All language subtitles for Mythbusters.S09E08.Dodge.a.Bullet.1080p.AMZN.WEBRip.DD2.0.x264-CasStudio_track3_[eng]

Please do not try what you
are about to see at home.

We're what you call experts.

Can't you tell?

Narrator: On this episode
of "mythbusters"...

Okay. Fire at will.

Adam and Jamie
stare down the barrel

for a death-defying
bullet dodge.

Damn.

Jamie: We want to see
how close a sniper could be

and you would still
be able to dodge his bullet.

Narrator: Provided you can see
the muzzle flash...

Oh, i saw that.

I totally saw that.

Can you ever dive to survive?

Jamie might
be able to dodge a bullet,

but can he dance like this?

[ Grunts ]
Oh, yeah!

Narrator: Then buster
is used and abused...

Anybody feel sorry
for buster?
No.
No.

Narrator:
As kari, Grant, and Tory

investigate
the vertigo-inducing myth...

Kari: Belly flop!

That if you fall
from a great height...

Dropping buster on his face
repeatedly doesn't get old.

Narrator: Water has
the same impact as pavement.

Adiós, muchacho.

Narrator:
Who are the mythbusters?

Adam savage...

Ah-choo!

I'm done with science for today.

And Jamie hyneman.

Bye-bye.

Between them, more than 30 years
of special-effects experience.

Joining them...
Grant imahara...

It's why we can never have
anything nice.

Tory belleci...

I'll try
not to let you guys down.

And kari Byron.
Whoa!

You know, i went to college
for this.

They don't just tell the myths.

They put them to the test.

Captions by vitac...
www.Vitac.Com

captions paid for by
discovery communications

[ gunshot ]

All right.

This week, as voted by the fans,

we are tackling the myth that it
is possible to dodge a bullet.

What do you mean? You can't move
faster than a bullet.

Ah, it is not about
moving faster than a bullet.

The theory behind this myth
is the idea

that there is
a theoretical distance

at which you could both
see a bullet being fired

and yet have enough time
to get out of the way

of the bullet
that's been fired at you

before it gets to you
and hits you.

Well, the shooter
would have to be

some distance away,
like, say, a sniper.

Exactly.

It's no myth that dodging
a bullet at close range

is never gonna happen.

[ Bullet ricochets ]
Ugh!

But when you increase the
distance from shooter to target,

you increase the travel time
for the bullet.

[ Gunshot ]

So, assuming
a sniper is far enough away

and you see him take the shot,
can you really dive to survive?

Here's what I'm thinking.
This story is all about time.

Yeah.

So, the first thing i think
we want to determine

is how much time
a bullet spends in the air

between the rifle and the target

from a bunch
of different distances.

Makes sense to me.
Let's get shootin'.

All right.

And to find out just that,

Adam and Jamie
need a supersized gun range,

like this handy
abandoned airfield.

It's true that in the course
of doing "mythbusters,"

Jamie and i have done
our fair bit of shooting,

and we're not bad shots.

Oh, Jamie!

Now we're talkin'.

But for this story, we need
real precision, real expertise,

and that's why we brought in

one of the finest marksmen
in the country.

Jamie: Dave liwanag has been
a U.S. army sniper for 31 years.

He was commander
of the army shooting team.

He's one of the president's
top 100 distinguished riflemen.

It doesn't get
any better than that.

He's shooting
a .338 sniper rifle.

This is specifically designed

for accuracy
at extreme distance.

Narrator:
And speaking of distance,

200, 500, and 1,200 yards

are the marks from which
the marksman will shoot.

Adam:
Here's how we're going to time
the bullet's time of flight.

The instant
the bullet leaves the gun,

it will cross through
this piece of paper

with a piece of foil
on each side.

When it breaks that
piece of paper, the
foil will connect,

creating an electronic
switch connection,

which will send a signal through
this wire to this here timer

and tell it to start timing.

That timer will keep timing

the whole time the bullet
flies through the air...

[ Clock ticking ]

right up until
our bullet hits the target,

crossing through
the same type of piece of paper

with foil on both sides,
closing a switch connection,

telling our timer
to stop timing,

and giving us an exact
time of flight of the bullet

from the rifle to the target.

The first distance we'll be
sending a bullet to our target

is 200 yards... 600 feet,

two entire football fields
end to end,

six m5's.

Narrator: So, with
dead-eye Dave in position...

All right.
Time of flight... 200 yards.

His spotter, Kevin,
all lined up...

Kevin: Bias right
ever so slightly.

And the trusty foil
timing system

ready to record
the flight time of each round...

Go right edge, Dave.

Liwanag: Right edge.

This test is gonna be a breeze.

Send it.

[ Gunshot ]

Jamie: What?
Nothing.

It started timing.
It didn't stop timing.

Narrator: Maybe not. The trusty
timing foil is failing.

