Afrikaans
Akan
Albanian
Amharic
Armenian
Azerbaijani
Basque
Belarusian
Bemba
Bengali
Bihari
Bosnian
Breton
Bulgarian
Cambodian
Catalan
Cebuano
Cherokee
Chichewa
Chinese (Simplified)
Chinese (Traditional)
Corsican
Croatian
Czech
Danish
Dutch
Esperanto
Estonian
Ewe
Faroese
Filipino
Finnish
French
Frisian
Ga
Galician
Georgian
German
Guarani
Gujarati
Haitian Creole
Hausa
Hawaiian
Hebrew
Hindi
Hmong
Icelandic
Igbo
Indonesian
Interlingua
Irish
Italian
Japanese
Javanese
Kannada
Kazakh
Kinyarwanda
Kirundi
Kongo
Korean
Krio (Sierra Leone)
Kurdish
Kurdish (Soranรฎ)
Kyrgyz
Laothian
Latin
Latvian
Lingala
Lithuanian
Lozi
Luganda
Luo
Luxembourgish
Macedonian
Malagasy
Malay
Malayalam
Maltese
Maori
Marathi
Mauritian Creole
Moldavian
Mongolian
Myanmar (Burmese)
Montenegrin
Nepali
Nigerian Pidgin
Northern Sotho
Norwegian
Norwegian (Nynorsk)
Occitan
Oriya
Oromo
Pashto
Persian
Polish
Portuguese (Portugal)
Punjabi
Quechua
Romanian
Romansh
Runyakitara
Russian
Samoan
Scots Gaelic
Serbian
Serbo-Croatian
Sesotho
Setswana
Seychellois Creole
Shona
Sindhi
Sinhalese
Slovak
Slovenian
Somali
Spanish
Spanish (Latin American)
Sundanese
Swahili
Swedish
Tajik
Tamil
Tatar
Telugu
Thai
Tigrinya
Tonga
Tshiluba
Tumbuka
Turkish
Turkmen
Twi
Uighur
Ukrainian
Urdu
Uzbek
Vietnamese
Welsh
Wolof
Xhosa
Yiddish
Yoruba
Zulu
Narrator: A perplexing and brutal Industrial complex...
It's one of the most Claustrophobic places on earth.
Narrator: ...A heavily armed giant Rusting away underwater...
Bell: That shift in technology and The amount of engineering skill
And knowledge that needed to be Brought and focused in
Was phenomenal.
Narrator: ...And one of The world's largest
And most secretive weapons Ever constructed.
It's almost primitive technology That's just been ramped up
It's almost primitive technology That's just been ramped up
To as big as it possibly can.
Narrator: once, they were some Of the most advanced structures
And facilities on the planet,
At the cutting edge Of design and construction.
Today, they stand abandoned, Contaminated,
And sometimes deadly.
But who built them? And how?
And why were they abandoned?
-- captions by vitac -- Www.Vitac.Com
-- captions by vitac -- Www.Vitac.Com
Captions paid for by Discovery communications
*
Out in the remote deserts Of arizona
Is one of the u.S. Army's
Most important Secret research sites.
Standing in the wilderness
Is a massive Single-barreled gun...
...Dominating the barren Landscape around it.
At 100 feet in length, it has A huge 16-inch-wide barrel.
Able to shoot With an unheard-of 50,000 psi...
...It's designed to fire 400-pound projectiles
...It's designed to fire 400-pound projectiles
Over 100 miles.
But why would anyone build Such a huge, powerful gun?
And why was it abandoned?
Man: 5...4...3...2...1...
Zero.
Narrator: in 1961, The space race is in full swing.
Yuri gagarin gives the soviets The first man in space,
And america responds With the mercury test rockets
And america responds With the mercury test rockets
And then The apollo space missions.
But at a secret test facility In yuma, arizona,
The engineers and scientists Have a challenge.
Can they launch regular Unmanned projectiles into space
At a fraction of nasa's costs?
I had absolutely no idea
That space technology Was anything
But the cutting edge of rockets Sent up into space,
But the cutting edge of rockets Sent up into space,
But apparently not.
Apparently, you can revert
Right back to technology That is centuries old --
The gun.
Just get a huge charge And fire it straight up.
Using guns to put something Into orbit isn't a silly idea.
