NASA & SpaceX: Journey to the Future (2020) - full transcript

A behind-the-scenes look at the teams of SpaceX engineers, NASA employees and scientists as they prepare for a commercial flight mission to the International Space Station.

Narrator: American astronauts have

not flown to space from u.S. Soil

in nearly 10 years.

That is about to change.

The united states

is a nation of explorers.

It's something that

fundamentally appeals

to our psyche.

Narrator:

This is an experiment to see

if an innovative private company

such as spacex

can fly nasa astronauts

and reinvigorate

space exploration.

It's an honor to be not

only representing nasa,

but spacex as well

in this next step

of space exploration.

Musk: The scary thing to be

launching people, you know,

and risk is never zero.

Sometimes things do blow up.

Space is hard.

How do you manage

telling your son

that you're facing that risk

as you go forward?

Narrator: The second golden age

of space travel begins now.

Man: T-minus three,

two, one, zero.

Ignition.

captions paid for by

discovery communications

We're able to get

the moon in '69,

and that was only 66 years

from first flight from orville

and wilbur wright's

first flight.

It was 1903. It was the first

controlled powered flight.

Only 66 years later,

landing on the moon.

That's incredible.

Even though it was only a few

people that did it, vicariously,

we all went to the moon.

Humanity went to the moon,

and it was

the greatest accomplishment

of human civilization.

You know, but it's been

now 51 years

since that first landing,

and no one has the ability

to land on the moon.

Narrator:

The apollo era ended in triumph

and nasa looked forward

to a bright future

with its new program,

the space shuttle.

However, after 30 years,

133 successful missions...

And two catastrophic

disasters...

Man: Obviously

a major malfunction.

Narrator: The space shuttle

program ended in 2011.

Man: The space shuttle pulls

into port for the last time.

Narrator: Nasa's days of flying

people to space seem to be over.

They relied

on russian soyuz rockets

to get astronauts

to the space station.

If you'd asked for in '69

that were said by 2020,

we would have had

no hotels on pluto.

They wouldn't have

thought that in 2020

that the united states

hadn't been able to send people

to orbit for nine years.

And so basically,

we cannot be complacent

about technology development.

We have to really

drive innovation hard.

Narrator: Eight years later,

the head of nasa

administrator jim bridenstine,

has traveled

from washington, d.C.

To make

an important announcement

about the future

of space travel.

- Hey. Good to see you.

- You, too.

You doing alright? Yeah.

Excellent.

He is joined by elon musk,

the visionary and at times

controversial founder

and chief engineer of spacex.

This announcement is the result

of nasa's

radical new partnership

with the private sector called

the commercial crew program.

Thank you for coming

to spacex today

in hawthorne, california.

The highest priority

is launching american astronauts

on american rockets

from american soil.

We are on the cusp

of making that a reality.

There's a lot of negativity,

you know,

especially these days,

it would be great

to have something positive

that perhaps can unite

the country or the world,

and advancement in space

is one of those things.

That is the reason

that spacex was created.

The launch of a crew

is something

that we've been working

towards for 17 years.

Narrator: Journalist christian

davenport covers

defense and space

for the "washington post,"

has been on the frontlines

reporting

on the commercial crew program

since its inception in 2010.

This is sort of, in some ways,

an experiment

to see if nasa can rely

on these commercial partners

to fly their astronauts safely.

Narrator: Nasa astronauts

doug hurley

and bob behnken will be

the first to launch

on spacex's

inaugural crewed flight,

marking the first time

in history

that nasa astronauts will fly

on privately owned spacecraft.

This first flight with crew

is a test flight.

Even the flight itself

is a test flight,

and it is done with test pilots

work for nasa,

who will be evaluating

the system itself.

And elon and I

in strong agreement

that whatever it takes

to make sure they are safe

is what we are focused on

like a laser.

[ Applause ]

Narrator: Before spacex

can launch,

crew to major milestones

must be completed without crew.

The first is the

demonstration one mission

or demo 1

in which spacex

must autonomously fly

their crew dragon capsule

to the international

space station and back.

The second test is called

the launch escape test,

also known

as the in-flight abort test.

If the rocket fails,

the dragon capsules emergency

abort system is triggered,

ejecting the capsule safely away

from the rocket.

Then there is the third

and final test

called the demonstration

two mission or demo 2,

which will launch

nasa astronauts

bob and doug

to the space station.

Bridenstine: When we think about

the history of human spaceflight,

it's always been

government owned,

government operated systems.

So the commercial crew program

is our way of commercializing

human spaceflight.

Narrator: Robert cabana is

a former astronaut

and the director

of the kennedy space center

in cape canaveral, florida.

The idea is to not have

to own the vehicles.

We buy a service.

We buy a taxi ride the space

to do what we need.

We have two separate vehicles.

One spacex, one boeing.

Bridenstine: When you have

multiple providers

that are competing

against each other,

they don't keep coming back

to the taxpayer

asking for more money.

We'd like to have access

to space be so low cost

that industry is sending

workers to space

in a way that's going to be

transformative for humankind.

Narrator: When a commercial crew

program was first proposed,

there were doubts about

whether it could work.

Many worry that privatization

would lead to decreased

oversight,

accountability and less revenue

for the government.

You know, we really are in

another golden age, if you will.

It's neat to see

and it's neat to be, you know,

maybe what you would argue as it

is the ground floor of that now

with commercial crew

and what we're doing for spacex.

Here with a commercial

crew program,

you've got two new capsules.

The boeing starliner

and the space x crew dragon.

New technology, new innovation

going into them.

They're autonomous.

They have the ability to fly to

the international space station,

meet up at the space station

in orbit

and autonomously dock with it.

It's like a self-driving car

that can park itself.

And that's a new technology

that we haven't seen before.

Narrator: In 2014,

nasa's commercial

crew program awarded spacex,

a $2.6 billion dollar contract.

After nearly a decade

of designing

and testing

their new spacecraft,

spacex will be

the first private company

to launch nasa astronauts.

I'm pretty excited about

being on the first flight

of a new spacecraft,

and it's awesome to work

with the spacex team.

You know, it's just a just

a wonderful place to be.

I couldn't I dreamed for

a greater opportunity than this.

Spacex is a hugely

ambitious company

founded by tech entrepreneur

elon musk in 2002,

ultimately with the goal

of trying to colonize mars.

We want the exciting things

that we see in sci-fi,

like sci-fi movies and books.

We want that

to come true one day.

We're making stuff real.

In fact, I think hardly anyone

in the public

knows if this is happening.

I gather you get

this message across,

like really cool

search happening.

You know, tune in.

Davenport: But for all of the

triumphs and all the successes,

all the attention that a company

like spacex gets,

they have not flown

humans before.

That's a huge responsibility.

Nasa's astronauts

for their pride and joy.

They're national heroes,

and their lives

are being entrusted

with these companies.

So we're going to see

if they can pass that test.

Narrator: Today's launch marks

the beginning

of the crew dragon

demo 1 mission.

This is one of spacex's

most challenging milestones yet,

a five day unscrewed journey

to the international space

station and back.

Davenport: Before nasa allows

boeing and spacex

to fly their astronauts,

they require the companies

to first do a test flight

without crews

onboard the spacecraft.

That's to make sure that these

companies can get the capsules

to the space station

and back safely.

[ Camera shutters clicking ]

Reed: The demonstration one

mission or the demo 1 mission

is an unproved flight.

