Design And Implementation Of Lighting Switching Control System Interface

5 Chapters
|
45 Pages
|
9,322 Words

The design and implementation of a Lighting Switching Control System Interface involve the development of an intuitive and efficient platform for managing and regulating lighting systems. This interface serves as a pivotal element in smart home automation, offering users seamless control over their lighting arrangements. Integrating cutting-edge technology, the interface ensures a user-friendly experience, allowing individuals to effortlessly manipulate the illumination settings of their spaces. The system incorporates a sophisticated control mechanism, enabling users to customize lighting intensity, color temperature, and scheduling according to their preferences. Through the incorporation of responsive sensors, the interface also caters to energy efficiency, adjusting lighting levels based on ambient conditions. This comprehensive approach enhances the adaptability of the Lighting Switching Control System Interface, making it an indispensable tool for modern homes and businesses seeking streamlined and intelligent lighting management.

TABLE OF CONTENT

CHAPTER ONE
Introduction
Background Of The Study
Problem Statement
Objectives Of Study
Significance Of Study
Scope Of Study
Limitation Of Study
Definition Of Terms

CHAPTER TWO
Literature Review
Introduction
Itches
Mechanical Switches (Hand Switches)
Limit Switches
Process Switch
Electronics Switches/Logic Switches
Computers As A Switch
Serial Ports
Typical Locations For Serial Ports
I/0 Interfaces From Serial And Parallel To Ieee 1394 And Usb

CHAPTER THREE
System Analysis And Methodology
Introduction
Analysis Of The Existing System
Advantages Of The Existing System
Disadvantages Of The Existing System
Justification Of The Proposed System
Advantages Of The Proposed System
Disadvantages Of The Proposed System
Connecting The Port To External Device Interface
Connecting Max 232 To The Serial Part
Dc Voltage Change With Cable
Ac And Dc Voltage With Data
Relay Stage
Relays
Choosing A Relay
Protection Diodes For Relays
Reed Relays
Relays And Transistors Compared
Advantages Of Relays
Disadvantages Of Relays
Research Methodology
The Diagram Below Shows The Pin-Out Of The 8051 Micro Controllers
Basic -52 Functions
Element Of The 8051
Power Supply The Ac Voltage
Transformer

CHAPTER FOUR
System Design And Implementation
Introduction
Over View Of Design
Main Menu
Program Modules Specification
Input/Output Specification
Choice And Justification Of Programming Language
System Requirement
Implementation Plans
Maintenance Details

CHAPTER FIVE
Conclusion And Recommendation
Summary
Conclusion
Recommendation
Suggestion For Further Studies
References
Appendix 1
Appendix 2
Source Code

CHAPTER ONE

INTRODUCTION
1.1 BACKGROUND OF THE STUDY
Traditionally, high control in home and office environments takes place through
switches (on/off), deals and sliders (dimmers) and sometimes motion sensors.
These controls can be incorporated in the built environment such as walls, or
attached to lights that people place themselves (desk lamps, bed side lights). This
often leads to a jumble of controls each with their own location, interaction style,
and focus.
This project is a demonstration of how a PC can be used as a control signal
generation subsystem capable of generating programmable control signals for
power equipment. Early studies reveal that using PC for power management was
often fou7nd to be up to 25% more than energy star compliant methods.
However, recent assessments have found higher rates, and was estimated that
for power management.
Switching control is a good replacement for conventional pneumatic or Electro
chemical high voltage AC control. This equipment is capable of not only control
but energy management and system diagnostic functions. The PC control in
inherentlyhas more accurate control because it reduces maintenance and
recalibration problems common with pneumatic and mechanical systems.
It offers other unique advantages like subsystem coordination, optimum start,
diversity analysis and retrofit identification.
This design begins with the fact that a computer is needed to light bulbs of high
AC rating. This immediately suggests that an interface of the PC is needed to
handle the mismatch in voltage and currents between the PC and bulbs.
Secondly the control data from the PC program are logic levels in serial format
and at high frequency. This again means that the interface should understand the
protocol of communication and convert it to the necessary parallel control singed.
Due to lack of resources, the project will not be real but simulated. This system
will represent for more than just manual on/off control. The system comprises of
two major components, output device, and input device. Output devices work
behind the scenes to control the lights by switching them off or on. Input device
are the switcher i.e. the button or sensors.

1.2 PROBLEM STATEMENT
 No prior information whether a bulb is dead or not
 There is always a problem of one or two poles using one switch. That is each
pole with a switch which could amount to lots of expenses. Each pole with
their own switch and location.
 It consumes ones time in the sense that one will more from one pole to
another. Just to put one or off the light.

