UAV Visual Navigation Course

2.2 eVTOL and UAM: Electric Propulsion, Multiple Rotors

2.2 Emerging Certification Requirements (SC-VTOL, Special Conditions)

2.3 Energy and Thermal in E-Propulsion (Batteries/Inverters)

2.4 Design for Maintainability and Modular Swaps

2.5 LCA/LCC in Rotorcraft and eVTOL (Footprint and Cost)

2.6 Operations & Vertiports: Airspace Integration

2.7 Data & Digital Thread: MBSE/PLM for Change Control

2.8 Tech Risk and Readiness: TRL/CRL/SRL

2.9 IP, Certifications, and Time-to-Market

2.20 Case Study: Go/No-Go with Risk Matrix

3.3 Principles of UAV Visual Navigation: Theoretical Foundations

3.2 Interpreting the Aerial Environment: Recognizing Visual Elements

3.3 Visual Flight Planning: Routes, Waypoints, and Altitudes

3.4 Visual Orientation Techniques: Using the Horizon, Cardinal Directions, and Geography

3.5 Navigation by Visual Reference: Identifying and Tracking Objects

3.6 Flying in Different Visibility Conditions: Adaptation and Precautions

3.7 UAV Handling in Visual Flight: Controls, Stability, and Maneuvers

3.8 Communication in Visual Flight: Protocols and Visual Signals

3.9 Human Factors in Visual Navigation: Fatigue, Illusions, and Common Errors

3.30 UAV Visual Navigation Simulation and Practice

4.4 Introduction to drone regulations and aeronautical legislation.

4.2 Basic principles of flight and aerodynamics for UAVs.

4.3 UAV components and their functions.

4.4 Control and communication systems in UAVs.

4.5 Safety and responsibility in drone operation.

4.6 Human factors and risk mitigation.

4.7 Flight planning and mission preparation.

4.8 First steps in drone piloting.

4.9 Applicable legislation and obtaining permits.

4.40 Ethics and best practices in UAV operations.

2.4 Fundamentals of rotor analysis.

2.2 Rotor blade theory and airfoils.

2.3 Rotor performance analysis methods.

2.4 Rotor design and selection.

2.5 Influence of design on efficiency and noise. 2.6 Rotor Optimization Techniques

2.7 Rotor Vibration and Stability Analysis

2.8 Rotor Materials and Manufacturing

2.9 Rotor Testing and Validation

2.40 Case Studies and Practical Examples

3.4 Fundamentals of Visual Air Navigation

3.2 Interpreting Maps and Navigation Charts

3.3 Recognizing Patterns and Visual References

3.4 Flight Orientation and Positioning Techniques

3.5 Factors Affecting Visibility and Visual Flight

3.6 Use of Basic Flight Instruments

3.7 Route Planning and Flight Time Calculation

3.8 Navigation in Low Visibility

3.9 Airspace Communication and Coordination

3.40 Visual Flight Simulations and Practice

4.4 Fundamentals of UAV Visual Domain

4.2 Aerial Guidance and Remote Control Techniques

4.3 Effective Communication and Standard Procedures

4.4 Data Interpretation and Reference Systems

4.5 Emergency and Critical Situation Management

4.6 Adapting to Variable Weather Conditions

4.7 Using Flight Planning Software

4.8 Safety Considerations and Risk Management

4.9 Integration with Other Systems and Technologies

4.40 Advanced Flight Practice and Simulation

5.4 UAV Flight Trajectory Planning

5.2 Takeoff and Landing: Techniques and Procedures

5.3 Hovering and Control Maneuvers

5.4 Flying in Different Configurations and Environments

5.5 Using Waypoints and Predefined Routes

5.6 Managing Wind and Environmental Factors

5.7 Executing Advanced and Aerobatic Maneuvers 5.8 Obstacle avoidance techniques.

5.9 Troubleshooting and fault management.

5.40 Flight simulations and practice in complex scenarios.

6.4 Navigation and orientation systems in UAVs.

6.2 Autonomous flight and remote control techniques.

6.3 Use of GPS and positioning systems.

6.4 Inertial navigation and attitude sensors.

6.5 Mapping and photogrammetry techniques.

6.6 Operations in confined spaces and complex environments.

6.7 Adaptation to adverse weather conditions.

6.8 Implementation of advanced safety measures.

6.9 Integration of sensors and data systems.

6.40 Advanced flight practice and troubleshooting.

7.4 Fundamentals of precise visual navigation.

7.2 Interpretation of visual and ground references.

7.3 Precision and Accuracy Flight Techniques

7.4 Use of Instruments and Navigation Support Systems

7.5 Planning and Execution of Precise Flight Missions

7.6 Navigation in Challenging and Complex Environments

7.7 Error and Deviation Control and Management

7.8 Regulatory Compliance and Flight Safety

7.9 Integration of Technologies and Support Systems

7.40 Flight Practices Focused on Precision

8.4 Aerodynamic Optimization and Rotor Design

8.2 Energy Efficiency and Consumption Analysis

8.3 Noise and Vibration Reduction in Rotors

8.4 Material Selection and Manufacturing Processes

8.5 Implementation of Control and Management Systems

8.6 Performance Analysis and Flight Simulation

8.7 Application of Innovative Technologies in Rotors 8.8 Improving rotor lifespan and maintenance.

8.9 Cost-benefit analysis of optimization.

8.40 Case studies and industry trends.

5.5 Rotor Design: Fundamentals and Types

5.5 Rotor Aerodynamics: Theory and Applications

5.3 Structural Analysis of Rotors: Materials and Strength

5.4 Helicopter Flight Dynamics: Stability and Control

5.5 Rotor Modeling and Simulation: Software and Tools

5.6 Rotor Measurements and Testing: Wind Tunnel Testing

5.7 Rotor Design Optimization: Performance and Efficiency

5.8 Rotor Failures and Maintenance: Inspection and Repair

5.9 Rotor Selection: Criteria and Process

5.50 Case Studies: Rotor Performance Analysis

6.6 Flight Planning and Environmental Recognition

6.2 Visual Navigation Systems: Principles and Operation

6.3 Identifying Landmarks and Terrain Features

6.4 Visual Orientation and Positioning Techniques

6.5 Adapting to Weather and Visibility Conditions

6.6 Flying in Different Environments: Urban, Rural, and Maritime

6.7 Safety Protocols and Risk Management in Visual Flight

6.8 Using Visual Aids: Maps, Compasses, etc.

6.9 Visual Flight Practice in Simulators and Real-World Scenarios

6.60 Regulations and Standards for UAV Visual Navigation