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第二本比较新 06年出的
6 }- Z# ]- l8 l# iCONTRIBUTORS xvii+ K2 H2 M( j5 J. W5 i) ]/ b' r# l
FOREWORD xix
! g% i2 x3 Z; [% d! U4 C' ~PREFACE xxi
( m; y8 P3 l$ y$ q0 W. T/ eACKNOWLEDGMENTS xxiii. x$ q+ L$ m. `0 m S8 v1 T3 w6 m
ABOUT THE AUTHORS xxv' z& t2 L; m, s
1 ALTERNATIVE SOURCES OF ENERGY 16 c7 d( z9 Y, o8 W
1.1 Introduction 1
: W$ A3 K9 E4 s# y P1 P7 \' y- o1.2 Renewable Sources of Energy 2; J3 Q% v1 X% w9 F/ g8 D0 c
1.3 Renewable Energy Versus Alternative Energy 4$ n1 J% s2 e3 }
1.4 Planning and Development of Integrated Energy 8& X) v" `# N9 _1 ]( P
1.4.1 Grid-Supplied Electricity 93 Z9 g" P+ }- d
1.4.2 Load 10
2 r' B# q, z; u% f1 e1 m1.4.3 Distributed Generation 10& ?3 |/ A3 ~9 l& ]+ t1 p& G. e5 z
1.5 Renewable Energy Economics 112 e" n& P( N) G0 a
1.5.1 Calculation of Electricity Generation Costs 12
: q$ M0 @" K: d" ?- z1.6 European Targets for Renewables 14- l S+ P6 L9 h0 l9 X
1.6.1 Demand-Side Management Options 15+ y( x( ~) H: H4 ?" n' V- z
1.6.2 Supply-Side Management Options 16
- S' O4 Q; H% Y# s1.7 Integration of Renewable Energy Sources 19: U0 Z4 K* Y4 O8 T
1.7.1 Integration of Renewable Energy in the United States 20
1 a1 e5 _& H7 ]" J$ i1.7.2 Energy Recovery Time 210 d, N& V) N! I4 h1 O$ }* G
1.7.3 Sustainability 23
; X; ~4 f5 ^9 N* F4 f1.8 Modern Electronic Controls of Power Systems 26
6 h! L3 U5 M3 M+ i7 VReferences 27
\+ O7 u* o2 Y9 T% ?! g: G3 ^2 PRINCIPLES OF THERMODYNAMICS 28, ?6 r6 q( }+ Q7 \% J; B
2.1. Introduction 28, E9 ]' {( k* k" }* z2 p% t) Y& c& l+ ~
2.2. State of a Thermodynamic System 29
* @$ \" P3 S6 W% D$ b2.3. Fundamental Laws and Principles 360 n n2 o0 o' y
2.3.1 Example in a Nutshell 377 x0 G' V8 m; K+ B
2.3.2 Practical Problems Associated with Carnot Cycle Plant 40
) [& W, Q, g% J2.3.3 Rankine Cycle for Power Plants 411 |% k7 P; ~3 z/ p5 Y9 E
2.3.4 Brayton Cycle for Power Plants 44
# @% D9 }4 f5 ~8 }, ~2.3.5 Energy and Power 46' D8 D, _$ F3 e5 F3 X1 t3 i# d4 b
2.4 Examples of Energy Balance 47
2 r3 m1 O# @6 V1 p/ u' s I2.4.1 Simple Residential Energy Balance 472 G/ B: o: |1 l) M& j
2.4.2 Refrigerator Energy Balance 488 r& G$ K0 y2 @( g, }7 F9 Y9 ~+ q
