) Q& m7 A/ l/ g# V1 Z) U
    1.4 Planning and Development of Integrated Energy 8
    ) S% U/ m* ^5 g1.4.1 Grid-Supplied Electricity 9
    / b& I1 |8 Y4 h$ t3 l. s- c+ J% j1.4.2 Load 10# b  V) _% d7 O. Z& x
    1.4.3 Distributed Generation 10) B. I+ e, v, `& G% ^' G8 r
    1.5 Renewable Energy Economics 11
    9 u; D( J4 s8 q" e( s1.5.1 Calculation of Electricity Generation Costs 12
    0 J1 b, J$ g$ F3 x- ?6 f6 Y; {1.6 European Targets for Renewables 14/ C9 Y4 _: f! |0 A  |
    1.6.1 Demand-Side Management Options 15
    1 Q6 G% {# ?+ g, s1.6.2 Supply-Side Management Options 16
    $ a  H4 \1 k+ I3 q- a8 O1.7 Integration of Renewable Energy Sources 19. }4 s2 n* F1 K8 _; n
    1.7.1 Integration of Renewable Energy in the United States 208 t" J7 n5 j  S7 }. j* Q! C, M
    1.7.2 Energy Recovery Time 215 D' o! e1 x  \" i3 i: ^, {5 L
    1.7.3 Sustainability 23
    4 x  Y, V8 J, ^5 @1.8 Modern Electronic Controls of Power Systems 268 Z7 F  Y9 }* L% W: z, U( f( Z
    References 27. h3 ^0 q9 o2 @, @7 ~$ v9 d% M! a; j
    2 PRINCIPLES OF THERMODYNAMICS 282 s$ s* j) d# b% z* T
    2.1. Introduction 289 F8 Z9 a6 P- \3 [+ E! c) }
    2.2. State of a Thermodynamic System 29" M, n9 n  R- B6 {/ t
    2.3. Fundamental Laws and Principles 36/ n! q0 B9 C2 b0 n+ F; Z% A- E. \  N, L
    2.3.1 Example in a Nutshell 37- l3 {, F  U+ @& F, W; |. t3 x
    2.3.2 Practical Problems Associated with Carnot Cycle Plant 40
    1 s2 l3 l4 _& [% }$ b' u2.3.3 Rankine Cycle for Power Plants 419 p1 u/ I6 O( x: j* C. D
    2.3.4 Brayton Cycle for Power Plants 44
    + {3 I3 G  X/ C! T2.3.5 Energy and Power 46% S, q) `$ }! W8 q' L# G
    2.4 Examples of Energy Balance 47, i2 L; E+ h, M3 q7 g2 e$ Z8 ^- `
    2.4.1 Simple Residential Energy Balance 47
    ) N- P( I$ j+ n2.4.2 Refrigerator Energy Balance 48
    % L8 O) P* k3 h# B' @% }$ J8 R2.4.3 Energy Balance for a Water Heater 49; }' z1 ]( S6 [8 n
    2.4.4 Rock Bed Energy Balance 51
      k: C" E5 Y) {6 `  E) |" U2.4.5 Array of Solar Collectors 51& @' B% _- T* L4 a  ^5 b
    2.4.6 Heat Pump 52
    ' u* t6 _4 \  E' x2.4.7 Heat Transfer Analysis 535 J8 C& o" \2 W' l3 F
    2.5 Planet Earth: A Closed But Not Isolated System 548 a$ k; M! T, r% j
    References 56( u" [2 d3 H* p& R- H0 S) {; z
    3 HYDROELECTRIC POWER PLANTS 57  M# c8 W+ v, v2 V9 h7 l; }
    3.1 Introduction 57
    5 M& o$ T) S+ ~; j3.2 Determination of the Useful Power 581 B: i4 S9 D! h, x. E+ \
    3.3 Expedient Topographical and Hydrological Measurements 60
    % q6 n$ n9 t. P6 s/ n3.3.1 Simple Measurement of Elevation 609 o, Y7 P* U8 V4 W, N, [
    3.3.2 Global Positioning Systems for Elevation Measurement 60
    2 C" M8 J1 n" j1 e% k: g3.3.3 Specification of Pipe Losses 62
    $ v* x; G1 I3 ~3.3.4 Expedient Measurements of Stream Water Flow 638 m4 i/ j7 u8 ~9 B
    3.3.5 Civil Works 67% K  Y: a0 D8 t- o& w
