ESA astronaut training meets Star Trek: future space tech

The European Space Agency (ESA) shares many parallels with Starfleet from Star Trek, focusing on scientific discovery, diplomacy, and defense, albeit for exclusively peaceful purposes. Established in 1975, ESA's mission is to promote cooperation among European states in space research, technology, and applications for scientific and operational use. This mirrors NASA's objectives as well.

Training at the European Astronaut Centre

While there's no Starfleet Academy, the European Astronaut Centre (EAC) trains astronauts for diverse roles. Unlike Starfleet, where individuals might specialize as scientists or engineers, ESA astronauts are cross-trained in a wide array of skills.

Key Training Areas:

• Virtual Reality (VR) and Systems Learning: Astronauts learn about the International Space Station (ISS) systems and various spacecraft using VR and classroom instruction, allowing for hands-on interaction with complex systems.
• Multidisciplinary Science: Astronauts, regardless of their background (e.g., material science, engineering, medicine, test piloting), receive extensive training in biology, physics, and material science. This is crucial for conducting experiments on the ISS, which functions as an orbiting laboratory.
• Medical Skills: Basic medical interventions are taught, including suturing and drawing blood. Astronauts must be able to perform these tasks on themselves, as many ISS experiments focus on the human body's response to long-duration spaceflight. VR is utilized for learning human anatomy and physiology, offering an interactive and immersive experience.
• Photography and Media Training: Astronauts are trained in photography and media skills. On the ISS, they are tasked daily with photographing specific targets on Earth, including natural disasters, to aid understanding and response. They also capture images of space.
• Human Behavior and Performance: This training emphasizes teamwork, cooperation, and cross-cultural communication, skills deemed fundamental for both everyday life and future interstellar exploration.
• Survival Training: Astronauts undergo survival training for various hostile environments, including sea survival, winter survival, and firefighting, preparing them for situations where emergency services are unavailable.

Overcoming Microgravity Challenges:

• Underwater Training (EVA Simulation): To simulate microgravity and practice spacewalks (Extravehicular Activities or EVAs), astronauts train extensively underwater. This starts with scuba diving and progresses to surface-supplied air, navigating mock-ups of the space station for 6-8 hour sessions.
• Parabolic Flights (Vomit Comet): Parabolic flights provide brief periods (22 seconds per parabola, 31 parabolas per flight) of actual microgravity. This allows astronauts to experience weightlessness and learn to move effectively, including the surprisingly difficult task of "walking" using handrails while carrying bulky equipment.
• Exercise Regimen: Due to muscle mass and bone density loss in microgravity, astronauts must exercise for two hours daily on the ISS. This is a significant difference from Star Trek's artificial gravity environments.

In-Space Manufacturing and Future Technologies

While replicators and warp drive are still science fiction, current advancements are laying the groundwork for similar capabilities.

In-Space Manufacturing:

• 3D Printing: The ISS hosts 3D metal printers for producing component parts and 3D bioprinters capable of printing human tissue, such as the meniscus of a knee. The long-term vision is to bio-print human organs in microgravity, where the absence of gravity prevents collapse, potentially revolutionizing organ transplantation.
• Advanced Materials: Companies like SpaceForge are leveraging microgravity to manufacture semiconductors. Crystals grown in space are larger, more uniform, and have fewer defects, leading to faster computer chips and improved communications.
• Pharmaceuticals: BioOrbit is developing pharmaceuticals in space. Microgravity allows for the crystallization of certain compounds that cannot be crystallized on Earth, potentially leading to less viscous chemotherapy drugs that can be self-injected at home, similar to insulin.

Space Infrastructure:

• Refueling and Debris Removal: Companies like Orbit Fab are developing "gas stations in space" to refuel satellites, extending their operational lifetimes. Others, such as ClearSpace and Astroscale, are working on technologies to capture and remove space debris.
• Advanced Propulsion: While warp drive remains distant, Magdrive is developing powerful impulse engines, pushing towards faster and longer-distance space travel.

The Royal Institution and Star Trek's Scientific Roots

The Royal Institution (RI) has a rich history of scientific discovery that predates and parallels many Star Trek technologies. For over 200 years, the RI has been a hub for analyzing the natural world and announcing new scientific breakthroughs.

Historical Parallels with Star Trek Technologies:

• The Communicator: In 1897, William Henry Preece introduced Guglielmo Marconi at the RI, a year before Marconi patented wireless radio waves. This laid the foundation for wireless communication, akin to Star Trek's communicators.
  • The First Public Hack: In 1903, Marconi returned to the RI to demonstrate his "unhackable" wireless system. However, Nevil Maskelyne famously hijacked the demonstration, sending Morse code messages like "rats, rats, rats" and a limerick, marking what is widely considered history's first public hack. This event parallels Star Trek's own hacking narratives, such as Kirk's Kobayashi Maru hack or Geordi and Data's logic bomb plan against the Borg.
• The Holodeck: While Ray Bradbury envisioned an immersive VR nursery in 1950, the RI hosted lectures on coherent light, lasers, and holography from the 1960s to the 1980s, exploring the underlying technologies for immersive virtual environments long before Star Trek's holodecks.
• Data and Robotics: Donald Michie's 1982 RI lecture, "Steps Towards Robot Intelligence," served as a blueprint for the Turing Institute and led to the world's first Robot Olympics in 1990. Michie, who worked with Alan Turing, also invented the Matchbox Educable Noughts and Crosses Engine, an early example of machine learning.
• The Borg and Cybernetics: In 2009, Kevin Warwick, known for his "Rise of the Robots" Christmas lectures in 2000 and Project Cyborg, lectured at the RI on "Robots with biological brains and humans with part machine brains." Warwick had an RFID chip implanted in his arm in 1998 to control devices and a neural interface in 2002 to wirelessly operate a robotic arm via the internet. While his inspirations were Cybermen and Battlestar Galactica, his work drew frequent comparisons to the Borg.

Live Demonstrations: Plasma and Tesla Coils

The presentation included live scientific demonstrations illustrating concepts relevant to Star Trek.

Plasma Demonstration:

• Plasma in Star Trek: Star Trek's technology, including weapons and electroplasma systems, relies on plasma.
• What is Plasma: Plasma is an ionized gas where electricity rips away electrons, causing the gas to glow as electrons return to their energy levels.
• Visual Example: A demonstration using a plasma sphere showed glowing green plasma, similar to the aurora borealis, caused by excited oxygen atoms. An electromagnetic ring kept the plasma toroid in place.

Mini Tesla Coil (Phaser-like Device):

• Tesla Coil Gun: A mini Tesla coil in a gun form was demonstrated, described as a "Type 2 phaser" with "Star Trek" written on it.
• Wireless Lighting: The device was used to wirelessly light up a fluorescent tube held by an assistant, illustrating Nikola Tesla's original goal of wireless lighting. The effect was localized to where the assistant was "earthing" the tube.
• Multiple Gases: The Tesla coil also demonstrated how different noble gases (neon, xenon, argon, helium) glow distinctly when excited by the electromagnetic field.

Hydrogen Explosion Finale:

• Star Trek Explosions: The finale referenced the frequent explosions in Star Trek films.
• Hydrogen in Star Trek: Hydrogen is used in the "Night Terrors" episode of Star Trek.
• Demonstration: A balloon filled with hydrogen was ignited with the Tesla coil gun, creating a loud bang, concluding the scientific demonstrations.