Basically,
we've got an infarction

somewhere in the circuit.

The timing's just not working.

We can't tell if it's at the gun
or it's at the target,

but in order to get timings,
we have to suss this out.

[ Bullets ricocheting ]

Narrator: Next up, is the
physics of a fall onto water

really the same as pavement?

Okay, so, we've got a good one.

In this episode, we're testing

that water is
as hard as pavement.

Yeah, I've heard this one.

The idea is that if you fall
from a height tall enough

and you get up enough speed,

when you hit that water,
it behaves just like pavement.

Wake up buster.
He's got some fallin' to do.

[ Chuckles ]

Narrator:
It's an oft-repeated urban myth

that if you fall into water
from a great height,

rather than a splash landing,

you have a pavement-equaling
crash landing.

Okay, so, i think
we need to get buster,

rig him with some accelerometers

so we know
how much impact he experiences,

and then drop him on pavement

and drop him on water
and compare the results.

Sounds good to me.

But bad for buster.

So, to find out whether or not

water is, in fact,
as hard as pavement,

we are gonna be dropping buster
from heights

wearing one of these.

This is an accelerometer.

It is an electromechanical
device

used to measure
acceleration forces.

Now, these forces
are commonly known

as gravitational forces,
or "g" forces.

Grant: Now, the challenge
with our specific experiment

is that we're gonna be measuring
very high "g" loads,

much higher than ordinary
accelerometers can handle.

That's why we have this system.

I'm not fondling his nipple.

It's specifically designed
to measure up to 500 g's.

I've mounted it
inside of a waterproof case

in buster's chest.

Just like
airplanes have black boxes,

buster has a black box,
and this is it.

[ Air whistling ]

Narrator:
All rigged up and ready to roll,

the team
hits the perfect location

for a spot of buster-bouncing.

Tory: Here we are

at the south San Francisco
water treatment center,

and this is the perfect location
for us to test this myth.

It's always exciting
when the crane shows up.

Tory: We have pavement,
and we have water.

Once we get our crane set,
we won't even have to move it.

Bull's-eye.

Narrator:
In the team's sight

is a series of consistent
comparative drop tests

onto water and pavement
at ever-increasing heights.

Tory: You're good!

Kari: Okay.

So, the way buster falls and
lands will affect the results,

so we've rigged a system

so that he should fall
the same way every single time.

All right! 25 feet!
That's good!

And first up
is the feetfirst fall.

How's that for alliteration?

In 3, 2, 1...

Ow!

Narrator:
With a long day ahead,

the dummy took that one
in his stride.

But what do the numbers tell us?

Tory: So, we just dropped buster
from 25 feet

onto the pavement, feetfirst,
and he pulled 60 g's.

Now what we're gonna do is
hook him back up to the crane,

swing him over to the water,

drop him again from 25 feet,
feetfirst,

and see how many g's he pulls.

All right.
That looks good.

Grant: Now, i know water
is technically incompressible,

but compared to the pavement,

i think we're gonna see
a lower "g" load

because his feet
are gonna dip in,

the water's gonna give,

and he's gonna be decelerated
over a longer time period.

Kari:
In 3, 2, 1...

Oh, that didn't look so bad.

That's definitely
not the same as pavement.

Narrator:
And the numbers bear that out.

Okay, so, i got no trigger,

which means that
that fall was less than 25 g's.

It won't trigger
anything below that.

And, remember,
in this same situation,

over pavement, it was 60 g's.

Narrator:
But the myth states

that water equals pavement
from a great height,

and at greater heights,

buster will be falling
at greater speeds.

Perhaps hitting the water faster
means the liquid won't displace

and will behave just like
an incompressible solid.

Buster, my friend,
things are looking up...

75 feet up.

That's a long way to fall.

Anybody feel sorry for buster?

No.
No.

Just checking.
All right. Here we go.

75-foot fall, feetfirst,
into water in 3, 2, 1...

Oh!

Narrator:
Ooh, that was a solid hit.

And as buster
is raised and assessed,

it looks like
he's taken a severe pounding.

But the data in the black box
holds the objective key.

We got...

29.

Kari: No way.

Yeah, so that's
half of what we got on pavement

at three times the height.

Grant: Wow.

Narrator:
Not good news for the myth.

The fall onto water at 75 feet

is half as damaging
as pavement from 25 feet.

But there's one more test before
the data set is complete...

75 feet onto pavement.

Oh.

[ Laughter ]

That had to hurt!

Tory: All right, so,
we just dropped buster

75 feet, feetfirst,
into the pavement.

What kind of g's did we pull?

Grant: Whoo-hoo-hoo!

We absolutely maxed out
our accelerometer.

Narrator:
And "maxed out" means

the "g" load
was in excess of 500.

That's an impact at least
17 times harder than the h2o.

In these circumstances, water
clearly does not equal pavement.