2.4.3 Energy Balance for a Water Heater 493 n& m9 d$ C; P! w" d! X
2.4.4 Rock Bed Energy Balance 511 _" z1 y- B, [ B$ L
2.4.5 Array of Solar Collectors 515 o3 @! _7 ?5 r1 ^% [4 s0 S& D
2.4.6 Heat Pump 52
* A: S& f3 j! D0 g2.4.7 Heat Transfer Analysis 53
, G, e& n6 E- s3 m2.5 Planet Earth: A Closed But Not Isolated System 54
7 ~" ?+ \+ n* p* }- g$ IReferences 56. Q0 \6 ^; H2 f
3 HYDROELECTRIC POWER PLANTS 57
# y) }. F1 ]% i3.1 Introduction 57
. p! o" ^5 @ u3.2 Determination of the Useful Power 58, y3 ~/ J' C o& R
3.3 Expedient Topographical and Hydrological Measurements 60* c" m7 v9 ^, x! r0 N8 `
3.3.1 Simple Measurement of Elevation 601 [. }0 F o' m% \+ f
3.3.2 Global Positioning Systems for Elevation Measurement 60/ Y, q3 `# g8 q
3.3.3 Specification of Pipe Losses 62
$ D2 e7 n W, I4 k5 S0 B3.3.4 Expedient Measurements of Stream Water Flow 631 B+ x6 w0 X* j& k
3.3.5 Civil Works 67
1 U+ N. N/ e2 b. T2 X3.4 Generating Unit 67, E& \# }' m( b4 r' ]
3.4.1 Regulation Systems 67
+ }& A& D6 u! B: V3.4.2 Butterfly Valves 68
% S/ H6 B: [, u1 [6 h3.5 Waterwheels 68, ]& J7 s+ y* D
3.6 Turbines 702 w$ R9 p6 Q$ B, p! ?+ U
3.6.1 Pelton Turbine 71) a/ Q# _& P' Y* R& x! \' X
3.6.2 Francis Turbine 74* d: c( }6 a$ `
3.6.3 Michel–Banki Turbine 77! b* K9 ]" d. Z9 M! A
3.6.4 Kaplan or Hydraulic Propeller Turbine 792 r4 T' Q E7 D
3.6.5 Deriaz Turbines 80' t5 G) K8 I% p6 e+ V0 t, m1 c
3.6.6 Water Pumps Working as Turbines 80
' h! n3 S: T5 O) X; N3.6.7 Specification of Hydro Turbines 81
- k M7 Z' P# a5 ^( S/ uReferences 82
7 }2 k$ I$ x- `5 G0 m9 ^4 WIND POWER PLANTS 84- y* C6 ~: {. D6 j
4.1 Introduction 847 q" F# O5 ?0 k" T
4.2 Appropriate Location 85, N0 ]7 Q0 ` G
4.2.1 Evaluation of Wind Intensity 85
5 z# J! a; D r0 c4.2.2 Topography 931 }/ y3 J7 T$ b) n2 W6 Q7 \
4.2.3 Purpose of the Energy Generated 95
i- s6 o6 e: ^" u1 F% C, y1 }; i8 ?4.2.4 Means of Access 95/ T+ y9 I& W- m& {% T R
4.3 Wind Power 95
5 Y' s% }+ y4 a4.4 General Classification of Wind Turbines 97
4 f) K# Y# N6 n( J5 Q4.4.1 Rotor Turbines 99
" J% j& W" }4 k1 |4 r4.4.2 Multiple-Blade Turbines 99
# e9 u# c$ ~: a! t7 Z: t' G7 g" q4.4.3 Drag Turbines (Savonius) 100, T2 }& H/ N# J/ l0 |. w
4.4.4 Lifting Turbines 1012 L: c/ ?1 c, o% L" |