We're sending

the dragon autonomously

to space station to dock

and come home.

We're gonna be in firing room

four for the launch itself,

listening along with a team

and kind of keying on the things

that would be relatively

important to us.

Really is our chance

to not be on board,

but be with the rest of the team

that will support us

when we actually

fly this vehicle

when demo 2 comes around.

Narrator: This is the first

flight of spacex's new

crew dragon capsule, which will

one day carry astronauts.

It sits atop the spacex

falcon nine rocket.

It's 16 feet tall,

13 feet in diameter

and can carry up

to seven people.

This mission will test

all the systems

required to keep passengers

alive in the vacuum of space.

We spent years designing and

testing of the vehicle systems.

That day is really the day

that the rubber meets the road.

We fly the vehicle,

we test the interfaces

of the rocket of the spacecraft

and make sure

that it'll work the way

we think it's going to work.

I mean,

the sheer number of tests

that have occurred

for dragon and falcon

is staggering to think about.

I mean, cumulatively,

must be tens of thousands

of tests of one kind or another.

Narrator: Everything is riding

on the success of this mission.

And if it fails, it's back

to the drawing board

before spacex will

be allowed to launch

nasa astronauts to

the international space station.

One measure of success

is how well nasa

and spacex

personnel work together

across the country.

The dragon capsule is monitored

by spacex mission control

in hawthorne, california.

The international space

station is supervised

by nasa in houston,

and the launch

of the falcon rocket

is conducted by spacex

in firing room four

at kennedy space center

in florida.

Nasa administrator

jim bridenstine

waits along

with countless spectators

in anticipation

of this historic launch.

What's fascinating is

the level of public interest

and uncrewed test flight.

I've not seen those

since the space shuttles.

It's an amazing day.

Narrator: For elon musk

and the team at spacex,

the stakes are incredibly high.

Failure could be a huge setback.

Not just for spacex

and the commercial crew program,

but for human space exploration.

Man: Go for lunch.

Narrator: At kennedy space center

in cape canaveral, florida,

spacex and nasa are seconds away

from the historic first

test flight

of spacex's new crew

dragon capsule

woman: Five,

four, three, two, one, zero.

Ignition, lift off.

Why energy in a rocket?

You know, you're basically

putting enough energy

into a spacecraft such that

it could look like a meteor.

It's just like it's difficult

for people to even comprehend.

Man: Power and telemetry normal.

[ Cheers and applause ]

Behnken: Being able to watch

the demo 1 mission

head up to

the international space station

was pretty exciting for us.

Part of it was that

we were seeing a test flight

that needed to happen

before we were gonna get

our chance

to go to space station.

It's a myriad of emotions

because you're looking at

all the different things

that could possibly happen

during those missions,

and you're excited about

seeing it be completed

successfully.

Narrator: The falcon 9 rocket

is composed of two parts,

the first stage

and the second stage.

A rocket sheds wait

as it climbs higher.

Once the falcon 9 first stage

uses up all of its fuel,

it is no longer needed

and separates, making

the entire system lighter.

Then after the second stage

use up all of its fuel,

it also separates, releasing

the dragon capsule into orbit.

Man: Stage separation confirmed.

Matthews: The falcon 9

first stage is separating

from the falcon 9 second stage.

Once the first stage

of falcon 9 has separated

from the second stage,

it's done its job.

Its primary mission

is to get the second stage

on its way with dragon

to the space station.

We do have a secondary objective

for the first stage

of the falcon rocket,

which is to come back

from orbit and land.

Narrator: The norm has always

been to let the first stage

fall back to earth

and crash into the ocean.

But spacex has invented

the first and only

reusable orbital class rocket,

which can fly itself

back to earth and land

so it can be reused

multiple times.

Matthews: For the first stage,

it starts its engines back up.

It flips itself around,

and the whole four stages

reentering

the earth's atmosphere

and slowly making

its way back down

for a landing on a drone ship

that is out

in the atlantic ocean.

Man: Landing lights deployed

and falcon 9 has landed.

[ Cheers and applause ]

Narrator: After the first stage,

separation is complete.

The crew dragon capsule

is propelled into orbit

by the second stage.

Matthews: The second stage

is lighting up its engine

and it's taking the dragon

spacecraft into orbit.

Once the second stage

successfully gets dragon

into the orbit

that it is intended to go,

its separate dragon

and moves away.

Narrator:

This is a pivotal moment.

The separation of the second

stage from the dragon capsule

is the final step

of the launch sequence.

Man:

Dragon separation confirmed.

[ Cheers and applause ]

Narrator: The crew dragon

is now on track to dock

to the international

space station.

Bridenstine: It's amazing.

This is a game changer.

Now, let me be clear.

This is the beginning.

This is the first quarter

of a long football game

that's five days long.

I'm not going to be overexcited

at this point.

Five more days.

Even though dragon is able

to autonomously only fly,

there actually was somebody

inside the capsule.

And it's basically what you call

an anthropomorphic test device.

The passenger for this uncrewed

launch is named ripley.

She is equipped

and wired with sensors

that are going to tell us

about her experience.

So during launch, she's going to

experience different g forces.

And we want to make sure

those are safe

for future crewed missions.

And we've done a lot to predict

what that's going to be like,

and we want to be 100 percent

sure that our predictions

are consistent with the flight

that she is going on.

What really matters

is the direction

that those gs

are going through your body.

We try to put all the gs

through the chest

because they can tolerate

a lot more.

So if you're dropping sort

of like bungee jumping,

it could be going up

and down your head.

That's not as good

as if it's going

straight through your chest

and you're accelerating

in a car.

Rendezvous is the complex ballet

where a spacecraft goes from,

where the launch vehicle

leaves it in space

to docking to

the international space station.

Narrator: Robert dempsey is

one of nasa's flight directors

for the international

space station.

He works with teams responsible

for this phase of the mission

called rendezvous and docking.

Dempsey: The launch vehicle

places it in orbit.

That's low earth orbit.

It's actually fairly below

and behind

the international space station.

And it'll perform a number

of burns or maneuvers

where it will catch up

to the space station.

And you can think of rendezvous

is kind of like a case

where a police officer,

for example,

was sitting by the side

of the road

and a speeding car

comes zooming by.

And what he will do

is the police officer

will then go from zero

and immediately start

to accelerate towards that car.

It's got to match that speed.

And eventually when it catches

up to it, it's got to slow down.

If it goes too fast, it's going

to go past the speeder.

If it doesn't go fast enough,

it'll eventually not be able

to catch that speeder.

So it's the same

sort of process.

This is a fairly

critical operation

because this is the first time

this vehicle has ever flown.

And we want to make sure

it does not collide

with the space station.

Narrator: A little over 24 hours

after launch,

spacex's crew dragon capsule

autonomously flies itself

to the international

space station.

Now begins the critical

docking procedure.

It requires

meticulous communication

between spacex mission control

in hawthorne, california,

nasa mission control

at johnson space center

in houston, texas,

as well as

the one american astronaut

and two russian cosmonauts

onboard the international

space station.

This is the first time

that a commercial vehicle

will dock to the space station.

It's also the first use of the

international docking adapter,

which is the port

on space station

where commercial vehicles

are going to come up and dock.

And so we'll see both sides

get used for the first time.

Woman: The station is ready

for the crew.

