L1: From Pilots to Pixels: The Evolution of Flight

This session provides a comprehensive introduction to the aviation world, tracing the journey from traditional manned flight to the AI-driven autonomous systems of tomorrow. Students will explore:

• The Human Element: Understand the roles of people involved in traditional aviation, from pilots to air traffic controllers, and the foundations of manual flight.

• Technological Shifts: Compare the transition from "Fly-by-Wire" systems and analogue cockpits to modern, data-rich "Glass Cockpits" and autopilot functionalities.

• The Rise of Unmanned Aircraft: Trace the evolution of drones from high-stakes military applications to their current widespread civil and commercial use.

• The AI Integration: Discover how Artificial Intelligence is being integrated into modern aviation, particularly in enhancing drone perception and decision-making.

• Introduction of Low-altitude economy: Concept of low-altitude economy and its trend.

• Practical Activity: Group project about creating a concept map and oral presentation to illustrate the definition, significance, and key sectors of low-altitude economy.

Goal: Enable students to trace the technological transition from manual pilot operations to digital flight systems and articulate the foundational concepts of modern aerial platforms.

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L2: Low-altitude Economy and Applications of Drones

This session investigates how drones transform civil and commercial industries across urban environments. Students will explore:

• Surveying and Mapping: Analyse how drones capture spatial data to construct high accuracy 2D maps and 3D terrain models.

• Search and Rescue: Study rapid deployment strategies, and thermal detection during emergency missions.

• Infrastructure and Building Façade Inspection: Learn how optical and thermal sensors inspect structural integrity.

• Aerial Photography: Study how drones are used in commercial media production.

• Low-altitude Economy Regulatory Sandbox and Niche Applications: Logistic and human transportation.

• Practical Activity: Group project presentation about the real-world applications of drones in the low-altitude economy and propose potential areas of improvement or new applications of drones.

Goal: Familiarise students with key commercial application areas within the low-altitude economy and evaluate how drone deployments solve logistical, industrial, and civil infrastructure challenges.

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L3: General Drone Knowledge and Flight Physics

This session bridges physical laws with drone hardware and operations. Students will explore:

• Types of Drones: Compare multirotor, fixed-wing, and hybrid VTOL airframe configurations to understand their operational trade-offs.

• The Four Forces of Flight: Understand the balance between Thrust, Drag, Weight, and Lift that allows any aircraft to remain airborne.

• Principles of Aerodynamics: Deep dive into Bernoulli's Principle and Newton's Third Law to understand how pressure differences and action-reaction pairs generate lift.

• Control Surfaces & Multirotor Dynamics: Identify how traditional aircraft manipulate ailerons, elevators, and rudders, and contrast this with multirotor motor speed adjustments for attitude control (Roll, Pitch, Yaw).

• Drone Load Integration: Examine essential operational payloads, including mechanical gimbals, optical cameras, obstacle avoidance sensors, LiDAR, and thermal/infrared cameras.

• Practical Activity: Engage in a hands-on paper plane aerodynamics challenge to test wing modification, balance, and physical flight stability.

Goal: Equip students with a thorough understanding of flight physics, airframe configurations, and sensor payloads necessary for stable aircraft operation and structural control.

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L4: Navigation and Units of Measurement

This session focuses on the precision of flight data, navigation standards, and the importance of standardising measurements in the aviation. Students will explore:

• The Primary Flight Display (PFD): Learn to interpret critical real-time data including Indicated Airspeed, Altitude (MSL), Heading (Direction), and Vertical Speed.

• Global Positioning & Time: Understand the role of Global Navigation Satellite Systems (GNSS) in pinpointing location and the necessity of Zulu Time (UTC) for international aviation coordination.

• Environmental Variables: Analyse wind speed and its impact on ground speed versus airspeed.

• Drone Flight Simulation: Move from manned aircraft to unmanned systems, using a drone simulator to practice flight control, navigation and spatial awareness.

Goal: Enable students to accurately interpret flight instruments, understand environmental variables, and execute precision manoeuvres within a simulated navigation environment.