    3.4 Generating Unit 679 w( g5 D6 ]+ }/ l2 B* X
    3.4.1 Regulation Systems 67
    2 l. e) l0 P) Q2 P3.4.2 Butterfly Valves 68" x& Z3 w! e2 S" ?" r# T. F6 _2 [- F+ Q
    3.5 Waterwheels 68" B9 t- s, [, H
    3.6 Turbines 70/ P/ k+ o5 `" J; D( c* ~
    3.6.1 Pelton Turbine 71
    ! o8 u5 B7 G6 x$ _$ m, [( i, Z3.6.2 Francis Turbine 74
    7 M4 P3 @8 n9 q& m1 ^3.6.3 Michel–Banki Turbine 772 V) d$ v6 L9 h, n7 {% J* |
    3.6.4 Kaplan or Hydraulic Propeller Turbine 79
    % ?4 |6 u! r- z9 q3.6.5 Deriaz Turbines 80
      V/ f' ~% s: [3.6.6 Water Pumps Working as Turbines 80
    1 P+ R8 v' a" o% w3 @6 O7 f3.6.7 Specification of Hydro Turbines 81
    # v8 r% U, g/ z% nReferences 829 y/ g8 q$ t% c  C+ D4 w5 \" P
    4 WIND POWER PLANTS 846 {# z% G9 ~3 u
    4.1 Introduction 848 L$ Y0 M# j, Z! C
    4.2 Appropriate Location 854 ]. h! J$ o$ G9 i
    4.2.1 Evaluation of Wind Intensity 85$ b0 q1 D! ]5 y- k
    4.2.2 Topography 93
    ( \# W& d% x" g$ f- G4.2.3 Purpose of the Energy Generated 95
      T5 q& c$ S' n# B  y- @" u4.2.4 Means of Access 95
    " O( m5 c# t0 F; h4.3 Wind Power 95
    ! k; ^- }4 s6 v3 c5 S4.4 General Classification of Wind Turbines 972 M2 s* Y/ S/ r( S# t: d0 `
    4.4.1 Rotor Turbines 99
    " q( K3 B7 Z, {! p! Y" X4.4.2 Multiple-Blade Turbines 99
    ! s* H3 W" L8 H( k; D4.4.3 Drag Turbines (Savonius) 100( d( T/ V! W9 T9 n# c
    4.4.4 Lifting Turbines 1015 Y. q  k# d% @  ?7 n) m
    4.4.5 System TARP–WARP 1024 `" ]! j: F9 Z) Z0 n
    4.4.6 Accessories 103
    ) _' `, f* N, S4.5 Generators and Speed Control Used in Wind Power Energy 104
    3 F8 j+ ~. r5 q; O! Y4.6 Analysis of Small Generating Systems 107
    & ?; x' K- r1 u7 R9 K! VReferences 110
      Q$ H) N9 y1 @8 f& O* c5 E5 THERMOSOLAR POWER PLANTS 1124 w2 N$ q: @& U  P5 z
    5.1 Introduction 112! t9 ~  S' w6 P
    5.2 Water Heating by Solar Energy 112
    % n; g3 T: [3 |5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 115) t! G' K' A0 b+ \
    5.4 Heating Domestic Water 118
    % K! Y2 Q4 a2 S5 E( S5.5 Thermosolar Energy 119
    ) G2 p1 }' Q1 w. y5.5.1 Parabolic Trough 120
      v$ H( G) u. T. `1 T5.5.2 Parabolic Dish 122
    5 Z: c( s5 X* o/ H5.5.3 Solar Power Tower 124
    9 T7 `/ P3 n3 j. v" D' i2 c) z5.5.4 Production of Hydrogen 125: ]  b% G0 N( @1 y1 z+ g+ H$ |
    5.6 Economical Analysis of Thermosolar Energy 126
    1 Z0 z6 W0 _. r' f0 f8 }: W& [" {References 127
    ) o: s5 e8 b4 }# ?0 {% rCONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129
    " Z! f. x; S7 A5 b, p7 d6.1 Introduction 129& |& ^/ d  t/ D4 k; W; k3 L
    6.2 Solar Energy 130/ ]& p' o: h( @6 M) ?7 x
    6.3 Generation of Electricity by Photovoltaic Effect 132
    ) |& O# `4 I6 b) G6.4 Dependence of a PV Cell Characteristic on Temperature 135
    8 F! }8 L0 Q: o, B2 \' B6.5 Solar Cell Output Characteristics 137
