ABSTRACT
Solar panels harness the sun's energy in the form of light and convert the energy into electricity. Although the average consumer might associate solar panels with residential rooftop assemblies, solar panels are available for a wide range of applications, including powering individual gadgets, electronic devices and vehicle batteries. The objective of this project is to install a backup power supply in the machine lab in Electrical and Electronics Engineering Department. It's aim is to work when there is a power failure.
TABLE OF CONTENTS
Page
Title page i
Declaration page ii
Approval page iii
Dedication iv
Acknowledgement v
Table of content vi
List of figures x
List of tables xi
List of abbreviation xii
Abstract xiii
CHAPTER ONE
INTRODUCTION
1.1 Background of the study 01
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1.1.1 Cells, Panels and Arrays
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01
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1.1.2 How Much Power
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01
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1.1.3 Residential System
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01
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1.1.4 Solar Panel Product
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02
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1.2 Statement of the
problem
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02
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1.3 Aim and Objective
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02
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1.4 Scope of the study
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03
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1.5 Methodology
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03
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1.6 Report outline
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04
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1.7 Motivation CHAPTER TWO
LITERATURE REVIEW
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04
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2.1 Introduction to literature review
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05
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2.2 Performance of solar cells
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05
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2.3 Solar panel efficiency
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05
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2.4 Factors that affect solar panel efficiency
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06
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2.4.1 Total size of PV array 06
2.4.2
Type of module 06
2.4.3 Temperature 07
2.4.4 Shade 07
2.5
Different type of solar electric energy system 07
2.5.1 Grid-tied solar power system 07
2.5.2 Off-grid solar power system 07
2.5.3 Hybrid solar power system 08
2.6
Review of related work 08
2.7
Present work 11
2.8
Comparative analysis 11
2.9
Area of application 11
2.10 Conclusion 11
CHAPTER THREE
INSTALLATION
3.1
Introduction 12
3.2 Pre
installation 12
3.3
Installation work 12
3.4
Inverter Installation 13
3.5
Mounting option 13
3.6
Safety consideration on mounting 13
3.7
Tools and materials used in installation 14
3.8
Load analysis 14
3.9 Determining
the number of battery required 15
3.10 Components of an inverter 15
3.11 Principle of Operation 16
3.12 Output section 17
3.13 Conclusion 17
CHAPTER FOUR
TESTING AND RESULT
4.1
Introduction 18
4.2
Testing 18
4.3
Result 19
CHAPTER FIVE
CONCLUSION AND RECOMMENDATION
5.1
Conclusion 20
5.2
Recommendation 20
REFERENCE 21
APPENDIX 22
LIST OF FIGURES
FIGURE PAGE
Fig 1.1 Block diagram of a solar
inverter 03
Fig 1.2 Block diagram of an inverter 04
Fig 3.1 Fig 3.1 Pictorial View
Of An Inverter And A Battery 13
LIST
OF TABLE
TABLE PAGE
Table 3.1 Load
Analysis 15
LIST OF ABBREVIATIONS
PV - Photovoltaic
D.C - Direct
Current
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A.C
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- Alternating
Current
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SCC
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- Solar
Charge Controller
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I.C
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- Integrated
Circuit
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P.W.M
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- Pulse
Width Modulation
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UPS
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- Uninterruptable
Power Supply
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M.P.P.T
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- Maximum
Power Point Tracking
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m
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- Meter
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m²
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- Meter
square
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E.L.C.B
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- Earth
Leakage Circuit Breaker
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L.E.D
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- Light
Emitting Diode
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MOSFET
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- Metal-oxide
semiconductor field effect transistor
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E.L.D
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- Effective
Load Demand
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CHAPTER ONE
INTRODUCTION
1.1
BACKGROUND TO THE STUDY
Solar panels harness the sun's energy in the form of light
and convert the energy into electricity. Although the average consumer might
associate solar panels with residential rooftop assemblies, solar panels are
available for a wide range of applications, including powering individual
gadgets, electronic devices and vehicle batteries.
