Afrikaans
Akan
Albanian
Amharic
Arabic
Armenian
Azerbaijani
Basque
Belarusian
Bemba
Bengali
Bihari
Bosnian
Breton
Bulgarian
Cambodian
Catalan
Cebuano
Cherokee
Chichewa
Chinese (Simplified)
Chinese (Traditional)
Corsican
Croatian
Czech
Danish
Esperanto
Estonian
Ewe
Faroese
Filipino
Finnish
Frisian
Ga
Galician
Georgian
German
Guarani
Gujarati
Haitian Creole
Hausa
Hawaiian
Hebrew
Hindi
Hmong
Hungarian
Icelandic
Igbo
Indonesian
Interlingua
Irish
Italian
Japanese
Javanese
Kannada
Kazakh
Kinyarwanda
Kirundi
Kongo
Korean
Krio (Sierra Leone)
Kurdish
Kurdish (Soranî)
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 (Brazil)
Portuguese (Portugal)
Punjabi
Quechua
Romansh
Runyakitara
Russian
Samoan
Scots Gaelic
Serbo-Croatian
Sesotho
Setswana
Seychellois Creole
Shona
Sindhi
Sinhalese
Slovak
Slovenian
Somali
Spanish
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
Downloaded from YTS.BZ
Official YIFY movies site: YTS.BZ
At the
turn of the 20th century
in Dayton, Ohio,
Hawthorne Street looked
much as it does today.
Men and women are still living
who remember how in the years 1900, 1901, 1902, 1903
the quiet, slow spoken Wright brothers came
walking down Hawthorne
back again from their journeys to Kittyhawk.
And how with that bent, alert,
probing way of theirs,
they strode past the homes of Vance, the harness maker,
Pahu the stonecutter,
Wellborn, the wagon maker.
Wolfram the carriage trimmer.
Year after year, they came quietly home
to number seven, Hawthorne Street.
But once within the house
reserve left them.
With their father, Bishop Milton Wright,
their sister, Katherine, or the young girl
Carrie Grumbach, listening unobtrusively,
the Wright brothers studied aloud,
discussed exhaustively,
argued in detail,
and at
last conceived the principles that were to open the skies
to the navigation of men.
Around the corner
from Hawthorne on Fourth Street,
Orville and Wilbur Wright tested
not only their ideas,
but they examined the theories of other men
who had explored the possibilities of flight.
Cayley. Lilienthal.
Chanute.
Langley.
The Wrights devised
methods of measuring the accuracy
of aeronautical theories, including their own.
The home was their discussion hall,
the shop, their laboratory.
Both today are gone from Dayton
moved as monuments to the Wright memory,
to the museum at Greenfield Village and Dearborn
Discussion Hall
laboratory and testing devices
such as their first wind tunnel had their plates.
But the Wrights at once had recognized
an axiom of aviation that still endures.
Proof must come in the air.
On this windswept beach
in 1900, 1901, and 1902
They tested gliders they had built.
They taught themselves
to be pilots of a high order.
They were critical men,
but at last
their 1902 model pleased them.
They flew it farther and with better control
than any other glider that man had ever devised.
They came back
from Kitty Hawk in 1902 with a knowledge
that they had solved flight’s
paramount secret: control.
And in the spring of 1903
they designed the four
cylinder engine and fashioned two propellers.
When they next went to Kitty Hawk,
they flew.
On December
17th, 1903,
Orville and Wilbur Wright made man's first
four controled flights in a powered airplane.
That day,
they lifted the world into a new dimension.
What the Wrights had
achieved at Kitty Hawk barely evoked
passing attention in a nation whose people were absorbed
with the problems of a dynamic new age.
There were other, less celestial wonders closer
at hand, the automobile,
the telephone.
The motion picture.
But at number seven,
Hawthorne Street, December 17th, 1903
was a momentous day.
The young girl who was then
the Wright’s housekeeper, Carrie Grumbach remembers.
I remember the telegram when it’d come
that they had flown,
that they had done what they said they would do.
They always did as they had planned.
The telegram from Kitty Hawk
had a special significance for the mechanic
who worked in the Wright's bicycle shop, Charlie Taylor.
Of course, I was
greatly pleased to know
that it had been accomplished, but at that time
there didn't seem to be
anything wonderful at that.
I started on repairing bicycles back in,
in the 80s.
And then I later
went to Dayton
and built bicycles.
for the,
Stoddard Manufacturing Company.
And they were just
starting up in the bicycle business,
and I-
I got acquainted with the Wrights
and I would build bicycles for them.
I did all the repair work
while they went down
to Kitty Hawk to,
try out their gliders.
Well, I don't know.
All I needed was power to keep on flying.
I then went on to design the motor.
I made all the different parts
in the motor, I even made
the crankshaft.
I made it out of a solid
block of steel.
About 32in long,
six inches wide, an inch and 5/8
thick.
Cut it right
out of the solid block by drilling holes
and knocking large pieces out of it.
And then, then
turning it up in a lathe,
a motor itself.
From the time I started to, when
I had it ready for a test
was six weeks.
50 years ago, I can remember as
though it was yesterday almost.
There was not a complete indifference
to the Wright’s discovery.
A small group of Americans
were laboring to further the art.
And in Europe, where the airplane's
military potential was quickly realized.
A fresh wave of enthusiasm for aviation
followed the Wright success.
In France
Blériot, Farman and Brique were flying
airplanes of their own design.
The Englishman Corry
and the Brazilian Santos Dumont,
most of whose experiments
took place in France,
also captured the imagination
of Europe with successful flights.