    ! f# n% J' O- @5 D! x6.6 Equivalent Models and Parameters for Photovoltaic Panels 1390 V" U8 S3 |9 c( h5 ?; p
    6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 140. H  }. [5 _/ \2 p
    6.6.2 Model of a PV Panel Consisting of n Cells in Series 1422 n$ q# y/ Z) [% l
    6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 144+ j* X/ Y: o* a* a; z* J$ A- N) G
    6.7 Photovoltaic Systems 145
    $ q- Q& R5 l1 M2 h. }. H6.7.1 Illumination Area 146
    * ?; v6 l+ P8 H( B6.7.2 Solar Modules and Panels 146
    3 f( T% r4 ?. w  j' K. W6.7.3 Aluminum Structures 146
    % q* l5 e" {! W6.7.4 Load Controller 148" O5 V* P6 F9 E: f$ {, u: q! _
    6.7.5 Battery Bank 148
    ; E2 ]. d( }+ y2 @; ^6.8 Applications of Photovoltaic Solar Energy 149
    ! p3 z  o4 E8 B, t9 z/ O5 L6.8.1 Residential and Public Illumination 149
    " q# Z6 y8 o* ?2 ^1 ~- Z5 X6.8.2 Stroboscopic Signaling 150
    ! S* ~0 J$ Y! \6 s7 f4 S8 b6.8.3 Electric Fence 1500 ], L( ~0 d  S  q
    6.8.4 Telecommunications 151) F; a6 L+ _7 m4 N- n# C
    6.8.5 Water Supply and Micro-Irrigation Systems 1518 k" U5 i' L$ N
    6.8.6 Control of Plagues and Conservation of: l6 \& H8 G# V8 }- H
    Food and Medicine 153
    7 r, V& B# g) A7 [6.8.7 Hydrogen and Oxygen Generation by Electrolysis 154
    " t9 v" i  n: b- J8 h* n- i  i% n6.8.8 Electric Power Supply 155
    9 N7 a- e2 R* o$ o& E6.8.9 Security and Alarm Systems 156
    , e# A' @4 f4 O) j. B5 n$ z' R6.9 Economical Analysis of Solar Energy 156
    9 v% |# V' B& ]9 yReferences 157& G' m& R' B* s  e
    7 POWER PLANTS WITH FUEL CELLS 159
    & U0 W! A( _6 P7.1 Introduction 159
    : s$ ?0 t# A" A: O( U8 e7.2 The Fuel Cell 160, a& @1 @6 h# P$ B. Y2 m) L8 w' ?
    7.3 Commercial Technologies for Generation of Electricity 1627 X7 z/ E4 J8 ]' c4 z0 t
    7.4 Practical Issues Related to Fuel Cell Stacking 1699 z3 s( K4 k, D( o1 A
    7.4.1 Low- and High-Temperature Fuel Cells 169
    6 c1 r: A' R8 d0 m7 m, I( M& y7.4.2 Commercial and Manufacturing Issues 170
    . K# y; j( B# ~; ~- v8 mx CONTENTS7.5 Constructional Features of Proton Exchange
    ' P4 e+ r; A; {3 G5 \. {2 A  ?Membrane Fuel Cells 171, v% P8 ?; f+ ~# t3 \6 f+ {
    7.6 Constructional Features of Solid Oxide Fuel Cells 1731 X- q8 _# u8 c  Z9 R; Z
    7.7 Water, Air, and Heat Management 175
    7 S9 X6 T$ c0 o2 e0 t! D7.8 Load Curve Peak Shaving with Fuel Cells 176! \' N3 G, ]) x: h
    7.8.1 Maximal Load Curve Flatness at Constant Output Power 176
    , G9 N+ H$ T9 T/ C5 O7.8.2 Amount of Thermal Energy Necessary 178
    ( m* j( e; F% v9 G' S) Q7.9 Reformers, Electrolyzer Systems, and Related Precautions 180  f& \+ S8 u. f9 s  ^% Y2 ?" W9 N
    7.10 Advantages and Disadvantages of Fuel Cells 181/ ~! L* {) X! I: R
    7.11 Fuel Cell Equivalent Circuit 182
