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Zulu
(mid tempo music)
- Historically public space agencies
have defined space exploration.
As of now in 2022, 77 countries have space agencies.
- For the first sort of 50 years of NASA's existence,
NASA was the customer
and the private sector was the supplier.
- Now, billionaires are fundamentally changing
the public's relationship with space.
- I've seen the rise of a lot of small companies
and startups like ours, that establishes a whole ecosystem.
- And a booming space economy in Colorado and beyond
is really starting to take off.
- Moving manufacturing off of our planet,
creating opportunity and future for everybody,
that's what I wanna see.
- [Cray] I'm Cray Novick.
- And I'm Myrna James.
- It's time to go "Behind The Wings."
(mid tempo music)
So in this episode, we're gonna explore the question,
how is the growing space economy
changing what's possible in space?
To start, we talked with Phil McAllister,
NASA's director of the commercial space flight division
for space operations.
- When we first started talking about shifting
some of the responsibility for low earth orbit
onto the private sector,
I think there was definitely a sentiment
within some parts of NASA that we were giving up something,
something that was special and core to our mission.
And over time, I think that sentiment has really reduced,
as people have realized that if we were always limited
to NASA's budget for what we could do,
we would always be somewhat constrained.
For the first sort of 50 years of NASA's existence,
we kind of interacted with the private sector one way,
Which is NASA was the customer
and the private sector was the supplier.
So we would write very detailed requirements,
we would make all the decisions about the spacecraft
or the transportation vehicle,
and then we would hand those to the private sector
and say, "Go build this."
And we would be sort of in charge,
we would make all the decisions
and we would own the resulting hardware.
But today what we found is the commercial space industry,
which is an industry looking to sell,
not just to the federal government,
but to other organizations and to other just consumers,
when you have a thriving commercial space industry,
it doesn't necessarily make sense for NASA
to build everything from scratch.
We can leverage the capabilities in the private sector.
That's kind of what we mean by commercial space.
And I think just within the last 10 years,
these kind of partnerships have become possible.
- Previously, the space industry
has been very large company driven.
You've got your large prime and government contractors,
and that was how it was for 50 years.
As technology has increased
and as the price and cost
of getting to space have decreased,
that has enabled many more businesses
that now can close their financial model.
You've seen the rise of a lot of small companies
and startups like ours,
who see needs in the market and needs that the industry has,
and we're able to meet them in ways
that larger companies, it might be more difficult to,
and so that establishes a whole ecosystem of everything
from single person startups,
all the way up to thousand person companies.
- Dylan Taylor,
thank you so much for being here with us.
You, I think have more passion for space
than anyone I've ever met. (laughing)
So you're currently the founder
and chairman of Voyager Space Holdings.
Tell us a little bit about the company.
- Voyager Space is really purpose built
to help scale what we call new space,
which is the innovative entrepreneurial sector
of the space industry.
- There's obviously a lot of collaboration in space,
but what role does competition play?
- Well, I think the market forces help. Right?
I mean, I think SpaceX was born out of competition
with the Russian Soyuz rocket, with Boeing, with Lockheed,
and because of that,
they were able to attract third party capital
and invest and innovate.
So I think it's really important.
I think the market forces work.
When space was purely a nation state opportunity,
you didn't see the level of innovation,
we certainly didn't see rocket reusability.
And now we even have things like launch as a service,
where customers just simply pay
to be inserted into a particular orbit.
We are in a renaissance for the industry.
The level of innovation is just shocking,
and I expect more to come.
- This is a graph of the investment totals into space.
Just look at that graph.
I mean, it's straight up practically.
In the past 20 years,
the global space economy
it's grown from just over 1 billion to over 16 billion.
That's huge.
- Yeah, in investment in space, private space companies.
- And then to get a sense of where this is going,
this is looking at the future.
Here we are 2022 and the chart just goes straight up.
- So the global space economy
is expected to grow 4.5% in the next 25 years.
And that's exponential growth
and it's not gonna slow down anytime soon.
- When you look at it like this,
it makes it seem like we're really
just at the beginning of things today.