The Wright had offered to demonstrate their airplane
to the United States Army shortly
after their first successful flights.
The Army declined,
preferring to develop
its small fleet of balloons as an air arm.
Oddly, it was a young balloonist
lieutenant of the Army, who finally was instrumental
in obtaining a chance for the Wrights and their airplane.
Frank P. Lahm.
After four long years of failing to recognize the Wrights.
Finally, in December of
1907, the Board
of Ordnance and Fortification
granted an interview
to Wilbur.
At once he inspired their confidence.
This led to a contract
in February of 1908
between the Wright brothers
and the Signal Corps,
in which they agreed to furnish an airplane
that would fly 40 miles an hour
carry two persons
remain in the air for one hour,
and arranged surely,
It was to have some kind of a device
by which, in case the motor stopped,
it could be landed without crashing.
In the summer of 1908,
Orville Wright brought to Fort Meyer, Virginia,
the airplane that was to fill
the specifications of the contract.
Day after day
we watched him fly around
and around the field in his tuning up flights.
And finally, on the 9th of September,
he broke the world record by staying in the air
for over one hour.
On landing, he came to me and said,
would you like to go up?
You can guess my answer.
And I made my first flight
in an airplane that day with Orville Wright.
Six minutes and 40 seconds.
Lieutenant Lahm became the first military officer
ever to fly in an airplane.
Eight days later, tragedy
struck. On a flight at Fort Myer,
Lieutenant Thomas Selfridge was killed.
Orville Wright injured. Shocked but not deterred,
both the Army and the Wrights moved
to improve the airplane.
In the summer of 1909,
both Wilbur and Orville Wright
came to Fort Myer, this time
with a new airplane.
It fulfilled the specifications,
including an hour's flight,
which is my good fortune to ride
with Orville for an hour and 12 minutes.
Another young Army lieutenant,
Benjamin Foulois, had a chance to fly
in the right plane at Fort Myer.
On the day following the endurance test
with Orville Wright and,
Lieutenant Lahm,
Orville
with a quiet little grin on his face
invited me to be his guest
on the crucial
and final cross-country
and speed tests.
The grin on all those faces
for my benefit,
particularly as I had been responsible
for laying out the course between Fort
Meyer and Alexandria, Virginia.
And there was not a landing field on the entire
Out- or homebound
course except Fort Meyer
Drill ground.
On July 30th,
we took off on the final
cross-country and speed test.
Shortly after, we straightened out
on the course for Alexandria.
Orville with the same little grin on his face,
told me that,
if he had to land
anywhere on the route
that he'd pick out the thickest clump of trees
he could find and land on top of them.
Fortunately, the little
engine that we had at the time
carried us all the way through
without any difficulty,
and we finally landed
back at Fort Meyer Drill ground
with three world records.
Cross-country, ten miles,
altitude 600ft
and speed 42.5 miles an hour.
The United States Army had an airplane.
The need now was for pilots.
There in the fall of 1909
under Wilbur Wright, struck
A Lieutenant F.D. Humphreys
Some U.S. engineers and myself.
We're taught to fly at the end
of some three hours.
We're soloed
and told we were pilots.
So in 1909, the military airplane
was mated to the military pilot.
Meanwhile,
all over the world,
aviation pioneers, encouraged by the Wright
brothers’ flights were hard at work.
The principles of flight
were now widely known, and designers
were applying them to many types of aircraft.
Glenn Curtiss, Glenn
Martin, and the Canadian J.A.D.
McCurdy were designing and flying
airplanes in competition
and for exhibition. In Europe,
the airplanes of Blériot, Pollum,
Farman, and de Havilland were demonstrating
obvious advances in both speed and range.
And in Russia, Igor Sikorsky
was taking his first steps into the age of flight.
And I remember very, very well the early,
interesting period in
France in 1909 and 1910.
And the very first attempts
were made to push aviation
from the purely
original experimental
flying to some kind of,
successful
practical achievement.
I have seen Blériot
coming in the same factory to purchase his motor,
and which a few months later
he crossed the English Channel.
At that time, I had my share of,
failures
with the first helicopter,
which was a flying machine,
only it couldn't fly.
Glenn Martin remembers
an episode of his pioneering days.
I've just been reading
an old postcard
sent by our family
doctor to my mother
dated September 30th, 1910.
This is at a time when I just began
to leave the ground in a flying machine
And it says, for heaven's sake,
if you have any influence
with that wild eyed,
hallucinated young man,
call him off before he is killed.
Have him devote
his energies to a substantial,
feasible and profitable pursuit,
leaving dreaming
to the professional dreamers. - For a dreamer,
Glenn Martin was attracting a remarkable group
of clear thinking young designers as workmen.
The first to join him was Donald Douglas.
I guess I must be getting old,
because somehow.
It becomes
fun to reminisce.
Well.
My first memory of things
in aviation
was seeing
the first Wright airplane
demonstrated for the Signal
Corps in 1908 at,
Fort Myers, outside of Washington.
So I took the streetcar and one thing
and another and got up to Fort Myers.
Well, there she
was, as I had seen a picture of the old Wright
pusher,
and there were Wilbur
and Orville.
There
was that old launching device
that kind of looked like a guillotine.
And they had the airplane perched up at the
starting part of the track, and the weight.
All ready to go.
I remember well, I believe it
was Wilbur
going out
and holding up a bit of dust.
And dropping it to see that there wasn't a bit of wind.
And then, as I recall, it was
Wilbur that got into the machine.
Well, I guess it was Colonel Lahm
they pulled the old latch
and down this little wooden track
it went with those funny old props
that ran around at apparently a pretty slow speed.
And off she went.