But the myth isn't sunk
just yet,

and here's Grant's theory
as to why.

Now, water is incompressible.
That's a fact of physics.

And if i put my hand
in the water slow enough,

the water can displace...
It can move out of the way.

But if buster were to hit
the water fast enough

and if he had
enough surface area,

the water wouldn't have a chance
to get out of the way.

And because
it's incompressible...

there will be some point
at which the "g" force

is equivalent
between water and pavement.

Narrator: So, because
surface area may be a factor,

it's time to bring out
the belly flop.

Up next...

Adam: The next distance we'll
be firing from is 500 yards...

The distance of your average
restraining order.

Narrator: Adam and Jamie
are testing the myth

that you can literally
dodge a bullet,

provided the shooter
is far enough away.

And to find out,
they've got an expert sniper

who's hitting the target
first time, every time...

[ Gunshot ]

and a clever foil-based
timing system that isn't.

[ Gunshot ]

It didn't work.
It didn't stop it.

It's not working?
It has to work!

Narrator: But despite
the foil's initial failings,

Adam and Jamie
tweak, tinker, and persevere

until the mysterious gremlins
in the system are ironed out.

Jamie: 200 yards.
Time of flight.

Fire at will.

[ Gunshot ]

Adam:
Hey! We got a number.

What'd we get?

231 milliseconds.

Let's move back.
All right.

With that first data point
finally in the bag,

the team reset
for the second shot.

Adam: The next distance
we'll be firing from

is 500 yards... 1,500 feet,

10 olympic swimming pools,
approximately, end to end,

or the distance of your average
restraining order.

Narrator:
And dead-eye Dave,

once he's assumed the position,
focuses...

That's it.

And hits
the bull's-eye again.

Beautiful.
We got a reading.

Love it.
597 milliseconds.

So it's onwards and backwards,

as the team sets up
for the third and final shot...

Nice thing is the box gets
lighter the longer you walk.

[ Jamie laughs ]

this time from a massive
distance of 1,200 yards.

Adam:
The final distance we'll be
shooting from is 1,200 yards...

Roughly an 8-minute walk,
a kilometer,

to those of you
in every other part of the world

besides the United States.

And when i look at the target
from here,

i think, "what target?"

Narrator: But if anyone can make
this shot, it's sniper Dave.

Sniping is actually
pretty complicated.

Your modern sniper shows up

with a spotter and a computer
to get the job done.

He's got to compensate
for several different things.

Gravity.

If our shooter
is 1,200 feet away,

to hit here, he's actually
got to aim at a point

directly above,
30 feet in the air.

Okay. Time of flight.
1,200 yards.

The wind.

If the wind's blowing this way,

then our shooter
is gonna have to aim

to this side of the target
to compensate.

Figure 6/10ths left.

Now, he's gonna be looking
at things like flags,

if they're there,
or even the grass or mirages

to get a clue
as to what's going on.

Narrator:
Never in doubt,

Dave threads the eye
of the proverbial needle,

and just as important...

Ha! Beautiful!
We got a reading.

1.791 seconds to target.

Jamie: Excellent.

All right.
Let's draw a graph.

Now that we've got our numbers,

it's time to plot them
on a graph.

Let's start with the "x" axis...
12 increments of 100 yards each.

The "y" axis, going up and down,

that's time,
from zero to 2 seconds,

in 1/4-second increments.

Then we draw a grid
and plot out our bullet times.

The first bullet,
from 200 yards,

took 231 milliseconds
to reach its target.

The second bullet, from 500
yards, took 597 milliseconds.

The third bullet,
from 1,200 yards,

took 1,790 milliseconds
to reach its target.

We then draw a line between
these three points and see...

Oh!... It's perfectly straight.

That means
we can take any distance

and plot the amount of time

it would take the bullet
to get there.

Or, conversely,
we could choose a time

and figure out how far away
you'd have to shoot

for the bullet
to take that length of time.

Isn't graphing lovely?

Well, now we need to know

how quickly we can jump
out of the way, huh?

Human-reaction tests it is.
Let's do it.

Adam: I can't believe he can hit
that target from here.

Jamie: Hit the target?
I can't even see it.

Narrator: All incompressible
materials are equal,

but so far,
some are more equal than others.

When buster is dropped
feetfirst,

water has nothing
like the impact of pavement.

The angle of entry means
the water is easily displaced.

Grant: Yeah, so, that's
half of what we got on pavement

at three times the height.

Narrator: But what if that
was changed to a belly flop?

Time to hog-tie him.

Will the additional surface area

save this scientific saga
from sinking?

Grant:
So, in case you're wondering...
and I'm pretty sure you are...

Dropping buster on his face
repeatedly just doesn't get old.

All right,
this is buster's belly flop

into pavement from 25 feet.

In 3, 2, 1...

Oh!