So we made our way to Lunar Outpost,
to learn how they're using technology
originally developed by NASA
to test for lunar dust,
to actually improve air quality here on earth.
Now that might sound a bit confusing,
but we're gonna talk to their CEO, Justin Cyrus
to learn exactly how.
- My name's Justin Cyrus,
I'm the CEO here at Lunar Outpost.
It's been a very good past couple years,
for startups in the community,
because now instead of just straight competition
against the likes of some of the big names
like Lockheed Martin, Northrop Grumman, or Boeing,
they're looking at ways that they can work
with small startups like Lunar Outpost
and Outpost Environmental,
to innovate quicker,
and to not only bring value to the aerospace community
and what we're doing out in cis-lunar space
but to find ways to bring that technology
that costs a lot of money to create,
back here to earth.
So NASA spinoffs are technologies
that originally were funded out of NASA,
are a part of a NASA program.
And what these spinoffs are,
is commercial companies working with NASA
to find ways to take this tech,
this tech that folks have spent a lot of time and money on
and finding ways it can benefit life here on earth.
- So speaking specifically about the Canary sensor,
now we actually have one of them right there behind you.
What was the original application of the technology?
- So the original application
of the Canary sensor technology
was actually to detect lunar dust.
So it's called lunar regolith and it's extremely fine dust.
And it's harmful because of the chemical
and geometric composition,
to not only humans, but robotic systems and space stations.
- What was that technology transfer when you realized,
okay, maybe this tech could be useful
to improve life on earth.
- Some of the key, core technology
is detecting a particle,
and figuring out what's in that particle,
or detecting just what's in a concentration of air.
So what we do with the Canarys actually here on earth,
actually figure out what's in the air
real time out in the field.
One of the use cases that was highlighted,
by City and County of Denver,
was putting it next to schools.
So figuring out how we can improve the air quality
for kids in elementary school,
middle school and high school,
and the effects of the study are still being seen today.
We were able to collect real time data,
and air quality was worse than you would want it to be,
especially for elementary age kids at some of these schools.
So that's just a small sample
of what City and County in Denver was able to do
with the air quality data we collected.
The first day,
we actually put a Canary on an oil and gas site.
We found a methane leak within seven minutes
and that leak was fixed within the first two hours.
Whereas the historical way of doing it
would've been months later
until they found that leak.
And at that point,
thousands of liters of methane
would have already been dumped into the atmosphere.
- If you don't measure, you'll never know.
And with the Canary sensor,
it's just that extra layer of data.
- I think that's very well said.
If you don't measure, you'll never know,
and if you don't know you can't fix it.
And certainly that is what we're trying to accomplish
by providing data, not only to the companies,
the oil and gas, the chemical processing,
but also to the regulators
so they can make sure the air we breath
is safe, healthy, clean,
'cause we have a lot of really cool tech
that we're working on in space
that can be brought here to earth
and applied in those markets.
And what that strategy
has allowed Lunar Outpost to do and accomplish
is to reach some of our more ambitious goals
of putting a rover on the moon,
of making oxygen on Mars,
while still driving profit, revenue
and having that strong near term positive impact
that can be seen from the Canary sensors.
- There are thousands of spinoffs from NASA,
many of them that we use every day.
- Things like sunglasses,
rechargeable batteries, even sneakers.
- Hundreds of NASA spinoffs
have come directly from the International Space Station.
We spoke with former astronaut Scott Kelly,
who spent nearly a year on the ISS.
- I think there are things we get from the space program
that are valuable to our life on earth.
If we didn't have a space program,
we wouldn't have these cool cell phones in our pockets
that we look at all the time.
- So there are a lot of those kind of technical things
we get from it.
The space program has created great benefits
in terms of technology, spinoffs for use on earth.
I mean, one of the most obvious is actually solar power,
which some people think will be our salvation
from global warming.
Solar power was developed as a really usable technology
for use on spacecraft,
because if there's nothing further off grid
than a spacecraft,
and my little company has also spun stuff off,
we were interested in making fuel on Mars
that required capturing CO2 out of the atmosphere
and a number of other technologies.