In fact, it's quite A cheap and reliable method,
Potentially, To put something into orbit.
These were the early days Of the space era.
Technology was moving out Of the second world war
Technology was moving out Of the second world war
And finding its use In a completely new frontier,
And you don't necessarily know What's going to work,
So it's much better to have
The two approaches Funded simultaneously --
Your rockets and your big guns.
Narrator: This is the h.A.R.P. Super gun,
And its target isn't on earth.
It's the edge of our atmosphere.
But why would The u.S. Department of defense,
With the help of canada,
Use such a huge gun to launch A projectile into space?
Use such a huge gun to launch A projectile into space?
Archer: if you want to know Conditions up in space
Before you send A very expensive rocket,
Then you can fire Cheap sensors up,
Find out a bit about What is going on
Directly above where you're Going to fire this big rocket.
Then you're going to get some Really valuable data, surely.
Gough: it was a win-win.
Sure, you're going to gather
All this information About the upper atmosphere.
Great.
But you're also going to gain A strategic military advantage
But you're also going to gain A strategic military advantage
'cause now you're going to learn About how you can
Launch missiles across the world At your enemy.
So that's what they were Really interested in.
Narrator: the h.A.R.P. Super gun Is the brainchild
Of a canadian-american Ballistics expert
Named dr. Gerald bull.
His aim is to make gun-fired, Low-cost space flight a reality.
But could he make This ambitious project work?
You look at what he was doing -- Very much the engineer,
You look at what he was doing -- Very much the engineer,
Very much the scientist, Always testing.
When he began thinking Of gun-launched technology
For suborbital Or orbital launches,
There were a lot of people
That made jules verne jokes About him.
There were others that said,
"Well, even if you could Do that, it's worthless
Unless you have some kind Of a telemetry package on it
Transmitting data Back to earth."
Green: he had this idea
That super guns were the way To get cheap access into space,
And a huge amount was learned Through that program.
And a huge amount was learned Through that program.
Narrator: The target for the super gun Is the ionosphere,
A layer Of electrically charged air
That lies on The edge of the atmosphere,
40 miles above the earth.
But to reach that height, Can bull and his engineers
Construct the most powerful gun Ever built?
Shilders: program picked up Two 16-inch naval barrels
Almost 69 feet long,
Almost 69 feet long,
And one was 50 foot long, Approximately,
And they're welded in the center
And braced with A superstructure around it.
Where the big bolts are, Right back here to the rear,
That's where the two pieces Were joined together and welded.
They built this superstructure To stiffen,
To keep them from coming apart,
Plus give it strength When you're up vertical
'cause when you fire a gun Like that,
You might get a little whip And things like that,
And you definitely Don't want any tube droop
Or anything of that nature.
Or anything of that nature.
Narrator: after multiple years Of development,
Bull and his engineers first Test the h.A.R.P. Super gun
On the island of barbados In the caribbean
In the early '60s.
Positioned just north Of the equator,
It allows projectiles to be Launched into the atmosphere
And then recovered from the sea.
The super gun is designed To fire up into the sky
At an angle of 85 degrees.
But the velocity of the launch Has a significant impact
But the velocity of the launch Has a significant impact
On the surrounding community.
Marshal: there were more than 2,000 firings of this gun
In the period from 1962 Onward into the '70s.
That is quite a lot Of sonic boom.
And it was a heavy boom.
Barbadians felt this boom From here
Up to almost The top of the island.
The reverberations Were terrible.
Houses were shaken To the foundations,
Houses were shaken To the foundations,
And quite a few cracks in houses Were reported.
Barbadians felt generally
That this was All to the good of the island.
It seemed as though It would project barbados
Into the stratosphere Of world prestige.
Narrator: But this ambitious project
Has other, Significant disadvantages.
As well as advantages Of using a giant gun,
There are drawbacks, as well.
So, to get something To the speed
So, to get something To the speed
That you need to get it High up in altitude,
You have to accelerate it Very fast,
And your objects may not be able To withstand the forces,
The g-forces, That are experienced,
And then there's also an issue Of mass, as well,
Because you can't launch Particularly heavy things
Using this kind of technique,
So you're limited To small objects.
Narrator: Will the h.A.R.P. Super gun
Actually send a successful Projectile into space?