One of the first pilots
was Roy Knabenshue, who was a balloonist
even before he became an airplane pilot.
Gentlemen, I'm finding out
right back of the
pilot was Walter Brookins.
Walter was a great pilot.
His judgment was uncanny,
but he was very temperamental.
As a matter of fact, he and Arch Hoxsey and Ralph
Johnson was the three
best pilots
that they Wright Company had,
and each one
tried to outdo the other.
My friend Dick Ferris
remarked to me one time
he said, I
have been an impresario.
I have handled actors
and prima donnas.
But he says these
aviators, starting
where are the other fellow leaves off?
And he says it's impossible to do anything with them.
The ambitions of some designers went far
beyond their skills.
As Igor Sikorsky has said,
In the history of aviation,
there have been many contraptions
which, to the good fortune of their inventors,
failed to fly.
Inventors of a higher skill
sometimes were deadly serious
in demonstrating the utility man
could expect from the airplane.
Lawrence Sperry, whose contributions
to the aircraft instrument field were momentous,
puts a pre-war aircraft
through its paces.
All this permitted,
however, often it seemed to lack direction,
was contributing in one way
or another to the growth of aviation.
The airplane was growing
cleaner in design,
its horsepower was more
dependable.
The disparaging term aeronaut
was giving way to aviator, a term of respect.
Aviation was
emerging as a science.
A pioneer aeronautical engineer
and educator, Doctor Jerome Hunsaker.
Professional education
in aeronautical engineering
began in this country
at MIT in the winter of 1913/14.
This course was started
by president McLaurin.
Borrowing me
from the Navy Department
and supplying me with one assistant
as staff
who was a recent graduate
in mechanical engineering, Donald Douglas,
from whom more was to be heard.
The pusher engine of early planes
had been replaced by the tractor
engine installations, which allowed
higher speeds.
The Wrights were forseeing these helpful
aircraft devices
and other inventors, such as Elmer Sperry,
were inventing and refining them.
Here, a Curtiss seaplane flies with the early Sperry
automatic pilot.
Almost
without exception, in the first decade
of the airplane, the designers were pilots.
They built, tested, and flew their own designs,
Wrights, Blériot, Santos-Dumont,
Curtiss, Ro, Sikorsky, de Havilland and Martin
at Glenn Martin's,
a band of engineers and craftsmen
had gathered together whose names and time
would be synonymous with aircraft designs of world
rank.
Donald Douglas, James H.
Dutch Kindelberger,
Lawrence Larry Bell, Alan
Lockheed, John
Northrop.
The United States was
the cradle of flight.
Inventors
of a high order had appeared.
Our pilots were unmatched.
First rate designers emerged.
Brilliant men specialized in the components
of the airplane.
But as a pioneer who specialized in
aircraft horsepower,
Frederick B Rentschler summarizes.
Prior to World War I,
our most important contribution
to aviation is a flight
from the Wright Brothers.
From December, 1909
to March
1911, 13 months, the entire United States
Air Force consisted of one officer,
myself,
one civilian mechanic,
eight enlisted men, and one airplane.
The government at that time wasn't
very keen about turning money loose for flying.
I had, the great appropriation
of $150 allotted to me
to take care of the airplane for the entire year
in 1910. January 1910.
Chief signal officer
directed me to proceed to the word Sam.
Houston, Texas.
To teach myself how to fly.
On March
2nd, I made four flights, three
good, one bad.
The last one,
I cracked up and put the plane in the shop
for about ten days.
After each
crack up, I used to sit down
and try to puzzle out what had happened.
Then I’d write to the Wright brothers
and tell them all that I thought
had happened.
They’d proceed to write back
and tell me what I ought to have done.
In other words, I expect
I'm about the only man living today
who learned to fly by correspondence.
Two air minded young lieutenants shortly
joined general Foulois the one man Air Force.
They were Hap Arnold
and T. Dewitt Milling.
Looking back 42 years ago
to March 1911,
the month
in which General Arnold and myself were ordered to
Dayton to learn to fly with the Wright brothers,
and to think of the
plane that we used at that time,
and see the advance
that has been made since.
It seems incomprehensible
that one man in his own
lifetime could live through
such progress.
After our very brief period
of instruction of about a week,
2 to 3 hours,
in order to learn to fly,
we were sent to College
Park, Maryland.
We immediately started in
to try to find some method
by which we could develop
from the standpoint of taking photographs
using the machine gun
dropping bombs.
The air arm of the United States
Navy began under equally
apathetic circumstances.
Naval Aviator number
three was Admiral John H.
Towers. - In the autumn of 1911,
when I was quite a young naval officer
serving aboard one of our battleships.
I got the idea
that I wanted to learn to fly,
that naval aviation
would amount to something
for naval purposes.
So I put in a request
to the Navy Department,
and they came back
and quite frankly, said
that they didn't believe aviation would ever
amount to anything.
But if it turned out to be otherwise,
they would consider my request.
During that winter,
Congress,
appropriated money
for the Navy to buy three airplanes.
So they were in it whether or not
they wanted to be.
And, then
they decided to select three officers to be taught
to fly as part of the contract
with the manufacturers of the airplanes.
I was fortunate enough
to be one of those three officers.
The other two were Ellison and Rogers.
I also became a very close
friend of Glenn Curtiss,
and, was associated with him
throughout his whole life.
The man had an enormous amount of vision.
He had already conducted,
in cooperation with the Navy, tests of,
landing an airplane
on a platform, on a cruiser,
and also of taking off.
What he had in his mind then, the idea
which later developed
into the powerful carriers that we have today.
