Show Notes
What is the “commercial paradigm shift” that transitions space research into commercial space production? How does this shift help build a global supply chain for high-value terrestrial industries? Why will manufacturing substrates like gallium nitride or diamond in space allow companies to bypass decades of Earth-bound defect correction research? How do we move from building complex, multi-million-pound machines that we burn up on re-entry to reliable methods for bringing satellites back to Earth for refurbishment, reuse and upgrading? And how do we do this while reducing the cost of return by a factor of 10?
Join Alice and Andrew Bacon, the CTO and co-founder of Space Forge, as they talk about building autonomous, “unscrewed mini-space factories”, super-clean environments, uniform temperatures and perfect material mixing, far away in higher orbit and safe from human contamination.
Contributors: Alice Bunn, President of UKspace Dr Alice Bunn OBE FIMechE FRAeS CEng | LinkedIn UKspace: Overview | LinkedIn
Andrew Bacon, CTO and co-founder of Space Forge Andrew Bacon | LinkedIn Space Forge | LinkedIn
Key topics covered:
In-orbit manufacturing Ultra-vacuum/low contamination Microgravity Autonomous space factories Innovation in re-entry Low ballistic coefficient Sustainability and the environment Global supply chain Commercial space production Hosted on Acast. See acast.com/privacy for more information.
More from The Kármán Line
How does winning the UK Space Agency's Active Debris Removal (UK ADR) contract position ClearSpace to capture defunct satellites? How do their multi-arm robotics and advanced machine-learning algorithms match up to the task? How does active debris removal establish a long-term national capability and commercial service layer in space? And what does a transition from R&D grants to major anchor contracts mean for hyper-scaling UK In-Orbit Servicing, Assembly, and Manufacturing (ISAM)?
How does Metalysis strip oxygen as a captured gas from metal oxides and convert the oxide into pure metal alloys? How will this help us to supply life support for lunar bases or create rocket propellant for deep-space refuelling? Once the oxygen is stripped away how can the remaining metal alloys be repurposed for 3D-printed infrastructure, landing pads or road surfaces? And how can Metalysis’ research help regolith inks to print electronic components directly in space?
Does sub-centimetre, non-trackable space debris pose an existential threat to satellites and orbital infrastructure? How can ultra-lightweight "black box" sensors turn a spacecraft's surface into an impact detector to diagnose anomalies? What do satellite operators need to unlock affordable, named-peril collision insurance through Lloyd's of London? And how can a "neighbourhood watch" network of sensor-equipped satellites build live space domain awareness to protect the space economy?
What is the true balance between human spaceflight and robotic exploration when it comes to science, inspiration, and decision-making capabilities? How is space transitioning from a niche frontier to an everyday commercial workplace? What role do regulatory frameworks, such as the United Nations, the Artemis Accords, and the Astra Carta, play in keeping orbit and the lunar surface safe and sustainable? And how can the UK Government act as an "anchor customer" to bridge the commercial "valley of death" for domestic space startups?
How can a malleable, plant-based bio-leather grown off-grid in Scotland transform under extreme heat into an RF-transparent, rock-like ceramic shield? What does Draconite mean for the economics of spacecraft re-entry and thermal protection systems? How does self-taught material science disrupt traditional "old space" gatekeeping and university lab paradigms? What are the dual-use applications of biomimetic thermal shields across space re-entry, defence satellite protection, and terrestrial wildfire mitigation?