Petrzelka: The crew dragon

spacecraft uses an automated system

that is able to sense the

position of the space station

relative to the capsule

and is able to guide the capsule

into dock with station.

Ultimately, the vehicles

are fundamentally flying itself.

But we also have ground control,

who's monitoring it

and setting up

a certain amount of commands.

There's also a certain amount

of access that people

in the space station.

They can see what's

happening on dragon

and are in contact with the

ground control at the same time.

Woman: Monitor approach.

Orientation as expected.

Vehicle is in the corridor,

performing [indistinct]

At this point in time,

we actually take a little pause.

We stop within about

20 meters of the docking port.

That's on

the international space station.

- Hold, command center.

- Copy hold.

Dragon hold confirmed.

Matthews: And then

the engineers at both nasa

and spacex reviewed the data

from the spacecraft they took.

They make sure that everything

is going according to plan

and they're both happy.

Woman #1: Please command that

docking lights are on.

Woman #2: Copy, command.

Docking lights are on.

Then dragon is allowed

at that point

to autonomously move forward

with the approach and docking

to the space station.

- Dragon is resuming approach.

- Copy.

Petrzelka: The crew dragon

spacecraft uses it 16 draco thrusters

to maneuver into contact

with the space station

docking adapter.

Woman: Frank is decreasing,

vehicle is centered.

The capsule inches in

towards the station.

Woman: Vehicles in the corridor.

- Orientation as expected.

- Copy.

Dempsey: The mood inside mission

control for a first time docking

of a new vehicle

is always a bit stressful.

Now we've spent years

planning and training

and preparing for it,

but space has always had

a way of showing us

things can surprise us.

Crew dragon has a variety

of safeties in place,

so that should anything

go off nominal,

the capsule will

automatically retreat

and keep the station safe.

Woman #1: All video and overlays

look nominal

all status fields

are showing expected status.

Woman #2: And we copy.

Musk: You got to dock

with the space station.

And if something goes wrong,

you're just in the void of space

and you're in a vacuum

with nothing.

We got the space suits,

we've got a lot

of backup systems,

but it's still

a dicey situation.

Woman: Dragon is go for docking.

Narrator: This is the first

ever attempt by the crew dragon

to track the iss

and move in for what

must be a perfect,

airtight lock.

Narrator: After a successful

launch into space

and separation

from the falcon 9 rocket,

teams at spacex headquarters

and nasa mission control

closely monitor

the crew dragon capsule

as it faces

its toughest test yet,

a critical first time docking

with the international

space station.

If everything goes perfectly

as expected,

we'll just be monitoring,

making sure

everything goes right.

Woman: Dragon is presuming

approach and is go for docking.

The station crew

is ready for docking.

This is the first time

that a commercial vehicle

is autonomously docked

to the space station.

Woman: Vehicle motors approach

to dock port.

Primary range is decreasing.

Vehicle is centered.

Capture confirmed.

[ Cheers and applause ]

Watching the demo-1 vehicle dock

with the space station

was amazing.

It was kind of terrifying,

and it should be.

These are the first time

you do something.

You should be pretty worried

about how it's going to go.

And it was amazing.

Proceeding to open the hatch.

On behalf of ripley,

little earth

and myself and our crew,

welcome to the crew dragon.

Welcome to the new era

in space flight.

During the unscrewed mission,

dragon stayed docked with

the space station for five days.

That was to allow the team

on the ground

to observe and monitor

the vehicle performance

and for the crew aboard

the international space station

to work with the vehicle

and understand

how it was going to interact

with the space station.

Narrator: Now the testing

of the dragon is complete.

It's time for it to undock

and return to earth.

At that point, the international

space station crew,

they reverse the steps

that they went through

when dragon arrived.

So that means they close

the hatch on dragon first

and then they closed the hatch

on the international

space station.

The ground control team

sent a command for dragon

to undock from space station.

[ Cheers and applause ]

- Dragon is in the corridor.

- Copy.

It takes about six hours

for dragon

once it leaves

the space station to come home

and splashdown

in the atlantic ocean.

Dempsey: The mission is not over

until the astronauts lands

safely on the earth.

It's not until then that we can

breathe a sigh of relief

and call the mission a success.

We came out to see

the splashdown

as well and understand

what the recovery team

was going to go through,

and so that was pretty exciting.

Matthews: The recovery team

is already waiting

and ready to go

get dragon out of the water.

Petrzelka: The 16 draco

thrusters are responsible

for orienting the vehicle

in the correct direction.

They fire to slow the vehicle

down to the point

that it will come out of orbit

and begin to reenter

the atmosphere.

Narrator: Reentry is one of the most

dangerous points in the mission.

There is no way to stop reentry

once it starts.

All the spacex and nasa crews

must wait and hope for the best.

Traveling at about

17,000 miles per hour.

When dragon hits the atmosphere,

its heat shield will be

put to the test

as the vehicle is enveloped

in a giant hypersonic fireball.

The atmosphere does

the majority of the work

to slow the vehicle down

to a few hundred miles per hour.

Man: Dragon spacecraft,

it's now subsonic.

[ Cheers and applause ]

Narrator: Now that the heat

shield has passed its test

and dragon has safely slowed

to below the speed of sound,

it's ready to deploy

its parachutes,

which is the final

step of reentry.

Parachutes are way harder

than they look.

If you go back and look

at the apollo program,

there are people quitting over

how hard the parachutes were.

We almost had people quit

at spacex

over how hard

the parachutes were.

Petrzelka: When the capsule

reaches the correct altitude,

we will deploy

the drone parachutes.

[ Cheers and applause ]

And then the main parachutes...

To bring us

to a jogging speed

before we splash down

in the water.

Woman: And there we have

confirmation of splash down.

Matthews: We have a team of

people on fast boats that go out

and attach ropes

to the spacecraft.

They bring it over

to the recovery boat.

The recovery boat

has a crane which lifts

dragon out of the water

and onto the deck of the boat.

You know, the system

is more than just a spacecraft.

It's the it's the people

behind it

that are operating it

across teams.

Most importantly, we learn

how we can keep the crew safe,

keep them comfortable

all the way through

the journey there and back.

It's a good confidence builder,

not only for bob and I,

but for the team

that you can do it again

with the crew vehicle.

To see it pulled off,

you know, so successfully

kind of really brought home

kind of a ton

of excitement for the mission

that will be demo-2,

the first crewed mission.

[ Cheers and applause ]

Narrator: Spacex is focused

on the future,

reaching the next testing goal

for launching crew.

They don't have time

to look back.

Musk: The reason I started

spacex back in 2002

is really just to help us

get to mars.

You know, I thought there was

like maybe a 10 percent chance

of success that spacex

would work at all.

One path is we stay

on earth forever,

and then there will be

some eventual extinction event.

The alternative is to become

a space faring civilization

and a multi planet species,

which I hope you would agree

that is the right way to go.

Yes?

[ Cheers and applause ]

Well, I'll tell you,

there's a lot that makes

elon musk unique.

It's passion for what

he believes in.

He's committed to what

he's trying to achieve.

He's willing to put his money

where his mouth is,

and then achieve

really stunning things.

Elon musk was born

in south africa

and emigrated to canada

and then to the united states.

He was one of the co-founders

of paypal,

and that's how he made

his millions.

And after he made his money,

start thinking about

what he wanted to do next,

and what he could do to help

humanity and space travel

was one of the ideas he had.