    ( \$ c5 S( T1 W7 v7.12 Practical Determination of the Equivalent Model Parameters 188# G% K% Q; c4 s
    7.12.1 Example of Determination of FC Parameters 191! g5 M  R5 v5 r0 J
    7.13 Aspects of Hydrogen as Fuel 194! j, ?4 V6 G4 v4 z
    7.14 Future Perspectives 195
    0 U" L6 Q- \+ Z9 f# F9 I; dReferences 196
    + z- _6 Z0 G" V4 x8 BIOMASS-POWERED MICROPLANTS 198
    * S) e3 b1 \3 r0 z6 b  R8.1 Introduction 198! y8 t$ k1 S& {
    8.2 Fuel from Biomass 202
    % ^5 g: W7 X- I+ h0 I( O8.3 Biogas 204  v3 H  ~' I+ }% E+ z4 X
    8.4 Biomass for Biogas 205
    " ?% T0 W+ I1 f3 Q' M# E  W: J8.5 Biological Formation of Biogas 206
    . y7 I& P, Z+ i8.6 Factors Affecting Biodigestion 207( U4 a" J4 y5 K1 j- B2 H. [
    8.7 Characteristics of Biodigesters 209  S1 H+ F, y1 h, V+ N& z
    8.8 Construction of Biodigester 2100 I5 J9 @4 K% }
    8.8.1 Sizing a Biodigester 211
    ! v" I- A; A* F+ p, O; c9 c8.9 Generation of Electricity Using Biogas 211
    - b& S3 |5 U5 ?References 214- c- n7 m* ~" D' x  b" {
    9 MICROTURBINES 215* E3 O; i8 a, |7 M5 W, t7 x
    9.1 Introduction 215
    9 s! k% R' I+ W+ [9.2 Princples of Operation 217
    ) c$ _8 l( B; x! b( L9.3 Microturbine Fuel 2192 V# I* [  z, x& e
    9.4 Control of Microturbines 2201 r- o2 T* o& p1 A8 y  w) J  L
    9.4.1 Mechanical-Side Structure 220
    3 S& u7 R4 y* x. N9.4.2 Electrical-Side Structure 222# o& ?) f  l. V, k  y! W
    9.4.3 Control-Side Structure 2242 Y2 f3 E- V; Z( y
    CONTENTS xi9.5 Efficiency and Power of Microturbines 228/ u4 E2 P; K7 V2 C) V# C
    9.6 Site Assessment for Installation of Microturbines 230
      h( T% X0 w4 i' h$ t4 @3 L* K; LReferences 231
    0 c- M5 {8 F; E6 n10 INDUCTION GENERATORS 233
    , }! R2 c& m+ T9 p- |0 M# G10.1 Introduction 2336 R! E, C* a7 J- ^2 ^+ U
    10.2 Principles of Operation 234
    3 v: ?' E4 b: P# F10.3 Representation of Steady-State Operation 236* h2 h. L" V0 J7 `  E; [& A
    10.4 Power and Losses Generated 237
    + f* t! l0 R! {10.5 Self-Excited Induction Generator 240  C: n9 m" T$ l  m9 Y. @
    10.6 Magnetizing Curves and Self-Excitation 242
    : y5 _- v" |% M% a" h; j10.7 Mathematical Description of the Self-Excitation Process 2431 Q. l/ a% \" R1 [, e; d3 x
    10.8 Interconnected and Stand-Alone Operation 246$ e. Q* e# I5 f4 G' \5 J6 I
    10.9 Speed and Voltage Control 248' U7 ^- m  y; W3 ~* \; J( r- M
    10.9.1 Frequency, Speed, and Voltage Controls 249
    4 s! j1 D; l& ^! I; K1 j! e+ Y% ~10.9.2 Load Control Versus Source Control
    - p# n. h* v/ p+ k, f  wfor Induction Generators 250
    & y! u6 a) i; V7 R9 t3 w1 g/ u8 Y2 X10.9.3 The Danish Concept 2547 I, a0 e" r2 ~8 O! U' q, i, w( o# ]. T
    10.9.4 Variable-Speed Grid Connection 255' b5 Z6 d& _+ O' r2 U( M/ I2 {' j% r
    10.9.5 Control by the Load Versus Control by& y$ F* ]* E6 H) d. ?4 A
    the Source 256. E  d; @! E9 s9 l+ k
