电子图书
电子图书名:
Solar Energy Fundamentals And Modeling Techniques
编者:
Zekai Sen
内容简介:
Atmospheric and environmental pollution as a result of extensive fossil fuel exploitation in almost all human activities has led to some undesirable phenomena that have not been experienced before in known human history. They are varied and include global warming, the greenhouse affect, climate change, ozone layer depletion, and acid rain. Since 1970 it has been understood scientifically by experiments and research that these phenomena are closely related to fossil fuel uses because they emit greenhouse gases such as carbon dioxide (CO2) and methane (CH4) which hinder the long-wave terrestrial radiation from escaping into space and, consequently, the earth troposphere becomes warmer. In order to avoid further impacts of these phenomena, the two main alternatives are either to improve the fossil fuel quality thus reducing their harmful emissions into the atmosphere or, more significantly, to replace fossil fuel usage as much as possible with environmentally friendly, clean, and renewable energy sources. Among these sources, solar energy comes at the top of the list due to its abundance and more even distribution in nature than other types of renewable energy such as wind, geothermal, hydropower, biomass, wave, and tidal energy sources. It must be the main and common purpose of humanity to develop a sustainable environment for future generations. In the long run, the known limits of fossil fuels compel the societies of the world to work jointly for their replacement gradually by renewable energies rather than by improving the quality of fossil sources.
Solar radiation is an integral part of different renewable energy resources, in general, and, in particular, it is the main and continuous input variable from the practically inexhaustible sun. Solar energy is expected to play a very significant role in the future especially in developing countries, but it also has potential in developed countries. The material presented in this book has been chosen to provide a comprehensive account of solar energy modeling methods. For this purpose, explanatory background material has been introducedwith the intention that engineers and scientists can benefit from introductory preliminaries on the subject both from application and research points of view.
所属专业方向:
Solar Energy
出版社:
来源:
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本帖最后由 calabazas 于 2010-8-9 12:22 编辑
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: C3 T; z: V& e% b1 w( O' Z) i4 P Solar Energy Fundamentals And Modeling Techniques : Atmosphere, Environment, Climate Change And Renewable Energy H: T3 S% ~( Q2 J) g
Zekai Sen
2 N7 J, C& |6 s* x ] b Edition : 1st
$ s, m# j! r1 q4 m2 r Year : [2008]
! c A+ P( }" K. r' ^) [* {3 F
6 n9 M: n/ z% s2 @# p
Solar Energy Fundamentals and Modeling Techniques.part1.rar
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Solar Energy Fundamentals and Modeling Techniques.part2.rar
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/ q+ ]* ?7 U4 k% I% x+ r) i2 O [Contents]
7 V6 U5 `; _( {, j8 \" v $ ]; I- @( A- g ~0 U
1 Energy and Climate Change
0 t- R: N1 O; ~ D* a& E% v Y- \ 1.1 General
9 N. e, X- ~1 }8 L' h: [% |# Q 1.2 Energy and Climate.
. k& \7 q, E% Y, w 1.3 Energy and Society U7 w* g- ^8 x
1.4 Energy and Industry
3 F2 b1 l4 L; t$ ^( { 1.5 Energy and the Economy5 }4 r/ b5 |; i/ H5 O
1.6 Energy and the Atmospheric Environment9 d. f: L3 l' ^( U/ K. s
1.7 Energy and the Future; h& f# {1 U& y
References" U# s3 I( I( l4 c2 \- m# K
2 Atmospheric Environment and Renewable Energy
: \7 g- F9 u) \& i; l 2.1 General
% f% V4 W( L9 B 2.2 Weather, Climate, and Climate Change
; [% B4 k/ E4 W 2.3 Atmosphere and Its Natural Composition9 n0 n1 w& E, ]+ E6 p
2.4 Anthropogenic Composition of the Atmosphere* m/ q" g2 s% h. @+ a
2.4.1 Carbon Dioxide (CO2)
' Q* @+ r- z& Z# M1 Y$ R4 z1 ~; x9 q 2.4.2 Methane (CH4)* y9 F7 P- g" O% M
2.4.3 Nitrous Oxide (N2O)
; \2 f8 k' N& d4 p4 l 2.4.4 Chlorofluorocarbons (CFCs)
. _+ [9 L! |2 }% P% Y/ E9 p3 s 2.4.5 Water Vapor (H2O).
4 }3 c4 m9 e( I+ s9 o6 m) {5 j 2.4.6 Aerosols.
