REDACTED // RESTRICTED AREA
HYPER-MAGLEV — OPS
AEROSPACE PHYSICS EXPERIMENT · UNIT 01
LAUNCH AUTHORITY: GROUND COMMAND · VERSION 7.4.2
VEL / TIME · LIVE TRACE
FLIGHT DATA // SUMMARY
MAX VELOCITY
0
KM/H
PEAK G-FORCE
0
G
LANDING GAP
0
M
STATUS
OK
MISSION GRADE
S
MISSION BRIEFING
SELECT TARGET APPROACH DISTANCE & VERIFY PHYSICS CONSTANTS
MISSION RANGE / START POINT (M)
TARGET VELOCITY (KM/H)
CONV: 41.7 M/S
APPROACH TIME (SEC)
TARGET DISTANCE
0.0
M
BRAKE DISTANCE
0.0
M
RUNWAY STATUS
NOMINAL
MIL-OPS // PRE-FLIGHT VERIFICATION

FLIGHT DATA

VELOCITY 000 KM/H
DISTANCE 889.0 M
G-FORCE 0.0 G
SYSTEM READY
RUN V-MAX G-MAX RESULT
[ SYSTEM INITIALIZING ]
[ MAGLEV COUPLING: STABLE ]
[ NAV_DATA: SYNCED ]
AI_PILOT: READY
IMPACT WARNING
FLIGHT OPS
FLIGHT OPS
VIS_MODES
MAINTENANCE
▸ PHYSICS — LIVE COMPUTATIONS
VELOCITY (v) 0.0 m/s
v = Δd / Δt
DECELERATION (a) 0.00 m/s²
a = ΔV / Δt · Newton's 2nd Law
BRAKING FORCE (F) 0 N
F = m·a · m = 20,000 kg
KINETIC ENERGY (KE) 0.00 MJ
KE = ½mv²
STOPPING DIST (s) —
v² = v₀² + 2as → s = v²/2a
N2 LAW ACTIVE · F = ma
AEROSPACE PHYSICS — DATA LOG
NEWTON'S SECOND LAW (F = ma)

Braking force is calculated as the product of mass (20,000 kg) and measured deceleration (G-force). This represents the magnetic resistance force in kilonewtons.

KINEMATICS (v² = v₀² + 2as)

Predictive stopping distance is derived from current velocity and available braking power. This allows the flight computer to determine the exact safe braking point.

KINETIC ENERGY (½mv²)

The ship's total movement energy. It quantifies the energy that must be dissipated by the magnetic induction system to bring the vehicle to a full stop.

MAGNETIC LEVITATION (LENZ'S LAW)

Electromagnetic induction creates an opposing field that lifts the ship. This zero-friction state allows for near-instantaneous acceleration and hypersonic travel.