There's so many things

that make people's sad

or depressed about the future,

but I think becoming

a space faring civilization

is one of those things

that makes you excited

about the future.

You know, his vision

at the time was just we need

to get the american public

inspired

to increase nasa's budget.

That was his goal.

And I'm like, "hey, you and I

have the same goal on that one."

this is under construction,

but this is where

our mission control

and launch control will be.

There's gwynne at her cube.

Shotwell: I joined spacex

in September of 2002,

and it was me

and 10 other people.

Narrator: Spacex president

and chief operating officer

gwynne shotwell

is a key member of the team.

Elon was very clear

with everybody.

We were to build the technology

that was necessary

to take people

to live on other planets.

This is the israeli test article

of our dragon spacecraft.

This area is used

for the engine components.

Davenport: There's a saying

the easiest way

to become a millionaire in space

is to start out

as a billionaire.

Shotwell:

He brought money, right?

He brought the first $70 to $100

million to this company.

And that was key because

that allowed us some runway

to demonstrate

that this little group of folks

could grow into a company

and build the capabilities

that no one thought we could.

It created ultimately

falcon 1 and did three failed

launches stuck with it,

went up to the edge.

Narrator: Elon knew that he had

to push the boundaries

and create a superior rocket in

order for spacex to thrive,

but the company

only had enough money

to build and test four rockets.

The first three falcon rocket

launches ended in disaster.

The future of spacex

looked bleak.

Hi, welcome to spacex.

You're here in the lobby.

I mean, the very early days,

I'd meetings with nasa

and they'd be like,

yeah, whatever, internet guy,

it's paypal, whatever,

you know, it's this just

some rich guy who's going to,

like, lose all his money

and rocket's not going to work,

which is totally fair.

I mean, we hadn't

proven anything.

I hadn't proven anything.

Davenport: In the early days

when spacex was

first trying to get to orbit,

they had a rocket

called the falcon 1,

and they launched it

three times.

All three times

were unsuccessful.

And they had one more chance,

the fourth flight of falcon 1.

If it didn't work,

then spacex would have

gone bankrupt

and we would not be around.

Fortunately,

a flight four did work.

Narrator: The falcon 1 rocket

was a success.

In 2008, spacex landed

their first nasa contract.

Spacex was now officially

in the space game.

[ Cheers and applause ]

Nasa awarded contracts to spacex

and then orbital sciences

to fly cargo and supplies to

the international space station.

Nasa brought capital

to the company at a time

when it was

absolutely critical for us.

Behind me is where the falcon 9

would sit during launch,

and the big transformation

that's going occur

over the next few months.

It's the construction

of the launch mount.

With nasa, we initially got

until like the maverick section

or like the highly unlikely

to succeed

but we'll take...

We'll take a chance on them.

But we're definitely

not the considered the a-team.

Let me put it that way.

[ laughs ]

Narrator: Under contracts

with nasa,

spacex has flown multiple

cargo resupply missions

to the international

space station.

But flying cargo was never

the endgame for spacex.

Their goal has always been

to fly people.

It was the company's success

with these prior programs

that gave nasa the confidence

to hire spacex

to fly their astronauts

for the commercial crew program.

We've had a long

and very productive

working relationship

with nasa over time,

gradually building up

from these guys have no chance

to know over the course

of now 18 years to the point

where nasa has enough confidence

that they're going

to launch astronauts

on the spacex vehicle.

It's a great honor.

[ Monitor beeping ]

Uh-oh. It's teasing you.

That is a... that's the three

stooges poke right there.

It's like the... [ laughs ]

Doug hurley and bob behnken

are super experienced.

They have many years

behind them.

They're two people

who've been to space.

I did fly on the space

shuttle previously.

I flew a couple of missions.

I went to space station,

did a lot

of assembly space walks.

Man: And there's bob waiting.

I flew on sts-135,

the last shuttle flight,

and then before that, sts-127,

which was an assembly flight.

Behnken: We go pretty far back.

You know, we were hired

in the same astronaut class

back in 2000.

So going on two decades,

which is a I guess we're called

the maybe the senior astronauts.

At this point. Old guys.

Never flown in space together,

and that's what's

really exciting.

Davenport: Bob and doug actually

met their wives

in that same astronaut class.

So they're both married

to astronauts

and they both were even in

each other's weddings.

Man: That's megan mcarthur,

who is our flight engineer.

Woman: Astronaut karen nyberg

blasted off for her mission

aboard the international

space station.

Having spouses that are

astronauts that have been

through

what we're going through,

that kind of recognize that

there's long days

that are involved,

and they appreciate

that aspect of it.

They understand the ups

and the downs.

They understand the risks.

It just makes it a lot easier

in some respects

and maybe harder for them

in some respects,

because they do understand all

the risks and they've done it.

Woman: You left a three year

old son at home.

He missed his first day,

I think, at preschool.

Of course it's hard,

but we do have

great communication.

My husband sends up pictures

and videos.

We both have families

that are pretty similar.

We both have young boys

that are in elementary school.

They're both going to get

a chance to really kind of see

us flying space

for the first time.

I'm really excited to be able

to share this with my son.

He understands

that rockets are dangerous,

and he first said,

"you can't fly on that rocket."

and we had to get him over

as kind of, you know,

the emotion that goes along with

riding on a rocket ship

and get them comfortable

with that.

As we move towards flying

these two individuals,

as we often refer to them

as these two fathers. Right?

There these these

two people who have families,

it's something that

we take very, very seriously.

We want to make sure that

everything we do is right

and that we're going

to bring them home safely.

Any time you're developing

new spacecraft, new technology,

there's so much risk

that's inherent in that.

And when you put

human beings on board,

that makes the stakes

so much higher.

Everything, everything has to go

right for it to be a success.

And the nature of our business

as military test pilots,

school graduates kind of going

through what we've been through.

We recognize that there

are all aspects of risk

associated with our missions

or the tests that lead up to it.

It's a scary thing to be

launching people, you know?

And risk is never zero.

Narrator: Spacex's success

record is far from perfect.

Man: Three, two, one.

Lift off of the spacex

falcon 9 rocket.

Narrator: On June 28, 2015,

spacex launched

their seventh cargo

resupply mission for nasa

to the international

space station.

Man: We appear to have had

a launch vehicle failure.

Narrator:

Several minutes into launch.

The falcon 9 rocket failed

and completely disintegrated,

destroying the entire contents

of nasa's cargo.

It's definitely a setback,

but the fact the matter is

rockets are just

extremely difficult.

Narrator: It was later determined

that the failure was likely caused

by a single strut

inside the rocket

that broke free

and breached a helium tank.

Then on September 1, 2016,

another major failure.

The spacex falcon 9 rocket

that was supposed to launch

a communications

satellite blew up

during a test fire.

You know, it's part of testing.

These things do happen,

and the thing

you want to obviously avoid

is when people

around that vehicle,

you don't want

those things to happen.

So that's why you test,

and spacex really wants

to test things

to their full capability

and sometimes things do blow up.

Neither of these missions

were intended to carry humans.

This is why the next failure

spacex encountered

would be their most difficult.

We experienced an anomaly

on the test stand

where our crew dragon vehicle

from non-crewed

test flight exploded.

Narrator: During a test,

fire of the engines,

the very same dragon capsule

that was used

in the demo-1 one mission

was completely destroyed.