4.4.5 System TARP–WARP 102& W: P3 a6 J! R& t
4.4.6 Accessories 1036 ~! W+ m8 z" j9 }3 y4 J4 m% l2 a
4.5 Generators and Speed Control Used in Wind Power Energy 104
$ R4 R9 B6 @" H' ~2 I4.6 Analysis of Small Generating Systems 107
7 J1 O+ i- i4 bReferences 110
# K* ^/ j2 Y) G4 \5 THERMOSOLAR POWER PLANTS 112 V" _( d+ {3 C
5.1 Introduction 112# n- S0 R0 S' a5 A$ C6 V+ R
5.2 Water Heating by Solar Energy 112
6 C+ {2 Z& `* G! Q+ `0 i/ P5.3 Heat Transfer Calculation of Thermally Isolated Reservoirs 115( L# a! c0 W5 j6 _9 o: y* g
5.4 Heating Domestic Water 118
) G7 ?( c# V. N G5.5 Thermosolar Energy 119% c2 Q+ B% ^$ a* L0 I" c; j! B
5.5.1 Parabolic Trough 120% r' [2 H2 ?, T/ n
5.5.2 Parabolic Dish 122
6 Y$ W4 j, c9 @1 J/ n& G0 m5.5.3 Solar Power Tower 124
+ a% ]: f3 f' G1 p; i5.5.4 Production of Hydrogen 125) F2 W3 C+ I" X) a# ]' `* N
5.6 Economical Analysis of Thermosolar Energy 126& b, I) @7 z, l! |
References 127( t' b; Y$ |$ m" i
CONTENTS ix6 PHOTOVOLTAIC POWER PLANTS 129
0 `4 |% R F0 h9 i. i% Z) l1 q; ?6.1 Introduction 1290 H1 Y# b+ c' W* f# A( ^7 K/ P1 f
6.2 Solar Energy 130
7 W- u! t( Q0 h* z3 i* |7 k6.3 Generation of Electricity by Photovoltaic Effect 132
* G9 v8 B; ^' t- Z' y( m6.4 Dependence of a PV Cell Characteristic on Temperature 135" k7 T3 A3 I: P2 E7 H
6.5 Solar Cell Output Characteristics 1372 u% c0 V2 b& N; ]6 C
6.6 Equivalent Models and Parameters for Photovoltaic Panels 139
" C) I9 |) `7 B2 g- E5 }6.6.1 Dark-Current Electric Parameters of a Photovoltaic Panel 140
3 H" I* h" a4 G4 X2 ?4 w6 [6.6.2 Model of a PV Panel Consisting of n Cells in Series 142
$ a% a; L! \1 U9 ~# \) Y$ m6.6.3 Model of a PV Panel Consisting of n Cells in Parallel 1443 {/ }+ l% l Z; t7 t' `( z. K
6.7 Photovoltaic Systems 145
3 L0 d1 n7 S9 G1 q) D9 n6.7.1 Illumination Area 146
. @+ r, X8 i% {2 I; T' }! R: w6.7.2 Solar Modules and Panels 146
: X' P+ e X- Q( z6.7.3 Aluminum Structures 1469 m3 C: c4 X" n: C, q. w9 Z) {
6.7.4 Load Controller 148* m" `" x/ y1 m; }! N
6.7.5 Battery Bank 148
' t3 S# S* @' z5 L" ^0 D5 p6.8 Applications of Photovoltaic Solar Energy 1496 E" \4 b6 s) X
6.8.1 Residential and Public Illumination 1495 @5 Q. w0 e s
6.8.2 Stroboscopic Signaling 150
6 ]. S$ p |5 u( t6.8.3 Electric Fence 150
