Missile Simulator

شبیه‌سازیTo be announcedWindows

وضعیت

به‌زودیقیمت هنوز در استیم اعلام نشده

Build and launch your own missiles in a physics-driven engineering sandbox. Experiment with airframes, fins, and propulsion, analyze flight data, and refine your designs for greater speed, altitude, and stability. Put every creation to the test against real-world physics.

Build your own missiles and put them to the test in a physics-driven engineering sandbox. Design, launch, analyze, and refine your creations as you chase greater speed, higher altitude, and more stable flight. Every launch is an experiment. Every result is a reason to head back to the drawing board.

BUILD YOUR DESIGN

Choose your missile’s body, nose cone, fins, and propulsion. Experiment with different configurations and discover how shape, mass, and thrust affect performance. A design that looks fast still has to prove itself in the air.

PUT REAL PHYSICS TO THE TEST

Launch into a full six-degrees-of-freedom flight simulation that models both movement and rotation through three-dimensional space. Aerodynamic forces, gravity, and changing mass shape your flight from ignition through burnout and beyond.

Watch your design climb cleanly, drift off course, or lose stability as the physics play out.

READ THE RESULTS

Follow your missile’s trajectory and examine flight data to understand what happened. Track speed, altitude, acceleration, and stability throughout the flight. Find out where your design performed well and where it needs another pass.

TAKE ON THE ATMOSPHERE

Test your creations in different wind and atmospheric conditions using real-world weather data. See how the same design behaves when the environment changes.

REFINE. RELAUNCH. REPEAT.

Adjust your design, test a new configuration, and see what changes. Pursue a personal performance goal or experiment to understand what makes a missile fly. The next launch starts with what you learned from the last one.

Key Features

  • Missile building with configurable airframes, fins, and propulsion.

  • Physics-driven flight powered by a six-degrees-of-freedom simulation.

  • Three-dimensional trajectories and detailed flight telemetry.

  • Wind and atmospheric modeling using real-world weather data.

  • Open-ended experimentation focused on building, testing, and improving.