And it developed our gas capture technologies
for a number of purposes,
one of which has been to capture gas,
being flared by oil wells,
so that they could be trucked off to market
instead of being flared.
And another was capturing CO2 out of fermentation vats,
so that breweries could use
the CO2 from their own fermentors
instead of having to buy CO2 from industrial sources,
while venting their own CO2 to the atmosphere.
(mid tempo music)
- Here we are at the Denver Beer Company.
We're gonna learn about tech transfer from NASA
and they're creating technology,
where they're learning about resources that we have
and how to use them here on earth.
So you're wondering space, beer, how do they come together?
We're about to find out.
- When the beer's fermenting,
there isn't really a great way for small craft breweries
to capture that CO2,
until Earthly Labs invented this CC machine.
And so they've licensed this NASA technology,
which allows us to capture the CO2
during the fermentation process,
bottle it up,
and then we can reuse that CO2 later in the process
or sell it or do whatever we want with it.
- All right, so let's go check it out.
- Okay, let's go check it out.
- Great. - We've installed some piping
that pipes the CO2 into the CC machine,
where it's filtered, cleaned, cooled down and compressed,
and then put into a big 6, 750 pound container.
It tells us how much CO2 it's captured,
the pressures, the temperatures
and everything that we need to know to run it.
- Our third partnering business came in,
and actually an indoor agricultural business
who needs CO2 for the production of plants.
So by partnering Denver Beer Co. who generates CO2,
with another business who utilizes CO2,
we were able to get through the pilot program
that was wildly successful.
Really what we hope to see is a snowball effect,
that people look to this as an example
that other breweries can say,
"I should be capturing my CO2 as well."
- Space has limited resources,
but I guess our planet does too.
- Sort of like you can't really ship things
to the ISS all the time or to the moon or to Mars.
So they need many, many ways
to utilize resources that are already there.
So that's what the in situ resource utilization really is.
- So thinking about this increase
in public private partnership,
we've talked a lot about the startup side,
but what does it enable NASA to focus on.
- The public private partnerships
not only allows the aerospace community
to reach these business plans
that wouldn't otherwise be possible,
but it also allows NASA to reach far greater goals
than they could otherwise.
A great example is the Artemis program.
Getting humans to the moon on the budget
that NASA currently has, is not possible,
it's not feasible without the public private partnerships
that have been put in place.
But in addition to that,
NASA is the cutting edge of space agencies around the world.
They're looking at not only getting to the moon,
but further getting onto Mars
and exploring other planetary bodies in our solar system
and with the James Webb telescope,
many solar systems beyond our galaxy,
that would not otherwise be possible
if they weren't working with the commercial industry.
(gentle music)
- By being able to shift some of this responsibility
and have the private sector pick up some of these costs,
we can go further, faster.
And I think there's always gonna be a role for NASA,
that's our job,
is to push the bounds of exploration
where you don't necessarily see an economic potential.
It's really just been over in the last 15 years
that we've seen these very, very successful partnerships.
And now, particularly with the crew program,
we have seen all kinds of benefits from that.
Just within the last 12 months,
we've seen an all private mission just to orbit,
the Inspiration4 mission,
which was a really remarkable first time in history.
And now today we have four private astronauts
on the International Space Station,
living and working in space on the ISS,
another thing that is a historical first.
And I really do think we are at an inflection point
with human space life,
and it's really about to take off.
- Skip.
I'm Cray. Pleasure to meet you.
- Nice to meet you.
- Let's talk about space.
- Yep, sounds good.
- Let's do it.
We're almost in this new era, this new space economy,
there's more private companies than ever,
they're collaborating with national space agencies.
How has that impacted space law?
- A couple of the things that are happening now,
I represent a private astronaut
who's going up. It's a SpaceX flight up and back.
And NASA hosts the private astronauts,
and a company down in Houston called Axiom Space
put it together.
It was really a first of a kind contract.
You can imagine a lot of legal issues
associated with sending a private person
up into space for 10 days.