/ o6 A3 D+ L9 ?* ]+ h( r6.8.4 Telecommunications 151
% J; h% P V0 }- ~6.8.5 Water Supply and Micro-Irrigation Systems 1514 X( t) S j9 c, O; L
6.8.6 Control of Plagues and Conservation of! K+ e" s# C6 E2 l
Food and Medicine 153
0 g# U( c0 p; |- b+ `4 E6.8.7 Hydrogen and Oxygen Generation by Electrolysis 1543 E' u; ^, q/ _
6.8.8 Electric Power Supply 155
0 ^- p/ Z2 m( ?# D' J6 b6.8.9 Security and Alarm Systems 1568 l4 Q' R( ~# P& {7 h
6.9 Economical Analysis of Solar Energy 1566 E0 Q; Q' B. A3 s, A" e }& C2 n; _
References 157
2 \5 p T/ [) Q. W/ E2 e% }$ }7 POWER PLANTS WITH FUEL CELLS 1595 q/ h( S1 g3 Y( o; s5 O
7.1 Introduction 159
* W/ @* K4 i4 p5 r4 y* g4 f7.2 The Fuel Cell 160
4 B6 _1 c$ j1 M* A2 l$ Y7.3 Commercial Technologies for Generation of Electricity 162
3 X( K& m4 u! ~ R, t; V; I& A0 T9 a' m7.4 Practical Issues Related to Fuel Cell Stacking 1692 k( @8 y u% P: ~5 l
7.4.1 Low- and High-Temperature Fuel Cells 169- u. T: M5 |9 b" r
7.4.2 Commercial and Manufacturing Issues 170, N; D0 ?& r# m7 }- ^- N# w# s3 t. j
x CONTENTS7.5 Constructional Features of Proton Exchange/ Q: |, r2 i9 x J
Membrane Fuel Cells 1710 N5 M ?* z0 a) @0 j
7.6 Constructional Features of Solid Oxide Fuel Cells 173
1 A/ t2 Z8 ?, u7.7 Water, Air, and Heat Management 175
: [% u( H1 A/ k2 y5 k4 L7.8 Load Curve Peak Shaving with Fuel Cells 176+ F) k/ U5 S4 e; O! W; V5 f3 A J& r
7.8.1 Maximal Load Curve Flatness at Constant Output Power 176' X1 ]/ `5 c# \. h0 ^( ?
7.8.2 Amount of Thermal Energy Necessary 178
% L$ ^' l- b2 W7 i) t7.9 Reformers, Electrolyzer Systems, and Related Precautions 180
5 H9 U: a; A3 ?+ p7.10 Advantages and Disadvantages of Fuel Cells 181
5 I d9 M$ H9 c9 c, @8 p* Q7.11 Fuel Cell Equivalent Circuit 182
; z$ g8 V" `3 A- ~8 P1 i) r4 m7.12 Practical Determination of the Equivalent Model Parameters 188
8 n/ m# ^+ Y, Z! ]: b0 _) |7.12.1 Example of Determination of FC Parameters 191
3 }0 ]) I+ s5 s- E0 t7.13 Aspects of Hydrogen as Fuel 194
- ~- G. T P" F- d- U- e8 c7.14 Future Perspectives 195
0 |! l ?) |3 S b8 MReferences 196/ C. ]/ q# m0 N! _0 T7 @
8 BIOMASS-POWERED MICROPLANTS 198( O4 {9 ^/ O7 v( @ r( p3 I2 m
8.1 Introduction 198