Davenport: I mean, they lost

the entire dragon capsule,

which was a huge setback

for them.

And it raised

some real concerns.

When the dragon capsule

was lost,

we go through

that range of emotions.

First, you're gonna have to deal

with questions from your family.

And folks are like,

"hey, is that the vehicle

you're going to ride on?"

how do you manage, you know,

telling your son

that you're facing

that risk as you go forward.

You know, that's

a thing we have to do.

Davenport: This was a moment

where inside nasa,

I think people were wondering,

was this whole experiment

going to work?

Petrzelka: We experienced

an anomaly on the test stand

where our crew dragon vehicle

from non-crewed

test flight exploded.

Davenport: There were people

on the beaches

of the florida space coast,

and all of a sudden

they saw this huge plume

of orange smoke go up.

It's a it's an interesting

challenge to figure out how

for, you know, a kindergartner,

that's the age of my son,

how do you explain, you know,

the situation that

that kind of unfolded?

Luckily, he's not

on the internet

to be able to chase down

those videos

on his own at his age.

But we went through the process

of taking him to florida,

watching a rocket launch.

So after going to florida,

seeing a new ship

kind of launch into space,

he was he was ready

for me to go.

I think going along

with that, not only,

you know, kind of reinforcing

some things to your family,

but reinforcing things

with the team.

We kind of felt like

in some ways we had

to kind of get the team back up,

especially the team in florida,

because obviously

they took it very,

very hard and very seriously.

They recognize that

they're responsible

for our safety,

kind of going forward.

So it's pretty hard on that team

to look us in the eye

after having, you know,

a failure like that.

Right after the explosion,

nasa and spacex

led an investigation.

They quickly found

the root cause of the problem.

Narrator: The spacex

investigation revealed

that the cause of the explosion

was an unexpected reaction

between a fluid

under high pressure

and a titanium component

inside the vehicle.

The only we had... we had the

capsule strapped down to a stand

and we had a large series

of high speed cameras

and tons of sensors

which allowed us

to really get to the root cause

of a very nuanced risk

that we would not have

otherwise known about.

From an engineering perspective,

this was actually a success.

We identified a new failure

and we're actually

making our vehicle safer.

We're making

the whole industry safer

with this new understanding.

I'm very proud

of the spacex team.

And in fact, it just came from

a dragon engineering review.

We went through a detailed

list of all the risks.

And I think that

the dragon visionary team

has done a great job

in working closely with nasa,

and also we're just

going through

and double checking everything

to make sure

that things are as reliable

and as safe as possible.

How does a test pilot

kind of prepare

for a first flight

in a spaceship?

That's a great question,

because the last time

we did this

in an orbital vehicle,

it was john young

and bob crippen.

So it's been a while.

Behnken: We usually ask,

"what if it doesn't go"

exactly the way you planned,

then how should we be prepared?

And so we really try to dig into

every piece of the puzzle

to really understand

what's our plan

and then what's our backup plan.

And we're prepared

for all of those things.

Narrator: Nasa and spacex

must prepare

for all potential problems.

If there's a fire on the pad,

the astronauts must escape

quickly so they train

an emergency escape systems.

Spacex has on launch pad 39 a

an emergency egress apparatus.

If there is a fuel leak

or the astronauts need

to get off that launch tower

as quickly as possible.

So they've set up essentially

a giant zip line

narrator: From 265 feet

above the ground,

the slide wire basket whisks

the astronauts down the line

in under 30 seconds

to a distance of approximately

1,200 feet from the pad.

Davenport: There are armored

vehicles waiting for them

that they can get into and

then be escorted away to safety.

Narrator: The launch pad

isn't the only place

where astronauts face

potential danger

if there are rough seas

or storms,

the capsule splashed

down in the ocean

would present

a challenging rescue.

The water egress test

is where we practice

getting crew members

out of the capsule

when it's floating in the water

in an emergency situation.

Landing in the water,

anybody who's been on

a deep sea fishing trip

knows that you can get

pretty seasick pretty quickly,

having not even been to space.

So landing in the water

is somewhat of a challenge,

but the physiological aspect.

So we'll see how we react.

When the astronauts

come back from space,

they'll land in water.

We will pull them

onto our recovery ship

and the first thing we do

is I'll enter the capsule

and I will make sure

that they're healthy,

decide how they need

to be brought out of there.

We want to make sure

that we move them really slowly

to keep them from being sick.

And we'll do a lot of things

to keep them comfortable

when they return.

This is what we do

as astronauts.

This is what we do

as test pilots, you know,

and and the opportunity

to be able

to go fly this vehicle

for the first time with crew

is just something

you could never pass up.

When we go to test pilot school,

this is the kind of thing

that you wouldn't even imagine

you to get a chance to do.

It's almost a once

in a generational opportunity.

- Hey, bob,

- it's good to see you, doug.

Narrator: In 2014,

the commercial crew program

awarded spacex $2.6 billion

to create a new launch system.

Today, nasa administrator

jim bridenstine

is visiting the spacex factory

to see how the taxpayers money

is being used.

The spacex factory is like

a candy land for aerospace.

It's like this incredible place

because you can see rockets

being built, lots of rockets.

You can see lots of engines

being built, you can dragon

spacecraft being built.

You can really see the cutting

edge future of spaceflight

all the time all around you.

Narrator: This is the part

of the factory

that houses the revolutionary

falcon 9 rocket.

This rocket essentially

been designed

with the help of nasa

with the help of the air force.

It's really designed for

how do you make the most

reliable rocket ever made?

- Right.

- That is our goal..

Falcon 9 is essentially standing

on the shoulders of titans,

as they like to say

in literature.

We've built upon

a lot of those lessons,

the things that

nasa has learned,

we've taken that,

but use kind of a clean sheet

of paper that says,

"how can you build a rocket"

knowing that we want

to do things

"that have not been done before?"

in the history of spaceflight,

rockets were used once.

Man: Lift off of the atlas 5.

Davenport: The first stages

went up,

delivered

their payload to space.

Man: We have stage separation.

Then they splash down

in the ocean,

never to be used again.

That would be like flying

cross-country

from new york to l.A.

And throwing away the airplane.

That would make commercial

aviation enormously expensive.

And yet that's what

we've been doing in space.

We have lift off of falcon 9.

What spacex has done

is developed a rocket

that can be reused.

It's first stage booster

delivers

its payload to orbit...

Stage separation confirmed

then it flies back

and lands on land

or at a ship at sea.

We have an interesting

history at spacex

when we talk about failure.

Narrator: Spacex knows that

failure is an unavoidable stop

on the path to success.

Now that they're on the verge

of flying astronauts

for the first time,

the stakes have

never been higher.

Also, the restaged felt bad

because it's designed

to be returned.

That stage is insanely robust.

Is really gone

through its paces.

The falcon 9 is a huge

step forward in spaceflight

and achieving the goals

of spacex

and ultimately making life

not that planetary

and lowering the cost of space.

The biggest achievement

is the ability

to return the falcon

home to land.

And it is hard.

It's definitely hard to do.

You need to be able to accept

failure during the design,

the innovation process

here at spacex.

And a lot of times

in the rocket business,

failing means

you're making craters.

There's a smoking hole

in the earth

somewhere where a great idea

came up a little bit short

and crashed into the euro.

During the test phase,

we would get close to the ship.

But we're maybe going sideways.

We ran out of propellant.