And why was it abandoned?
And why was it abandoned?
*
Narrator: in the barren deserts Of arizona,
The so-called h.A.R.P. Super gun
Is an unexpected marvel Of american space engineering.
Built in 1961,
The same year the soviets Got the first human into orbit,
Its ambitious aim is to launch Nonman payloads into space
At a fraction of the cost
Of nasa's Mercury and apollo programs.
Of nasa's Mercury and apollo programs.
But how will this project
Actually collect Vital information
On space flight And the ionosphere?
And will it actually work?
To get something up into space,
Apparently, it doesn't need To be rocket science.
It can be So much simpler than that,
As we see with the h.A.R.P. Gun.
It's almost primitive technology
That's just been ramped up To as big as it possibly can
That's just been ramped up To as big as it possibly can
To fire a projectile 111 miles straight up.
Narrator: The projectile in question Is something called a martlet,
A revolutionary Dart-shaped missile
That is encased In the firing tube
With a tight wooden ring Called the sabot.
Hadner: the martlet Was an aerodynamic shape.
Think of it As a large dart with fins.
So, the idea of the sabot
Is to fill the void Of the cylinder of the tube.
Is to fill the void Of the cylinder of the tube.
In this case, they used plywood, Each third called a pedal,
And the gases would then exert, Push this thing out the barrel.
Then the pedals would fall away,
And you would then have This very aerodynamic shape
With, within the nose cone, A telemetry package,
And in the aft end, the ability To eject certain materials,
Depending on what your test was.
There is some detailed Engineering going on here,
But what I love about it is, It's primitive technology
With modern engineering Applied to it
With modern engineering Applied to it
To achieve something That's record-breaking --
Firing that projectile That high up.
Narrator: huge amounts Of propellant are needed
To blast the martlets
Higher into the ionosphere Than ever before.
Every firing Generates colossal forces
Within the super gun itself,
And with that Comes real dangers.
You can see the massive size Of this breach
You can see the massive size Of this breach
In the interrupted screw design That would allow it to lock in.
There's just the length of it.
It just shows you The mass of this breach
To be able to handle Those charges and pressures
That they're firing.
They were looking at pressures Psi around 50,000, I think,
With some of the testing.
You need to think About the materials,
The size of the explosion
Through the propellant That you're going to use.
You need to make sure
The recoil's not going to Just tear the gun apart,
And that you've got a barrel That's long enough
And that you've got a barrel That's long enough
To project something That far up.
There's a lot that goes into it,
And there's a lot Of thought and design
That goes into achieving this,
But at the heart of it,
It's still Very primitive engineering,
And I love that.
Narrator: On the 18th of november 1966, In arizona,
The h.A.R.P. Super gun Fires a martlet
Traveling at 7,000 feet Per second,
Traveling at 7,000 feet Per second,
111 miles into space --
A record that still stands To this very day,
And using telemetry,
The martlets successfully gather Critical information
About space flight And global surveillance.
But because of souring relations
Between canada And the united states
Over the vietnam war,
The h.A.R.P. Program ends In 1966.
And today, The guns sit abandoned --
A potent reminder of both The dangers of the space race
And our eternal quest For the stars.
The future of space exploration May well be dependent
On billions of dollars' worth Of investment
Into technologies that we don't Even know about yet.
I'm not saying you're going to Get a man on mars
By firing him out of a gun All the way up.
That's not going to happen.
But if you're talking about Getting payloads and objects
But if you're talking about Getting payloads and objects
Into low earth orbit,
Which could then be assembled As part of a project
To then go off further in space
More than We ever have done before...
And it just makes me smile, The thought of that,
That you could have This combination of technologies
And of engineering eras
That come together To give us something that is,
Well, at the moment, Out of this world.
*
Narrator: 6,000 miles away,
Off the southwest coast Of japan,
Near the port of nagasaki
Is a most mysterious place.
*
Out in the east china sea, This abandoned 16-acre island
Is 550 feet wide And just over 1,600 feet long --
The length Of only four football fields.
The length Of only four football fields.
But it has the remains Of dozens of buildings
And housed 5,500 people.
This island represents
One of the greatest Engineering achievements
Of the 20th century.
Incredibly, It's almost entirely man-made,
Constructed from reclaimed land.
