Panel, Conference Presentation
Pushing the Boundaries of the Final Frontier: Space
Milken InstituteAnousheh Ansari, Peter Diamandis, Bernard Harris, Jr., Steve Isakowitz, Leland Melvin, George Whitesides
Peter Diamandis
- Identifies the current era as the first time in history where space exploration is no longer the sole province of governments, but accessible to individuals and entrepreneurs capable of taking risks.
- States that the transition of humanity from an Earth-bound to a multi-planetary species is comparable to the evolutionary shift of lungfish moving onto land.
- Highlights that nearly all finite Earth resources (metals, minerals, energy) are near-infinite in space, necessitating a transition to an "exothermic economic reaction" where the space economy generates its own revenue independent of government budgets.
- Notes that 2017–2019 saw all-time highs in venture capital, crowdfunding, and sovereign wealth investments, enabling small teams to execute missions previously requiring large government budgets.
- Announces that XPRIZE is designing a "Fire Detection and Extinction" prize aimed at detecting wildfires from space or drones and extinguishing them within 10 minutes.
- Recounts the 10-year Google Lunar XPRIZE, noting that the Israeli team SpaceIL came within seconds of winning the $30 million prize with a budget of approximately $100 million despite only needing $8 million to operate.
Dr. Bernard Harris
- Serves as a former crew medical officer on two space missions, including the first Shuttle mission to the Russian Mir space station, and currently leads the National Math and Science Initiative.
- Details the acute physiological effects of microgravity, including a fluid shift toward the head that causes facial fullness, heart atrophy, and a reduction in blood volume.
- Reports that astronauts lose approximately 1% of bone density per month in microgravity and that 30% of crew members experience visual field defects (scotomas) due to increased intracranial pressure.
- Predicts that long-term colonization of Mars will lead to the evolution of a distinct "Martian human race" adapted to the alien environment.
- Emphasizes the International Space Station as a national lab where research on muscle atrophy and bone loss is directly applicable to treating osteoporosis and other conditions on Earth.
Steve Isakowitz
- Describes the current state of space as "competitive, congested, and contested," citing 40,000 objects launched since 1957, with the number of trackable objects expected to double to 20,000 within the next decade.
- Warns that space congestion increases the risk of collisions, necessitating responsible behavior and debris management to ensure orbital safety.
- Identifies space as a contested national security environment where adversaries are actively seeking to jam, negate, or destroy satellites, driving the formation of the Space Force.
- States that the government (NASA) must partner with the private sector, as the cost of entry has dropped from hundreds of millions to tens of millions of dollars for satellites and rockets.
- Confirms that over 60 countries now operate satellites and that international collaboration, including with Russia, remains vital for future programs like the return to the Moon.
Leland Melvin
- Cites a cognitive shift experienced during a 2008 mission where the shared experience of the international crew breaking bread at 17,500 mph fostered a sense of global unity.
- Advocates for "democratizing" the "Overview Effect" by expanding access to space experiences for the general public to shift humanity's collective perspective on Earth.
- Highlights the importance of diversity in STEM, noting that a 2014 Scientific American article found that diverse teams produce the best financial and technical solutions.
- Points out that language barriers (e.g., referring to "man" in the "man-space program") can discourage girls from pursuing space careers, as seen when only boys raised hands in a classroom poll.
- Mentions the organization "Base 11," which awards $1 million to college students who successfully launch a liquid-propelled rocket to the Karman line (100km altitude).
George Whitesides
- Notes that only 571 individuals have traveled to space in history, a number smaller than the passenger capacity of a single Airbus A380, yet Virgin Galactic already has more people signed up to fly than have ever flown.
- Defines the primary goal of Virgin Galactic as the "democratization of space," aiming to fly hundreds to thousands of people to enable a shift in global perspective.
- Argues that the Earth is the "best spaceship ever built," possessing autonomous systems for energy, food, and defense, and that space travel is a crucial teaching tool to help humanity recognize their role as its crew.
- Envisions a future where point-to-point global travel occurs at Mach speeds (current flights at Mach 0.8) by leveraging suborbital reusability to amortize hardware costs.
- Predicts that within the next few years, the James Webb Space Telescope will act as a time machine to look back to the Big Bang, potentially answering the question of whether life exists elsewhere.
Collective Panel Insights on Technology and Future Trends
- Reusability: The industry is shifting toward "airline-like reusability" (e.g., SpaceX, Virgin Galactic) to amortize hardware costs, which are currently the primary barrier to entry compared to fuel and operations.
- AI Integration: Artificial Intelligence is being deployed to create "brilliant satellites" capable of autonomous decision-making, swarm coordination, and cyber-defense against jamming or laser attacks, rather than just passive data collection.
- Space Manufacturing: Zero-gravity environments allow for the creation of superior alloys (e.g., turbine blades) and crystals without the convection and buoyancy interference found on Earth.
- Propulsion: Advances in plasma engines running on hydrogen could reduce travel time to Mars from 1–1.5 years to approximately three months.
- Connectivity: A "interplanetary internet" using laser communications is expected to emerge to replace the current Deep Space Network's limitations for communicating with Mars and other deep space targets.
- Resource Extraction: Long-term economic models anticipate extracting platinum group metals and fuel sources (oxygen, hydrogen) from asteroids to drive a new space-based economy.
- Earth Applications: Satellite technology is currently being used to detect wildfires with infrared/microwave cameras, with pilot programs in California reducing fire damage and aiding in arson detection.
- Human Health: Countermeasures for space travel include rigorous exercise regimens (treadmills, resistance machines) and pharmaceutical research to prevent bone and muscle loss, with direct applications for treating osteoporosis on Earth.