IOT based Smart Green Parking with Wireless Charging System for Electric Vehicles EV’s

Description

A smart IoT-enabled EV parking system that detects available parking slots 🚗, controls gate access 🔐, provides wireless charging ⚡ using solar energy ☀️, and generates real-time charging bills 💰 on the cloud.

—If slot is occupied → ❌ Slot Not Available
—If slot is empty → ✅ Slot Available

This is an Award-Winning Project you can select this as your major project, capstone project, competition, exhibition projects etc. (Highly Recommended)

📘 Introduction

The primary objective of this project is to develop a smart parking solution that optimizes the utilization of parking spaces for EVs while providing wireless charging capabilities. The proposed system leverages IoT devices, such as IR sensors, to collect real-time data on parking space availability and EV charging requirements.

With the rapid growth of Electric Vehicles (EVs), efficient parking management and sustainable charging infrastructure have become critical challenges. Traditional parking systems do not provide real-time slot monitoring, and wired charging stations increase infrastructure complexity and maintenance costs.

Globally, EV adoption is increasing rapidly. According to IEA reports, EV sales crossed 14 million units in recent years, creating strong demand for smart charging infrastructure. Smart parking systems reduce traffic congestion by up to 30% in urban areas by minimizing search time for parking slots. Integrating renewable energy further enhances sustainability.

This project develops an IoT-Based Smart Green Parking and Wireless Charging System for Electric Vehicles. The system uses IR sensors to detect parking slot availability, controls entry and exit gates using a servo motor, and enables wireless power transfer through inductive charging coils powered by solar panels.

The Arduino microcontroller processes sensor data, updates parking availability on LCD, uploads real-time data via Wi-Fi, and activates wireless charging when an EV is parked in a designated charging slot.

Problem Statement

1. The rapid increase in EV adoption has created demand for intelligent parking and charging infrastructure.

2. Conventional parking systems do not provide real-time slot monitoring.

3. Drivers waste time searching for available parking spaces, increasing congestion.

4. Wired EV charging systems require physical connectors and maintenance.

5. Lack of renewable energy integration reduces sustainability.

6. There is a need for an integrated system combining smart parking, wireless charging, and green energy solutions.

BLOCK DIAGRAM

Block diagram : IoT Smart Green Parking and Wireless Charging System for Electric Vehicles using solar energy and IR sensor-based slot monitoring.

Objectives

1. To detect parking slot occupancy using IR sensors.
2. To control gate opening and closing automatically.
3. To enable wireless EV charging through inductive coupling.
4. To integrate solar energy for sustainable operation.
5. To display real-time slot status on LCD.
6. To upload parking data to cloud via Wi-Fi module.

Components List

1. Arduino Uno ×1 (Main microcontroller)
2. IR Sensors ×6 (4 for parking slots, 2 for Gate monitoring)
3. Servo Motor ×1 (Gate open/close mechanism)
4. Solar Panel ×1 (Green energy source)
5. Wireless Charging Circuit ×1
6. Charging Coil (Transmitter) ×1
7. Charging Coil (Receiver) ×1
8. LCD Display 16×2 ×1
9. Wi-Fi Module (ESP8266) ×1
10. Relay Module ×1 (Wireless charging control)
11. Power Supply Module ×1
12. Jumper Wires, Resistors, Connectors

Software Required

1. ARDUINO IDE
2. EMBEDDED C
3. C PROGRAMMING
4. App Remote XY Android/ IOS

Methodology

The system consists of four parking slots monitored using IR sensors (IR1–IR4). Each IR sensor detects vehicle presence by sensing infrared reflection.

When a vehicle enters:

• Gate IR sensors (IR5 & IR6) detect entry movement
• Servo motor opens the gate
• Slot IR sensor detects occupancy
• LCD updates available slot count
• Wi-Fi module uploads data to cloud dashboard

If the vehicle parks in the charging slot:

• Relay activates wireless charging circuit
• Solar panel supplies power
• Transmitter coil generates magnetic field
• Receiver coil mounted in EV captures energy
• Battery charging begins

When vehicle exits:

• IR sensors detect movement
• Servo closes gate
• Charging stops automatically

Theory of Operation

IR Sensors work on infrared reflection principle. When a vehicle blocks IR beam, output changes from HIGH to LOW, indicating occupancy.

Wireless Charging works on Electromagnetic Induction Principle. Alternating current in transmitter coil produces magnetic flux. When receiver coil is aligned, induced voltage is generated and rectified to charge battery.

Solar panel converts sunlight into DC electrical energy. The energy is regulated and supplied to wireless charging circuit and control electronics.

Arduino processes all sensor inputs, executes decision logic, drives servo motor, controls relay, updates LCD, and communicates via ESP8266 Wi-Fi.

Keywords

IoT smart parking system, wireless EV charging project, solar EV charging Arduino, smart green parking system, Arduino EV parking project, wireless power transfer EV prototype, IoT based EV charging station, smart parking with IR sensors, inductive charging system Arduino, renewable energy EV charging project, engineering major project EV charging, smart parking system with LCD and WiFi, contactless EV charging prototype, solar powered parking system project, Arduino based EV infrastructure project

Title Suggestions

technical IEEE-style title options:

1. Design and Implementation of an IoT-Enabled Solar-Powered Smart Parking and Wireless Charging System for Electric Vehicles

2. Development of a Solar-Integrated IoT Framework for Smart Parking Management and Inductive Wireless Charging of Electric Vehicles

3. An IoT-Based Smart Green Parking Infrastructure with Solar-Assisted Wireless Power Transfer for Electric Vehicles

4. Integrated Smart Parking and Solar Wireless Charging Architecture for Electric Vehicles Using IoT Technology

5. A Sustainable IoT-Driven Smart Parking and Contactless Wireless Charging System for Electric Vehicles

6. Design of a Solar-Assisted Smart EV Parking and Inductive Charging System with Real-Time IoT Monitoring

7. IoT-Enabled Smart Parking Management with Renewable Energy-Based Wireless Charging for Electric Vehicles

8. Development of a Green Smart Parking and Inductive Wireless Charging Prototype for Electric Vehicles

9. Solar-Powered Intelligent Parking Infrastructure with Wireless EV Charging and IoT Integration

10. An Embedded IoT Framework for Automated Smart Parking and Solar-Based Wireless Charging of Electric Vehicles

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🔖 What’s Included with your Project ?

💯 Fully Working & Assembled Project
📘 Docs – Includes synopsis, PPT, report & diagrams
🔄 Circuit & Block Diagrams – Clear and labelled
💻 Arduino Code + Training – Upload & customize easily
⚙️ Working Principle Explained
📦 Component Specs + BOM
📑 Datasheets Provided – For sensors and modules
🔌 Complete Wiring Guide
🎓 Viva Q&A Help – With expert support via WhatsApp

🙌 Need custom features or upgrades? Just ask — we’re happy to help! 🙌

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Contact us:
👨🏼‍🏭 Dr. Vipin Kumar Sharma
🎓 Ph.D., M.Tech, B.Tech (ECE), C.E, D.E NS.
👨‍🏫 Lecturer | 🚀 Researcher | 🤖 Robotics | 🌐 IoT

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