Reclaimed land is actually A massive engineering challenge
Because you're working With water, which moves.
The levels come up and down.
The levels come up and down.
It can be quite acidic, Quite salty.
It corrodes man-made materials Quite easily.
And then What you're trying to do
Is bring stacks of new material
And pile it up Within this movable medium
And create A solid, stable structure
That you can then Live and work in
And build huge buildings on.
Gough: it was not called The island without green
For no good reason.
It's one of the most Claustrophobic places on earth.
It's one of the most Claustrophobic places on earth.
Over 5,000 people lived In a really tiny community,
But the funny thing is, They got used to it.
And when they went Onto the mainland,
They felt uncomfortable.
But tourists go there today,
And they tell me They can't wait to leave.
Narrator: But how did this tiny island
Become the most crowded Working environment
On the planet?
And why was it abandoned?
1890, hashima island.
1890, hashima island.
From this half-an-acre island,
Japanese engineers are trying To tap a massive coal vein
650 feet under the seabed.
They drill a deep shaft down To reach the coal deposits,
And it works.
Over the course Of the next eight decades,
Japanese energy demands Increase dramatically.
They eventually mine coal over Half a mile beneath the sea.
They eventually mine coal over Half a mile beneath the sea.
To meet these demands,
Engineers expand the island To 16 acres by the 1970s.
But one thing is constant --
The working conditions Are unbearable.
[ kobata speaking japanese ]
Interpreter: it was A really dangerous place.
Stones often fell From the ceiling.
It was like doing hard labor In a steam bath.
Narrator: how was this island Built to sustain
Narrator: how was this island Built to sustain
The millions of tons of coal Extracted?
And why was this marvel
Of modern commercial engineering Abandoned?
*
Narrator: Hashima island in japan is
One of the engineering marvels Of the modern world.
At its peak in the early 1970s, This tiny 16-acre island
Produces nearly half a million Tons of coal a year.
The mine runs continuously
For 365 days a year, 24 hours a day,
With over 5,000 workers Sharing three shifts.
With over 5,000 workers Sharing three shifts.
It's hot, crowded, noisy, And heavily polluted.
The increasing number of workers Who come to live and work here
Puts space on the island At a premium.
And that poses Another significant problem.
Agrawal: I think hashima is an incredible Engineering achievement.
You're talking about digging A 200-meter-deep mine in the sea
You're talking about digging A 200-meter-deep mine in the sea
Next to This tiny, little island.
And you think about "Well, fine, I've got this mine,
And I've got all this material Coming up,
But where am I going to send it?
Where am I going to store it?
There's no space To actually position it."
So you have to think about Conveying it out.
How far can the ships Actually come to the island?
How are you gonna get The material from The island to the ship
And then the ship can sort of
Disseminate it Back to the country?
It's an incredible Logistical challenge
And, I think, something
That they seem to have done Really, really well.
That they seem to have done Really, really well.
What really strikes me About the island hashima
Is that it's almost This self-propagating entity.
The deeper you go Into the mine,
The more material You're bringing up.
And to use that to backfill
And make your island Slightly bigger
To maybe then house more miners So you can go even deeper,
It kind of keeps going 'round and 'round.
Where does it stop?
Narrator: over the years, The workforce grows massively.
Narrator: over the years, The workforce grows massively.
And over time, Engineers gradually increase
The massive concrete seawall Surrounding the island
To protect it from the storms.
This makes hashima Resemble a warship.
It's known locally As gunkanjima,
Or "Battleship island."
[ kobata speaking japanese ]
Interpreter: When I saw the island From a ship for the first time,
I had a very strong impression
That the island Does look like a battleship.
The first thing I was surprised by
Was the reinforced-concrete Buildings.
I didn't know much About the island,
So I never even dreamt
About seeing so many tall, Reinforced-concrete buildings
Everywhere on the island.
Narrator: It's a master class in designing And engineering with concrete.
It seems like reinforced Concrete was almost designed
For something like building On the small island at hashima.
You don't have much space To move around
You don't have much space To move around
And to bring in and have Lots of stores of materials
That you're going to build,
So reinforced concrete's Great for that.
You pour it where you want it -- Job done once it's set.
The other advantage Of using it on hashima
Is that It's pretty much fireproof.
You can't set fire To reinforced concrete.
