Why Support Human Spaceflight?

7 01 2013

NASA plans to test the Orion Multi-Purpose Crew Vehicle in low-Earth orbit in 2014. (Image credit: NASA)

It seems that an eternal question plagues conversations about the future of commercial or governmental spaceflight: “To man (a spacecraft), or not to man?”

-This query is one I am often posed when I reveal my own spaceflight ambitions.  Many wonder why we bother with the incredible expense of sending humans off-world when critics argue that 1) the same or better work could be performed with robotic spacecraft; 2) laboratory experiments in space add little value to what we can achieve here on Earth; or 3) that in the context of state-supported spaceflight these activities divert crucial funds from other social needs.

Well, as it would turn out, former NASA Director of Life Sciences Dr. Joan Vernikos has answers.

Defending Human Spaceflight

Astronaut Edward H. White II, pilot on the Gemini-Titan 4 spaceflight, is shown during his egress from the spacecraft. (Image credit: NASA)

Astronaut Edward H. White II, pilot on the Gemini-Titan 4 spaceflight, is shown during his egress from the spacecraft. (Image credit: NASA)

In a sweeping article she authored back in 2008 for the medical journal Hippokratia entitled, “Human Exploration of Space: why, where, what for?”, Vernikos exposes the many failings of these criticisms while highlighting a spectrum of commercial and societal applications for human space research.

  • For starters, she points out that the repair and upgrades of the Hubble Space Telescope – universally hailed as not only the most important telescope in history but also as one of humanity’s most successful scientific endeavors – was only possible via the use of skilled and trained astronauts.
  • Expressing a fair amount of foresight, Vernikos then goes on to point out that commercial space travel providers (see: SpaceX) will rely on the knowledge gained from human spaceflight to support a safe and secure experience both for researchers and adventurers.
  • There’s the classic and no-less-relevant argument that human explorers have capabilities for innovation, troubleshooting, creative problem-solving, and adaptation simple unavailable to robotic counterparts.  This is particularly useful when utilizing very sensitive instrumentation and performing research with many unknowns or variables.

But these points, suitable defenses on their own, pale in comparison to Vernikos’s description of the commercial enterprise that grew out of the Shuttle-era…

Exploring the Space Applications Market

The reality of trickle-down consumer technology and products that were originally developed for human spaceflight applications is breathtaking.  It truly seems that anyone who downplays the commercial and social trickle-down benefits of tackling the challenges of human spaceflight simply hasn’t done their homework.  For example, Vernikos (here emphasizing her medical background) describes in detail that space exploration is directly responsible for:

  • The ubiquitous reflective, anti-UV, anti-glare coating on eyeglasses
  • Small-scale blood-testing (requiring drops instead of vials)
  • The entire field of telemedicine
  • In-utero fetal monitoring
  • Genetic pathogen-detection sensors
  • Telemetry computing for the civil and environmental industries
  • Enhanced breast cancer diagnostics using the Hubble Telescope digital imaging system
  • Tissue engineering
  • Enhanced antibiotics generation
  • Bed-rest countermeasures

-And this is just the tip of the iceberg.  In this way, Vernikos promotes redirecting attention to the idea of the “Space Applications Market,” which is the name she gives to the commercial arena where these NASA-driven technological and knowledge advances are incorporated into commercial and societal applications.

Instead of the microgravity-tended orbital commercial manufacturing or power-generation facilities that many assumed would be the means by which commercial enterprise would capitalize on human space exploration, it’s been the smaller-scale technological innovations and applications that make a (if not somewhat obscured) powerful impact both on the economy as well as on our daily lives.  Just look at the above list of advances in health technology and medical know-how.

-And new research suggesting a possible link between exposure to ionizing radiation in space and neurodegeneration – an accelerated onset of Alzheimer’s Disease – means that the greatest medical advances as a result of human spaceflight may yet be ahead of us.

All it will take is support for human spaceflight.





T-minus 1 week: Aiming for NASTAR

2 05 2011

The NASTAR Center. (Credit: NASTAR)

I’m coming up on a positively Everest-ian milestone in my ongoing quest to become a commercial astronaut, and it’s been a long time coming:  Astronaut training.

Supported by my spaceflight consulting firm, Astrowright Spaceflight Consulting LLC, I’m heading out in a week to attend highly specialized training offered by the only FAA-certified civilian spaceflight training outfit around.

The location?  Philadelphia, PA, at the National AeroSpace Training and Research (NASTAR) Center.

NASTAR simulator-centrifuge. (Credit: NASTAR)

Among the NASTAR Center’s many aerospace services, not only do they provide generalized spaceflight training for the many civilian tourist “spaceflight participants” who are planning sub-orbital jaunts in the next couple of years, (e.g., on Virgin Galactic’s spacecraft,) but they also offer specific sub-orbital scientist training designed to prepare researchers to withstand the forces and avoid the distractions of spaceflight so that they can do what they’ve been wanting to do for (at least in my case) an entire career:

Perform quality science off-world.

For a taste of what the training is like, (which was developed in part by SwRI and NSRC civilian scientist-astronaut forerunner Dr. Alan Stern,) check out this excellent article written by Space.com contributor Clara Moskowitz, where she chronicles her experiences attending the program last October.

In addition to more traditional classroom instruction, the program involves thrilling (to me, anyway) “right stuff” rigors, such as oxygen deprivation training, high g-force (centrifuge) simulations of spacecraft launch and re-entry, and an array of supplemental components.

Needless to say, this training will help to round out our firm’s technical expertise so that we can begin offering expanded service beyond our current pre-flight fitness training and radiation dosimetry services into full-fledged (atmospheric) microgravity and sub-orbital payload specialist territory.

Many thanks to the family and friends that have helped me to get to this point, and it goes without saying that I’ll be blogging like a maniac as I head through the program.  Expect more on this in about a week.

T-minus 168 hours and counting…








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