IBM Torino Validates Xenon Ion for Initial Propulsion Phase
Quantum-validated selection
Highest performance achieved
Out of 200 (97.4% optimal)
Flight-proven (Dawn, Hayabusa)
IBM Torino quantum computer independently validated propellant selection
Hadamard (H): Superposition layer
CNOT: Entanglement creation
RY(θ): Score-weighted rotations
Measurement: Quantum state collapse
Probability distribution from 10,000 shots on IBM Torino
Quantum-validated optimal configuration for initial propulsion phase
✅ Deep Space 1 (1998-2001) - NSTAR ion engine
✅ Dawn (2007-2018) - Record 11 km/s delta-V
✅ Hayabusa (2003-2010) - First asteroid sample return
✅ Hayabusa2 (2014-2020) - Successful sample return
How Xenon Ion propulsion fits into the Warpeed mission profile
Falcon 9 delivers lightsail + Xenon Ion module to 400 km orbit
T+0 to T+1 hour
Quantum-Optimized Phase
50-minute burn delivers 4.015 km/s delta-V
Initial mass: 10.55g → Final mass: 9.39g
T+2 hours
Elliptical trajectory to 100,000 km
Ion module separation, lightsail deployment prep
500 GW ground-based laser array
32 m² lightsail deployed
Acceleration to 0.50c (~10 minutes)
Destination: α Centauri (8.74 years)
Two-phase optimization approach with independent validation
Classical optimization on local CPU
IBM Torino quantum computer
Xenon Ion achieves superior Isp (3,500s) with TRL 9/9 flight-proven technology
Independent validation through fundamentally different computational paradigms
Download full scientific report with quantum circuit details, validation data, and mission integration
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