A layered aerospace demo: first inspect the real CanSat body, then open the internal structure, then click each subsystem for engineering-level explanations. Run the physics-based mission simulation below.
The first view shows the polished CanSat body. Open it to see the internal electronics stack, then click any subsystem for a detailed engineering explanation.
The onboard computer that coordinates the whole mission.
Central electronics deck inside the CanSat.
Reads sensors, processes data, stores logs and controls telemetry.
The MCU turns separate parts into one mission system.
Canvas flight demo: carrier ascent, release, descent, parachute deployment, telemetry trail and landing recovery. The numbers update from a simple drag model.
Start the full sequence and watch telemetry update during flight.
Altitude
Velocity
Mission time
Status
These additions make the project feel more like a serious aerospace portfolio, not only a webpage.
Add real sensor names: BMP280, MPU6050, GPS NEO-6M, ESP32.
Add a wiring diagram section for MCU, sensors, battery and transmitter.
Add a telemetry chart: altitude-time and velocity-time after the mission run.
Add a real mission report PDF button later when your project is ready.
The simulation uses gravity and quadratic drag. After parachute deployment, drag increases and terminal velocity becomes safer.