Drone Technology and Drones for Environmental Science
Course provided by Model Institute of Engineering & Technology
5 modules
Master Drone Technology for Environmental Science
5 Level NCrF
National Credit Framework
90 Hours
Flexible Learning
Beginner Level
No prior experience required
Micro Course
03 Credit
Course Overview
This course introduces drone systems and their applications in environmental science. Learn how to operate drones, conduct simulations, and gather critical environmental data. Gain hands-on experience with real-world drone scenarios to monitor ecosystems, assess environmental changes, and support conservation efforts.
Key Learning Highlights
- Explore drone systems designed for environmental monitoring
- Hands-on simulation and practical flight training
- Data collection and analysis for environmental research
- Applications in conservation, forestry, water management, and climate studies
- Develop skills for emerging roles in environmental technology and drone operations
Tools & Platforms Used
Learning Outcome
By the end of this course, students will be able to:
- Understand the fundamental principles of drone technology and design.
- Gain practical experience in building and operating drones.
- Explore advanced concepts in aerodynamics, navigation, and autonomous systems.
- Learn about the diverse applications of drones across industries.
- Develop a comprehensive understanding of regulations and ethical considerations.
Master the course with just 5 Modules
Master the course in just 5 modules, covering drone fundamentals, environmental applications, simulations, hands-on practice, and data analysis to prepare you for real-world drone operations.
Module 1
- Introduction to Drone Technology and Design Overview of Drone Technology
- History and Evolution of Drones
- Types and Classifications of Drones
- Overview of Applications in Various Industries.
- Drone Components and Basic Design
- Key Components: Motors, Propellers, ESCs, Frames
- Flight Control Systems and Sensors – Basic Drone Design Principles.
Module 2
Aerodynamics, Flight Mechanics, and Navigation Aerodynamics and Flight Mechanics
Principles of Lift, Drag, and Thrust
Stability and Control Mechanisms
Impact of Aerodynamics on Drone Design
Navigation Systems and Communication
GPS, GNSS, and IMU Integration
Communication Protocols: RF, Wi-Fi, and LTE
Advanced Navigation Techniques.
Module 3
- Sensors, Payloads, and Autonomous Systems Advanced Sensors and Payload Integration
- Camera Systems, LiDAR, and Infrared Sensors- Payload Design and Integration
- Balancing Payload Weight and Drone Performance
- Autonomous Systems and AI in Drones
- Autonomous Flight Technologies
- AI and Machine Learning Applications in Drones
- Path Planning and Obstacle Avoidance.
Module 4
- Industry Applications and Regulations Industry Applications of Drones
- Agriculture, Construction, Logistics, and Environmental Monitoring
- Case Studies of Successful Drone Implementations
- Challenges and Opportunities in Various Sectors
- Regulations, Safety, and Ethical Considerations
- Global and Regional Drone Regulations
- Safety Standards and Compliance
- Privacy, Security, and Ethical Issues.
Module 5
- Future Trends, Case Studies, and Capstone Project Emerging Technologies and Innovations
- The Role of Drones in Smart Cities and IoT -Predictions for the Next Decade.
Roles
Drone Operator
UAV Systems Technician