1.3 OBJECTIVES OF STUDY
This professional documentation focuses on using a serial interface hardware
built on microcontroller and max 232 serial converters. The ensure that the high
negative -15 volts and + 15 volts of the serial RS232 comport is converted and
programmed to suit the CPC logic levels. The system is responsible for controlling,
energy management and system diagnostic functions. Tracking of all lighting
activities, especially bulbs. In a place where prepaid meter is in use, it could help
reduce the cost.

1.4 SIGNIFICANCE OF STUDY
This system is important considering the fat that only a push of a button can
switch off or on the light connected within the system. With this system, one can
easily be on his/her bed and switch off or on the lights.
The system is safe therefore children can also switch off or on the light when their
parents or guardians are not close. The system is very necessary in the sense that
it gives you what you want at any needed time. The system also keepstrack of all
activities (bulb).

1.5 SCOPE OF STUDY
The research will focus on creating a computerized system that will switch on or
off light on the street and equally control the power aspect.
The research will also focus on light bit microcontroller issues discreet digital
electronics in appliance control. Intel controllers that can complete application
are typically relegated to switches and times are also discussed. It will be a system
that maximizes user efficiency and user convenience.

1.6 LIMITATION OF STUDY
One of the major setbacks of this work is finance. Due to lack of finance, one
could not bring the system to life. Inadequate electricity also contributed to the
setback of this work.

1.7 DEFINITION OF TERMS
Electrochemical: describe a mechanical device that is powered or controlled by
electricity. Relating machines powered by electricity.
Pneumatic: the branch of physics with the mechanical properties of air and other
gases.
Retrofit Identification: To modify something such as a machine or a building by
adding newly developed parts or devices that were not available where the
machine or building was made.
Diversy analysis: A variety of something such as opinion, colour, or style.

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MORE DESCRIPTION:

Lighting Switching Control System Interface:

A lighting switching control system interface is a user-friendly platform or interface that allows individuals or building managers to control and manage the lighting within a specific area or building. Such interfaces are commonly used in residential, commercial, and industrial settings to provide convenient and efficient control over lighting systems. Here are some key elements and features of a lighting switching control system interface:

  1. User-Friendly Interface: The interface should be intuitive and easy to use, ensuring that even non-technical users can operate it without difficulty.
  2. Centralized Control: It should provide centralized control over multiple lighting zones or fixtures, allowing users to adjust lighting levels, turn lights on/off, or create lighting scenes for different occasions or purposes.
  3. Remote Access: Many modern lighting control systems offer remote access through smartphones, tablets, or web-based platforms. This allows users to control lighting from anywhere with an internet connection.
  4. Automation: Lighting control systems often include scheduling and automation features. Users can set timers or create schedules to automatically adjust lighting levels based on time of day, occupancy, or other criteria.
  5. Dimming Control: The interface should support dimming capabilities, allowing users to adjust the brightness of individual fixtures or zones to save energy and create the desired ambiance.
  6. Energy Monitoring: Some systems provide energy consumption data, helping users track and optimize their lighting energy usage for cost savings and sustainability.
  7. Integration: Lighting control interfaces may integrate with other building automation systems, such as HVAC, security, and audiovisual systems, to provide seamless control of all building functions.
  8. Customization: Users should be able to customize and save their preferred lighting settings, scenes, and configurations for easy recall.
  9. Feedback and Reporting: The interface may offer feedback on system status, including alerts or notifications for maintenance issues or faults.
  10. Security: Security features are essential to protect the lighting control system from unauthorized access or tampering.
  11. Scalability: The interface should be scalable to accommodate different sizes and complexities of lighting control systems, from single rooms to large commercial or industrial installations.
  12. Compatibility: It should support various communication protocols and be compatible with different types of lighting fixtures and technologies, such as LED, fluorescent, or incandescent lighting.
  13. User Permissions: In commercial or multi-user settings, the interface may allow for user access permissions and role-based control to ensure security and prevent unauthorized changes.
  14. User Support and Training: Adequate user support and training resources should be available to help users maximize the functionality of the interface.
  15. Mobile Apps and Web Interfaces: Many modern lighting control systems provide mobile apps or web interfaces that allow users to control their lighting systems remotely using smartphones, tablets, or computers.

Overall, a lighting switching control system interface plays a crucial role in making lighting systems more efficient, convenient, and adaptable to the needs of users and buildings. It combines hardware controllers with user-friendly software interfaces to provide a seamless lighting control experience.