And when you're dealing with A coal mine,
It's probably that material You'd want best.
Narrator: Though practical,
The rigid and imposing Architecture of hashima island
The rigid and imposing Architecture of hashima island
Affects the way people live.
[ speaking japanese ]
Interpreter: there were So many people here --
So many people That you couldn't believe it.
I lived in building 30
With my three Other family members.
We shared one room That we'd all live in together.
It was extremely small.
Interpreter: There was no elevator at all In these high-rise buildings,
So people moved about Horizontally.
So people moved about Horizontally.
There were lots of passageways.
They didn't need To go downstairs
To go around Apartment buildings.
They moved horizontally Between apartments.
There was a kindergarten,
Elementary school, Junior high school,
Hospital, pachinko parlor,
Hostess bar, Barber, and a florist.
Considering that, you know, 80% of our populations
Considering that, you know, 80% of our populations
Are going to be living in cities In the next few decades,
I think there's going to be A lot more skyscrapers
And height To fit all these people in.
And I always imagine there to be
These kind of futuristic Air bridges joining buildings up
So that you don't need To kind of go down
And then come up again.
And it's fascinating for me that Hashima did this decades ago,
So I think that there's A real interesting model there
For us to think about now.
Maybe there is An element at hashima
Maybe there is An element at hashima
That the kind of human factor And well-being of everybody
And just having some space To not be crowded,
Not feel so imposed upon.
Just not sure That was ever considered.
All they wanted to do Was make it functional.
Hashima was there To be functional,
And outside of Being efficient at work,
I'm not sure Much more was thought about.
Narrator: the tight quarters Especially affect the children.
Narrator: the tight quarters Especially affect the children.
[ kobata speaking japanese ]
Interpreter: Children used their imagination To play here.
They played cards on the stairs,
Played marbles wherever They could find tiny spaces.
The rooftops Of all the buildings
Were their playgrounds.
[ kinoshita speaking japanese ]
Interpreter: We thought carefully about how To play baseball in our own way.
We used our brains a lot To play on this island.
Narrator: But with the 5,000 inhabitants Adapting to life here
And with half a million tons Of coal extracted each year,
Why is hashima island abandoned?
*
Narrator: by the 1970s,
The island of hashima's Population
Grows to over 5,500 people --
All crammed into less than half Of the 16-acre island,
Making hashima one of The most densely populated areas
On the planet -- ever.
Bell: Population density on hashima Got to the point
Where it was double what Civic engineers at that time
Where it was double what Civic engineers at that time
Would have recommended As being the maximum,
So, I mean, talk about crowded.
You might think you live quite Close to your neighbors now.
That's nothing compared to what It would have been at hashima.
Narrator: In its 84-year history,
The hashima mine produces
An incredible 16.5 million tons of coal.
Its workers endure
Some of the hardest Working conditions on earth.
[ kobata speaking japanese ]
Interpreter: It was such hard work -- No days off --
Interpreter: It was such hard work -- No days off --
So it's true to say
I wanted to leave the island As soon as possible.
Narrator: but eventually, Its coal deposits are exhausted,
And the mining operation closes In 1974.
And when the island's heart Stops, its community dies, too.
Today, hashima is abandoned.
Aside from occasional use For movies,
Like james bond's "Skyfall,"
It's mostly left To the mercy of the elements.
It's mostly left To the mercy of the elements.
*
Approximately 6,000 miles away, Across the pacific,
Is one of the most unusual And brash transport projects
Ever undertaken.
In the middle Of a 350-mile route
That runs between San diego, california,
And phoenix, arizona, Is a very unusual stretch.
And phoenix, arizona, Is a very unusual stretch.
This road is made Entirely out of wood.
Each plank used is 8 feet long
By 4 inches wide And 1 inch deep,
And it runs for 6 1/2 miles,
Using thousands of wooden planks
Snaking through the shifting Sands of the california desert.
It's a beautiful Kind of american sheer audacity
Of taking on such a project.
"Yeah, why not? Of course I'm going to do it.
"Yeah, why not? Of course I'm going to do it.
Nothing's too much of a problem For me.
A road through the desert? Hell yeah."
Agrawal: deserts are Very, very dynamic landscapes.
You've got wind, You've got these sand dunes,
And when they interact With each other,
It just completely changes The surface.