This isn't a sub-orbital flight of six or eight minutes,
this is 10 days up in space.
- [Mission Control] Thanks to our SpaceX team
for getting you there.
My thanks to NASA for hosting us
and to the entire crew.
We've been talking about this history making mission
for a long time.
(gentle music)
- So you've got private astronauts going up now,
to the International Space Station,
and you've got NASA planning,
for commercial space stations before the end of this decade.
- The ISS is getting old
and we would like to retire it by 2030.
That is NASA's policy right now.
So the good thing is that gives us a little bit of time.
We are currently working with four partners
to design, develop and hopefully deploy prior to 2030,
their own commercial space stations.
And the long term vision, I believe at NASA,
is that I will be able to just buy a ticket
just like anybody else,
and go up to a destination in space,
do my work and come back down.
- Right now, we are on contract with NASA
for a commercial destination free flyer contract
to start developing these commercial space stations.
We're actually teamed with Blue Origin,
and we're developing this space station
and we're calling it Orbital Reef.
Think of it as a business park in space.
Businesses come in, you provide the ecosystem,
the power, the modules, the research facilities,
or the manufacturing facilities,
tourists facilities, media, filmmaking,
all of that kind of stuff.
You provide the logistics and the transportation.
Basically go to a company and say,
"What business do you wanna do in space?"
We'll take care of the space part.
- So when we think about
another space station in the future,
there's gonna be different ways to get there, I'm sure,
and one of them is Dream Chaser, product of Sierra Space,
and that's really your project,
that's your current project that you're working on.
- In matter of fact,
24/7 production on the first vehicle right now,
we plan to fly first quarter of 2023.
- Oh my gosh. - So-
Well, we have one here,
so, let's go look at it.
- Looking at all the airplanes I flew
and then ones I didn't get to fly.
I flew that one, I flown that one.
I've flown that, I've flown that,
I've flown this guy.
I've flown one of those too.
So the Dream Chaser is what's called
a lifting body spacecraft.
It's what we're working on,
it's what we're building right now
that we intend to fly in early 2023.
What it is, is a lifting body spacecraft.
And what that means is,
most airplanes, the wings provide the lift,
I think most people know that,
but in this particular vehicle,
it's the body of the spacecraft itself
that provides the lift
and only a little bit comes from those wings.
So it looks like a mini space shuttle.
So it's designed to launch on a rocket, fly up in orbit,
rendezvous dock, free flight,
whatever you wanna do on orbit,
orbiting satellite research platform.
Then we enter, and when we enter,
we see very, very high heating temperatures as we slow down,
up to 3000 degrees,
that's why it's a blunt body.
And then in the end it comes down
and it lands like an airplane.
And so what I want is I want us,
and quite frankly, the whole world
to realize that commercial vision
where space travel is routine,
multiple people going,
thousands of people, tens of thousands of people
working in space.
I wanna walk into a classroom as an astronaut
and say big deal,
(Myrna laughing)
half of our parents have gone to space.
Wouldn't that be awesome?
- I think it's gonna happen.
- It will happen.
And we're doing everything we can
to make it happen as soon as possible.
- This was all kind of theoretical,
even only four years ago.
And now it's all, suddenly it's real.
You've been to space already.
- Going to space was life changing, it really was.
And as much as I told myself,
I shouldn't have expectations going into it,
I really did,
and those expectations were high
and they were just completely smashed.
I mean, it was so much more profound
and transformational then even I had hoped.
So you're in the capsule about 35 to 40 minutes,
from the time they put you in to the time they take you out.
So you're on the pad
and you would think you would be terrified,
and you would think you would be scared,
at least I thought I would be.
I really wasn't.
So then you get to countdown.
T minus 10, which is like the classic space, 10, 9, 8-
- [Man] Seven, six, five, four,
main engine start, two, one.
(gentle music) (rocket whirring)
- [Lady] Well, huge congratulations to all six crew.
They have crossed that Karman line,
and they became official astronauts.
- You get to space and they do main engine cutoff,
and then you're kind of floating in your chair,
but you're held back from your harness,
and then they do what they call capsule separation.