, f1 b# q8 P; i 2.5 Energy Dynamics in the Atmosphere% O; y: t% B3 P& C1 k' k& x+ @8 w
2.6 Renewable EnergyAlternatives and Climate Change
! C8 }2 T$ e2 I% T 2.6.1 Solar Energy
3 k' o: t! I2 \- F) l 2.6.2 Wind Energy
7 W M! x. z L" l' I# E1 s 2.6.3 Hydropower Energy
A( r; I8 L3 [$ M 2.6.4 Biomass Energy5 U6 Q5 x; R" a6 ?+ e$ u" o
2.6.5 Wave Energy
$ X% j# p6 y# y2 X4 V 2.6.6 Hydrogen Energy8 N% J: B! z4 X- t: r$ t
2.7 Energy Units( F f& o3 u, Q& p% a$ u
References( Q% [; O* w- I' A
3 Solar Radiation Deterministic Models
y7 u! |8 M; k# P- ?& V3 z$ W 3.1 General
9 i- u" d! M. g3 t4 i. A* M( C 3.2 The Sun0 Q1 M- ?' y, k! n
3.3 Electromagnetic (EM) Spectrum
4 f: B6 M$ F$ f$ C$ | c 3.4 Energy Balance of the Earth.+ F; _2 f& N3 a3 R* q3 ]+ S6 L
3.5 EarthMotion/ q/ n' u) C7 X5 J$ E
3.6 Solar Radiation
* H/ i+ j, }* J! ]# T. w/ Q# M( m 3.6.1 Irradiation Path5 y5 I3 a, W ~' o3 |8 p6 R9 b% W% F
3.7 Solar Constant
: P8 k3 @% K, n 3.8 Solar Radiation Calculation w2 z7 _1 y: n9 f
3.8.1 Estimation of Clear-Sky Radiation8 O$ x7 Y3 G# b: B, M
3.9 Solar Parameters
2 B3 v, m, y' `; E 3.9.1 Earth’s Eccentricity
' F6 P9 y8 o0 W3 r6 ~, z 3.9.2 Solar Time
V/ L9 |$ j+ w/ b. e 3.9.3 Useful Angles# N; Q ]2 Z! u3 y+ {, y5 q
3.10 Solar Geometry
+ [4 p/ N$ \( |5 j+ h" W: n 3.10.1 Cartesian and Spherical Coordinate System
/ U! o& l6 G7 I1 G 3.11 Zenith Angle Calculation
* p0 f$ ^+ B5 r8 a1 S. R 3.12 Solar Energy Calculations
- J! K2 r* ^5 U7 o. t; D! ? Q7 x+ d 3.12.1 Daily Solar Energy on a Horizontal Surface
3 ~1 [0 r( O, U4 H; q! m 3.12.2 Solar Energy on an Inclined Surface
/ W% `3 Q1 q5 h, ~ 3.12.3 Sunrise and Sunset HourAngles.' z2 A: j/ I% {0 j0 h/ o$ ]
References2 S9 `; o8 h% q
4 Linear Solar Energy Models
# S+ K) }( |% ^- S& [! y5 k6 u1 N 4.1 General
& D( F& k9 @* a1 @+ X 4.2 Solar Radiation and DaylightMeasurement
% F% t, Q, l1 o0 {) K% ^/ K0 y' ] 4.2.1 Instrument Error and Uncertainty3 G. l4 L# d& N6 `3 z
4.2.2 Operational Errors4 q3 Z6 i- A8 Q2 s+ x3 O# \1 [
4.2.3 Diffuse-Irradiance Data Measurement Errors) d% L0 v7 o1 c4 s% u& l7 r+ ~
4.3 Statistical Evaluation ofModels
e* U1 v Y! n* e4 g 4.3.1 Coefficient of Determination (R2)
, j4 l9 m! a* O; o% V, Y 4.3.2 Coefficient of Correlation (r)
! r# V3 A8 e; }7 r$ e0 C% G 4.3.3 Mean Bias Error, Mean of Absolute Deviations,& p9 p( y# S/ R% i0 p
and RootMean Square Error
. Q/ m) @% a! X- w. t- { 4.3.4 Outlier Analysis
! D/ F3 { W+ E- \: e6 y7 z 4.4 LinearModel: e* p; C9 x5 g" x8 A: M, k
4.4.1 AngströmModel (AM)
; u" Z% T( W3 P 4.5 Successive Substitution (SS) Model
* A' c% d0 ^4 S. x; I 4.6 UnrestrictedModel (UM)
: c/ ?0 Z9 f% O 4.7 Principal Component Analysis (PCA) Model8 t6 C; e) W, @" M4 y# \2 I
4.8 Linear ClusterMethod (LCM)* i [/ @6 D ~; r" U) ]# c) w! \' k
References
, s! @0 B' G- h! }& q/ m2 s- Z 5 Non-Linear Solar Energy Models m) ?4 N+ L- i% X' ]; h/ D/ z1 G