The airplane now had official recognition
both from the Army and the Navy, but
it was a cautious acceptance.
The time forged armaments
still held sway
when the fledgling army fliers experimented
with a primitive bombsight and a Louis machine gun
installed an aircraft
at College Park, Maryland.
They landed and foresaw
whole battles that someday might be
fought in the air.
The War Department
promptly pierced that bubble.
An official spokesman
pointed out with finality
that the Army had airplanes
for just one purpose.
Reconnaissance.
From a pistol shot in Sarajevo.
The first of the great modern
world wars exploded.
And almost overnight, all of Europe
was engulfed in conflict.
Once the great armies had met head on,
the conflict resolved itself
into a desperate struggle to hold
this plot of ground,
This foot of earth.
Military analysts called it
positional warfare.
But the foot soldiers knew it
only as a war of trenches,
a desperate fight
for a waterlogged home.
Automotive power
began to supplement the feeding, supplying
and tending of troops burrowed in the earth.
The tank made its combat
appearance,
but for many months the First World War
remained an earthbound conflict.
The airplane was put to work just as the U.S.
War Department spokesman had prophesied.
As observation and
scouting cracked.
The source of peril
lay in the artillery, machine
gun and rifle fire,
scourging the entrenched
troops from across the wasted land.
But in the air,
Allied and German
pilots often waved to each other
as they passed on their observation missions.
Then, instead of the courteous way
the opposing pilots began
exchanging pistol fire,
presently, the first crudely mounted
machine guns appeared.
Now the frantic race
of inventing, improvising, adapting and refining
aircraft equipment began.
Quickly, the Germans countered
the hand-operated machine gun by installing
upon their aircraft the invention of Tony Fokker,
a machine gun synchronized
to fire through the aircraft propeller.
A paramount lesson that the allies
were to remember a generation later was being learned
in air warfare for the first time.
No design
capable of still further development could be frozen.
And countermeasures
must be met by counter-
countermeasures.
It was becoming clear that no nation
or race had a corner on invented skill.
While the single engined airplane had been engrossing,
most designers, in
Russia Igor Sikorsky,
- In 1912, I decided
that the time came to build
a large machine with several motors.
At that time,
I was certain already
that the future of aviation will be connected
with fairly large aircraft,
that the closed cabin
with its comfort, protection
from wind and so forth, represent a must.
In ‘13 I completed my first,
four motored aeroplane
the Grand,
the ship proved a complete success.
It flew quite well.
The Grand’s military successor,
the Ilya Muromets
was the first four engine bomber
in world history.
It struck time after time
at the Central Powers on the Eastern Front.
The internal combustion
engine now became an instrument
of intensive technical development.
The first successful engine
had not been developed until 1860.
One of the world's foremost engine designers,
Leonard S. Hobbs, recollects its history.
It starts out actually
with a little known Frenchman
by the name of Lenoir,
who has never gotten
the credit he deserved.
He built and actually marketed the first
internal combustion engine,
and it was from his engine
that the Wright brothers were able
to build one.
Of course, the early pre-war
power plants are fairly well known.
The Anzanis and the Curtiss
OXs.
The First World War did mark
a great advance in power plants.
First there were the rotaries, the clergets,
the gnome Rhones.
Then there was the Renault engine,
which was a very good French engine.
The British R.A.F.
engines.
Toward the end of the war came the very beginning
of what I think is the
is the modern engine.
First there was the Hispano
squeezer with its solid block
and valve arrangement,
which is, is, standard
in a lot of engines to this day.
Also out of the First World War came
a remarkable German effort.
The BMW.
Now, this engine is the first engine
that I know of in all history
that attempted to overcome
the effects of altitude
on power.
Into a conflict
in which European antagonists had been tempered
by three years of savage battle,
whose equipment had been perfected
by the necessity of survival without regard to cost.
The United States now plunged.
It was the world's 14th ranking air power,
with only 28 airplanes,
65 pilots,
supplemented by 50
flying students.
Its Navy combat air
arm was even smaller.
Its industry lacked integration.
The nation that had allotted Benny
$150 in 1910 for maintenance
of that year's Air Force,
promptly voted $600
million to fulfill a plea by the allies
to have 5000 airplanes
and 4500 pilots on the Western
Front by the spring of 1918.
When we entered the war, the country knew that
the United States already had
an industrial capacity,
double that of Great Britain,
France and Germany combined.
We quickly realized that to supplement the meager
aeronautical developments resulting from years
of federal indifference to air power,
we had to obtain licenses for the production
of proved British and French airplanes
and aircraft engines in our new factories.
Our national mistake was the assumption
that an instrument as dynamic as the airplane
could be designed,
tested and developed overnight.
Thousands of rookie
pilots training in the United States
and in England and France
had an inspiring example of American air combat
performance through the brilliant
exploits of the Lafayette Escadrille,
a team of American volunteers
who had joined the Allied cause in 1916.
But American performance
had its hours of frustration.
One of the first young
pilots to see action in France with the first
Aero Squadron was Oliver P. Echols.
We'd been equipped with a
new type of French airplane,
with a new
and very much improved engines.
These airplanes
were assigned to us.
The squadron had the strength
of 18 airplane,
and we were assigned
the mission of supporting
one of the American divisions
one afternoon in the attack.
Our planes took off 18 strong.
During the afternoon
all of their airplanes
force landed from engine failure.
Fortunately, none of them behind the enemy line,
but out of the 18
airplanes that went out,
none of them got back.
The pilots of World War One made the term
dogfight synonymous with their work.
America's top ace, Captain Eddie
Rickenbacker of the famed 94th,
had in Ring Squadron,
reflects on the different approaches
to combat of the pilots of World War One
and the pilots of today.