    10.10 Economical Aspects 258' ?" A* W( v, P/ k  D
    References 2594 J# I  |0 Y2 i1 k2 `
    11 STORAGE SYSTEMS 262# l7 l$ }. c% j5 k
    11.1 Introduction 262& Q, ?0 I& }7 {; x" W+ u
    11.2 Energy Storage Parameters 2653 U, b4 [3 G( Q$ M. f
    11.3 Lead–Acid Batteries 2684 S/ B* V% T! W
    11.3.1 Constructional Features 268
    / A: Q7 z3 z! o& R11.3.2 Battery Charge–Discharge Cycles 269
    * Y( I& a! U7 Z3 s9 H11.3.3 Operating Limits and Parameters 271' l# t; ^) y! G2 C
    11.3.4 Maintenance of Lead–Acid Batteries 273
    " E6 Q, T$ @9 |- U11.3.5 Sizing Lead–Acid Batteries for DG Applications 2738 C# b: o! q3 z: G+ n3 @
    11.4 Ultracapacitors 276
    ! ^) T# H, V5 w' G* K! K9 X; r11.4.1 Double-Layer Ultracapacitors 277
    8 ]$ I. a$ R; S' w11.4.2 High-Energy Ultracapacitors 278( @! |! E# q3 ~5 I
    11.4.3 Applications of Ultracapacitors 279
    0 U4 F' y- ^% S, x2 |2 z8 A3 vxii CONTENTS11.5 Flywheels 2823 \: R% ]* A4 G$ J2 U3 {$ g: G
    11.5.1 Advanced Performance of Flywheels 282
    & X! P, g* p* u, m( O11.5.2 Applications of Flywheels 282( w/ m8 [- h, \( A) C$ w0 A' ^/ T
    11.5.3 Design Strategies 284' O" A1 d, _3 K( j2 w0 A# E/ s
    11.6 Superconducting Magnetic Storage System 286
    ) X# f  d! [4 g* ~5 x$ N11.6.1 SMES System Capabilities 287
    8 l8 Y. S! i3 r; X  B( m8 z, F11.6.2 Developments in SMES Systems 288
    1 @& u) h( G1 c6 ]11.7 Pumped Hydroelectric Energy Storage 290) ]' h  G$ ^* ^1 `$ g6 Y/ M! V" I
    11.7.1 Storage Capabilities of Pumped Systems 291
    # ^0 w* `- L1 f( ]: o+ T11.8 Compressed Air Energy Storage 2927 W1 K2 W) n6 m* @
    11.9 Storage Heat 294+ J0 k; `) D& q8 E& L
    11.10 Energy Storage as an Economic Resource 295: ?8 w6 n3 {9 v! w' N
    References 299
    ; }) h/ i( @% l* Z% E/ l" }12 INTEGRATION OF ALTERNATIVE SOURCES/ D- ?5 x: b: A4 x( m3 O3 a; L
    OF ENERGY 301
      M: ^+ u' j9 x( o- J1 [" I  P12.1 Introduction 301. G3 C. r7 i+ S: I# B1 ~; v
    12.2 Principles of Power Injection 302
    ! D- F$ m8 \  P; `" @' n3 |) s12.2.1 Converting Technologies 302
    + w) c5 b3 m2 O5 p7 r5 }12.2.2 Power Converters for Power Injection
    5 u; \: a4 q( h. Dinto the Grid 304
    ' z1 ]" E( U* G( {- B) o( U9 ]* j12.2.3 Power Flow 306
    ) Q% g/ ~" d' W+ {3 W$ L' ~12.3 Instantaneous Active and Reactive Power, ^  [& b; U7 `# ~
    Control Approach 309
    2 {$ f; O; n( F1 v  l. |5 }12.4 Integration of Multiple Renewable Energy Sources 312
    6 z4 k5 t/ K8 @& I" {, a- K12.4.1 DC-Link Integration 315
    . `% k7 ~2 P) ]8 c12.4.2 AC-Link Integration 316
    , d: ^7 }; Q. c4 d; c& k12.4.3 HFAC-Link Integration 317
    5 d5 v( b- I- P3 `" d12.5 Islanding and Interconnection Control 320; R8 q5 F- d, M/ P- T% o4 ^' @7 I( \
    12.6 DG Control and Power Injection 325
    3 T+ h8 x# Y1 ~9 B; }7 |6 BReferences 331