But we do that

because you use a test,

a fly, a test, a fly,

and then figure out

how it works,

not necessarily by just

running analysis in computers,

but by actually

flying the rocket.

That's where you really learn

what the rocket can do.

For decades, honestly, people

thought that that was not

something that you could do.

They thought it would

just be too hard

to bring a launch vehicle

back to control

that vehicle coming

all the way back to earth

narrator: After years of designing

and testing the falcon 9,

in 2015, spacex set out

to make history

by attempting the first

ever landing

of a first stage orbital rocket.

Man: Stage separation confirmed.

Insprucker: To bring falcon 9

back to earth.

We've got a navigation system

in the first stage.

Most first stages

don't have that.

The rocket will then relight

three of the nine engines

to begin to slow down.

Each engine can be moved left

and right, up and down

so that we can steer

the rocket back towards

where the landing sites

are going to be.

Man: Stage one landing burn

has started.

Reed: I've heard it described

as you standing on the top

of the empire state building

and you drop a pencil off

and you have to land the pencil

on it's eraser

on a postage stamp.

Ultimately, it's not beyond

the realm of physics.

That it's not beyond

the realm of physics,

there's an engineering way

to get it done.

Man: The falcon has landed.

[ Cheers and applause ]

Wow. This thing

actually landed intact.

Amazing. That was crazy.

[ Cheers and applause ]

There's an old phrase,

if you're not failing,

you're not learning.

So if you're too cautious

and you never fail,

you're not actually figuring out

how to push the envelope

to do the kind of things

that no one has done before.

Musk: You know, there were

a lot of people

that didn't think the rocket

landings were real big thing,

that we were just like

running the video in reverse.

Such I feel like it get confused

between improbable

and impossible.

There's lot of things

that are improbable,

but unless you breaking laws

of physics, it's not impossible.

Insprucker: Currently,

the falcon 9 is designed

to be flown 10 times.

Each time we do a refurbishment,

what we call

vehicle maintenance.

That doesn't mean that

it expires after 10 flights.

Instead, as we get close,

we will look to do

some more testing

because we expect the falcon 9

can fly way

more than 10 flights.

We just ease up on it a step at

a time as we expand the history.

This is launch complex 3a

at cape canaveral

on kennedy space center.

This building houses

and processes falcon 9s

that have landed

at our landing pads

or have been landed on the drone

ships and have come into port.

To refurbish a rocket,

they roll into the hangar.

We load them into

their pressing rings

and it's a matter of weeks

to process them

and get ready for launch.

Reusability is incredibly

important to space exploration.

One, it helps of cost savings.

And two, it helps time.

If every time

you build a new vehicle,

we would be waiting and waiting

and waiting for new rocket

to be produced.

But we're able to fly rockets,

land them and reuse them.

That means we can access space

on a weekly basis

versus like a monthly

or yearly basis.

The end goal is obviously

to have zero refurbishment,

to be able to land

and then relaunch like airplanes

to ensure that we're able to

access space on a daily basis.

That's something that spacex

is very proud of

and what we're trying to do

as a stepping stone

to help us to get to mars.

Currently, the stages

investors crash in the ocean.

You can't recover the hardware,

so you can't see

where there was a close vote.

When we get the vehicle back,

we examine the vehicle

and physically see it.

Was there anything

that virtually had

a burn through or

we were close on margins.

Right.

And then we can adjust

that in the design.

Well, what we're seeing

when you use the same rocket

the second, third, fourth,

fifth time, insurance rates

actually go down, not up.

That's how you tell.

Insurance company

is pretty sharp.

- Right.

- They don't like losing money.

After you get through

that first flight,

just like a commercial airplane.

You like an airplane that,

you know has been flown

several times

rather than being the first

customer on board the airplane.

The commercial insurance rate

is the best indicator

- of the reliability of a rocket.

- Right.

And we have the best

insurance rates in the world.

- Oh, is that right?

- Yeah.

I didn't know that.

The holy grail is really a fully

reusable orbital system.

That's by far

the most important thing.

It's like the difference

between having aircraft

that are reusable

or not or cars.

The profundity of this is

not well understood

by very many people.

Narrator: Team spacex still has

one more critical test to pass

before they will

be allowed to fly.

Nasa astronauts.

What happens if a rocket

explodes in flight?

[bleep]

There is a plan

to save the crew.

Spacex now must prove

that it works.

Narrator: The crew dragon

capsule is a spacecraft

that houses the crew.

It is replacing

the cargo dragon capsule

that was previously

used on spacex

resupply missions to

the international space station.

The dragon spacecraft

that will be using

to carry astronauts

to the space station,

bring them home is really

a 21st century spaceship.

My first impression

of the inside of crew dragon.

I was amazed.

It's obviously

a modern space vehicle.

It's very sleek design

inside, very comfortable.

The seats are actually

car racing seats,

so the safety factors

go up considerably.

Musk: We've flown crew dragon

already to the space station

and back.

We subsequently made

a lot of changes, improvements.

But we also just have to be

absolutely paranoid

about safety.

Hurley: Well, the experience

of training

in an accurate capsule

with a spacesuit is invaluable.

Bob and doug were there

spacesuits in this simulation

because we want training

to be as flight like

as possible for them.

Spacex dragon,

we are ready to test drive.

Hurley: When you have

all your equipment on,

it allows you to get more

comfortable in a situation.

So the more you can train

in those suits,

the better you'll be

on the real day.

It's exciting to see, you know,

modern components

in a spacecraft.

You get very used

to the shuttle.

The 2,000 switches,

circuit breakers.

The seats, it's not the most

comfortable vehicle to fly in.

Behnken: You know, for those of us

who've been living with switches

from the '60s

for all these years,

to see a modern interface

is something

that's pretty exciting.

Spacex dragon,

we got [indistinct]

Woman: Copy that.

Some of the great innovations

that we've made.

We have wonderful touch screens,

so you can see everything

that's going on in the vehicle.

You can get all the data

that you need about the vehicle.

You also control the vehicle

all from these touch frames.

The gloves are compatible

with the touch screen.

It's imperative because there

are operations you need to do

with the gloves on.

[indistinct] are updated.

Hurley: The dragon capsule

is almost completely automated,

so it should be able

to fly the entire flight

without us intervening at all

if everything goes normally.

And I think it's the way

of the future with vehicles.

I mean,

we see that now with cars.

We see it with airplanes.

And this is just

the next logical step.

Woman: You should monitoring

your dragon longitude

and knowledge about initiation

of claw separation prep.

When you think about automation,

it's a layer of complexity

and software

that needs to be verified.

So the task for crew

on a good day is hopefully

that they don't need to do much.

On a bad day, they need to

understand exactly when

and how they need to respond

to the vehicle,

the vehicle's behavior

and what it's doing in space.

Dragon, spacex, contact.

Spacex, dragon.

We got you loud and clear.

Every single phase

of the mission

will be simulated,

so we have launch sims,

we have approach to station

entry, descent and landing.

And every single phase

has failures

that are unique to that phase

and require different responses.

Dragon, we are going in step

into the scenario.

Ultimately, even though

it's able to autonomously fly,

we want to make sure

that the crew understands

what's happening

and that they can take control

at any point in time to ensure

their own safety as well.

We can manually intervene

if we think things are not going

the way they should be

with the automation.

Dragon, spacex.

Where's our flight computer?