That individualism was possible
because the planes were much slower and could
stay in maneuver.
Whereas today
it's impossible because of the tremendous
speed, the difference of 100 mile an hour and six,
seven and 6 or 700 miles an hour.
We had 150 horsepower.
Today, if they haven't got 5 or 6000
horsepower, it's no good.
We had two little pop guns, 30 caliber,
that would shoot sometimes
450 rounds a minute.
Today, they've got six
and 850 caliber guns that’ll shoot
a thousand rounds a minute
with a couple of cannon
thrown in 20 millimeter
or 37 millimeter cannon,
and then maybe a half a dozen
or a dozen rockets that,
have terrific destructive power.
All of which means that
today, the time element
is so limited for a pilot
in combat with an enemy
that it's a matter of a fraction of a second.
Today, he has a cockpit
full of instruments and gadgets.
Pressurize these air conditioners.
We have a gasoline gauge,
an oil gauge.
We had a tachometer,
a revolution counter.
Sometimes it worked, sometimes it didn't.
And the fourth instrument was an altimeter that we could
never rely on.
The Navy's pre-war requests
for funds to build up its air
arm had been denied,
and only a skeleton
naval air force existed.
A naval officer whose career has bridged
two wars in aeronautics,
Admiral DeWitt C Ramsey.
From the outset,
the Navy's
problem has been to bring aircraft
into the mobile
operating forces of the fleet.
We may say that
this had its start
in World War One
and post the post-World
War One period,
when kite balloons
were used from
battleships and auxiliaries
for gunfire spotting
and tactical reconnaissance.
The equipment was very cumbersome,
and as hydrogen was used
as the lifting gas
for the balloons,
we found that
it was not a satisfactory
measure of doing a naval job.
So they were abandoned
after a short, relatively short trial.
The real beginning of naval aviation,
let us say, took place in England,
where during World
War One, the latter part of it,
the British converted two ships,
the Furious and the Argus,
and built into them
the features which were desirable
for aircraft launching
and recovery.
I happen to have been in England
about that period
and kept our Navy Department
informed of the progress of the British in this field.
As a result,
the Navy
embarked on an initial program of converting
the old collier Jupiter
into our first flattop.
The Langley.
In 1918, as the war
began to move toward its climax,
American aircraft
equipment still had not entered combat.
An intensive effort was being made
to perfect the Liberty engine.
Before the Liberty or any other aerial product of
the United States, designing boards
could be put in action,
the final critical
offensive of World War One had begun.
Millions of men pulled out of trenches
to attack or retreat. Above them
to be sure, planes flew in bombing
and strafing missions.
Individual pilots
whose names became legendary met
in dogfights.
Germany's von Richthofen,
France's Fonck, Canada's Bishop,
Germany's Göring,
and such American aces as Rickenbacker,
Luke, Lufbery,
Vaughn, Springs,
Kindley, Landis, Thaw, Hunter.
In retrospect,
it might be said that aviation itself
served a very small part,
in the result of the World
War One conflict.
However, it did prove itself,
that is, that
it was easy to recognize
that with proper equipment,
at another later time,
aviation might become
a real instrument
of military warfare.
After the war was over, a great
many of American boys had been taught to fly,
but they didn't get to the front.
Of course, after the war was over,
they had nothing to do.
And there were a great many surplus airplanes.
And that is the period when you hear so much
about of the days of barnstorming
after the war with all these surplus airplanes.
A lot of the fellows who had been taught to fly
then decided to go out and carry passengers
and do stunts at a regular exhibition, flying
principally at county fairs
and state fairs and things of that sort.
Both the Army
and Navy Air Arm shortly were reduced once again
to organizations hardly larger
than the membership of a civic club.
Yet in both services, the men who remained
were uniquely zealous advocates of their calling.
Almost to a man,
they realized they had only begun to explore
the capacities that the airplane offered
in size, speed, range, and altitude.
Performance.
A decade was dawning in American history
that was to be known flippantly
as the ERA of Wonderful
Nonsense.
Beneath its surface corruption,
its wild enthusiasms,
and its extravagant posturing.
History now has found that it was a time in which men
in many fields of the arts and sciences,
were employing immense physical energy
to attain goals of a sober worth.
Aviation had its share of such men.
The accomplishments of the
20s were presaged in 1919
by man's first flight across
the Atlantic Ocean.
The NC4, a large flying boat,
whose development had begun during
the war, was chosen,
as the Navy's pioneer pilot
Admiral Towers points out,
for the ambitious task.
When the war was over,
the first one was just about completed.
So I proposed to the Navy Department
that we’d go ahead the following
spring. And,
with as many of these aircraft as could be built
by that time, that
the Navy undertake
to be the first to fly the Atlantic.
Luckily for me, I was selected
to command that expedition.
It's all history now.
Two of the three airplanes,
landing at sea in very rough
water was so damaged they couldn't make it.
But the NC four
made it from Newfoundland
to the Azores, to Lisbon.
Army pilots already had inaugurated
the airmail service on May 15th,
1918, a service
that had been under discussion since 1910.
William Boeing, who had entered aviation
in 1916,
was instrumental in starting the first international
airmail service on the North American continent.
In 1919,
Eddie Hubbard
and I took
a flight up to Vancouver, B.C.
On our return trip,
the postmaster at Vancouver
handed us a mail sack
for delivery
for the postmaster at Seattle.
This was the first international mail
ever carried by plane
into the United States.
What real utilities the airplane actually offered
were overshadowed in the public eye
by its use as a spectacular, stunting device throughout
the pastures and primitive flying
fields of the country.