Ow!
Oh, ho, ho, ho!

Narrator:
That looked painful.

And without his legs
breaking his fall,

the "g" load was much higher
than the feetfirst test.

Tory: So, we just dropped buster
chest first on the pavement.

We got 286 g's.

Now what we're gonna do
is do the same thing on water,

and my feeling is we're
gonna see very similar results,

and i think anybody who's ever

jumped off a diving board
and done a belly flop

will understand
what I'm talking about.

This is gonna hurt.
In 3, 2, 1...

Oh!
Oh! Oh!

I give that dive a 9!

Grant:
Okay, so, belly-flopping,

buster on pavement at 25 feet
was 290 g's.

And on water, it was 115.

Tory: And what that means
is, sure,

water is not
as hard as pavement,

but it was a lot closer

than when we dropped buster
feetfirst.

So, surface area is important.

The more surface area you have,

the harder it is
to displace the water.

Now, what if buster
was moving a lot faster?

Then we might see the difference

between the water
and the pavement decrease again.

Let's see.

Narrator: So, the team
thinks speed is the key,

and to get buster moving faster,
they need to take him higher.

This is dropping buster
from 50 feet

in the belly-flop position
over water.

Here we go.

In 3, 2, 1...

Kari: Oh!

Oh!
Oh! Oh!

Look at the wave
that's coming out.

So, dropping buster from 50 feet

actually peeled the skin
off of his side.

It was such an impact that
all of us, i think, felt it.

Grant: So it looks like,
on water at 50 feet,

the belly flop
is giving us 220 g's.

Narrator: Now for
the all-important comparison.

Will the 50-foot
pavement plummet

be any closer to water
than the 25-foot test?

Take it up.
50 feet.

Grant: 50 feet.

He might not survive this,
you know?

Kari: Yeah,
25 looked like it hurt.

3, 2, 1.

Ugh.

Oh, ho, ho, ho, ho!

Hey, he's still in one piece.

Tell me you didn't feel that.

That one made me throw up.

I am so glad
it was him and not me.

[ Grant laughs ]

Grant: All right.
Let's find out how he did.

Narrator:
That was intense.

In fact, it was so intense,
the meter maxed out,

meaning buster
pulled a "g" load of 500-plus.

Kari:
Oh, my god. That's a hard hit.

Narrator:
Buster is bruised and battered.

But with the meter unable to
register the force of the fall,

where does that leave the myth?

So, we've maxed out our meter.

That means that we can't compare
numbers to the 25-foot drop.

Now, it's possible
as you go higher

that water could become
more like pavement.

We just can't test it here,
right now, with this meter.

Narrator: Coming up...

Adam: So, i turned into
one of the three stooges.

Adam and Jamie time
their bullet-dodging reactions.

We got some good numbers
from our sniper.
What's next?

I think the moment has come

to time another element
of this story.

Human reaction time?
Exactly.

If you had to dodge a bullet,

just how quickly
could you get out of its way?

I think I'm gonna
go get a cup of coffee.

[ Laughs ] See,
he's gonna get a cup of coffee.

It's gonna make him
really hyper,

and he's gonna
get out of the way really fast.

Narrator: So, they've got
the numbers for flight time,

and in their attempt
to deconstruct this myth

without actually shooting
at each other...

It works.

The next piece of data
is how long it will take

to react
and move out of the way.

Adam:
This test is all about measuring
a human being's reaction time.

This is our human being.

His task... to get himself
out of the path of a bullet

described
by the "x" on his chest

and the bull's-eye
behind him.

His signal to move,
that the "shot" has been fired,

will be given
by this digital camera flash,

remotely triggered by me
from back there.

All of this will be captured...

My our lovely digital
high-speed camera, which,

when we review the footage
of Jamie's "dodging a bullet,"

will allow us to time

exactly how many milliseconds
it took him to do it.

All right.
Are you ready, Jamie?

Human-reaction-time speed test

at some random point
in the very near future.

[ Camera shutter clicks ]

Nice.

Narrator: Jamie's fast.

His hoosier reflexes are honed
to an almost superhero speed.

Adam, on the other hand,

makes up for his slow reactions
with his lack of grace.

Now to assess the results.

Here's mine.

So, i turned into
one of the three stooges.

[ Both laughing ]

But the hyneman legend
continues to grow.

[ Adam laughing ]

Oh! Dude!

Check his bad self out.

He's a bullet-dodging
hoosier.

Despite Jamie practicing and
honing his "matrix" -style sway

with an artful economy
of motion,

it turns out that both Jamie and
Adam clocked very similar times.

They're both clear of the target
in around 500 milliseconds.

But just for the record...

And this is the figure
they'll take forward...

Jamie takes the gold

with a personal best
of 490 milliseconds.

Jamie: With practice, i was able
to get my reaction time down

to about 1/8th of a second,

and i was able to clear
the bull's-eye

in less than 1/2 a second.

