The Aerial Robotics training is a focused two-day program designed to introduce participants to the fundamentals of unmanned aerial vehicles (UAVs), aerial robot architectures, sensing, control, and autonomous operation concepts. This course provides a practical understanding of how aerial robots are designed, controlled, and deployed across applications such as inspection, mapping, surveillance, and research.

• Understand the fundamentals, architecture, and operational principles of aerial robotic systems.
• Identify drone components including flight controllers, sensors, actuators, communication modules, and propulsion systems.
• Develop aerial robotic applications involving flight control, navigation, stabilization, and mission automation.
• Implement sensor integration, telemetry communication, obstacle detection, and autonomous flight workflows.
• Debug, test, and optimize aerial robotic systems for safety, performance, reliability, and operational efficiency.
• Build intelligent, scalable, and production-ready aerial robotic solutions using industry best practices.

 • Robotics and automation professionals
 • UAV and drone engineers
 • Embedded systems and mechatronics engineers
 • Researchers and students working with aerial systems
 • IT professionals exploring autonomous robotics

 • Basic understanding of programming or scripting concepts
 • Familiarity with basic physics or engineering principles
 • Basic knowledge of Linux or embedded systems is beneficial
 • Awareness of robotics or drone concepts is helpful

 • Understanding aerial robotics concepts and system architecture
 • Knowledge of UAV components, sensors, and actuators
 • Awareness of flight dynamics and control principles
 • Ability to analyze autonomous flight workflows
 • Understanding real-world aerial robotics use cases

By the end of this training, participants will have a solid understanding of aerial robotics systems, flight principles, sensing, and autonomy concepts. Learners will be able to analyze aerial robotic solutions, understand operational challenges, and confidently contribute to UAV-based projects and discussions.

Introduction to Aerial Robotics
 • Evolution of aerial robots and UAVs
 • Applications of aerial robotics
 • Types of aerial platforms
 • Key challenges in aerial robotics

UAV Components and System Architecture
 • Airframe and propulsion systems
 • Flight controllers and onboard computers
 • Sensors used in aerial robotics
 • Communication and telemetry basics

Flight Dynamics and Control Fundamentals
 • Coordinate frames and motion basics
 • Stability and control concepts
 • Attitude, altitude, and position control
 • Manual vs autonomous flight awareness

Sensors and State Estimation
 • IMU, GPS, and vision sensors
 • Sensor fusion concepts
 • Localization and state estimation basics
 • Environmental perception awareness

Autonomy and Navigation Concepts
 • Autonomous flight workflows
 • Path planning basics
 • Obstacle detection and avoidance awareness
 • Mission execution concepts

Aerial Robotics Software Ecosystem
 • Overview of popular UAV software stacks
 • Role of middleware and APIs
 • Simulation tools awareness
 • Integration with control systems

Safety, Regulations, and Operational Considerations
 • UAV safety principles
 • Regulatory and compliance awareness
 • Fail-safe and emergency handling
 • Ethical and responsible use

Aerial Robotics Capstone Workshop and Best Practices
 • Designing an aerial robotics use case
 • Selecting sensors and platforms
 • Analyzing autonomy and safety aspects
 • Final review and best practices

• Aerial Robotics Fundamentals & System Architecture
• Flight Controllers, Sensors & Hardware Integration
• Navigation, Telemetry & Autonomous Flight Control
• Debugging, Safety Validation & Performance Optimization
• End-to-End Aerial Robotics Development Project

Participants will be evaluated through conceptual assessments, interactive discussions, and scenario-based exercises conducted during the training. The evaluation focuses on understanding aerial robotics fundamentals, system architecture, and the ability to apply concepts to real-world UAV scenarios.

Participants will receive course materials, slides, reference materials, exercises and access to resources for further learning.

Upon successful completion of the training, participants will receive the AcadNXT Certification for Aerial Robotics. This certification validates the learner’s foundational knowledge of aerial robotic systems, flight control concepts, sensing technologies, and autonomous operation principles.