The Jenny could be bought for as little
as $50,
and men who had flying in their blood
preferred to scramble for the few dollars they could
make, risking their lives in exhibition flying
rather than seeking out
pedestrian jobs.
As one of them, Dick
Depew, cheerfully said,
the greatest hazard in flying
is the risk of starving to death.
Abruptly, the country's attention
concentrated on a single man
with a single theme.
Brigadier General William Mitchell,
who had had a distinguished war record, argued
that the Mahan Doctrine of sea power
had been outmoded by the airplane
and pleaded for a separate
national air arm.
He contended in seeking a $60
million appropriation for Army Air services,
or about half the cost
of a single battleship
that the United States could begin
developing an air force
which could hold mastery of
both the air and the seas.
Larry Bell was still with Glenn Martin when:
- That resulted in Congress
bringing about a test
wherein one of the targets
that we were supposed to sink
or try to sink
was the famous Ostfriesland
the pride of the German Navy,
which we had captured.
This ship was anchored about
100 miles
offshore, and six of the Martin
bombers went out, each carrying a 2,000 pound bomb.
They paraded over the battleship
and they dropped the six bombs and only one hit it.
And that was by mistake.
The rest were timed to detonate at 100ft
below the surface,
and it practically exploded.
The Ostfriesland
At least it ripped the bottom
of the ship from bow to stern,
and the ship sank in four minutes.
The Navy had already begun systematically
to broaden the scope of its Bureau of Aeronautics.
Many of its men, whose views of the need for
air power were not as vehement as Billy Mitchell's,
nevertheless already had envisioned carriers
as the heart of future striking forces.
Admiral Ramsey was the navigator
of the Navy's first flat top, the Langley.
The Langley had at best
14 knots maximum speed,
and that's all the wind speed
she could generate and manufacture.
So we had to wait for adequate
wind conditions to perform flight operations.
The nation's first large aircraft carriers,
the Saratoga and the Lexington,
were designed and were being built.
These great ships,
developing approximately
180,000 horsepower,
manufactured all of the wind
that was needed
in the absence of a surface
wind for flight operations.
The nation accepted the airplane
and tacitly agreed with its advocates,
but there was still no federal
provision for long range planning and procurement.
Nevertheless, a corps of designers
and manufacturers stayed with the business.
In the ceaseless drive to attain longer
range and more reliable performance,
the airplane,
its engine, its components and its instruments
steadily were growing more complex.
But the primary goal was speed.
Roscoe Turner: - I have maintained ever since
that I've been flying that there's only one reason
for flying, and that is speed.
It's 1910 Curtiss,
49 miles an hour.
1910 White, 61 miles an hour.
1911 Wyman, 78 miles an hour.
19 and 20 Mosley,
156 miles an hour
Morn in 19 and 22,
206 miles an hour. In 19 and 25,
Doolittle, 232 miles an hour.
Jimmy Doolittle, a hell for leather pilot
whose own cold judgment was that
he was essentially a technician.
These record flights
have a very real meaning.
Competition has perhaps always been
the greatest stimulus
to improvement,
and out of this competition
came improvement.
Improvements that were
improvements on the performance of aircraft
and the safety of aircraft.
And those improvements were immediately
applicable to the military
and indirectly applicable
to commercial aviation.
The ferment of the early 20s brought forth men
who combined technical gifts with a skill of organization.
A few such men, like Chance
Vought had formed their own companies
and built successful airplanes.
Others had served their apprenticeship
with aviation's early pioneers,
but now they were branching out on their own.
Dutch Kindelberger
recollects a small episode
that launched an enduring company.
Even in the 35 years that I've been messing with it
myself.
There have been vast changes,
particularly technically.
I can remember
very distinctly when,
at the Martin Company in 1920,
Don Douglas,
who was then the chief engineer, left
to come out to California to start his own business.
I helped him pack.
We packed up from his office about,
oh, two ordinary condensed
milk cartons full of data.
In those two cartons,
we put everything that was known
and printed, some of it wrong
about the science
of aviation engineering.
Today,
you couldn't pack into this room
the index of such technical information,
let alone the subject matter.
Machine, began to get complicated.
And from there on came
the specialists.
A great many great men
have contributed to aviation
purely as specialists.
Sperry, one of the greatest.
Colonel Clark, who devised
one of the first good airfoils.
Sam Heron came along
with his cylinders and his fuel, and then Frank Mock
with his carburation devices and later fuel injection.
Frank Caldwell, with his propeller.
Our earliest propellers were all wooden propellers,
but they
had several shortcomings.
They were subject
to atmospheric troubles,
and they twisted out of shape
at various climates,
and they were also quite thick,
so that the high speed at which propeller
tips operated, they were losing efficiency.
One of the things which we did to overcome
this was to develop a metal propeller,
which first was a drop
forged aluminum alloy blade,
being very much thinner than the wooden ones.
The efficiency was maintained
in better condition.
And also they were quite stable
in various atmospheric conditions.
Sam Heron began working on aircraft engines
as early as 1909,
and shortly went to the Royal
Aircraft Factory in England.
I came to this country in 1921,
and for the next five years
was engaged
in air cooled cylinder development.
It was really the air cooled engine
that made fuel development so necessary.
The first move was to put
tetraethyl lead in the existing gasoline.
Later, the Air Force
got the idea
of adding the component
that has the high,
the high end of the octane
scale to the gasoline.
And that eventually led
to 100 octane gasoline.
Frank Mock, the carburation and fuel control specialist.