Now, this is
a best-case scenario,

but that's actually
what we want here,

because we want to see
what is possible

in terms of how close
a sniper could be

and you would still, in theory,
be able to dodge his bullet.

Narrator: And for that distance,
it's back to Adam and his graph.

All right, editors,
help me out here

and put the original graph
back on the screen.

Time on the "y" axis,
distance on the "x."

Now, if i draw a line from
490 milliseconds out to our plot

and check out the corresponding
distance, it's 400 yards.

That is the theoretical distance

at which you could possibly
dodge a bullet,

but only if you could see the
muzzle flash from that distance.

That's what
we're about to find out.

Narrator: And that means
a return to the range

for a test
where the eyes have it.

Adam:
The question is, how far away
can you see the rifle firing?

Now, note,
you cannot rely on sound

because the bullet travels

four times faster
than the speed of sound.

You'll get hit by it
long before you hear it.

This has to be a visual cue.

Narrator:
A visual cue and a simple plan.

Adam and Jamie
will stand downrange

and look for the muzzle flash

as sniper Dave
shoots at a nearby target.

[ Australian accent ] A little
motivation for our sniper.

Narrator:
But rest assured, for safety,

Dave will be firing blanks.

This is the real thing,
and this is a blank,

but this isn't just any blank.

This is a theatrical blank
that we've selected

specifically because
what comes out of it

looks exactly the same as what
comes out of the real McCoy.

Narrator:
And first up,

they're facing
the firing squad from 100 yards.

[ Gunshot ]

I saw it.
I saw it.

Okay, Dave,
let's move back to 150.

Cool.
Roger. Moving.

Narrator: At 100 yards,
the flash is as clear as a bell.

But 200 yards
is a different story.

Okay, Dave, 200 yards.
Fire at will.

[ Gunshot ]

I didn't see that.

And at 225 yards,

even eagle-eyed Jamie
fails to focus on the flash.

[ Gunshot ]

No, i don't have it.

No. 200 yards
is our threshold.
Yeah.

With our blank rounds
matched to a sniper's round,

our ability to see
the rifle firing is 200 yards.

If you look at that
on our graph...

Yeah, it's not quite enough time
for us to get out of the way.

Narrator: Remember,
based on the bullet travel time

coupled with
the human reaction time,

400 yards was the minimum
distance needed to dodge.

But at just half that distance,

you can't even see
the muzzle flash.

I don't have it.

Luckily, Adam has a plan.

Adam: Not all blanks
are created equal,

and on "mythbusters,"
we always like to find out,

what is the best possible
case scenario?

In Hollywood, for instance,
a blank for that rifle

includes a lot more fire
coming out of the tip,

'cause that's more visual
for the movies.

So, that's
what we're going to do.

We're going to start
from this distance

with a full Hollywood
flaming blank

and see how far we can see that
rifle firing with one of these.

Narrator: In other words,
for the time being, at least,

it's out with reality
and in with Hollywood.

And the difference
is like night and day.

Okay, Dave, 225.
Fire at will.

[ Gunshot ]

Oh, i saw that.

I totally saw that.

Let's go to 400.
Okay.

The Hollywood round is the gift
that keeps on giving

because it's visible
at 400, 800...

I totally saw that.

I did. I saw it.

And even 1,200 yards.

[ Gunshot ]

I saw that.

Totally saw it. Wait.

[ Gunshot ]
And i heard it.

[ Both laugh ]

That's plenty of time
to get out of the way.

Adam's right.

Dodging the Hollywood round
sounds like child's play,

but the real-world round
is altogether more challenging.

Next on "mythbusters"...

This pig doesn't want to fly.

The team preps

for a terminal-velocity
pork belly flop.

I know what to call it.
What?

A pork chopper!
Oh!

Do not try what you're
about to see at home.

We're what you call experts.

[ Clang ]
Ow!

Grant: So, to test
whether falling onto water

is the same
as falling onto pavement,

we've come to
shadow cliffs regional park.

Now, so far,
in the feetfirst position,

they're not very similar at all.

But in the belly-flop position,
they're actually quite similar.

The only problem
is that our accelerometer,

our measuring device,
has maxed out at only 50 feet.

Kari: Oh, my god,
that's a hard hit.

And that's why we're here.

Because this time,
we're going to drop our items

from a much greater height.

So high, in fact, that they
get to terminal velocity.

The reason
we want terminal velocity

is the objects will
never be going faster than that

and therefore never have
a greater impact than that.

Narrator: So, to give the myth
the best chance of working,

the team will be comparing
a 600-feet fall

onto pavement and water.

[ As Schwarzenegger ]
Come on! Let's go!
Get to the chopper!

But how exactly
will they compare the two?