Yeah, it looks like we lost it.

Narrator: Today, the astronauts

are training for a scenario

in which the flight

computers fail.

Since the dragon crew capsule

is totally automated,

it relies on the computers

for almost everything.

With the computers down,

this could be a dangerous

situation for the astronauts.

We've seen one of our flight

computer processes

are not controlling the vehicle.

So what we'll do in training is

we break dragon.

Dragon, basics. Please proceed

to reboot flight computer.

So if the flight

computer goes down,

we teach them how to reboot it.

Okay, we've initiated

the flight computer reboot.

And we see

the same on the ground.

We're following. Thanks.

During simulations, you'll see

a lot of anomalies,

malfunctions.

Sarah and some of our

other simulation supervisors,

they relish those opportunities.

Gillis: [indistinct] has been

interrupted.

We are investigating

root cause on the ground.

Thanks. Copy.

It's really good not

only for bob and I as the crew,

but it's also for the team

on the ground.

It really throws the team

different curveballs.

Flight computer

has transitioned to...

Spacex, all our displays

are back up.

Well, that's great news.

- Flash count.

- Victory.

♪♪

Narrator: Nasa has required that

spacex's design of the crew dragon

capsule has

a significantly higher level

of safety than its predecessor,

the space shuttle.

Every aspect of dragon

has been tested

at the sub-system level,

as an entire vehicle.

There's so many test,

it will blow your mind.

Narrator: Even with all the

safety features

that spacex has built

into their systems,

nasa is also requiring

the inclusion

of a revolutionary

new safety feature

called the launch escape system.

Menon: If there was

a emergency on the pad,

the capsule is able to separate

from the falcon rocket.

And that's done

to protect the crew.

I want to escape system

is essentially an ejection seat

for the entire spacecraft.

If the computer sense

a problem with the rocket,

the spacecraft will

automatically separate itself

and fly through the air

with its super draco engines

so they can safely splash

down in the ocean

with its parachutes and save

the crew from flight anomaly.

The dragon spacecraft has

two types of engines on board.

The first started

16 draco thrusters.

Those are small engines that

make about 100 pounds of thrust.

And those engines are what

we're gonna use to maneuver

and dock to

the international space station.

And then there are

the eight superdraco engines

for a launch escape scenario

in an emergency situation,

which make thousands

of pounds of thrust.

Crew dragon is utilizing 3d

printing to manufacture

some of the components on it.

A 3d printer works by laying

down layers of metal powder,

and as it lays down each layer,

it will melt together

a specific part

and then it builds up

layer by layer

to create whatever shapes

that you want.

And so this is really useful

when we look at things

like printing an engine

that needs many fluid passages

and it needs to be a very

interesting organic shape.

And because we've melted

together layer by layer,

you can make hollow parts,

you can make very interesting

shapes that would be difficult

to make by any other method.

Narrator: In 2015,

space six performed

a preliminary pad abort test

of their launch escape system.

Our pad abort test

was performed to ensure

that our spacecraft design

could escape the launchpad

safely to the water

in the event of an emergency.

Woman: Three, two, one, launch.

During an escape,

they will likely pull

between four and six gs.

That depends on the different

variables and the situation.

I think a roller coaster

is under three gs.

Man: We're over one kilometer.

Trunk deployed.

[ Indistinct talking ]

Passing through

six hundred meters.

Narrator: The pad abort test

was a precursor

to a much larger challenge

called the in-flight abort test.

In-flight abort

is a similar test,

but it tests a different

set of conditions.

Instead of demonstrating

separation from a rocket

on the launch pad,

the in-flight abort test

will demonstrate separation

from a rocket that is actively

flying through the atmosphere.

If there's a problem

with the rocket,

the in-flight abort test

will show

how the capsule can eject itself

from the rocket

and safely bring the crew

down to the water.

Narrator: The stakes for the

in-flight abort test are massive.

It is the last

critical milestone

that spacex must pass

in order to be allowed

to fly nasa astronauts.

Woman: Liftoff.

Man: Four, three, two, one,

and lift off.

Lift off of the 25th space

shuttle mission,

and it has cleared the tower.

One of my strongest memories

as a child was in fifth grade.

We watched the space shuttle

challenger blow up.

A loss of the entire crew

was a result of the fact

that there was

no launch abort system.

It shuts down the program

for a period of years.

Well, we want to do now

is we want to get to a day

where when there is

a catastrophic failure,

we have a launch abort system

that keeps our crew safe.

Good afternoon, and thank you

for joining us.

We're here today to talk more

about the spacex

in-flight abort test

it's a demonstration mission

for spacex to show

that we're able to eject

our capsule off of falcon 9

safely and reliably.

This test

is very important to us.

It's really the culmination

of years,

close partnership with nasa.

Band it's one of the key steps

before we go

to our demonstration to mission,

which will carry bob and doug

up to the space station.

Narrator: Spacex must pass

this critical

in-flight abort test before nasa

will allow them

to fly their astronauts.

Soon, human lives

will be at stake.

So every precaution

must be taken.

The plan will be that dragon

is on top of the rocket.

The rocket will take off.

At about 84 seconds into launch,

we'll trigger

the launch escape system

and dragon will carry

the capsule

safely away from the falcon.

Dragon will hit about

mach 2.3 as it's getting away.

It will then hit an apache

of about 40 kilometers high.

It will jettison the trunk.

It will reorient itself

with the draco engines

and then it will continue

its trajectory

down in about

five minutes after launch.

The parachutes will deploy, and

about 10 minutes after launch,

we expect splash down.

The dragon recovery forces

will also be out there.

One of things I want to mention,

and this is kind of exciting.

The falcon has flown

three times before

and it's going to reflight

for this test

for the commercial crew program.

The booster behind us

or the falcon 9 behind us

we'll be flying

our in-flight abort.

So this will be

its fourth flight.

To my knowledge,

the in-flight abort test

is the first ever full scale

launch escape system,

safety test.

In the past,

other crewed programs,

they've done subscale testing.

This the first time, I think,

someone has ever taken a rocket

and intentionally thrown it away

with the sole focus on ensuring

that the system they're

designing to ensure the crew

is safe will actually function

as expected.

Narrator: A big part of the cost

of the in-flight abort test

will be a multi-million

dollar rocket

that will be deliberately

and completely

destroyed in the test.

Hi, chris davenport

from the "washington post."

question about the fate

of your booster.

You said it could tumble,

it might come apart.

You mentioned to fire.

I mean, is there a possibility

that it could actually explode

if people are watching

from the beach?

Should they be

prepared for that?

Sure. Absolutely, chris.

Yes, both stages

are loaded with fuel.

We expect there to be

some sort of ignition

and probably a fireball

of some kind.

You know, whether I would

call it an explosion

that you would see

from the ground, I don't know.

We'll have to see

what actually happens.

But I wouldn't...

I wouldn't be surprised

and that wouldn't be a bad

outcome if that's what we saw.

While you hope

the abort engines never light,

you don't want that ever

to happen because that means

something very, very bad

has happened here

I'm in an emergency

situation, but it can happen.

I mean, just recently,

nasa astronaut nick hague

was on a russian soyuz

where there was a problem

with the rocket,

the soyuz spacecraft.

Emergency abort systems lit

and it ferried them to safety.

Now, it was a wild ride

and they pulled something

like seven gs or seven times

the force of gravity

on their body.