Our carburation work has always had to be
a good bit like that of the Wright brothers
in the respect that we could
get little guidance from the textbook.
The automobile carburetor, of course.
Was designed to operate on a level
the aircraft carburetors have to climb,
die of heat and fly upside down.
Also, they have to go up an altitude
where the air is thin.
Mock, Hobbs, Barry, Clarke,
Caldwell,
Heron. The singular devotion with which these men
and scores of other specialists pursued
their particular fields leads H.M.
Jack Horner, whose own specialty of aircraft
production combined the fruits of all their labors to say:
That heritage of
research,
development, background work
that goes into aircraft
has continued
throughout
the whole existence of aircraft,
and the great improvements that have come there to.
After that,
with flight becoming a little bit
more common,
I think it's important
to realize the fervor
with which those individuals
did carry on their work.
It was a passion with them.
Then, midway in the 20s
came two events that turned the course
of American aviation sharply upward.
First, the government
adopted the recommendations
of President Coolidge's moral board.
These called for a sustained
aircraft procurement program
built on the foundation of a privately operated
and technically competitive aircraft industry.
Although both military
airmen and technologists were convinced
that the airplane long before
had outgrown its function as a scout,
the bulk of our aircraft
still consisted of observation planes.
Now, new, more powerful
engines began to emerge for advanced aircraft,
which both services had developed.
The nation
moved rapidly from a third rate
air power to international leadership.
The second event was the successful
dream Charles Lindbergh,
made come true.
In his single
engine Ryan monoplane, Lindbergh
had flown the Atlantic nonstop to Paris.
Two weeks later,
carrying Charles Levine as a passenger,
Clarence Chamberlin flew
the Atlantic and landed in Germany.
Firstly of all, we were trying to beat Lindbergh away.
And second, we had to keep
our plans a deep dark secret
because we had overheard Mrs.
Levine say, if I thought my Charlie was going in that
airplane, I'd burn it up.
We finally got away about 6:00
in the morning on the 4th of June, 1927.
The first thousand
miles to Newfoundland
was so with good weather.
The only trouble was we had headwinds
and our tests on Long Island showed that
we could fly for 40 hours
with at 100 miles an hour.
Well, on the flight up to Newfoundland,
we were only making 70 miles an hour
and 70 miles an hour
for 40 hours is 2800 miles.
That was 3200 to land
on the other side, leaving the last 400 to swim.
Well, fortunately,
the wind shifted after we left Newfoundland.
And as you see, we made it.
Lindbergh's lonely adventure gripped
the imagination of the world
as one of man's most dramatic achievements.
The nation turned from its casual cynicism
to make the shy young pilot,
together with the airplane, a shining symbol
of the horizon, still beckoning
for conquest.
A vital factor
in the ascendancy of American aircraft had resulted
from the work of two companies
concentrating on the intensive
development of the radio air cooled engine.
In this country, Charlie Lawrence
was the first one to go into the air cooled side
and did some quite good work. His,
products
being eventually taken over by the Wright Company,
and it was really one of his engines
after a couple of major designs,
and they were really major designs.
But one of his engines
that powered the Lindbergh
flight.
Following
this came one of the best
of all of the powerplant engineers George J.
Mead. With his famous wasp and Hornets,
which would set up a new standard.
These engines had built in superchargers
and just about all the modern features.
In fact, they’re fairly representative
of today's engines.
Along with this
came another of the major
developments in the in the power plant
that is the turbo supercharger.
The turbo supercharger
was really quite a long time coming.
The French, a Frenchman by the name of Rato
and originally started to try and get it, but it took
the General Electric Company and Doctor Marsh
to get this thing, which made,
almost all the difference in the world.
The unusual
engineering accomplishments
of our
American aeronautical industry
began to bear fruit
in the late 20s and early 30s.
From a military point of view,
for the first time,
our various types
of combat planes
were unmatched abroad.
Moreover,
we found the solid beginning
of commercial air transport.
I remember
very well, in one evening
when Lindbergh and I were sitting
in a small restaurant in Cuba,
which we reached on the,
at the end of a Caribbean flight,
and using the menu for our paper,
we made sketches of a transatlantic clipper
that was back in ‘31, and a few years later,
the transatlantic clippers had been produced,
created, proved a success,
and as at present,
we know that transoceanic flying
is perfectly routine,
perfectly self
evident part of our modern life.
Jimmy Doolittle pioneered
trans continental nonstop flights.
In 1922
I flew from
Pablo Beach, Florida, near
Jacksonville to San Diego, California,
a distance of about 2200 miles in
22 hours and 20 minutes.
In 1931,
I flew from
Los Angeles,
California to New York
in 11 hours and 15 minutes.
That first flight was the first time that the continent
had ever been crossed in less than one day.
Second flight was the first time it had ever been
crossed in less than half a day.
Meantime,
the Army and the Navy air arms were making fast
strides in developing aviation.
They were flying
farther, higher, and faster.
The Air Corps was perfecting its concept of the bomber
as a long range strategic weapon.
In its exercises,
the Navy was demonstrating
the soundness of the carrier task force.
Individual officers were exploring
the use of new instruments and accessories, and testing
new theories to determine aircraft
reliability.
Two famous Army pilots,
Carl “Tooey” Spaatz and Ira Eaker, flew
seven days in 1929 without landing.
The question mark flight was an endeavor,
to use refueling as a means
of keeping the plane in the air for a long time.
The driving,
inspiration behind it. I,
believe, was Ira Eaker
on the, course between,
San Diego and, Burbank.
We passed over the home of Mrs.
Spaatz father and mother
And every time we passed over,
he would take my oldest
daughter, who was then,
about 6 or 7 out to see us go overhead.
