Design And Implementation Of A Computerised Rural Electrification Information System

(A Case Study Of Enugu South Lga)

7 Chapters
|
47 Pages
|
4,474 Words

The design and implementation of a Computerized Rural Electrification Information System (CREIS) involves the development and integration of a comprehensive digital infrastructure tailored to address the specific needs of rural electrification projects. This entails creating a robust database system that captures essential information such as geographical data, energy consumption patterns, and demographic details of the target areas. The system should incorporate user-friendly interfaces for efficient data entry, retrieval, and analysis, ensuring accessibility for various stakeholders involved in rural electrification initiatives. Integration of real-time monitoring capabilities enhances the system’s effectiveness by providing timely updates on project progress, facilitating strategic decision-making. Cybersecurity measures must be embedded to safeguard sensitive information. Additionally, the implementation should include training programs for local communities and project personnel to ensure seamless adoption and utilization of the Computerized Rural Electrification Information System, fostering sustainable rural electrification efforts.

ABSTRACT

Design and implementation of a computerized rural electrification information system for a Local Government Area (a case study of Enugu South L.G.A).
The difficulties PHCN Staff and Community usually face when tracing a fault made us to realize that computer assisted electrification information retrieval system is the best in detecting a place where the high tension lines are located and transformers in Enugu South L.G.A. This will save PCHN Staff the embarrassment caused by customers complaints at the end of working day.
Our basic objective of designing and implementing computerized rural electrification information system is the development of data Base computer program that will enable the Staff to efficiently, accurately and effectively process and co-ordinate the various transformers in the L.G.A without much difficulties with little time.
In view of this, PHCN officers must prepare for successful working relationship with an online information processing and in addition get their members of staff familiarized with the system for easy and effortless exercise that produce reliable output (result).

TABLE OF CONTENT

Cover page
Title page
Certification
Dedication
Acknowledgement
Abstract
Table of contents

CHAPTER ONE
1.0 INTRODUCTION
1.1 Background of the study
1.2 Statement of the problem
1.3 Purpose of the study
1.4 Significance of the study
1.5 Scope of study

CHAPTER TWO
2.1 LITERATURE REVIEW
2.2 Nature of admission processes
2.3 Problem inherent from admission
2.4 Need for (computerization) an online

CHAPTER THREE
3.1 DESCRIPTION AND ANALYSIS OF THE EXISTING SYSTEM
3.2 Fact finding methods used
3.3 Organizational structure
3.4 Objectives of the existing system
3.5 Input, process and output analysis
3.6 Information flow diagram

CHAPTER FOUR
4.1 DESIGN OF THE NEW SYSTEM
4.2 Output specification and design
4.3 Input specification and design
4.4 Flow chart (system) / procedure chart

CHAPTER FIVE
5.1 SYSTEM IMPLEMENTATION
5.2 Conversion proper
5.3 The parallel approach

CHAPTER SIX
6.1 DOCUMENTATION
6.2 Loading the new program
6.3 Running the program
6.4 Operational guideline
6.5 Option selection

CHAPTER SEVEN
7.1 RECOMMENDATION
7.2 Conclusion
Bibliography

CHAPTER ONE

1.0 INTRODUCTION
1.1 BACKGROUND OF THE STUDY
The ultimate aim of manufacturers is to produce goods they can sell to users immediately at a profit. An interaction between the producer and the consumer tales place. This interaction is initiated, developed, and managed by producer’s marketing staff. The business function of power marketing is concerned with the planning, and billing of existing products in the existing markets and development of new products and new markets to better serve present and potential customers.
Today PHCN performs a vital function in the operation of a business enterprises. Detection and billing of power has become a much difficult assignment because of the dynamic environment of today’s activities which includes:
– Rapidly changing market demands
– Steadily increasing consumers pressure
Firms have increasingly turned to the computer to help them perform the vital functions in the face of the rapid changes of today’s environment. Computer, therefore, because of its speed, memory capacity, versatility and accuracy, has been the catalyst in the development of rural electrification information system, which integrate the information flow required for an improved activities. Computer is also used to make business decision involving millions of naira and so saves man from a tremendous amount of time consuming work.
Today computer is used as a control system for controlling electricity distribution and management, diagnosis of faulty performance. Nevertheless, computer is also used as research system for detecting dangerous zones.

1.2 STATEMENT OF THE PROBLEM
The difficulties staff of PHCN usually face in the Local Government Area made me to realize that (computer aid) a rural electrification information system is the best that can happen to the staff and people of Enugu South L.G.A. This will save the PHCN officers the embarrassment caused by customers’ complaints at the end of the working day.