 

L5: Meteorology

This session explores the "Applied Geography" of the sky, teaching students how atmospheric conditions directly impact flight performance, structural safety, and low-altitude route planning. Students will explore:

• Atmospheric Science: Understand how density, temperature, and atmospheric pressure affect aircraft performance; learn the significance of relative humidity and the dew point in predicting fog or icing.

• Aviation Weather Reports: Master the structure of METAR (Meteorological Aerodrome Report) and TAF (Terminal Aerodrome Forecast) to read the "language of the sky."

• Urban Micro-Climates: Analyse how high-rise buildings create localised wind canyons, thermal updrafts, and severe low-altitude turbulence.

• Practical Activity: Evaluate live aviation weather data to issue real-time "Go / No-Go" flight safety clearance decisions.

Goal: Provide students with the skills to decode professional aviation weather reports, evaluate atmospheric variables, and assess low-altitude micro-climatic conditions for safe flight operations.

 

L6: Drone 101: Legal Framework and Precision Control

This session provides a comprehensive introduction to drones, establishing strict legal compliance standards under Hong Kong aviation laws alongside hands-on piloting mastery. Students will explore:

• The Rules of the Sky: Understand Hong Kong's drone legislation, key safety publications, and the local airspace restrictions.

• Remote Pilot Certification: Explore the requirements and course content necessary to obtain a Remote Pilot Certificate from the Civil Aviation Department (CAD).

• Hands-On Piloting: Gain practical flight experience, mastering basic controls (take-off, landing, hovering, navigation) while maintaining Visual Line of Sight (VLOS).

• Safety First: Learn essential flight planning, pre-flight checks, site survey, risk assessments, and emergency procedures.

• Obstacle Course Flying: Reinforce learning through a timed obstacle course challenge, manoeuvring drones through physical hoops to build muscle memory.

Goal: Ensure students operate unmanned aircraft in full compliance with local aviation regulations while demonstrating physical piloting proficiency, spatial control, and pre-flight safety protocols.

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L7: AI in Action: The Intelligent Drone

This session demonstrates how AI algorithms and multi-sensor data fusion dictate the movement of modern drones. Students will explore:

• Real-Time Object Detection (YOLO): Use the "You Only Look Once" fast AI model to identify, draw bounding boxes around, and track objects like people or cars in real-time.

• Occupancy Grid Intelligence: Witness how drones use vision, LIDAR, and infrared sensors to fuse data into a real-time grid-based map for seamless obstacle avoidance.

• Pose Detection: Utilize pose detection to identify key points on the human body, allowing drones to execute commands based on predefined gestures.

• Practical AI Experience: Engage in a practical session to experience these AI functions firsthand with modern drones, witnessing how digital perception dictates physical action.

Goal: Introduce students to visual recognition frameworks and sensor data fusion, demonstrating how perception models enable autonomous decision-making and real-time physical control.

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L8: The Ethical Pilot: Accountability and AI Values

This session explores the moral, legal, and societal responsibilities associated with automated systems where software handles critical flight decisions. Students will explore:

• Programmed Flight: Analyse how modern drones are powered by computer programs.

• Accountability & Transparency: Discuss who is responsible when an autonomous system fails—is it the pilot, the programmer, or the manufacturer?

• Ethical Alignment: Explore the challenge of aligning AI with human values. Should AI be programmed to follow Utilitarianism (choosing the outcome that helps the most people) or Deontology (following strict rules regardless of the outcome)?

• Project Studio: Dedicated time for teams to synthesize their research, finalize their aviation-AI project design, and begin creating their exhibition posters.

Goal: Challenge students to critically evaluate liability and ethical frameworks in automated flight systems while synthesising their course research to finalise their capstone projects.

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L9: Capstone Presentation: The Aviation and AI Exhibition

The final session serves as the capstone event where student teams showcase their integrated research, system designs, or commercial low-altitude solutions to peers and evaluators. Students will explore:

• Project Exhibition: Teams exhibit their group projects and posters, presenting their unique solutions or research into Aviation, Drones, and the Low-Altitude Economy.

• Peer Review: A platform for students to articulate their insights, receive feedback from their peers or teachers, and celebrate their learning journey.

Goal: Enable students to articulate their knowledge of drone technology, regulatory compliance, and low-altitude economics through a structured presentation.

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