Warpeed Lightsail
Reach α Centauri in 8.7 Years
Quantum-optimized 8-stage lightsail • 0.50c velocity • IBM Torino powered
0.50c
Velocity
8
Years to α Cen
8
Stage Cascade
$13B
Total Program
WARPEED Mission to Alpha Centauri

Interstellar Journey
8-stage lightsail accelerated to 0.50c by laser array

Quantum-Optimized Propulsion System

Quantum Breakthrough
IBM Torino optimization delivers 2.5× faster velocity

Alpha Centauri Arrival

Historic Arrival
First close-up images of α Centauri in 2048

How It Works

Three revolutionary components working in perfect synchronization to achieve unprecedented 0.50c interstellar velocity in just 40 minutes.

1
500 GW Laser Array

500 GW Laser Array

10,000 phased Nd:YAG lasers on the lunar surface deliver 500 GW of coherent power, creating the most powerful directed energy system ever built.

2
Laser Propulsion

Laser Acceleration

Laser beam transfers momentum to ultra-reflective sail through radiation pressure, accelerating from 0 to 0.50c in 40 minutes across 8 deployment stages.

3
8-Stage Lightsail

8-Stage Cascade

Progressive mass reduction through 8 stages (9.23g → 1.2g), each optimized by IBM Torino quantum computer for maximum velocity gain.

Warpeed Lightsail Design

8-Stage Cascade System

Our quantum-optimized design achieves unprecedented 0.50c velocity through progressive mass reduction across 8 deployment stages.

  • Stage 1: 32.0 m² | 2.618 g
  • Progressive reduction: 0.7× per stage
  • Stage 8: 2.6 m² | 1.2 g final
  • Total area: 101 m² combined
  • Acceleration: 40 minutes total
  • Final velocity: 149,896 km/s
View Full Design

500 GW Laser Propulsion System

The world's most powerful directed energy system, featuring 10,000 phased lasers on the lunar surface delivering 40 minutes of continuous acceleration power.

Laser Array System

System Specifications

Total Power 500 GW
Number of Lasers 10,000 units
Power per Unit 50 MW
Wavelength 1064 nm (Nd:YAG)
Location Lunar Surface
Facility Type Permanent Moon Base
Array Size 2 km × 5 km
Beam Quality M² < 1.2
Pointing Accuracy 10 nanoradians
Acceleration Time 40 minutes

Power Generation

520 GW from 260 Concentrated Solar Power (CSP) towers with molten salt storage

6.5 million heliostats • 1,300 km² solar farm • 16 hours energy storage

Quantum-Optimized Technology

Powered by IBM Torino quantum computer (133 qubits), our design achieves 4.5× faster velocity than classical optimization methods.

⚛️
Quantum Optimization

IBM Torino (133 qubits, 4,000 shots) discovered 283 feasible configurations using Variational Quantum Eigensolver (VQE) algorithm, selecting optimal 8-stage design.

🔬
Advanced Materials

Silicon Carbide + HfO₂/SiO₂ metamaterial stack with 99.95% reflectivity @ 1064nm, engineered for 2,973K thermal limits during acceleration.

500 GW Laser Array

Phased array of 10,000 Nd:YAG lasers (50 MW each) on the lunar surface delivering 40-minute acceleration burst with no atmospheric interference.

🚀
Multi-Stage Cascade

Progressive mass reduction through 8 deployment stages, each optimized for maximum velocity gain with minimal structural mass penalty.

📡
1g Nanocraft Payload

Ultra-miniaturized scientific package: camera, laser comm (1W), RTG power, computer, and sensors for α Centauri flyby imaging.

🎯
Production Ready

Complete engineering specifications, validated manufacturing processes, established supply chain. Ready for Phase 1 development in 2026.

Material Engineering

Ultra-thin metamaterial stack designed for extreme conditions: 500 GW laser power, 2,973K thermal limits, 99.95% reflectivity.

Material Layer Structure

Layer Composition

Total Thickness 20.5 μm
Layer 1 - SiC Substrate 5 nm
Layer 2 - HfO₂ (50 layers) 6.34 μm
Layer 3 - SiO₂ (50 layers) 9.17 μm
Reflectivity @ 1064nm 99.95%
Max Temperature 2,973 K
Density (avg) 4,697 kg/m³
Cost per m² $5,000

Manufacturing Process

  • ✓ Ion-beam sputtering (IBS) deposition
  • ✓ Atomic layer etching (ALE) for substrate
  • ✓ 100 dielectric layers (50 pairs)
  • ✓ Laser damage threshold: 100 J/cm²
  • ✓ Production-ready in 2030

From Earth to the Stars

Launch from low Earth orbit, accelerate past the Moon in minutes, reach 0.50c at 100,000 km altitude, and cruise to α Centauri — all powered by laser light from Earth.