But then you're able to unbuckle.
- [Lady] Cue the astronauts to unbuckle their harnesses
and start floating around the capsule.
They are in zero G, they've practiced for this,
and now it's really happening.
- I had the privilege of going to the window
and I turned myself upside down
and I did that intentionally
to sort of disrupt my orientation of up and down.
I looked out the window.
I gasped, you're seeing the Earth from space,
totally transformational, extraordinary.
And then from there, you get back in your seat,
that's quite important,
because what's gonna happen
is as you go falling back down to Earth,
you hit the atmosphere
and then you come on down,
and then the first thing that happens
is your drogue parachutes open,
those basically guide and settle everything down,
then you have the main parachutes deploy.
Then once you land,
they give the crew a private moment to huddle
and hug each other and just
bask in the experience that we just had together.
And then they open the capsule door
and you're greeted by hundreds of press
and your family and loved ones.
It is shocking how much we were able to get done in 2021,
the technologies have matured.
I think I was number 606 human to go to space.
I'd like to have 606 humans per year go to space.
And I don't think we're too far away from that.
I think that'll happen in this decade.
- With that in mind,
you started Space for Humanity a few years ago.
Tell us about that.
- Yeah, so space for humanity was founded
with really two primary notions.
One is that we need to democratize access to space.
It can't be a billionaire boys club,
it can't be exclusively North American or white,
or anything, it's gotta be human.
It's gotta be human endeavor.
And then the second core principle
was the notion that space is a tool for transformation.
It's a lot of things, technical challenge,
investment opportunity,
but it's primarily a tool for transformation.
It's run by a terrific leader named Rachel Lyons.
- Rachel. - Hi.
- It's so good to see you. - Good to see you too.
Let's go.
- All right, I'm excited.
Part of the original mission
was to make space accessible to anyone.
- We have entered just over the past few years,
this new era in space exploration.
And this new era in space exploration
is very much being led by the commercial companies.
Up until 2021,
we had eight people go to space commercially ever.
And in 2021, we had more than 20 people go.
What the numbers are saying right now
is that in the next decade, 10,000 people or more
will have been to space.
And this can't just be for the ultra wealthy right now.
The potential of this is much too big.
And just in this past year,
I mean, it opened up to so many people.
- Organizations like Space for Humanity
are making it possible for anyone to apply, to go to space.
So it's really ideally eventually
not just for the wealthy.
- Just in the past couple of years,
we've had so many firsts when it comes to
who's going to space and how they get there.
You know, people like Eric Ingram with different abilities,
whether physical or mental, whatever it is,
these are people that before,
never would've gone to space.
And now with mission AstroAccess,
they're learning things
they never would've thought of before.
- I applied to be an astronaut twice, knowing full well,
I would not be accepted.
Imagine how many people aren't applying to be astronauts
because they don't think
they can meet the minimum requirements.
As a species, we are at the very beginning
of human space flight.
And when you're at the beginning of something,
it's the easiest time to design for things.
And so AstroAccess was founded
to make sure that anyone can go to space
when that opportunity presents itself.
And so we flew our first parabolic flight
in October of 2021,
where we took a plane and we did some parabolas,
where we were able to experience microgravity
and lunar gravity and Martian gravity,
and able to test some awesome technologies and ideas
we had for making space more accessible to everyone.
I think what you're seeing with commercial launch companies
and commercial space stations and all that,
is more opportunities for that larger set of the human race
to be able to finally go.
- I truly believe it.
I know it's cliche,
but you gotta see it to be it.
I mean, I know I didn't have that to see,
and so by me being the first,
maybe that'll make some other little kid say,
"Hey, I don't have to be an astronaut,
I could be a suit tech."
There's space for everyone, it really is,
and I truly believe that.
I mean, I'm a prime example of it.
- Startups are changing accessibility
and sustainability in space,
and even what it means to be an astronaut.
- And next episode on "Behind The Wings,"
NASA and other players in the space industry
set their eyes on the moon and beyond.
Talking about Mars.
(mid tempo music)
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