Tory: All right, so,
we maxed out our accelerometers,

but we still need to figure out
a way to measure the impact

when falling
on pavement and on water.

So, we can't use a human,

'cause, obviously,
that's gonna kill somebody,

so we decided to go with a pig.

Ugh.

Kari:
To collect comparative data,
we're going to X-ray the pigs,

but then we're gonna have
an orthopedic surgeon

analyze those x-rays,
see how many bones are broken,

and what kind of damage happened
when it hit the pavement,

and we'll find out if water
is as hard as pavement...

And what i had for lunch.

Narrator: It's gruesome,
but with no way of measuring

the force of the fall
electronically,

a comparison
of the physical damage incurred

will perfectly illustrate
the difference between water...

[ Retches ]
And pavement.

Okay. I think he's ready.
Let's get the bag.

But the squeamish amongst you
can rest assured

the pigs will always
be concealed in sealed bags,

even when it comes time
to assess the damage,

because that will be done
with a portable X-ray.

This X-ray is cool technology.
How fast does it work?

Well, from the moment
we push the button

till the moment we're seeing
the X-ray is about 5 seconds.

So, is this the weirdest thing
you've ever done with it?

It's like a pig sleeping bag.

I'd have to say it is.

All right.
Bag that pig.

Nice.

Grant: So, we're using
this specially designed

military-grade plastic bag
with welded seams.

It's designed so that
when you suck the air out,

it will minimize the possibility
of rupturing the bag,

thus preventing
further gruesomeness.

Narrator: Essential
to the validity of the result

is the requirement that both
pigs fall at the same speed.

Cue a cute little
stabilizing chute.

Grant: So, now that we have
our two identical pigs

in two identical bags... one for
pavement and one for water...

It's time to attach the chute.

Now, why do we need a chute?

Well, terminal velocity

depends on the orientation
that the object falls.

Since we want to keep our pig
in belly-flop position,

we're attaching
this stabilization chute,

which will provide just
enough drag to keep it like this

without affecting
terminal velocity.

First up... pavement.

This pig doesn't want to fly.

Yeah, I'm pretty sure
if you were gonna push me

out of a helicopter,
i wouldn't cooperate, either.

All right.

So, the pig is
in the helicopter.

Operation pork drop
is ready to commence.

Oh, god, I'm not
looking forward to this.

Okay.
We'll be on the ground.

Good luck.

Heads up.

Narrator:
Coming up on "mythbusters"...

Jamie is staring
down the barrel.

Adam: The distance I'll be
shooting at Jamie from...

[laughs] I love that sentence...
Is 400 yards.

Now, on one hand,
we've got our ideal number.

Based on
our human-reaction-time tests

and our
bullet-flight-time tests,

we know that the minimum
theoretical distance

you could dodge a bullet from
is 400 yards.

Jamie: Okay.

On the other hand,
we've got our maximum distance

you could actually see
the sniper's rifle being fired,

which is only 200 yards away.

So, at our theoretical minimum,

you never see the cue
to jump out of the way.

Yeah, it's not looking good
for the myth.

But we still got to try it.

Absolutely.
I mean, who knows?

At 200 yards, staring down
the barrel of a sniper's rifle,

perhaps your adrenaline kicks in
and you become super-fast.

It's worth a shot.

But you do realize
we can't actually

shoot each other
with real bullets.

Aha! I've got a plan for that.
Check it out.

Here is our sniper,
and here is our target.

The sniper fires a blank round,

and when he pulls his trigger,
he clicks a switch.

That switch sets a timer timing
for the precise length of time

that bullet would fly
through the air.
Yeah?

At the exact millisecond
it's supposed to hit the target,

the timer signals a paintball
gun to fire a paintball at you.

It's an ouch,
but it's not deadly.

So, from 200 yards,

the flight time we're looking at
is 231 milliseconds.

Exactly.

Now, since we can't use
real bullets for this test,

but we've gathered
the information that tells us

the exact bullet flight time
for any distance we choose...

Perfect.

We are going to imitate

the bullet's flight
electronically.

Here's how.

When this gun fires a blank, a
wire I've mounted on the trigger

is gonna close the circuit...

which starts this timer timing.

It will count down
for the precise length of time

the bullet should be flying
through the air,

and at the instant it is
supposed to hit its target,

it will tell this paintball gun

to fire a round
directly into Jamie's chest.

Now, will he
be able to get out in time?

I think i might.
No, not yet.

That's what we're
about to find out.

Narrator: But first there's
the obligatory costume change...

Jamie into something that will
clearly show the paintball,

and Adam into something
of his own choosing.

Where is that guy?

Adam?

Adam!

Here i am.

Are you done
screwing around?
Yeah.

Let's get to work.
Okay.

Jamie might be
able to dodge a bullet,

but can he dance like this?

Narrator:
In their respective outfits,

the guys assume their positions
200 yards apart.

