Quantum Propellant Optimization

IBM Torino Validates Xenon Ion for Initial Propulsion Phase

⚛️ 10,000 Quantum Shots | 133-Qubit Processor | 100% GPU Concordance

Optimal Propellant

Xenon Ion

Quantum-validated selection

Specific Impulse

3,500s

Highest performance achieved

Optimization Score

194.72

Out of 200 (97.4% optimal)

Technology Readiness

TRL 9/9

Flight-proven (Dawn, Hayabusa)

Quantum Computing Execution

IBM Torino quantum computer independently validated propellant selection

⚛️ 4-Qubit Quantum Circuit Architecture

133 Total Qubits (IBM Torino)
4 Qubits Used
10,000 Quantum Shots
4s Execution Time
24 Circuit Depth
2h 36m Total Time (with queue)

Quantum Gates Used:

Hadamard (H): Superposition layer
CNOT: Entanglement creation
RY(θ): Score-weighted rotations
Measurement: Quantum state collapse

Quantum Measurement Results

Probability distribution from 10,000 shots on IBM Torino

Top 10 Quantum States

|0000⟩
13.02%
→ Xenon Ion (Rank #1) ✅
|1000⟩
9.83%
→ Xenon Ion (Rank #1)
|1100⟩
9.56%
→ Xenon Ion (Rank #5)
|1110⟩
6.78%
→ Xenon Ion (Rank #7)
|1111⟩
6.67%
→ Xenon Ion (Rank #8)
|0100⟩
6.63%
→ Xenon Ion (Rank #5)
|0011⟩
6.17%
→ Xenon Ion (Rank #4)
|0001⟩
5.74%
→ Xenon Ion (Rank #2)
|0010⟩
5.59%
→ Xenon Ion (Rank #3)
|0110⟩
5.04%
→ Xenon Ion (Rank #7)

Xenon Ion Propulsion System

Quantum-validated optimal configuration for initial propulsion phase

Xenon Ion Thruster Close-up

✅ Xenon Ion - Flight-Proven Technology

Specific Impulse (Isp)
3,500 s
Propellant Mass
1.16 g
Thrust
29.82 N
Burn Time
~50 min
Delta-V Capability
4.015 km/s
Delta-V Required
3.9 km/s
Margin
2.9%
Total System Mass
10.55 g

Flight Heritage:

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

Mission Sequence

How Xenon Ion propulsion fits into the Warpeed mission profile

Phase 1: Launch to LEO

Falcon 9 delivers lightsail + Xenon Ion module to 400 km orbit

T+0 to T+1 hour

Phase 2: Xenon Ion Burn ⚡

Quantum-Optimized Phase

50-minute burn delivers 4.015 km/s delta-V

Initial mass: 10.55g → Final mass: 9.39g

T+2 hours

Phase 3: Coast to Apogee

Elliptical trajectory to 100,000 km

Ion module separation, lightsail deployment prep

Phase 4: Laser Acceleration

500 GW ground-based laser array

32 m² lightsail deployed

Acceleration to 0.50c (~10 minutes)

Destination: α Centauri (8.74 years)

Hybrid GPU-Quantum Methodology

Two-phase optimization approach with independent validation

Phase 1: GPU Screening

Classical optimization on local CPU

1,000,000 combinations evaluated
0.11s execution time
9M evaluations/second
Result: Xenon Ion (194.72/200)

Phase 2: Quantum Optimization

IBM Torino quantum computer

10,000 quantum shots
4s quantum execution
4 qubits superposition
Result: Xenon Ion (194.72/200)
Propellant Performance Comparison

Xenon Ion achieves superior Isp (3,500s) with TRL 9/9 flight-proven technology

✅ 100% Concordance Between GPU and Quantum Computer

Independent validation through fundamentally different computational paradigms

Explore the Complete Research

Download full scientific report with quantum circuit details, validation data, and mission integration

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