Please enable javascript in your browser.
Page
of
0
ارزیابی توسعه پایدار سیستم های انرژی ساختمان های مسکونی با درنظرگرفتن جنبه های محیط زیستی، اقتصادی و اجتماعی
علی قنبری، محمد حسین Ali Ghanbari, Mohammad Hossein
Cataloging brief
ارزیابی توسعه پایدار سیستم های انرژی ساختمان های مسکونی با درنظرگرفتن جنبه های محیط زیستی، اقتصادی و اجتماعی
پدیدآور اصلی :
علی قنبری، محمد حسین Ali Ghanbari, Mohammad Hossein
ناشر :
صنعتی شریف
سال انتشار :
1396
موضوع ها :
ساختمان های مسکونی Residential Buildings انرژی Energy کارایی Efficiency محیط زیست...
شماره راهنما :
66-50511
Find in content
sort by
page number
page score
Bookmark
Final - Copy - Copy - Copy.pdf
(1)
List of figures
(13)
List of tables
(15)
Introduction
(17)
1. Chapter One
(20)
1.1 Review of the Current State of Energy in Iran
(21)
1.2 Global temperature rise
(25)
1.3 Energy generation in the future
(25)
1.4 The energy consumption of Iran and world and dependence on fossil fuels
(27)
1.5 Population growth and its impact on energy consumption
(28)
2. Chapter two
(30)
2.1 Solar energy
(31)
2.2 Types of solar electrical generation
(32)
2.3 The direct method (photovoltaic systems)
(32)
2.4 The need for using photovoltaic systems
(32)
2.5 The main component of photovoltaic systems
(33)
2.5.1 Solar Modules
(34)
2.5.2 Intermediate
(35)
2.5.3 Charge control
(35)
2.5.4 Inverter
(36)
2.5.5 Battery
(36)
2.5.6 Consumer
(36)
2.6 Indirect method (solar thermal)
(37)
2.7 Linear parabolic power plants
(38)
2.8 Central receiver power plants (Heliostat)
(39)
2.9 The main components of the central receiver power plants are described below:
(40)
2.9.1 Heliostat
(40)
2.9.2 Mirror
(41)
2.9.3 Structures
(41)
2.9.4 Foundation
(41)
2.9.5 Actuator system
(41)
2.9.6 Solar Controller System
(41)
2.9.7 Central receiver
(41)
2.9.8 Heat energy transfer system
(42)
2.10 Parabolic dish power plant
(42)
2.11 The main components of parabolic dish power plant are as follows:
(42)
2.11.1 Concentrator surface
(43)
2.11.2 Sterling engine
(43)
2.11.3 Tracer
(44)
2.11.3.1 Following elevation angle
(44)
2.11.3.2 Following Arctic
(44)
2.11.4 Control System
(45)
2.11.5 Structures and foundations
(45)
2.11.6 Cooling system
(45)
2.11.7 Recipient
(45)
2.12 Recipient with direct light
(46)
2.13 Indirect recipient
(46)
2.14 Solar chimney (Tower)
(47)
2.14.1 The performance of thermal solar chimney power plants
(48)
2.14.2 The main components of a solar chimney
(48)
2.15 Fresnel collectors
(49)
2.16 The Performance of these solar power plants may be used in two ways:
(50)
2.16.1 Conventional system
(50)
2.16.2 Direct steam system
(50)
2.17 History
(51)
2.18 Solar Cells
(51)
2.19 Basis of solar cells
(52)
2.20 The first generation of technology
(52)
2.21 The second generation of technology
(52)
2.22 Crystalline silicon
(53)
2.23 Monocrystalline cells (single crystal)
(53)
2.24 Polycrystalline cells (multi-crystalline)
(54)
2.25 Thin-film cells
(55)
2.26 Amorphous silicon cells
(55)
2.27 Copper indium di selenide cells (CIGS/CIS)
(55)
2.28 Cadmium Telluride Cells (CdTe)
(56)
2.29 Emerging Technology
(56)
2.30 Dye-sensitized solar cells
(56)
2.31 Organic solar cells
(57)
2.32 Multi-Hybrid solar cells
(57)
2.33 Concentrator cells
(58)
2.34 The efficiency of solar cells
(58)
2.35 Producer countries
(60)
2.36 Producers of crystalline cells
(60)
2.37 New evolution in the design of photovoltaic panels
(61)
2.38 Types of using photovoltaic system
(63)
2.38.1 Off-grid systems
(63)
2.38.2 Grid-connected systems
(64)
2.38.3 Hybrid-feeding systems
(65)
2.39 Selecting the equipment of the Photovoltaic system
(65)
2.39.1 Module
(65)
2.39.2Inverter
(65)
3. Chapter three
(66)
3.1 Decentralized
(67)
3.2 Portability
(68)
3.3 Storage capability
(69)
3.4 Reducing the losses of the network
(70)
3.5 Contribute to self-sufficiency and reducing dependences
(71)
3.6 Reducing greenhouse gases emissions and air pollution
(72)
3.7 Export and sale of energy
(73)
4. Chapter four
(75)
4.1 Factors affecting the amount of radiation received from the sun
(76)
4.1.1 A geometric factor
(76)
4.1.2 Astronomical factors
(76)
4.1.3 Climate factors
(77)
4.1.4 Geographical factors
(77)
4.1.5 Physical factors
(77)
4.2 Solar radiation maps design methods
(77)
4.3 Solar radiation qualification examination at different parts of Iran
(78)
4.4 Geographic location of Iran
(78)
4.5 General solar radiation circumstances in Iran
(78)
4.6 Radiation status in cities of Iran
(80)
4.6.1 Radiation status in Yazd
(80)
4.6.2 Radiation situation in Golestan city
(80)
4.6.3 Radiation situation in Khorasan Razavi
(80)
4.6.4 Radiation situation in South Khorasan city
(81)
4.6.5 Radiation Situation in Alborz Province
(81)
4.6.6Radiation situation in Semnan city
(82)
4.6.7Radiation situation in Isfahan city
(82)
4.6.8 Radiation situation in Kerman city
(82)
4.6.9Radiation situation in Khuzestan city
(82)
4.6.10Radiation situation Sistan and Balichestan city
(82)
4.7 Status check of solar radiation in Germany
(83)
4.8 Compare the Radiation and Solar Power Generation in Iran and Turkey
(85)
Chapter five
(86)
5.1 The cost estimation for installing the solar power generators in the building
(87)
5.2 The method of calculating the electricity bill of a sample subscriber with the tariff of 2016 (60-day period)
(87)
5.3 Calculating the costs of a photovoltaic system for a residential building in Alborz Province
(90)
5.3.1 The first strategy: using off-grid solar panels for household loads
(95)
5.3.2 The second strategy: the use of grid-connected solar panels for selling to the grid
(98)
5.3.3 The third strategy: the use of grid-connected solar panels for selling to the grid and internal consumption
(99)
5.4 A look at implementing the plan of solar power system in an office-residential building in Alborz Province
(100)
Chapter six
(107)
References
(110)
چکیده
(114)
چکیده
(114)
4_5823660239567716465 - eslahe arm
(116)