And, remember, 200 yards
was the maximum distance

from which the guys could see
a genuine muzzle flash.

The question is, does that leave
the caffeine-fueled hyneman

enough time
to dodge out of the way?

All right, Jamie,
this one's from 200 yards.

Are you ready?

Okay. Fire at will.

All right.

Jamie, poised to dodge,

waits for Adam
to fire the muzzle-flash blank

that will, in turn,
trigger the paintball gun

the required
230 milliseconds later.

But when that will be,
only Adam knows.

[ Gunshot ]

[ Jamie chuckles ]

Did i get you?

Got me.
Give me a second.

Although Jamie
clearly saw the muzzle flash,

he had barely moved
before the time was up

and the paintball
was fired into his chest.

Undeterred, Jamie tries
a couple more times...

[ Laughs evilly ]

but to no avail.

[ Gunshots ]

Damn.

At 200 yards,
i could see the flash.

I reacted to it and
started moving out of its way,

but i just couldn't do it
fast enough.

Narrator: Given that their
quickest human-reaction result

was 490 milliseconds...

[ Gunshots ]

trying to dodge a 200-yard
round in 230 milliseconds

was always looking like
a superhuman feat.

This myth
is looking totally busted,

but we've come too far
to give up.

We're going to switch
to a Hollywood muzzle flash...

I totally saw that.
I did. I saw it.

Push the gun back to 400 yards,

which gives us 500 milliseconds
to get out of the way,

and see if it's theoretically
possible to dodge a bullet.

The distance I'll be
shooting at Jamie from...

[laughs] I love that sentence...
Is 400 yards.

This is
the minimum amount of time

Jamie and his
quick reflexes need

to get out of the way in time.

To give him the best chance,
I'll be using

a full-flash Hollywood blank,

which is far brighter
than the actual sniper round.

I'm set and ready.

Okay. Fire at will.
Copy that.

[ Gunshot ]

He got me.

Narrator:
It's not the start Jamie wanted,

but he's not gonna give up
without a fight.

Okay, Adam, fire at will.

[ Gunshot ]

You got me again.

A very long fight.

With each shot...

Jamie is making progress
as he hones his technique.

That was close.

But he never quite
hones it enough.

So, can Adam do any better?

Do you want to try?

You bet i do!

Adam, poised like a panther,

gives Jamie the signal
and then...

[ Gunshots ]

gets shot in the chest...

Again...

And again...

And again.

Adam:
Well, that was interesting.

At 400 yards,
we've got 500 milliseconds

to react and get out of the way,
which ought to be enough time,

but there's a difference

between the shop test
and the real-world test.

In the shop,
we had this super-bright flash

right in our face.

In the real world, we've got
a tiny dot 1,200 feet away.

It's a lot harder to see.

So, now we're gonna
move that dot to 500 yards,

give Jamie
even more time to react,

and see
if he can deliver the goods.

Narrator:
It really is now or never.

There we go.

With 500 yards
and 600 milliseconds

to react to the Hollywood blank,

it's time to step up
or get the hell out of dodge.

It's time
to call into play those...

Catlike hoosier reflexes.

[ Zip! ]

Fire at will.

[ Gunshot ]

[ Gunshot ]

[ Gunshot ]

I dodged it!

Adam: Whoo!

At last, at 500 yards,

the hyneman
does his best "matrix" sway,

and the paintball
sails clean past.

But given the status of the
myth, he's not that impressed.

This test showed that i would've
been able to dodge a bullet.

But here's the thing.

We were using Hollywood blanks,

and if we were using
real bullets,

i wouldn't have
been able to see a thing,

and i would've been dead.

Narrator: Jamie's right.

You may be able to dodge

an unrealistically bright
Hollywood round,

but in the real world, well,
there's only one conclusion.

So, what's the verdict?

The verdict is it's busted.

There is no way you can
dodge a sniper's bullet.

Everything
about all their equipment,

including their bullets,
is designed for concealment.

There's just no way
you could see one fire
from far enough away

to give you a remote chance
of dodging that thing.

It's busted.

I agree. It's busted.

Let's go.

Jamie: So, you mind pointing
that thing the other way?

Narrator: To find out
if water is as hard as pavement,

kari, Grant, and Tory have
commenced operation pork drop.

Okay, so, here's the plan.

We've already done drops
at 25 and 50 feet.

In the feetfirst position,
the "g" load was very far apart.

But in the belly-flop position,
they were much closer.

But just to cover
all of our bases,

we're gonna go up to 600 feet,

which will ensure that our pig
reaches terminal velocity.

Tory is gonna
get in the helicopter.

When he gets to 600 feet,

he's gonna kick the pig
out of the door,

and then we scoop it up
and count the broken bones.

Tory: Okay, so, we're at
our target altitude of 600 feet.

We're hovering
directly above the landing zone.