* l0 O9 ]( y# ?6 x# w2 n; ^6 i' _8.2 Fuel from Biomass 202% a) a7 y0 H& R5 O6 F+ v
8.3 Biogas 204: E' e( ^ z, H8 a$ X* E% v
8.4 Biomass for Biogas 205
3 i- k |" j: v' a& Q4 [/ C: \8.5 Biological Formation of Biogas 206
" T) @# @' g) c/ S4 c& @4 [: V8.6 Factors Affecting Biodigestion 2075 R$ H' W8 T7 b- Z2 V
8.7 Characteristics of Biodigesters 209; p+ y3 y8 H/ |5 _8 O3 B# j
8.8 Construction of Biodigester 210
) b* L; h! ~4 C& h6 X8 ]9 |0 d8.8.1 Sizing a Biodigester 211
' ]9 j. M: a$ f* o$ y% I; W8.9 Generation of Electricity Using Biogas 211
/ d1 Z4 }3 F7 z! R; j' _References 214
Y. G. E- f4 W$ t1 J1 K9 MICROTURBINES 215
# A2 S* |& q+ n, X. V) G/ q9.1 Introduction 215/ }; a5 d; f0 I
9.2 Princples of Operation 217
* M' p' s) O' w& V8 {3 J. ?9.3 Microturbine Fuel 219' h! B9 k$ D7 Y* N& `
9.4 Control of Microturbines 220
" O& O- @6 N5 d* q9.4.1 Mechanical-Side Structure 220/ K1 p5 E$ ]- Y i
9.4.2 Electrical-Side Structure 222
7 M, M% U" m: u! m9.4.3 Control-Side Structure 224) Z" t* m3 y! k* t1 t
CONTENTS xi9.5 Efficiency and Power of Microturbines 228
4 }) P' C; U8 |" e1 g$ R9.6 Site Assessment for Installation of Microturbines 230
( y3 D8 @: J. V5 U9 d2 |References 231
7 v) B( x. m1 H. \) F- i- w4 v10 INDUCTION GENERATORS 233$ ^; D* z. h) m* S( r' v
10.1 Introduction 233
$ ?9 ^. [* l3 c( _& f, v/ g10.2 Principles of Operation 234
/ E7 V3 K- I% d8 q) |( ~" Q10.3 Representation of Steady-State Operation 236$ y& E. j3 o: A3 t3 D% F
10.4 Power and Losses Generated 2376 `/ K7 b9 e7 Q% R. I5 L
10.5 Self-Excited Induction Generator 240
# s" _ p* n5 \* K% ? g" F. T10.6 Magnetizing Curves and Self-Excitation 2425 P; N W+ [3 I# W, q
10.7 Mathematical Description of the Self-Excitation Process 243
1 T6 b3 }* S) Z- o3 Q10.8 Interconnected and Stand-Alone Operation 246
1 s' k$ G$ H% H$ u+ K10.9 Speed and Voltage Control 248
% a/ v; }8 [' [& H5 C- g. }7 e: C10.9.1 Frequency, Speed, and Voltage Controls 249
4 }$ o+ j( y/ x7 y* I9 ^10.9.2 Load Control Versus Source Control
! _0 |3 s8 j6 c' Lfor Induction Generators 250
0 ~! @$ R9 k5 c' ]: ?10.9.3 The Danish Concept 2540 y0 M- c0 Z/ i5 i! y$ S( d
10.9.4 Variable-Speed Grid Connection 255
4 x( o. P/ [; ]7 l, E10.9.5 Control by the Load Versus Control by/ k. O1 S2 b l( U+ t