It was not a comfortable

experience,

but they were alive

and they landed safely.

And that abort system

saved their lives.

The in-flight aboard tests

for doug and bob,

that's immensely important

because it just reassures them

that the spacecraft that

are going to get on is safe.

Narrator: Key nasa

and spacex officials

have gathered

in firing room four,

also known as launch control

at the kennedy space center.

They will oversee today's

critical in-flight abort test.

If this test fails,

the crew dragon program

will suffer

a major design setback.

Musk: We're doing everything

we can to make this mission

as reliable as possible.

No stone is left unturned.

We're turning every stone

over three times or four times

just to get

that probability of success

as close to 100 percent

as possible.

This test is

about the entire team,

the nasa team and

the spacex team coming together

and pulling off

a pretty complex exercise.

We're going to launch a capsule,

we're going to put it

in the ocean,

department of defense

is going to have coordination

required between

nasa and spacex,

and that entire team

is going to show

that they can bring

a capsule home safely,

bring the crew, if they were

onboard, home safely.

And so that's really

what we're expecting

to see out of this test.

Woman: Weather is looking okay,

and the range is green

for launch.

Man: Dragon is in countdown

[indistinct] is armed.

Go for launch.

Woman: Ten, nine, eight...

If the test isn't successful

for some reason,

of course, you know,

you have a whole group of folks

both on the spacex and nasa side

that will have to take

a look at things and figure out

why it wasn't successful.

And this is obviously something

close to the last step.

This is all part of building

up to flying crew on dragon.

Seven, six, five...

Bridenstine: When you watch

a launch abort test,

you're wondering

has everything been done

to get this vehicle

ready for an end-to-end test

in one of the most stressful

and dynamic scenarios

you can imagine

for space flight.

Woman: Five, four,

three, two, one.

[bleep]

Narrator:

This is the final step.

Everything is on the line with

today's in-flight abort test.

If this test fails,

nasa will not risk the lives

of their astronauts

and the entire project

will come to a halt.

Woman: Ten, nine, eight,

seven, six,

five, four, three,

two, one, zero.

Ignition, lift off.

[indistinct]

Narrator: This potentially

life saving capsule ejection

has been years in the making,

and it will be over

in just minutes.

Rockets are... it's basically

a controlled explosion

that's pushing a mass into orbit

at faster and faster speeds.

And it's the most dangerous part

of getting anything to orbit.

And so to simulate

a failure of the thing

that is most likely

to fail, the rocket,

and demonstrate that the capsule

with the precious cargo

that's sitting in that capsule

can survive that.

That is so key.

Narrator: Spacex has launched

a falcon 9 rocket

and crew dragon capsule.

The abort is

automatically activated

when the system detects that

the rocket is malfunctioning,

such as in the case

of an engine failure explosion

or the rocket

veering off course.

The abort can also be manually

triggered by ground control.

That will happen in this test.

Man: Vehicle is supersonic

and passing

to maximum dynamic pressure.

Narrator:

Once the computer senses

that the rocket

has malfunctioned,

it blows the bolts, holding

the capsule to the rocket.

Man: Dragon launch escape

initiated.

Narrator: Then the crew

dragon's superdraco engines

fire for 10 seconds to propel

the capsule away to safety.

- Dragon's away.

- Whoa.

Musk: Because the super draco

escape thrusters

are integrated into the vehicle,

you have a launch escape

capability all the way to orbit,

which has never been the case

for any spacecraft before.

♪♪

[bleep]

[ Indistinct conversations ]

[bleep]

Narrator: Approximately

10 seconds after the abort

was triggered by ground control,

the crew dragon capsule

jettisoned away.

The force of the ejection

made the rocket unstable

and it exploded.

But the dragon capsule

was already safely

a mile away from the rocket.

With the dragon

jettisoned safely away,

the trunk, which carries

unpressurized cargo,

is ejected and will crash

into the ocean.

Now the capsule will begin to

reorient itself for splash down.

However,

the mission is not over.

With the capsule hitting

a top speed of mach 2,

this last phase is key

for the astronauts safety.

Our parachutes are triggered

and deployed

when the capsule

reaches the correct altitude.

So at a high altitude, it will

deploy the drone parachutes.

And when it reaches

a lower altitude,

the main parachutes will deploy.

[ Applause ]

Woman: Fully open and we are

coming up on about a minute

until splash down.

[ Indistinct conversations ]

- Splash down.

- Yeah!

[ Cheers and applause ]

To watch it go from start

to end successfully,

it just... it's really

something to behold.

And I know a lot of emotions

on both teams today,

and we're very excited about it.

It's just one step on this

longer road to creating a mass

transit system

for people to other planets.

Is everything good?

Everything's good.

[ laughter ]

Behnken: So as a crew member,

it's going to ride onboard

this vehicle.

Having a system onboard dragon

that can get you out

is pretty cool.

I think people sort of forget

that technology

does not automatically improve.

It only improves if a lot

of people work very hard

on that technology.

We have to drive innovation hard

to make life multi planetary.

I think this is very important

to secure the future of life

as we know it and to ensure

that the light of consciousness

does not go out.

Bridenstine: We are a nation

of explorers.

We're also a nation

of that leads.

And this, of course, represents

us returning american astronauts

to space on american rockets

from american soil.

So this is a great opportunity

for us to once again lead.

And this time when we lead,

we're doing it differently

than we've ever done it before.

Bridenstine:

We need to make sure

that we are constantly

pushing the envelope,

constantly moving forward

with technology and making sure

that we are commercializing

it in the process.

Today, we had a launch

abort test

of a commercial crew provider.

Commercialization of space

is the next giant leap.

And when we take this leap,

we absolutely need to make sure

that our crew is safe.

Narrator: The success of today's

in-flight abort test sets

the stage to send astronauts

to space from u.S. Soil

once again in a mission

called demo-2.

And for the first time, they'll

fly aboard a private spacecraft.

Bridenstine: So in this very

challenging time

when we launch to

the international space station,

something we haven't done

from american soil since 2011,

I do think that it gives people

an opportunity to dream big

and to look up and to know

that we can do stunning things.

And it gives people hope,

not just in

the united states of america,

but throughout the entire world.

I don't generally get nervous,

but when I start thinking

about this mission,

I actually get

quite nervous about it.

The launch of demo-2

will be the day.

This will be the moment

for this company.

This is the culmination

of everything we have done

since the company

was founded in 2002.

Musk: This is a crucial step.

Getting people back to orbit

again, you know, knock on wood.

I think probably success

is high,

but it is not 100 percent.

We're just doing everything

we can to think

of any possible way to improve

probability of success,

because this would be

a big setback

if if something

were to go wrong.

Narrator: Bob and doug are

poised to leave quarantine

and ride in teslas

to iconic pad 39a

at kennedy space center

in cape canaveral, florida.

Behnken: We're excited,

of course, for the mission.

And one of our goals

is to share with everybody.

Hurley: I hope that people

appreciate the amount of effort done

by so many people at nasa

and so many people at spacex

to get us to this point.

When bob and doug

walked down the crew access arm

to the dragon capsule,

they'll also be walking

into the history books

as the two astronauts

that returned america

to space from u.S. Soil.

This will be a stunning

achievement

for nasa and spacex...

Officially launching

the second golden age

of space travel.

This is but the first step

on a long journey

that will take us back

to the moon

and to mars and beyond.