Terminal Kinetic Ballistics
Depleted tungsten and dense monobloc penetrators rely on hypervelocity kinetic energy to displace homogeneous armor via hydrodynamic flow rather than chemical blast.
Calibrate bore caliber, propellant chamber pressure, and ballistic arc trajectory against mobile combat targets with dynamic line-of-sight armor penetration physics.
Depleted tungsten and dense monobloc penetrators rely on hypervelocity kinetic energy to displace homogeneous armor via hydrodynamic flow rather than chemical blast.
Sloped armor increases the effective travel distance required for a projectile to penetrate the hull. High angles also induce deflection and ricochet.
Projectiles decelerate through atmospheric drag, converting kinetic force into thermal dissipation over extended ranges before impact.
The engine resolves the collision vector between the incoming projectile and the target's angled armor plate. It computes the effective Line-of-Sight (LOS) thickness based on the relative impact angle. If the projectile's remaining kinetic penetration threshold exceeds the effective LOS thickness, a full catastrophic penetration occurs; otherwise, the round shatters, ricochets, or inflicts superficial armor spalling.
APFSDS (Armor-Piercing Fin-Stabilized Discarding Sabot) fires a dense kinetic dart at speeds up to 1,800 m/s with pinpoint penetration against heavily armored tanks. HEAT (High-Explosive Anti-Tank) utilizes a shaped chemical liner that creates a molten copper jet independent of distance falloff. HE-Frag provides high-radius explosive concussion that neutralizes aerial drones, optics, and light tracks.
Yes. Every fired shell records its muzzle velocity, kinetic energy, time of flight, impact coordinates, and armor penetration margin. Click the telemetry download button after firing to save the structured JSON proving ground report for external ballistic modeling.