Summary by TwinMind · 11m 44s
Summary by TwinMind · 11m 44s
Civilization on the Moon -- and what it means for life on Earth | Jessy Kate Schingler
Civilization on the Moon -- and what it means for life on Earth | Jessy Kate Schingler
TED
TED
Current Lunar Development Activity
- China announced plans for inhabited South Pole station by 2030s
- US has official roadmap for increasing people living/working in space
- NASA's Artemis program: international effort to send first woman and next man to Moon this decade
- Private sector involvement unprecedented
- Over 100 launch companies worldwide
- ~12 private lunar transportation companies preparing robotic missions
- First reusable rockets in human history enable infrastructure development and resource utilization
Lunar Resources and Potential
- Scientists estimate up to 1 billion metric tons of water ice on Moon
- Greater than size of Lake Erie
- Enough water to support hundreds of thousands of people living/working on Moon
- Moon roughly size of continent of Africa
- Key resources concentrated in small areas near poles
- Real possibility of people living/working on Moon within next decade
Challenges and Concerns
- Coordinating access to scarce resources
- Legitimate questions about colonialism, cultural heritage
- Reproducing systemic inequalities of today's capitalism
- Earth challenges: internet governance, pandemics, terrorism, climate crisis, biodiversity loss
- Moon as destination embodies problematic qualities: frontier attitude, conquest, competition
Social Technologies Focus
- Most interesting aspect isn't hardware but software/social technologies
- Rule of law to respond to planetary-scale challenges
- Moon as canvas for solving Earth's biggest challenges
Speaker's Background and Experience
- Two decades working on international space policy
- Bottom-up governance design in small community projects
- Age 17: attended UN conference on peaceful uses of outer space, Vienna
- 160 young people from 60+ countries over 2 weeks
- Made recommendations to Member States about space's role in humanity's future
- Post-conference: lived with 20 people in high-trust group
- Experimented with social technologies
- Governance systems: CEO assignment to jury processes
- Small groups as petri dish for representation, sustainability, opportunity questions
Outer Space Treaty Framework
- Signed 1967, defines treaty governing outer space activities including Moon
- Two key ingredients altering legal construction basis:
- Requirement for free access to all areas of celestial body
- Moon and celestial bodies not subject to national appropriation
- Contrasts with earthly international system built on state sovereignty
- Creates conditions for "commons" based on Elinor Ostrom's Nobel Prize-winning work
- Global commons: shared resources requiring collective management for survival/well-being
Commons-Based Approaches
- Offer greenfield for institution design at global/interplanetary level
- Questions: property rights, resource management without external authority/private property
- Existential threats (climate, internet governance, authoritarianism) require new tools
- Need to incorporate commons-based logic into global/space institutions
Historical Example: Arvid Pardo
- WWII anti-fascist activist, arrested and held under Gestapo death sentence
- Post-war: worked into diplomatic corps
- First permanent representative of Malta to UN
- Identified gap: international law lacked tools for shared global resource management
- 1967 UN speech: introduced "common heritage of mankind" concept for oceans
- Language adopted in Law of the Sea Treaty
- Most sophisticated commons-management regime on planet
- Took 12+ years to gain signatures, some states still refuse to sign
- Objection: obligation to share undermined state autonomy/sovereignty
Current Lunar Governance Discussions
- Space community discussing basic shared agreements:
- Designating lunar heritage sites
- Landing permission protocols without traditional external authority
- Enforcing coordination requirements without territorial control
- Managing access to scarce resources: water, minerals, peaks of eternal light
- Peaks of eternal light: craters at optimal latitude for near-constant sunlight exposure/power
Opportunity and Challenge
- Lack of Moon rules could lead to first-come, first-served situation
- Opportunity to prototype new institutions at global scale
- Self-contained environment with exact design constraints for Earth's biggest challenges
- Easier to create new than dismantle old systems
- Stage set to envision what comes after territory and borders