Things move, They get lower, they get higher.
So trying to build a road On that
Seems like A pretty crazy thing to do.
Bell: it's almost like The simplest idea was the best.
We're dealing with fast-moving, Shifting sand,
We're dealing with fast-moving, Shifting sand,
And when you think about a road, You think of it
As something solid, Something that doesn't move.
With the sand Continuously moving,
They needed something that was Gonna be a little bit flexible.
It's a very simple idea, But maybe it was that simplicity
Which actually meant That it worked.
Narrator: why was This incredible road made?
How great are the problems That the engineers face?
And how does it end up Being abandoned?
In 1912, los angeles Is the final hub
Of america's Transcontinental railroad.
But without any direct Connecting routes to the east,
Nearby san diego risks becoming An economic backwater
Blocked by an expanse of desert Which is considered impassable.
But local businessman Ed fletcher demands
That the southern california Road network
Use san diego as its hub.
Ed fletcher is one of these Great unsung american heroes.
Ed fletcher is one of these Great unsung american heroes.
He takes the initiative,
He sees the challenge, And he seizes it.
"Let's build a road Across the desert."
"Oh, really? How are you going to do that?
Wooden planks -- Is that the best idea?"
He does it anyway.
People think california Is full of crazy people.
Well, you know what -- maybe they always were,
But you have to admire That ambition.
Narrator: fletcher calls His novel creation
Narrator: fletcher calls His novel creation
"The plank road."
Bell: we're talking about An engineering achievement here,
But it's planks Laid out through the desert,
Which is the kind of solution I might have come up with
As, like, a 7-year-old Thinking about it.
But it's the fact That they laid this out,
13,000 planks,
Laid one after the other After the other after the other,
Which you might say, "Hang on. That's just not possible."
For ed fletcher, anything was possible.
Narrator: What prevents each wooden plank
Narrator: What prevents each wooden plank
From moving In the shifting sands
Is the engineer's inclusion Of the three metal rods.
Nailed into each plank, They hold the planks together
Despite Constantly moving terrain.
Amazingly, Fletcher's improvised road
Is so successful That in 1915, it's incorporated
Into california's State highway system.
Bell: If I'd picked up a map back then
And navigated my way To san diego
And navigated my way To san diego
And it happened to take in The plank road,
To get there And actually see literal planks
Forming the road,
I think I would have been Extremely shocked.
It's not what you'd expect.
Agrawal: it's completely bizarre And utterly surprising to me
That two planks of wood In this moving sand desert
Can be part of a highway.
I mean, it's incredible.
Bell: despite its name, The plank road wasn't a joke.
Bell: despite its name, The plank road wasn't a joke.
It wasn't just a bunch of timber
Laid out rustically In front of you.
There was thought And process and design
That went into Building the road,
Right down to the construction Technique that they used.
Having a contraption That was specifically made
To lay out each section Of the road in front of it,
Which you could then Roll the contraption onto
To lay down the next bit In front of you,
It's kind of how tunnel-boring Machines work nowadays.
It's kind of how tunnel-boring Machines work nowadays.
But they weren't Boring a tunnel.
They were building a wooden road Through the desert.
Narrator: For 10 years, the plank road Is in constant use --
Not only by local traffic,
But also by tourists Who come to enjoy
This incredibly bumpy ride Across the desert.
Gough: fletcher's plank road Becomes a success
Because it's a novelty.
It's the path less taken.
It's an adventure. People want to drive on it.
It's an adventure. People want to drive on it.
They know it's going to be An experience,
And that's what it's all about.
It's sort of The original thrill-seekers.
People would brag to each other.
"Have you been on The plank road?
I have. It's amazing."
And everybody wanted to do it.
Narrator: But with its popularity peaking, Why is the plank road abandoned?
*
Narrator: the plank road
Out in the middle Of the californian desert
Is one of the most daring
And extraordinary Engineering projects
Of the early 20th century.
Made out of more than 13,000 Large wooden planks,
This popular but rugged road Stretches nearly 7 miles
And forms the critical link Of a 350-mile highway
And forms the critical link Of a 350-mile highway
From san diego, california, To phoenix, arizona.
But despite the iron railings That hold the road in place,
The planks are still Very susceptible to the wind
And the moving sands.