the Source 256
( W; W( `! |" p2 ]7 E10.10 Economical Aspects 258* _* S$ a7 _1 B4 @2 y' O
References 2599 G' y" j9 U# C( K$ W; J
11 STORAGE SYSTEMS 2625 x E; o9 I/ V, N
11.1 Introduction 262; T, c, r6 y! r( d9 V
11.2 Energy Storage Parameters 265
) l0 j9 f& d) d6 F# a/ R11.3 Lead–Acid Batteries 268
3 @4 I( R' B, S$ x11.3.1 Constructional Features 268
# P$ [% }5 o, d6 y' {11.3.2 Battery Charge–Discharge Cycles 2699 r, s" f( S, r
11.3.3 Operating Limits and Parameters 271
5 X1 I* ^8 x- f! k# t8 E6 S11.3.4 Maintenance of Lead–Acid Batteries 2733 D- z" z X$ X! ]" f# a
11.3.5 Sizing Lead–Acid Batteries for DG Applications 273; ]$ C% r) H$ C X8 r4 g& R
11.4 Ultracapacitors 276
! x8 n& @' y4 q0 k, M11.4.1 Double-Layer Ultracapacitors 277
8 J5 U) J" M6 b5 f' {* i" |! a$ J( P11.4.2 High-Energy Ultracapacitors 278
% G$ Q7 f! I* f+ C3 A& `- X, D11.4.3 Applications of Ultracapacitors 279
q( V' [; Z: pxii CONTENTS11.5 Flywheels 282
+ u! X( [& Y2 Q, d8 E& q, |8 M11.5.1 Advanced Performance of Flywheels 282( j" p! ~; n) F6 q
11.5.2 Applications of Flywheels 282
0 K* _! m: c+ n! n$ C11.5.3 Design Strategies 284
1 l- G* n1 P4 a6 Y11.6 Superconducting Magnetic Storage System 286) }3 i5 Z6 T+ Z: a- z) k
11.6.1 SMES System Capabilities 287
* [4 K. T. Q0 q4 T" U9 X11.6.2 Developments in SMES Systems 288
% d; h* v% X c+ i E) a3 S11.7 Pumped Hydroelectric Energy Storage 290; f5 c- J5 s4 d/ x( Q
11.7.1 Storage Capabilities of Pumped Systems 2918 ]& {7 R" T4 z% t
11.8 Compressed Air Energy Storage 292
L9 I& a- m! ^( r$ e& f11.9 Storage Heat 294
& u% H( f5 G% }11.10 Energy Storage as an Economic Resource 295' `5 X, q- D j( }
References 299' ]$ ]: [2 ?* i4 ~% b. n- f
12 INTEGRATION OF ALTERNATIVE SOURCES) Z2 x; E! p; R/ n! @( W0 ]
OF ENERGY 3014 {3 |: U: r# J
12.1 Introduction 301
+ L$ ?, v$ [0 c/ u n( b12.2 Principles of Power Injection 302" _9 G5 j& n+ `6 O/ t
12.2.1 Converting Technologies 302" ]+ D& g- y1 L6 M. j' v
12.2.2 Power Converters for Power Injection
* s! _. v& y& @; Z0 J* a4 ^2 ]2 k$ Xinto the Grid 3049 }* s- R# `; P6 k- V0 t% U. G3 R
12.2.3 Power Flow 306
. I% n; v& \8 q# o2 ~% S1 i12.3 Instantaneous Active and Reactive Power2 m& m h# X! X2 g" Q+ Y2 u
