Building the biggest working plane from scratch is an exhilarating experience, especially when using a creative platform that allows for intricate mechanical assembly. One of the key challenges I faced was integrating multiple complex components like the Brussels Gearbox and Energy Transmitter to manage power flow efficiently throughout the plane. It’s fascinating how adjusting elements such as speed direction, double forward speed, and input speed reversals can optimize movement and control. I spent considerable time modifying thrusters and exhaust systems, paying close attention to temperature controls to ensure realistic operation—especially when working with gas thrusters and steam effects. Using super glue and robust bearings, like the smart flap bearing and hinge assemblies, helped to secure moving parts firmly while maintaining smooth articulation. An essential trick I learned is how to carefully position each part, using linked controllers for synchronized movement. This coordination made it possible to simulate realistic flight mechanics, including thrust generation and aerodynamic stability. Being able to mock up components at scale, such as 1.00m parts, further enhanced the build’s authenticity. Patience is crucial; the process can take hours, as I discovered when working through modifications step-by-step and continuously testing the plane’s responsiveness. I highly recommend experimenting with motor speeds and directional controls to find the ideal balance between power and maneuverability. For anyone eager to create their own mechanical aircraft, embracing a trial-and-error approach combined with detailed component management can lead to truly impressive results. The satisfaction of watching your largest design come to life and take flight is absolutely worth the effort.