In 1926, san diego businessman Ed fletcher
Replaces the wooden planks
With a professional Asphalt surface
Built up on a sandbank.
Bell: analysis was done On the moving sand,
Bell: analysis was done On the moving sand,
And it was found That the sands moved a lot more
When it was lower.
Anything that was Raised up slightly
Was less susceptible To the moving sands.
And so when the more permanent Road was put in
With an asphalt surface,
That was put in On a kind of raised bank,
Whereas the original plank road
Was right down Where all the shifting sand was.
Narrator: with the new Asphalt highway in place,
The plank road Is sidelined in the desert.
The plank road Is sidelined in the desert.
It slowly disappears Under the sand
And is largely torn up By scavengers
Wanting its timbers.
But ed fletcher shows What can be done
With just a little imagination And a lot of determination.
Bell: I love the iterative process
The designers and engineers Went through here,
From going from The two parallel rows of planks
That you'd have to Keep your wheels onto
To the continuous rows of planks
Just laid out in front of you As a more solid structure.
Just laid out in front of you As a more solid structure.
But you've still got planks.
It's not great big Slabs of concrete.
Driving across that, I'm sure in the kind of cars
That they would have been Driving at the time,
It would have made A heck of a racket
And would have been Quite a bone-rattling ride.
I'm sure You would have been relieved
To get to the end of it, Whichever way you were going.
Narrator: today, The plank road lies abandoned
Out in the california desert --
Out in the california desert --
A powerful but decaying reminder
Of humanity's Unquenchable desire
To cross This planet's vast expanses
To connect our cities.
*
On the opposite side Of the planet,
On the southern coast Of australia,
Is a sunken wreck That was once
At the cutting edge Of maritime technology.
It is 225 feet long And 45 feet wide
It is 225 feet long And 45 feet wide
And weighs 10,000 tons,
And it's made Almost entirely out of iron --
Tons of iron.
Its 13 coal-fired steam boilers Provide nearly 1,400 horsepower
Powered through Two 13-feet-diameter propellers.
Four 10-inch guns are on board, Each weighing 18 tons,
Four 10-inch guns are on board, Each weighing 18 tons,
Which are fired from Two huge solid-iron gun turrets.
Beauty of gun turrets
Is that you can rotate them Pretty much 360 degrees,
So you can fire In any direction.
One at the front, One at the back of the ship,
You're good to go.
You can maneuver your firepower Wherever you need it
Very, very quickly.
For me, That's a revolutionary time
In the design of battleships
In the design of battleships
Because that design With the two gun turrets,
One each end of the ship,
Lasted us then for -- Well, decades to come.
Narrator: But who built this warship?
And why was it abandoned?
In 1870, The crown colonies of australia
Are just under 100 years old.
As a fledgling state
Vying for its place In the pacific ocean,
Australia faces An imminent threat
Australia faces An imminent threat
From a far bigger And more established country --
Russia.
In the late 1870s, the russians Actually had two plans
In case of war with britain.
One was to attack singapore.
The other was to attack The australian ports.
So they would have attacked Sydney, melbourne,
Then headed off and hid
In the west coast ports Of america, which were neutral.
Narrator: To defend its waters,
The australian government Commissions
The most advanced warship Of its time --
The most advanced warship Of its time --
The hmvs cerberus.
David: The willingness of people
In the state of victoria In australia
To put their hands In their pockets
To pay out for this warship
To protect themselves Against russian attack
Sounds a bit nutty On the surface,
But actually, There was a good reason
Why they did that -- Because, in 1864,
The times reported that the russian pacific fleets
Were very much a danger
To shipping Right across the pacific.
To shipping Right across the pacific.
And therefore, The purchase of the cerberus --
Which was way ahead of its time In terms of military technology,
This ironclad With quite powerful guns --
Would have played A very practical purpose
To deter the russians.
Narrator: will the world's Most powerful warship
Stem the looming threat From russia?
And why is the cerberus Now underwater?
*
Narrator: on the eastern coast Of australia is a sunken wreck
That was once At the cutting edge
Of design and technology.
Commissioned to defend Against russian invasion
And with two huge Solid-iron gun turrets,
Hmvs cerberus is one of the most Formidable weapons ever built.
It's the forerunner Of some of the 20th century's
Most powerful And deadly battleships.