    + R( _5 N/ k, y1 C1 u0 E3 d13 DISTRIBUTED GENERATION 333
    / @% E0 h- b- ^: N& m3 g13.1 Introduction 333
      J: D7 A; G* q% Z1 |- C7 k13.2 The Purpose of Distributed Generation 335
    9 d' A# w3 Z( q: `! P% _13.3 Sizing and Siting of Distributed Generation 338
    / y1 e7 ~" z+ P0 A& s13.4 Demand-Side Management 339
    4 X+ h4 f3 s3 S: k- J0 x& H13.5 Optimal Location of Distributed Energy Sources 340
    ! w3 |& S% O  p- GCONTENTS xiii13.5.1 DG Influence on Power and Energy# c5 w7 [# g. t. w5 ]! h, W
    Losses 3429 F$ W+ G! U5 B1 ]
    13.5.2 Estimation of DG Influence on Power5 n7 c& ~7 X4 Q" b8 {1 R' K, G
    Losses of Subtransmission Systems 346) x9 D& k. D9 W6 u$ J9 A
    13.5.3 Equivalent of Subtransmission Systems
    ) {5 k! G+ a# H$ mUsing Experimental Design 348
    ( _) h# j7 ^$ r& |' A  ^. A! i13.6 Algorithm of Multicriterial Analysis 3504 K! {" D# d# L
    References 352
    1 F, x3 D6 q! X$ X/ d& g4 G14 INTERCONNECTION OF ALTERNATIVE ENERGY
    ; g% z( i! f, ~/ J( S* b6 U( ASOURCES WITH THE GRID 3549 S$ A9 ]0 v( N) K1 }6 t% ]
    Benjamin Kroposki, Thomas Basso, Richard DeBlasio,
      c7 v8 C$ ]2 Q4 vand N. Richard Friedman
    . Q: g( R3 [% e  @# H9 O2 N14.1 Introduction 354
    . p  n2 W( e9 O/ [3 s$ j14.2 Interconnection Technologies 357
    ) b% n7 D- `# c& Y: }/ ]% E" r14.2.1 Synchronous Interconnection 357
    $ g+ l8 G+ x5 \' A, h3 w14.2.2 Induction Interconnection 358
    4 {: \% D3 M, s14.2.3 Inverter Interconnection 3596 o+ [" M- G. y0 N# M, J" s$ a( k
    14.3 Standards and Codes for Interconnection 359
    7 g' ]( C" B8 ~7 x14.3.1 IEEE 1547 360
    1 F1 U7 _4 Y+ z5 i% `" w7 r14.3.2 National Electrical Code 361
    / E: f" S+ l6 U, L: L14.3.3 UL Standards 362
    7 {3 v! ^6 z' s" L% M0 t' ]14.4 Interconnection Considerations 3644 G# u2 s+ {9 K0 J' K) s
    14.4.1 Voltage Regulation 364' G' q, C) {5 J& q2 Y' U/ p
    14.4.2 Integration with Area EPS Grounding 3652 _; P1 ?- U: U! s' ^) E
    14.4.3 Synchronization 3650 }6 p, S5 [1 r* t0 W
    14.4.4 Isolation 365
    5 O8 i" Q0 Q9 i/ h14.4.5 Response to Voltage Disturbance 366- n; J5 u# y( H
    14.4.6 Response to Frequency Disturbance 367  X$ p6 I, G9 J- ~  _
    14.4.7 Disconnection for Faults 368
    % t, X7 a$ P8 F' }3 _' Z9 D7 P; o6 D5 p14.4.8 Loss of Synchronism 369
    6 v! y( k; g  O6 D; U4 [7 P14.4.9 Feeder Reclosing Coordination 369
    + q  t- d% w0 q0 G* q0 K% q5 P14.4.10 DC Injection 370& @8 g( K6 B7 ?; [
    14.4.11 Voltage Flicker 371
    5 F/ q# T+ W# @5 r; }14.4.12 Harmonics 371
    5 ]4 m; D! r6 J, O* c: A) }$ @14.4.13 Unintentional Islanding Protection 373# O5 J$ f: g6 Q. N# o1 ?4 i
    14.5 Interconnection Examples for Alternative Energy Sources 373+ S# V1 D" A) t
    14.5.1 Synchronous Generator for Peak Demand Reduction 3752 d4 B' l, i  b
    xiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 375
