Drone Builders Collective

Paladin Automation
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Ready to take your drone builds from 'it flies' to 'it’s a masterpiece of engineering'? Welcome to the Drone Builders Collective. This is the ultimate podcast for creators, makers, and remote-control pilots who want to master the science of flight. You do not need a fancy university degree to build incredible aircraft. You just need a workbench, a soldering iron, and a curiosity about how things work. Every episode, we break down high-level aerospace engineering concepts into simple, actionable steps you can use on your next build. Join us as we explore: Aerodynamic Principles Aircraft Design Robotic Functions Whether you are assembling your very first pre-made kit or custom-coding an autonomous flight system from scratch, you have found your crew. Subscribe now, grab your tools, and let’s build something amazing together. Brought to you by Paladin Automation LLC. https://paladinautomation.com/

Episodes

  1. Aug 30

    Aircraft Performance: Maneuvering, Loads, and Flight Envelopes

    This lesson explains load factor, G forces, turning flight, accelerated stalls, maneuvering speed, gust loads, structural limits, and the flight envelope.

    Aircraft Performance: Maneuvering, Loads, and Flight Envelopes

  2. Aug 30

    Aircraft Performance: Range, Endurance, and Mission Energy

    Every aircraft carries a limited supply of usable energy. For most airplanes, that energy is stored as fuel. For electric aircraft and many drones, it is stored in batteries. For gliders, altitude and rising air provide much of the usable energy. For rockets, propellant carries both fuel and oxidizer, making the energy and mass trade even more extreme.

    Aircraft Performance: Range, Endurance, and Mission Energy

  3. Aug 30

    Aircraft Performance: Takeoff, Climb, Cruise, Descent

    A flight is not one continuous, unchanging condition. The airplane behaves differently on the runway, immediately after liftoff, during climb, at cruise altitude, during descent, and in the landing approach.

    Aircraft Performance: Takeoff, Climb, Cruise, Descent

  4. Aug 30

    Aircraft Performance: Thrust, Power, and Flight Condition

    This lesson introduces the core language of performance: thrust required, thrust available, power required, power available, airspeed, groundspeed, density altitude, and the basic idea of excess thrust or excess power.

    Aircraft Performance: Thrust, Power, and Flight Condition

  5. Aug 23

    Aerodynamics and Flight: Compressibility and High-Speed Flight

    This lesson explains Mach number, the speed of sound, shock waves, expansion waves, transonic flight, critical Mach number, drag divergence, Mach tuck, sweep, high-speed inlets, and nozzle flow.

    Aerodynamics and Flight: Compressibility and High-Speed Flight

  6. Aug 23

    Aerodynamics and Flight: Real Airflow and Aerodynamic Testing

    This lesson explains how engineers deal with real airflow. We will cover boundary layers, laminar and turbulent flow, transition, separation, Reynolds number, wind-tunnel testing, flow visualization, computational models, flight testing, and uncertainty.

    Aerodynamics and Flight: Real Airflow and Aerodynamic Testing

  7. Aug 23

    Aerodynamics and Flight: Aerodynamic Surfaces and Controls

    This lesson explains flight control surfaces, how they work, why an aircraft needs more than a wing, and why the systems that move them are as important as the surfaces themselves.

    Aerodynamics and Flight: Aerodynamic Surfaces and Controls

  8. Aug 23

    Aerodynamics and Flight: Wing and Aircraft Geometry

    This lesson explains the major parts of wing geometry and how designers use them to shape aircraft behavior.

    Aerodynamics and Flight: Wing and Aircraft Geometry

  9. Aug 23

    Aerodynamics and Flight: Drag and Aerodynamic Efficiency

    In the last lesson we learned how a wing creates lift: camber, thickness, angle of attack, pressure differences, and the turning of airflow all work together. But lift does not grow without limit. Push the angle of attack far enough, and something dramatic happens—the smooth airflow that was generating all that lift falls apart. That event is the stall, and understanding it is essential because most aviation accidents in small aircraft happen near a stall. This lesson explains what the stall really is, why it happens, how designers manage it, and how aircraft use movable surfaces called high-lift devices to fly safely and slowly for takeoff and landing.

    Aerodynamics and Flight: Drag and Aerodynamic Efficiency

  10. Aug 23

    Aerodynamics and Flight: Wings and Lift, Part 2 - Stall and High-Lift Devices

    In the last lesson we learned how a wing creates lift: camber, thickness, angle of attack, pressure differences, and the turning of airflow all work together. But lift does not grow without limit. Push the angle of attack far enough, and something dramatic happens—the smooth airflow that was generating all that lift falls apart. That event is the stall, and understanding it is essential because most aviation accidents in small aircraft happen near a stall. This lesson explains what the stall really is, why it happens, how designers manage it, and how aircraft use movable surfaces called high-lift devices to fly safely and slowly for takeoff and landing.

    Aerodynamics and Flight: Wings and Lift, Part 2 - Stall and High-Lift Devices

  11. Aug 23

    Aerodynamics and Flight: Wings and Lift, Part 1 - Airflow, Pressure, Momentum

    Lift is not a vague miracle. It is a force produced by a pressure difference over the wing, which itself comes from the wing's shape and angle of attack. A cambered airfoil produces lift at zero geometric angle; a symmetric one needs positive angle. Either way, the wing turns airflow, creating circulation and a pressure imbalance that yields an upward-directed component of aerodynamic force.

    Aerodynamics and Flight: Wings and Lift, Part 1 - Airflow, Pressure, Momentum

  12. Aug 22

    Aerodynamics and Flight: Forces and Motion

    This segment explains what the four forces are, how they change, and how they work together to determine an aircraft’s motion. It also introduces airspeed, density, altitude, and energy—the ideas that make the difference between an aircraft that merely flies and one that performs a useful mission.

    Aerodynamics and Flight: Forces and Motion
  • 12 Episodes

About

Ready to take your drone builds from 'it flies' to 'it’s a masterpiece of engineering'? Welcome to the Drone Builders Collective. This is the ultimate podcast for creators, makers, and remote-control pilots who want to master the science of flight. You do not need a fancy university degree to build incredible aircraft. You just need a workbench, a soldering iron, and a curiosity about how things work. Every episode, we break down high-level aerospace engineering concepts into simple, actionable steps you can use on your next build. Join us as we explore: Aerodynamic Principles Aircraft Design Robotic Functions Whether you are assembling your very first pre-made kit or custom-coding an autonomous flight system from scratch, you have found your crew. Subscribe now, grab your tools, and let’s build something amazing together. Brought to you by Paladin Automation LLC. https://paladinautomation.com/

Information

  • Creator
    Paladin Automation
  • Years Active
    2026
  • Episodes
    12
  • Rating
    Clean
  • Copyright
    © Paladin Automation LLC
  • Show Website
    Drone Builders Collective