Construction And Design Of A 6v Rechargeable Lamp

5 Chapters
|
23 Pages
|
2,405 Words
|

The construction and design of a 6V rechargeable lamp involves assembling components to ensure efficient illumination and ease of use. Beginning with the circuitry, it entails selecting appropriate rechargeable batteries, typically lead-acid or lithium-ion, and incorporating a charging circuit with a suitable voltage regulator to prevent overcharging. The lamp assembly comprises an LED light source due to its energy efficiency and longevity, coupled with a reflector and lens for optimal light distribution and intensity. Housing materials such as plastic or metal are chosen for durability and heat dissipation, while ergonomic considerations are made for user-friendly features like a power switch and handle for portability. Additionally, the design may integrate features for versatility, such as adjustable brightness levels or the option for solar charging, enhancing its practicality in various settings. Through meticulous attention to these elements, the construction and design of a 6V rechargeable lamp culminate in a reliable and adaptable lighting solution for diverse applications, from emergency situations to outdoor activities, thereby ensuring its relevance and competitiveness in the market.

ABSTRACT

Man has been so used to electricity that he cannot do without it. The absence of electricity causes a lot of sadness in our daily lives. Due to this reason I decided to work on a by rechargeable lamp as my project.
The project is to see how one can construct a source of high without really generating is from an A.C source. I decided to write on this project in order to saw how I can implement it during and after school for home and marketing purpose.
This project is a lamp that was a 6v rechargeable battery to generate light which is very useful to man both at home and otherwise. It is a stem that is very portable and very effective mostly t might after which it has been charged.

TABLE OF CONTENT

Title Page
Approval Page
Dedication
Acknowledgement
Abstract

 

Chapter One:
1.0 Introduction

1.1 General Description Of The Project
1.2 Objective Of The Project
1.3 Significance Of The Project
1.4 The Report Layout

Chapter Two:
2.0 Literature Review

2.1 Historical Background Of The Project
2.2 Theories And Model Relevant To The Design
2.3 System Component Description

Chapter Three:
3.0 System Design

3.1 Description Of The System Building Blocks
3.2 System Specification And Block Diagram Development Into Working Circuit And Power Supply Unit.
3.3 Description Of The Overall Operation Of The System
3.4 Design Calculation / Component Analysis
3.5 Component List
3.6 Complete Circuit Diagram Of The System

Chapter Four
4.0 Implementation Testing And Result

Chapter Five
5.0 Cost Analysis

5.1 Problems Encountered
5.2 Recommendation And Conclusion
References

CHAPTER ONE

1.1 INTRODUCTION
Electricity is of great importance to our lines and has done a lot of good to our present day society it is something we cannot do without, if we are to advance technological and otherwise.
It has really helped us in the powering of our system both in our domestic homes and industries.
But in our own country (Nigeria), there has been always these problems of lack of power and fluctuation in power supplied, which made me to see how I can design a circuit that can generate a source of light, eve in the absence of electricity or power from the general source of power supply (PHCN)
I decided to design and write on a rechargeable lantern, which I always use a my source of light in the absence of the major source of light. Ti is a portable lamp designed to be recharged using an alternating current (A.C) and to generate a source of light using a direct current (D.C) source.
When the system is charging using an A.C. source, the lamp will never come on which is the source of light. This is because I used light emitting diode (LED) as my source of light and it is a D.C component.

1.2 OBJECTIVE OF THE PROJECT
1. Rechargeable lamp helps one to understand and how a D.C source can generate a source of light.
2. It helps one to understand how to design a portable lamp
3. To see how a source of light will be generated in the absence of electricity or power supply

1.3 SIGNIFICANCE OF THE PROJECT
1. It helps me mostly in the night to read effectively
2. It helps me also to use light even to read absence of power in the house as an emergency.
3. The benefits that are derivable from it is more than the maintenance factor, I attribute it such as (no fuel required as compared with A.C generators).

1.4 THE REPORT LAYOUT
I went a long way, in term of reading browsing and other kind of researches, in order to see how this project will be accomplished (Designing of a rechargeable lantern).
The following are the various step I passed through in order to accomplish this project.
1. Theories and models relevant to rechargeable lantern
2. The component involved
3. The design
4. The circuit diagram
5. The implementation and testing
6. The result
7. The cost analysis
8. Recommendation
9. Conclusion

Save/Share This On Social Media:
MORE DESCRIPTION:

Construction And Design Of A 6v Rechargeable Lamp:

Designing a 6V rechargeable lamp involves several components and considerations. Here’s a basic outline of the construction and design of a simple rechargeable lamp:

Materials and Components:

  1. 6V Rechargeable Battery: Choose a 6V rechargeable battery with sufficient capacity to provide the desired runtime for your lamp. Common choices include sealed lead-acid (SLA) batteries or lithium-ion (Li-ion) batteries.
  2. LED Light Source: Select an energy-efficient LED bulb or LED strip that operates at 6V. LEDs are ideal for battery-powered lamps due to their low power consumption and long lifespan.
  3. Lamp Housing: Design or choose a suitable lamp housing or enclosure to hold the battery, LED, and other components. You can use materials like plastic, metal, or wood.
  4. Switch: Include a switch to turn the lamp on and off. A simple toggle switch or push-button switch can work well.
  5. Charging Circuit: You’ll need a charging circuit to recharge the battery. You can either purchase a pre-made charging module or design your own using a voltage regulator, diodes, and a charging indicator.
  6. Voltage Regulator: If your LED operates at a lower voltage than the battery (common for Li-ion batteries), you may need a voltage regulator to step down the voltage to the LED’s operating voltage.
  7. Charging Port: Install a charging port, such as a DC barrel jack or USB port, to connect the charger to the lamp.

Construction Steps:

  1. Design the Lamp: Sketch or use a CAD program to design the lamp housing. Ensure it has enough space to accommodate the battery, LED, switch, and charging circuit.
  2. Assemble the Lamp Housing: Construct the lamp housing according to your design, ensuring it’s sturdy and safe. Make sure there’s a way to access the battery for maintenance or replacement.
  3. Connect the LED: Wire the LED to the battery through a current-limiting resistor (if needed) and the switch. Test the LED to ensure it works properly when the switch is turned on.
  4. Install the Charging Circuit: If using a pre-made charging module, follow the manufacturer’s instructions to connect it to the battery. If designing your own charging circuit, carefully solder the components together and connect it to the charging port.
  5. Add the Switch and Charging Port: Mount the switch and charging port on the lamp housing. Connect them to the appropriate components in the circuit.
  6. Testing: Before closing the lamp housing, test the lamp to ensure that the LED lights up when the switch is on and that the battery charges properly when connected to a charger.
  7. Final Assembly: Once everything is working correctly, secure all components inside the lamp housing, close it up, and seal it if necessary.
  8. Finishing Touches: You can add a lampshade or decorative elements to enhance the appearance of your rechargeable lamp.

Remember to follow safety precautions when working with electrical components and consider using a fuse or overcharge protection circuit for added safety. Additionally, consult datasheets and specifications for specific components to ensure proper functionality and compatibility.