Control Approach 309
5 I" d, Z2 F/ L- i( e, I' i) _12.4 Integration of Multiple Renewable Energy Sources 312
S4 N8 K5 a, i5 {8 B12.4.1 DC-Link Integration 315
& a/ ~! g! X; @5 ~12.4.2 AC-Link Integration 316& \9 L% S: G# {6 N9 l6 C4 t
12.4.3 HFAC-Link Integration 3177 {. [5 ~# a" c7 R3 w
12.5 Islanding and Interconnection Control 3207 L; R" F* f% A* X4 S7 t% g
12.6 DG Control and Power Injection 325
0 D' D3 G: R* N- K8 FReferences 3312 ^; D ?7 S' V q2 L7 c
13 DISTRIBUTED GENERATION 333) K3 O+ W! t& W: Z5 V! R
13.1 Introduction 333. n& n/ B6 ?7 ?& d! G0 M2 q
13.2 The Purpose of Distributed Generation 335
m3 x( N; W5 H1 n" V13.3 Sizing and Siting of Distributed Generation 338
2 U1 v" N) `+ r d) N; g* B13.4 Demand-Side Management 339& O# V, z3 ?: {1 R! ?
13.5 Optimal Location of Distributed Energy Sources 340
' A$ v; o" x' Q1 f6 k9 O0 G* oCONTENTS xiii13.5.1 DG Influence on Power and Energy+ b& _8 u, Q1 h4 Q: k
Losses 342
6 Y4 \& W+ q+ n. H! }- {13.5.2 Estimation of DG Influence on Power
5 K5 ^+ }$ X& k. A6 c5 cLosses of Subtransmission Systems 3460 y7 f# V. ?" k9 B- X- g: E e
13.5.3 Equivalent of Subtransmission Systems" d3 p; ]; O& m; c% x% _/ I( L
Using Experimental Design 348; [4 w/ V' J T; H: H; B9 d6 t
13.6 Algorithm of Multicriterial Analysis 350
1 F7 m2 l5 D( J( LReferences 352
+ |$ T" K, O/ w& ?# L8 P9 T. {14 INTERCONNECTION OF ALTERNATIVE ENERGY) q$ t0 A9 M. O( I" o
SOURCES WITH THE GRID 3546 I5 P% \+ y+ |% d; ^+ d) O
Benjamin Kroposki, Thomas Basso, Richard DeBlasio,* `& H6 |( z5 u0 ^
and N. Richard Friedman
# U3 f( |% U; p. o. A9 {- ]14.1 Introduction 354' ?$ [& J2 F) `. b4 I
14.2 Interconnection Technologies 357# c b z1 k) Q, x4 f
14.2.1 Synchronous Interconnection 357* c- l9 d, y' i. ? B) F- V
14.2.2 Induction Interconnection 358
0 O% J" T+ X( Z& A5 U14.2.3 Inverter Interconnection 359- l& {$ y \5 y: R% ]; h
14.3 Standards and Codes for Interconnection 359
6 I& Q1 D i. \+ I14.3.1 IEEE 1547 3605 N$ Q; w1 P2 X: C
14.3.2 National Electrical Code 361* {( K- Y- D1 g. Q& m
14.3.3 UL Standards 3627 q' N% p. @" T$ I; N9 x
14.4 Interconnection Considerations 364
+ X+ h- r% ~3 x3 \+ D$ b14.4.1 Voltage Regulation 364
+ H0 A) n& N* U) _$ ^14.4.2 Integration with Area EPS Grounding 365
8 ~7 _1 w6 Z) X, g) b+ R% M" w9 X14.4.3 Synchronization 365, F6 i; Z# P' O! ^
14.4.4 Isolation 365, w2 F) I% y5 J1 e& @4 y' g
14.4.5 Response to Voltage Disturbance 366 B3 g* W W: s9 O
14.4.6 Response to Frequency Disturbance 3676 ^# a! u6 G( x; G: A2 C( [
14.4.7 Disconnection for Faults 368
" V; O8 p; u/ h* S14.4.8 Loss of Synchronism 3693 O9 A( q) s& N7 ~) g
14.4.9 Feeder Reclosing Coordination 3696 {' W3 M" R$ a- W3 {) f
14.4.10 DC Injection 370
/ p: }- g: b5 a& L& m7 ]3 w14.4.11 Voltage Flicker 371
+ ^2 F6 R( r9 P; D5 }2 k4 Q14.4.12 Harmonics 371
0 j+ B0 I) p1 g+ L6 \) D8 o, k2 j14.4.13 Unintentional Islanding Protection 373