It was in the view of this that Sundison (1994) pointed out that “ for effective rural electrification more sophisticated system should be introduced in the business”

1.3 PURPOSE OF THE STUDY
The original purpose of this study is to design and implement a computerized rural electrification information system in Enugu South L.G.A. Its purpose are to have the following:
(i) Efficient and safe storage
(ii) Quick retrieval of records and information
(iii) Proper accounting and file keeping
(iv) Quick response to any adhoc enquires
(v) Assist in Fault recording

1.4 SIGNIFICANCE OF THE STUDY
It is hoped that the result of this study will serve as tools for helping PHCN officers and consumers who wish to know the situation of their electrification system. This is easy to achieve since standard and tested computer programs handle all sort of complex calculations, storage and retrieval of valuable information needed.
Also, important is the fact that records prepared with electronic machine can be stored as long as needed in non-bulky and compact systems.
Works has been done in many areas of computerization, in industry and commerce but not much has been done in rural electrification projects. We have therefore done this work to highlight the use of an online in the important area of power services.

1.5 SCOPE OF THE STUDY
This work is confined to the Rural Electrification information system of Enugu South that is our area of research work. This was done to attain a standard output that will be useful to both the consumers as well as the staff of PHCN. It also helps in making a quick, accurate, efficient and reliable data processing.

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Design And Implementation Of A Computerised Rural Electrification Information System:

Designing and implementing a computerized Rural Electrification Information System (REIS) involves several steps and considerations. This system will help manage and monitor rural electrification projects, track progress, and ensure efficient allocation of resources. Here’s a high-level overview of the process:

  1. Needs Assessment and Requirements Gathering:
    • Begin by conducting a thorough needs assessment in the target rural areas to understand the specific requirements, challenges, and goals of electrification projects.
    • Gather input from stakeholders, including government agencies, utility companies, local communities, and non-governmental organizations (NGOs).
  2. System Planning and Architecture:
    • Define the scope and objectives of the REIS.
    • Design the system’s architecture, including hardware, software, and network infrastructure.
    • Decide on the database management system (DBMS) for storing project-related data.
  3. Data Collection and Integration:
    • Develop mechanisms to collect and integrate data from various sources, including geographic information systems (GIS), census data, and energy consumption patterns.
    • Establish data standards and protocols for consistency.
  4. User Interface Design:
    • Create a user-friendly interface for data entry, reporting, and analysis.
    • Consider developing a web-based application for easy access from different locations.
  5. Database Design:
    • Design the database schema to store information such as project details, funding sources, electrification progress, and maintenance records.
    • Ensure data security and backup procedures are in place.
  6. Functionality Development:
    • Implement features for project planning, budgeting, resource allocation, and progress tracking.
    • Include modules for reporting, data visualization, and analytics to support decision-making.
  7. GIS Integration:
    • Integrate GIS capabilities to visualize project locations, transmission lines, and distribution networks.
    • Use GIS data for route optimization and planning.
  8. Remote Monitoring and Control:
    • Incorporate remote monitoring and control features to manage electrification infrastructure efficiently.
    • Consider using IoT (Internet of Things) devices for real-time data collection.
  9. Data Analysis and Reporting:
    • Implement tools for data analysis to identify trends, gaps, and areas in need of electrification.
    • Generate reports and dashboards for different stakeholders.
  10. Security and Access Control:
    • Implement robust security measures to protect sensitive data.
    • Define user roles and access permissions to ensure data integrity.
  11. Training and Capacity Building:
    • Train users and administrators on how to use the system effectively.
    • Provide ongoing support and maintenance.
  12. Testing and Quality Assurance:
    • Conduct thorough testing, including unit testing, integration testing, and user acceptance testing.
    • Identify and resolve any issues or bugs.
  13. Deployment and Scaling:
    • Deploy the REIS in a phased approach, starting with a pilot project and then scaling up as needed.
    • Ensure scalability to accommodate future electrification projects.
  14. Monitoring and Evaluation:
    • Continuously monitor the system’s performance and gather user feedback for improvements.
    • Conduct periodic evaluations to assess the impact of electrification projects.
  15. Documentation:
    • Create comprehensive documentation for the system’s architecture, data models, user guides, and maintenance procedures.
  16. Compliance and Regulations:
    • Ensure that the system complies with relevant regulations and standards in the energy and rural electrification sector.
  17. Sustainability:
    • Plan for long-term sustainability by considering funding sources, maintenance strategies, and upgrades.
  18. Community Engagement:
    • Engage with local communities to ensure their needs and concerns are considered throughout the electrification process.
  19. Feedback Loop:
    • Establish a feedback mechanism for stakeholders to report issues, provide suggestions, and track project progress.
  20. Continuous Improvement:
    • Regularly update and improve the REIS based on evolving needs and technologies.

Building a computerized Rural Electrification Information System is a complex endeavor that requires collaboration among various stakeholders. It should be adaptable to changing circumstances and technologies to effectively address the electrification challenges faced by rural communities