    " E  h8 T& e; s  i! W" gReferences 378
    ) x/ |, r! z$ {+ h, q/ \15 MICROPOWER SYSTEM MODELING WITH HOMER 379; M5 ^' g1 m# s9 r
    Tom Lambert, Paul Gilman, and Peter Lilienthal, N0 J6 [2 a7 E9 G+ v
    15.1 Introduction 3795 N2 R2 p: N+ g! k3 J
    15.2 Simulation 381$ g$ M6 d1 O3 ?) I7 l" n' G
    15.3 Optimization 385, `) E! k' f  Y9 J- _
    15.4 Sensitivity Analysis 388
    9 z- r# k4 }9 k" E& U/ x15.4.1 Dealing with Uncertainty 389
    - O' _# n  _' v2 J- i0 k0 W15.4.2 Sensitivity Analyses on Hourly Data Sets 391( o/ p5 {+ `& Y/ e% S: t2 h2 W
    15.5 Physical Modeling 393. C! Y+ j2 _. a- \
    15.5.1 Loads 393! |# Q. z3 ]; ^8 Z6 ]5 o  k+ Y' n
    15.5.2 Resources 395
    " h/ @4 h. `; ]* B! g4 I7 ^15.5.3 Components 3977 C+ n5 f. g' g
    15.5.4 System Dispatch 408
    : n; z& O. ?: ?( [15.6 Economic Modeling 4149 H; W: f. S$ H3 q1 s5 r1 d
    References 416! C. `  U+ w! l+ q
    Glossary 4160 U$ M) o$ W2 A; ~& u) J. i
    APPENDIX A: DIESEL POWER PLANTS 419+ i2 m4 Y7 D" b1 D* `* f  @# V0 y
    A.1 Introduction 419
    + {+ q$ b- `' g3 ]( sA.2 Diesel Engine 420
    + G- ~( c9 b+ `# gA.3 Principal Components of a Diesel Engine 421
    2 J0 t! F# X2 r' c9 F' e& n) {A.3.1 Fixed Parts 421" U$ b: x# Y2 I/ ^) @! [* D
    A.3.2 Moving Parts 421
    ( @) ]; `( N: n& B7 Y# dA.3.3 Auxiliary Systems 422
    # l9 ~0 U: F+ p. Q1 [1 @" W  zA.4 Terminology of Diesel Engines 422
    + c0 M; L+ Q4 }A.4.1 Diesel Cycle 422( i% M$ G( y0 P
    A.4.2 Combustion Process 424) y; K2 K7 i* H4 E. i
    A.5 Diesel Engine Cycle 425
    5 B6 e5 v, Q7 l1 T; j5 Y+ ^A.5.1 Relative Diesel Engine Cycle Losses 425) B0 ~+ F  e4 d$ e) v( b$ @/ K# h
    A.5.2 Classification of Diesel Engines 426
    0 ~" Y, [& @9 @7 F9 `1 d/ [A.6 Types of Fuel Injection Pumps 4273 ?6 p/ I- O1 A0 @& N
    A.7 Electrical Conditions of Generators Driven by6 J: l4 A- A* \$ _
    Diesel Engines 427
    5 E* n, R9 ]4 W- d* W, ^8 w" wReferences 429
    . E3 m. @, g, l" b' w; l3 MCONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 431; k: s+ Y; g' \$ x! I- M
    B.1 Introduction 431
    9 ]( `! n2 d& S; uB.2 Geothermal as a Source of Energy 432
    ; c7 `; N9 f# Q2 d! LB.2.1 Geothermal Economics 434
    ) d& \% h, x0 D- T9 j  s  l  fB.2.2 Geothermal Electricity 435/ U, E& F+ G' b, F
    B.2.3 Geothermal/Ground Source Heat Pumps 436' N. A+ i! F( T  k6 h3 K
    References 437
    " i0 w& f2 _. y0 Y& kAPPENDIX C: THE STIRLING ENGINE 438! p1 N1 l9 D) r6 B" s" f
    C.1 Introduction 438
    7 Y/ p' q$ C: w0 i* CC.2 Stirling Cycle 4397 T+ e+ m( w0 f1 M+ T% O3 c
    C.3 Displacer Stirling Engine 442( r- E, ]9 B' m( S5 q( O. v+ t# g
    C.4 Two-Piston Stirling Engine 4440 ^. J0 Z  Q) \+ O
    References 446
    $ n4 Y: J9 N- ?4 b2 u/ V4 i" gINDEX 447
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