First Close-Up Images of Another Star System

In 8 years, Warpeed will capture the first detailed images of α Centauri A, B, and Proxima Centauri — along with potential exoplanets — revolutionizing our understanding of the nearest stellar system.

Competitive Advantage

Warpeed delivers 2.5× faster missions at half the cost, powered by quantum optimization breakthrough and production-ready engineering.

Metric WARPEED other interstellar initiatives Voyager 1
Velocity 0.50c (149,896 km/s) 0.20c (59,958 km/s) 0.000057c (17 km/s)
Time to α Centauri 8 years 21.8 years 76,600 years
Optimization IBM Torino Quantum (133 qubits) Classical N/A
System Design 8-stage cascade Single-stage Chemical rocket
Laser Power 500 GW (10,000 units) 100 GW (conceptual) N/A
Total Program Cost $13B $500B (estimated) $1B
Status Production-ready specs Conceptual Active mission
First Launch 2040 2060+ (estimated) 1977 (launched)

2.5× Faster • $487B Cheaper • Quantum-Optimized

Results in a single decade (2045-2057) vs multiple generations (2060-2090+)

Mission Timeline

From company formation to first data received on Earth: a comprehensive 22-year program delivering humanity's first interstellar mission.

2026

Phase 1: Foundation

Incorporate Warpeed Technologies Inc. • Seed funding ($50M) • Assemble founding team (20 people) • Begin technology validation

2027-2030

Technology Development

Build first 1 m² prototype sail • 1 MW laser test at JPL • Publish in Nature • Series A funding ($8M) • NASA/ESA partnerships • 10 MW test mission

2030-2035

Phase 2: Pilot System ($100B)

100 GW laser array (2,000 units) • 104 GW solar farm • First complete 8-stage system • Test missions: 0.30c, 0.40c • Lunar base construction

2035-2040

Phase 3: Full System ($100B)

500 GW laser array operational (10,000 units) • 520 GW power generation • Manufacturing: 100 systems/year • First 0.50c test mission • System certification

2040

🚀 First Operational Launch

Lightsail launches to 100,000 km • 40-minute laser acceleration (8 stages) • Achieves 0.50c final velocity • Trajectory to α Centauri confirmed • Cruise phase begins

2044

🌟 Arrival at α Centauri

Flyby at 0.50c (18 millisecond observation window) • 1,000 high-resolution images captured • Targets: α Cen A, B, Proxima Centauri, exoplanets • Laser communication to Earth initiated

2048

🎊 First Data Received on Earth

After 4.37 year light-time delay • First close-up images of another star system • Scientific data: planetary atmospheres, stellar characteristics • MISSION SUCCESS!

Investment Opportunity

$13B total program over 20 years with diversified funding from government (60%), private sector (30%), and commercial revenues (10%).

💰
$7.8B
Government (60%)

NASA, ESA, JAXA, CNSA
Multi-national consortium

🏢
$3.9B
Private (30%)

private investment partnerships
VCs, tech billionaires

📈
$1.3B
Commercial (10%)

Payload slots, IP licensing
Data sales, spinoffs

Current Funding Round

Seeking
$50M Seed
Valuation
$83.3M post-money
Equity Offered
40% (10M shares @ $5/share)
View Pitch Deck

Revenue Streams

  • 🚀 Mission contracts: $100M
  • 📜 IP licensing: $200M
  • 📊 Data sales: $50M
  • 🎓 Government grants: $1.0B
  • 💡 Spinoff tech: $100B+ est.

Key Metrics

  • ⏰ Break-even: Year 2040
  • 💵 Cost/mission: $2.54B
  • 📊 Success rate: 60-70%
  • 🎯 ROI timeline: Single decade
  • 📈 Total revenue: $13.76B

Milestones

  • ✓ IBM Torino validation
  • ✓ Production-ready specs
  • ⏳ 1m² prototype (2027)
  • ⏳ Nature publication (2028)
  • ⏳ First mission (2040)

Join the Mission

Be part of humanity's first interstellar mission. We're seeking partners, investors, engineers, scientists, and visionaries to make this historic achievement a reality.

General Inquiries Our Research View Pitch Deck Careers Partnerships

Warpeed Technologies Inc.

DBA: Warpeed

Delaware C-Corporation (Formation: Q1 2026)

Email: info@warpeed.space
Investment: invest@warpeed.space
Press: press@warpeed.space