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Design and Implementation of An Independent Renewable Energy Source (5kva Solar Powered Inverter)

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DESIGN AND IMPLEMENTATION OF AN

INDEPENDENT RENEWABLE ENERGY SOURCE


(5kVA SOLAR POWERED INVERTER)
 

A MINI PROJECT PRESENTED BY


MUHAMMAD JAMIU ATTA
MENG/SEET/2016/6489

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1.0 INTRODUCTION

 Energy plays key role in shaping national economies and


social developments.
 Epileptic power supply is one of the issues we face
every day in Nigeria.
 Cases of power outages in the university affects
academic activities negatively.
 Hence, key offices in the department were selected to
be backed up by independent energy source (solar
power source).

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1.1 AIM AND OBJECTIVES

 The aim of this project was to design and


implement an independent renewable energy
source (5 KVA solar powered inverter).
The objectives were:
 To carryout survey and obtain the size of the loads
to be powered.
 To design and implement a solar renewable energy
system that will powered the surveyed load.
 To evaluate the performance of the designed and
implemented independent solar renewable energy
system.
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1.2 Problem Statement

 Population growth and industrialization on the increase


 Power supply from grid no longer enough
 Need to constantly power key offices
 Hence the need for independent power sorce

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1.3 Motivation

 Need to solve the problem of epileptic power supply to


key offices a motivating factor

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1.4 Scope of the work
Individual Loads Quantity Power Rating Estimated Hours Energy

(watts) of Usage per day consumed per

(hours) day

(watts hour)

Ceiling Fan 2 160 4 640

Printer 1 700 2 1400

Desktop 2 65 4 260

Computer

Laptop 2 60 4 240

Computer

Energy Saving 4 110 5 440

Bulb

TOTAL 1095   2980


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2.0 LITERATURE REVIEW

S/N YEAR AUTHOR(S) WORK LIMITATION RECOMMENDATION/GAP


BRIDGED
1 2010 Al-Salaymah design of Not economically Cost of PV components is reduced
photovoltaic (PV) viable
system to produce
energy for basic
domestic needs
2 2012 Li et al A study on grid- Only an analysis, no Practical system built
connected PV system practical system
installed in an
institutional building
in Hong Kong
3 2012 Oko et al Design analysis of Only analysis made Practical system built
PV system to supply
a laboratory at the
Department of
Mechanical
Engineering,
University of Port
Harcourt, Nigeria.

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Literature review cont’d
S/N YEAR AUTHOR(S) WORK LIMITATION RECOMMENDATION/GAP
BRIDGED
4 2013 Maina Design and Only a 12V DC to A complete PV system is designed
construction of a 220V AC inverter
600W pure sine wave was deigned with no
inverter at a means to measure
frequency of 50Hz output across load
5 2014 Olusegun et al Design and System has a low A system of higher rating is designed
construction of a power rating and implemented
1kW (1000VA)
Power Inverter at a
frequency of 50Hz
6 2014 Tukur et al Design of a mini System has low A system of higher rating is designed
photovoltaic system power rating with and implemented
to power commercial high cost
battery charging
phone booth located
at Dakwa village in
Niger state, Nigeria

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Literature review cont’d

S/N YEAR AUTHOR(S) WORK LIMITATION RECOMMENDATION/GAP


BRIDGED
7 2015 Fagite Design and System produced A charge controller is used to control the
Construction of a high DC current charging current
2kVA modified sine which is harmful to
wave inverter battery
8 2015 Guda and Aliyu Design of a stand- High cost of system Cost is reduced to barest minimum
alone photovoltaic components
power system for a
typical residential
building in Bauchi
State, Nigeria
9 2016 Nur et al Design and Topology used The designed system supports all AC
Implementation of a supports only the loads
Push-Pull Inverter for PV portable lamp
Photovoltaic Portable
Lamp

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3.0 METHODOLOGY
 Solar radiation

Photovoltaic Charge
Battery Bank
(PV) Array Controller

Distribution
Inverter
Board (DB)

AC
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Figure 3.1: Block diagram Source
3.1 Complete Diagram of PV
Inverter System

Figure 3.2: Diagram of the PV Inerter System

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4.0 RESULTS

Individual Loads Quantity Power Rating Estimated Energy per


(Watts) hours of use day
per day

Ceiling Fan 2 160 4 640

Printer 1 700 2 1400

Desktop 2 65 4 260

Computer 2 60 4 240

Laptop 4 110 5 440

Energy saving

bulb

Total Load Profile 1095


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2980
4.1 RESULTS

  Voltage (volts) Current (amps)

Solar Panel (upon 32.1 0.03

installation) 30.1 0.07

Solar Panel (in use) 25.7  

Battery (before charging) 26.7  

Battery (after charging) 226  

Inverter (upon installation) 216  

Inverter (in use) 24 40

Charge controller rating

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4.2 RESULTS

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5.0 CONCLUSION

 Manual sizing of the load profiles of the


installation site was properly done.
 The results obtained show that, the 5KVA
inverter module, four 130W/18A solar
panels, two 200AH deep cycle batteries, and
a 24V, 40A charge controller has safety
assurance for life and properties.
 The system was finally tested for faults (of
any kind) and was passed to be efficient. A
stable power supply was achieved.
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5.1 RECOMMENDATION

 The following areas are identified for future work


on the completion of this research work.
 The economic analysis of an additional or an
upgrade of the inverter capacity due to its ability
to power office equipment can be carried out.
 Another approach in increasing the efficiency of
the battery Energy Storage System is; by
oversizing the Battery that is; increasing the
number of batteries since there will be an
upgrade of the inverter capacity in the future.
  
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 Thank you

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