    该用户从未签到

    尚未签到

    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。
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】
  • TA的每日心情
    擦汗
    2021-1-29 14:27
  • 签到天数: 8 天

    连续签到: 1 天

    [LV.3]偶尔看看II

    累计签到:9 天
    连续签到:1 天
    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。
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】
  • TA的每日心情
    难过
    2021-4-5 10:03
  • 签到天数: 3 天

    连续签到: 1 天

    [LV.2]偶尔看看I

    累计签到:3 天
    连续签到:1 天
    发表于 2009-6-25 21:43:51 | 显示全部楼层
    英文,有些恐怖呀!
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

    该用户从未签到

    尚未签到

    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
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】

    该用户从未签到

    尚未签到

    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
    "真诚赞赏,手留余香"
    还没有人打赏,支持一下
    帖文化:【文明发帖 和谐互动】 社区精神:【创新、交流、互助、共享】
    您需要登录后才可以回帖 登录 | 立即加入

    本版积分规则

    招聘斑竹

    小黑屋|手机版|APP下载(beta)|Archiver|电力研学网 ( 赣ICP备12000811号-1|赣公网安备36040302000210号 )|网站地图

    GMT+8, 2026-3-17 00:50

    Powered by Discuz! X3.5 Licensed

    © 2001-2025 Discuz! Team.

    快速回复 返回顶部 返回列表