AEROSPACE TEST STAND

Rocket Physics Failure Simulator

“Physics is the law, and everything else is a recommendation.” — Elon Musk
Vehicle Configuration STG-1 TANK & ENGINE
Structural Dry Mass 25,000 kg
Tanks, airframe, fairings, and avionics. Less mass saves delta-v but compromises hoop strength.
Propellant Load (LOX/RP-1) 420,000 kg
Governs burn duration and takeoff thrust-to-weight ratio (TWR).
Sea-Level Engine Thrust 7,500 kN
Total engine cluster force. High thrust drives rapid acceleration into thick lower atmosphere.
Specific Impulse (Isp) 311 s
Effective exhaust velocity efficiency (g₀ · Isp).
Structural Safety Margin 1.15x
Design factor above nominal load. Standard aerospace is 1.25x-1.40x. Below 1.20x risks atmospheric dynamic failure.
Engineering Law: Max-Q is the point where aeronaval drag pressure q = 0.5 · ρ · v² peaks. If vehicle aerodynamic shear exceeds structural skin yield limits, catastrophic structural breakup occurs.
Altitude 0.0 km
Velocity 0.0 m/s
Dynamic Pressure (Q) 0.0 kPa
TWR (Liftoff) 1.72
Flight Status
TEST STAND
MET:T+ 00:00.0
Stage 1 Mass:445.0 t
Atmosphere Density:1.225 kg/m³
Downrange:0.0 km
AERO SHEAR STRESS 0%
0 kPa YIELD THRESHOLD
Awaiting Flight Test Ignition
Select an engineering configuration and fire the engines. Physics will evaluate structural safety margin against peak dynamic pressure (Max-Q).
Flight physics model: Barometric atmospheric density ρ(h) = ρ₀ · e^(-h / H), Tsiolkovsky rocket equation Δv = Isp · g₀ · ln(m₀ / mf), dynamic aero load q = ½ ρ v². Quote source: @elonmusk on X (Captured Sept 2026)
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