1.1.1 Cells,
Panels and Arrays
The smallest unit of a solar panel is the solar cell, also
called a photovoltaic, or PV cell; it's the individual PV cell that turns
sunlight into electricity. Individual cells arranged in a group are called a
"module" or panel; a collection of two or more panels is called an
array. According to the National Renewable Energy Laboratory, the typical
residential or business solar panel holds approximately 40 cells and the
average residential array consists of 10 to 20 panels
1.1.2 How Much Power?
According to the U.S. Department of Energy, panels can
gather between 10 watts and 300 watts. This broad range of panel output
represents the variety of solar panel products on the market. While small panel
systems gather enough electricity to power consumer devices, large systems
gather enough wattage to power residences.
1.1.3 Residential
Systems
As described in the Energy Department's "Energy
Savers" series, to convert the direct current electricity gathered by
solar panels into the alternating current electricity that powers appliances
and devices, solar panels route the electricity through a conversion device
called an inverter. After conversion to alternating current, electricity runs
through circuit breaker panels and into the home. A "gridconnected"
solar panel system connects to a municipal utility provider's system through an
electrical meter, redirects excess solar electricity to the utility provider,
turns the meter backwards and typically provides the homeowner with credit.
Alternately, an "off-grid" system does not connect to a utility
provider's grid and often directs excess electricity to a storage system, such
as a battery bank
1.1.4 Solar
Panel Products
In addition to rooftop arrays that provide electricity to
homes and businesses, manufacturers apply solar panel technology to a wide
range of consumer products. Roof-mounted solar panels are available for boats,
recreational vehicles and cars; these modules can power electronic systems or
charge batteries. Lightweight, portable solar panels are available to power
small batteries and electronic devices, such as cell phones and laptop
computers, or as an emergency power supply for campers or backpackers. The Lawrence
Berkeley National Laboratory's Environmental Energy Technologies Division hosts
a directory that includes links to several manufacturers of personal solar
panel products.
1.2 STATEMENT OF THE PROBLEM
Due to the nature of power instability facing the national
grid of Nigeria power outage become a very common philosophy whereby power
supply can trip off any hours, minutes or seconds and it can stay OFF for an
unspecified period of time before it restore back. To solve this problem,
providing a backup supply, changing from the previous source of energy to
another source of energy or combining the two sources together can really help
in bringing the power to a stability mode of operations.
Also looking at the current source of power taking serious
major correction and upgrading can help in solving the problem of power in
Nigeria.
1.3 OBJECTIVE OF THE STUDY
The objective of this project is to install a backup power
supply in the machine lab in Electrical and Electronics Engineering Department.
Its aim is to work when there is a power failure most especially when the
students are having practical and there is a power outage from the KAEDCO.
1.4 SCOPE
OF STUDY
This project is to provide a alternative power supply in
the machine lab in electrical and electronic engineering department.
1.5 METHODOLOGY
The process of constructing a backup power supply
(Inverter and solar panels) is achieved according to block diagram in figure
1.1 which includes the design, analysis, installation work and load.
Fi g.1.1. Block Diagram
Of A Solar Installation a. Sun:- The sun serves
as the source of energy that produces light in which the light is received by
the photovoltaic (PV) arrays. b. Solar Panels Or
Photovoltaic (Pv) Arrays:- A solar cell panel, solar electric panel,
photo-voltaic (PV) module or solar panel is an assembly of photo-voltaic cells
mounted in a framework for installation. Solar panels use sunlight as a source
of energy to generate direct current electricity. A collection of PV modules is
called a PV panel, and a system of PV panels is called an array. c. Solar Charge Controller
(SCC):-A solar charge controller, also known as a solar regulator, is
essentially a solar battery charger connected between the solar panels and
battery. Its job is to regulate the battery charging process and ensure the
battery is charged correctly, or more importantly, not over-charged d. Inverter:-An inverter
converts the DC voltage to an AC voltage. In most cases, the input DC voltage
is usually lower while the output AC is equal to the grid supply voltage of
either 120 volts, or 240 Volts depending on the country.
Fig.1.2.
Block Diagram Of An Inverter e. Alternating Current (AC)
Load:- Serve as the total load to be supplied by the output of the
inverter. 1.6 REPORT
OUTLINE The report of this project consist of five chapters,
chapter one consist introduction, chapter two consist literature review,
chapter three consist design methodology, chapter four consist results analysis
and chapter five consist conclusion and recommendation. 1.7 MOTIVATION The main passion and motivation behind this project is to
provide an adequate alternative source of power supply whenever there is a
power interruption in the machine lab.
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