Most powerful And deadly battleships.
The guns are Absolutely enormous.
You can see the scale Of the figure here.
They're about 18 tons each.
Wow.
About 20 men were inside this In a wartime operation.
Two guns from this turret In the water on the other side
And the two from the aft turret On the seaboard.
Amazing bit Of artillery.
Cerberus was the answer To the american uss monitor,
A great improvement In that she had
A great improvement In that she had
A central superstructure Known as the breastwork.
This enabled the turrets To be raised
Well out of the harm's way Of water flooding them,
Which is what had happened To the uss monitor.
One of the advantages Cerberus had
Was that she could take on 490 tons of water,
Thereby lowering her profile And being a smaller target.
Bell: if you put yourself In the shoes of a naval engineer
In the mid-19th century,
The challenges You'd come up against
Would probably seem Almost endless.
It's not just changing material Of the hull from wood to iron.
It's not just changing material Of the hull from wood to iron.
You've then got to think About the armor.
And as you change your armor on your ships,
Your opponents will be changing their armor on their ships.
So then you need to think About your firepower.
You need to be able To pierce through their armor.
That's a whole new way Of thinking.
Narrator: but australia faces An even greater problem.
The hmvs cerberus Is made in great britain,
And in 1870, getting this ship To australia is no easy feat.
And in 1870, getting this ship To australia is no easy feat.
This iron warship,
Primarily designed To patrol shoreline waters,
Must sail A whopping 10,000 miles.
To get it there, They actually took out the guns
And shipped them over separately
And filled the turrets With coal --
Coal in every available space On this ship --
To try and make sure They had enough fuel
To cover the 10,000 miles.
To cover the 10,000 miles.
But just in case They didn't have enough,
What did they have on board
Just as a little bit Of extra power?
Masts and sails, reverting back To old technology.
Narrator: after nearly Five grueling months at sea,
The 10,000-ton cerberus Makes the epic journey
From england To the far end of the world.
But it just goes to show How impressive this ship was
And the engineers behind it.
And the engineers behind it.
The war and the battle That they had to fight --
not against a human enemy, but against a natural enemy --
To get that ship that far,
A ship That was only really designed
Ever to be 30, 40 miles away From a coastline,
It's an impressive feat.
Narrator: The australians hope
This ironclad war-machine Can defend its waters
From the threat Of the great russian navy.
From the threat Of the great russian navy.
For 50 years,
Hmvs cerberus valiantly guards The australian shoreline.
And perhaps not unironically, The russians don't invade.
Cerberus, like The nuclear deterrent today,
Worked very well.
The russians never came, Peace was preserved,
Port phillip head Was never bombarded.
Bell: in her day,
Cerberus was one of the most Powerful warships out there.
It could easily have taken care Of her contemporaries.
As it happened, she never Had to fire her guns in anger
As it happened, she never Had to fire her guns in anger
Because the pace of technology Picked up so quickly,
The design of battleships Moved on enormously
Within a couple of decades.
You would never have got to Where that naval technology went
Without the design And engineering
That went into Designing cerberus.
She was part Of that iterative process
To get to The world war I battleships.
Narrator: by 1918, at the end Of the first world war,
Narrator: by 1918, at the end Of the first world war,
Cerberus has still never Fired her guns in battle.
As more advanced battleships Emerge, she is no longer needed.
So, what can you do
With 10,000 tons Of floating iron and steel?
The australians sink it
And turn it into A coastal breakwater
To protect the harbor.
Smith: cerberus was lucky That it survived
Because it had been mothballed
In the port of melbourne For many years,
And that saved it, really.
And that saved it, really.
And then the opportunity came
To sink the vessel here As a breakwater.
The defender of the harbor
Became the defender Of the coastline.
For me, cerberus is So much more now
Than a rustbucket Being dumped out at sea.
It marks the very start Of victorian engineering
And the industrial revolution Being applied at sea
In a military sense.
All that knowledge And skill and drive
That the industrial revolution Had on our shores,
That the industrial revolution Had on our shores,
The metal-rolling, Development of steam technology,
All in one place
That we ruled the waves with For decades and decades to come.
And cerberus, then, now, Is a reminder of that.
Can't find what you're looking for?
Get subtitles in any language from opensubtitles.com, and translate them here.