+ G: E3 Q3 L0 U% i+ T1 @1 ~ x14.5 Interconnection Examples for Alternative Energy Sources 3733 T0 S9 l8 l8 n5 @
14.5.1 Synchronous Generator for Peak Demand Reduction 375- y) \1 k% L0 n" e
xiv CONTENTS14.5.2 Small Grid-Connected Photovoltaic System 375
- @$ C8 V& A" h" b) B4 K/ TReferences 378: D. X( n/ I% |; `: H4 n: c3 ?$ Y
15 MICROPOWER SYSTEM MODELING WITH HOMER 379
" i3 l+ b |$ d" k% XTom Lambert, Paul Gilman, and Peter Lilienthal
) ~9 ?: o8 B; r" o$ H p3 _$ d15.1 Introduction 379
% E; s2 E# H' s# Y15.2 Simulation 381, f+ U! O6 K6 m* J2 k# H, R
15.3 Optimization 385. k% |+ @! G8 u- N' p
15.4 Sensitivity Analysis 3881 ` E/ j, H% ^" z" }1 V
15.4.1 Dealing with Uncertainty 389' ]: e* h! b! k, u0 ?7 |8 F: H
15.4.2 Sensitivity Analyses on Hourly Data Sets 3916 [- e5 f& J9 W3 }# O/ h7 X
15.5 Physical Modeling 393
g3 \' l( i+ X15.5.1 Loads 393
2 S% [0 S A! x* O$ v$ W15.5.2 Resources 3957 t/ E9 x8 R$ ^) B
15.5.3 Components 397
5 m. v6 u1 c. s) u15.5.4 System Dispatch 4089 k& g( f8 l$ z4 p/ E7 @" s
15.6 Economic Modeling 414* w5 w2 Y' v) X! ^2 V: t( ^* R" h" @
References 416 q/ m! J* {* t, X* {6 J
Glossary 416
3 y- L+ b4 [7 f* PAPPENDIX A: DIESEL POWER PLANTS 4191 I G: e! W3 P% ~% N- r* n. v5 |( H
A.1 Introduction 4190 d7 U o# N9 I/ Q$ ], ?/ {4 A
A.2 Diesel Engine 420
7 Y, \1 d Y, G: Z& cA.3 Principal Components of a Diesel Engine 421( d9 b0 c) G& `; @, ]' P
A.3.1 Fixed Parts 421
4 T6 l- H3 x# Z0 q* n& }* z5 KA.3.2 Moving Parts 421
' k! R; y/ H: R+ v, p" oA.3.3 Auxiliary Systems 422
2 N9 Z# ?; B' N; vA.4 Terminology of Diesel Engines 422 b% |: Q8 ~+ A
A.4.1 Diesel Cycle 422# G8 O, C) }' Z
A.4.2 Combustion Process 424
r( U$ N ^: y- E3 L. KA.5 Diesel Engine Cycle 425$ M$ c# |: a t3 j% c. p& H2 Y
A.5.1 Relative Diesel Engine Cycle Losses 425
! w8 l8 b! t/ Z& a$ f6 F3 e- UA.5.2 Classification of Diesel Engines 426
- q1 ^. Q) e8 L; u! r5 `4 MA.6 Types of Fuel Injection Pumps 427
6 E, i2 o5 v6 K& r1 SA.7 Electrical Conditions of Generators Driven by
0 p3 Z( u& \8 i1 N! K* j5 q% KDiesel Engines 4277 |; f3 h: K% Z. r% s r( T
References 429
1 @% ^: ~7 Z5 C5 C5 F; {5 yCONTENTS xvAPPENDIX B: GEOTHERMAL ENERGY 431, s8 W0 k2 @; H+ q6 Q5 Z
B.1 Introduction 431: L2 ~- g6 Z0 I$ ?+ X; [# I
B.2 Geothermal as a Source of Energy 432
# N. a3 p' _- UB.2.1 Geothermal Economics 434
. [: A/ { T' y& |B.2.2 Geothermal Electricity 435
- A/ {, ~( Y' Q5 EB.2.3 Geothermal/Ground Source Heat Pumps 436
0 m2 I5 u$ V; D% }0 J9 fReferences 437
5 T# W- B" X5 P4 O, A0 [7 z; dAPPENDIX C: THE STIRLING ENGINE 438
7 P$ d- y# ^: r4 UC.1 Introduction 438* u7 A g& b3 P5 k8 s9 L
C.2 Stirling Cycle 439
$ J* q1 D' U9 T, LC.3 Displacer Stirling Engine 442' c/ w h5 m$ q/ U" p) h# l
C.4 Two-Piston Stirling Engine 444
) p; \" d8 [' \" c3 E' o7 RReferences 4463 v$ Y5 M, ?" \6 n/ u. ~
INDEX 447 |
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