5.1 General
# h8 Y1 `+ [" p! j6 i0 } 5.2 Classic Non-LinearModels
1 ?( o% Z2 X# m! K9 F; B 5.3 Simple PowerModel (SPM): ?6 ~& F% ~' n5 E6 c, c' d
5.3.1 Estimation ofModel Parameters
4 I! ~- m- |1 g l 5.4 Comparison of DifferentModels
- H( i3 `" q8 ?" _( o% [ Q: J1 G 5.5 Solar Irradiance Polygon Model (SIPM)- I. ?2 J1 K" n9 x b" @
5.6 Triple Solar IrradiationModel (TSIM)3 ]1 b4 _9 ?3 y, ?- Q/ [# y. l2 W, t
5.7 Triple Drought–Solar IrradiationModel (TDSIM)& b7 d6 }- c- V. n! n# |
5.8 Fuzzy LogicModel (FLM).8 l0 }( e6 j% B f! h# E% t" P4 P1 i
5.8.1 Fuzzy Sets and Logic: N8 z1 w$ d. f' r
5.8.2 Fuzzy AlgorithmApplication for Solar Radiation7 ~. E) j9 z( A: p. Y
5.9 Geno-FuzzyModel (GFM)
, j C0 Z5 P( t3 K' Q) k" D- y 5.10 Monthly Principal Component Model (MPCM)7 H! \4 v G8 e' B) D0 Y% W
5.11 Parabolic Monthly IrradiationModel (PMIM); F, f9 w0 i& g
5.12 Solar Radiation Estimation fromAmbient Air Temperature0 x* z! A6 H* R9 W4 ^: x! U3 b( n
References
6 E4 H& T, ^1 X1 M/ { 6 Spatial Solar Energy Models
2 _7 w% E# P' E+ Z. C 6.1 General1 Z* w# G3 q5 V4 v* I
6.2 Spatial Variability' u4 E6 l8 d8 Q) Z+ Z& I; R; J
6.3 Linear Interpolation.
4 a; y% z3 q/ N/ G, w3 h 6.4 GeometricWeighting Function4 \# `2 J6 n8 d4 M4 {* @1 F$ q
6.5 Cumulative Semivariogram(CSV) andWeighting Function3 ` ?$ |0 _- X4 P
6.5.1 Standard Spatial Dependence Function (SDF)
. ~( p! C) d8 ]0 U/ [ 6.6 Regional Estimation- a# Y" N4 B0 S# p
6.6.1 Cross-Validation
1 Z1 r8 ]5 H4 j2 }# o2 @ d' K @ 6.6.2 Spatial Interpolation" s3 p; o9 z: i
6.7 General Application) C' R/ |, H( I4 p& l* ?- |
References. B+ ^1 V$ G) ~: n; T' R9 ]
7 Solar Radiation Devices and Collectors
+ }3 B2 t# Y: c* r4 {2 V' V 7.1 General5 A% W# [; N3 b u a* W! y- o
7.2 Solar EnergyAlternatives# Q3 x+ C6 D& R! L0 E
7.3 Heat Transfer and Losses) c" o) C: u' n; P
7.3.1 Conduction
N+ \) o/ x- N# n/ V( b& F ~ 7.3.2 Convection
' H, v8 d0 R8 E s 7.3.3 Radiation8 A8 p Z* O6 i8 Q% y1 e+ j
7.4 Collectors; l$ Y- B8 a- M4 S: ?5 G9 a. s
7.4.1 Flat Plate Collectors9 W- p9 Z9 Q$ o' Q0 @5 y
7.4.2 Tracking Collectors% Q+ X3 d9 b/ {6 j
7.4.3 Focusing (Concentrating)Collectors
0 y) p5 Q' h$ e1 i 7.4.4 Tilted Collectors4 o# Q- B5 R9 U7 q6 e& L9 O
7.4.5 Solar Pond Collectors, Z" ~$ W1 q3 ?& I
7.4.6 Photo-Optical Collectors; ~/ ~( T% M/ b T: ^
7.5 Photovoltaic (PV) Cells
9 B: H8 X/ X, e& J N% T4 @ 7.6 Fuel Cells) a: E$ Z K/ [7 Q/ @: _
7.7 Hydrogen Storage and Transport
0 _' C" Q$ k D) U# |! w 7.8 Solar EnergyHome# x j( [, d% W7 X6 D8 W
7.9 Solar Energy and Desalination Plants4 k( q2 h% t C% l; b
7.10 Future Expectations.6 H* b1 Z, ?5 p1 k: Q( Y
References% v# G( G2 V/ o( e- t1 x% s# H% c/ W
A A Simple Explanation of Beta Distribution) l( W7 s6 G! S$ Z9 a5 y; v
B A Simple Power Model
3 s+ t ], |, V1 U Index
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