Are you guys ready?

Okay. We're ready.

Okay. Here we go.

Operation pork drop
onto pavement in 3, 2, 1...

The pig is flying.

Well, he's more falling.

Kari: Ohh!

Oh!
Oh, ho, ho, ho, ho!

Narrator: Despite a terminal
velocity of 120 miles per hour

and an incredible estimated
"g" load of 5,000-plus,

the bag remained intact

and operation pork drop
was a success.

Tory: Now, dropping a pig
out of a helicopter

seems pretty straightforward.

That is, unless you have
an uncooperative pig.

But once i got him
out of the helicopter,

the drag chute opened up, he got
into the belly-flop position,

and, most importantly, he was
traveling at terminal velocity.

And the best part is,
we hit the pavement.

This was a perfect test.

Dude, that was crazy!

Did you hear that splat?

Yeah, and we got a belly flop.

Narrator:
And now to get the thankfully
sealed contents of the bag...

That looked like it hurt.

Over to
the X-ray station...

We need to get this pig
into X-ray... stat!

Where the technicians
take the shots they need.

But before we assess and compare
the injuries,

it's go for the h2o.

Get in there, piggy.

Kari: Okay,
for this water test,

we're going to use
a pig of the same weight.

We're gonna go to the same
height with the helicopter

and drop it to get
the same terminal velocity.

God, it's never easy
loading a pig into a helicopter.

We're gonna smack down on the
water in a belly-flop position

and find out if water
is as hard as pavement.

Narrator: It's operation
pork drop, phase two...

A-pork-alypse now.

[ Duck quacks ]

Tory:
So, we are set.

We have our pig
in the helicopter.

We're gonna take it up
to 600 feet,

push it out of the helicopter,
onto water.

Now, so far, we have not seen
water behave like pavement,

but we have never dropped
anything from this height.

We might see a similarity here,
but we won't know for sure

until we pull the pig
out of the water, do an X-ray,

and compare the two pigs.

We're all set.
You guys ready?

Okay, Tory, we are good to go.

Pork drop number two onto water
at terminal velocity.

Adiós, muchacho.

There it goes.

Okay. Stabilizing chute
deployed, deploying.

Looking good, looking good!

Belly flop,
belly flop, and... oh!

Oh!

Narrator: Splashdown.

And once again,
the stabilizing chute worked,

serving up
the perfect pork belly flop.

So, it didn't sink.

Now to bring home the bacon
and put this myth to bed.

We thought
the pig was gonna sink,

so we got a special rescue crew
to go out and dive to get him.

[ Chuckles ]
How's the passenger?

But he's actually
floating on the water.

Personally, i don't think
they're gonna bring in a pig

that's quite as damaged
as that pavement drop,

though it looked like
a really hard hit.

Narrator: But there's only
one way to tell for sure,

and that's a professional
medical assessment of the x-rays

with orthopedic surgeon
Dr. halbrecht.

Grant:
So, did he make it?

How did our pig do on pavement?

Well, the pig on the pavement
did really disastrously.

17 fractures.

Wow.

Here's a femur fracture.

Fracture and dislocation
of the spine.

And to top it all off,
a decapitation.

Oh!

We got a dislocated head!

So, when we dropped the pig
on the concrete,

it made a sound like...

a giant popping balloon.

Now, we didn't open the bag,
but we did X-ray it,

and what we found inside
were many, many broken bones

and a pelvis
that was so shattered,

it was unrecognizable,

not to mention decapitation.

Narrator: It's an unsurprising
litany of lethal injuries...

17 clear and catastrophic
fractures.

But the key to this myth
is the comparison.

All right, so, how did it
compare to the water drop?

The water-drop pig
did much better,

although it's still
7 fractures compared to 17.

Six rib fractures
and also a neck fracture,

but not as bad
as the decapitation.

It couldn't be clearer.

Two pigs of identical weight
falling at the same speed,

landing in the same orientation,

have significantly varied
injury diagnoses.

Both the quantity and quality
of the bone breaks

means there can only be
one result.

But that's not the only reason
kari's so happy.

Kari: Now, having
the clear-cut results

that the pig landing
on the pavement... bam!...

Was actually a lot harder
than falling on water was great.

What was even better,

those bags didn't bust open
and i didn't throw up.

Tory:
So, it turns out pigs don't fly,

but they do fall,
and they land hard.

However, as far
as this myth is concerned,

if you're hitting the water
at any height,

it's not gonna be as hard
as if you're hitting pavement.

So this myth is busted.

Kari: Myth is busted.

Grant: I think we're gonna
have to call this one busted.

Tory: How come
we don't have a helicopter

to fly home after every myth?

So, do you want to know
why we did what we did

and didn't do what we didn't do?

Well, go to discovery. Com/
mythbustersaftershow

and watch our aftershow.

Keep those questions
and comments coming in.