And on the fifth or sixth
day, she, pointed this out to, Tattie
and said, “Tattie, there's your daddy up there.
He's been up in the air for 5 or 6 days-
for 5 days.”
Don't you think it's wonderful?
And, Tattie looked up and said,
no, I think it's dumb.
But the flight did prove
that refueling was practical.
General Eaker remembers an incident that forecast
the need for equipment which would permit blind
flying. In 1919,
flying in the Philippines from Manila to Stotsenburg,
our station at that time,
I ran into a typhoon, and the rain was so heavy
that I couldn't see the horizon.
I fell in a spin, and only the fact that
the Manila Bay was yellow
and the rain was darker
was I able to recover
from the spin and fly home.
To my
surprise, I found for the first time
that when you can't couldn't see, you couldn't fly.
I described this to Lieutenant Longfellow.
Later, General Longfellow
in the Second World War.
And we began some crude experiments
by hanging a plumbob down
across the instrument board and by putting a carpenter's
level on the line to run,
and got so that with these two aides,
we could fly through, cloud through
several thousand feet of cloud.
And that was one of the early days of
instrument flying.
Ten years after general Eaker’s Manila experience,
Jimmy Doolittle in association
with the Sperry company tackled the problem.
I made the first blind flight,
the first completely blind flight,
taking off under a hood,
plying a prescribed course
and landing back under the hood
without ever having seen out of the airplane.
This doesn't sound
very important now,
but out of that came
two instruments
the artificial horizon,
the directional gyro
that are today standard equipment
on every commercial airplane
and every combat military airplane.
The chain of development led back to General Eaker.
During the First Transcontinental
blind flight,
Bill Kepner
and I had a very practical
but unexpected demonstration
of the value of instrument flying.
My ship was a P-12 with a hood over it
and a similar ship, a P12 bill, followed behind
as the safety pilot,
so that he could tell me to turn right or left
to avoid the obstacles or other planes in flight.
At one point, he was giving me,
rather repeated instructions, and I could tell by the water
seeping into the under
the cover that we were in a heavy rainstorm.
So finally he said, hold your present course steadily.
I'm going to fly formation on you.
And 4 or 5 minutes he called on the radio again,
and he said, we've come through the storm
now, and I can see again.
During that period of time,
you, led us through because I couldn't see either.
The Great Depression had come,
the industry was hard hit, but nevertheless,
new companies developed to meet the increasing
complexity of the airplane
and its growing use of metals,
electronics and automatic controls.
Dutch Kendelberger
departed from Douglas to take over
North America. Companies were formed bearing the famous
names Bell, Fairchild, Northrop,
Beech, Cessna.
A World War Navy pilot, Leroy Grumman,
left Civil engineering to enter aviation.
We know that a conventional airplane
wouldn't,
get us in order.
We finally ended up
with the design of the first military fighter
with retractable landing gear,
for which we got a contract
and which proved to be highly successful,
having a speedy from excess
of any current Army or Navy fighter
of that time.
A pioneer aviation
journalist, Earl Findley, once went to see
the Wright Brothers’ contemporary, Thomas Edison.
I asked if I could have a short interview with Mr.
Edison and you had to get awful
close to him.
He put his hand up like this.
“Yeah?”
Mr. Edison?
What do
you think of the airplane?
Oh, airplane?
And this is after he had been talking
to Farman all morning
when the biplane
“never amount to a damn,”
till they get,
“they got to do it different.”
They have to have something
like a hummingbird
go up
and go
this way and come back this way, that way,
this way, and come down,” he said.
And, well, I,
“I tried it once,
ain't easy.”
And I got to doing something
else, but,
somebody is going to do it.
But that's remained
the opposite side of speed,
namely the aircraft that could fly
with no speed at all, that could take off from any spot
and would not be in need of an airport at all.
The 30s also were the years in which each summer,
fierce competition was held
to determine the best of the airplane breed.
Proof of the
individual airplanes, engines and pilots
came in the National Air Races,
with thousands looking on
the legendary pilots raced: Doolittle,
Heslop, Turner,
Whitman, Levere,
Bock, Newman, Fuller,
Jacqueline,
and fliers
still flew against the clock
across the continent,
across the seas,
and indeed around the world itself.
Falcon, Post
Gatty, Bird, Hughes, Amelia
Earhart and Wrong-Way Cork
as the hours swung late in the 30s,
the air races were curiously American,
for in Europe and Asia, aviation
was not a case of relatively puny efforts and sum
such as America, was providing
much of it from individual
man and companies.
Rather,
the vast resources
of powerful foreign nations
now were thrown behind the construction of air
forces designed to subdue the world
or to defend against
such aggression.
In the United States
under the impact of the depression,
Congress had scrapped the Moral Board procurement
plan and stopped providing appropriations
for 1800 military airplanes that had been scheduled.
On New Year's Day
in 1936, the Army Air Corps
had only 300 planes fit for war duty.
A year later,
we had dropped to sixth place
among powers and air combat strength.
Although our industry was judged to be technically
at least 18 months ahead of
foreign competition.
Eduard Daladier lamented,
if I had had 4000 airplanes,
there would have been no Munich.
France had squandered a first rate
air power while she sat behind the
Maginot Line.
The British, too, had
let the axis powers outstrip them
frantically, both countries
turned toward the United States, aware that
in the very act of running hard to meet crisis
after crisis, an emphasis
had been placed upon research,
experiment and development
which gave the United States
technically superior aviation equipment.
So the free world
turned to the United States
not only for airplanes,
but all of those weapons
embodying the modern arsenal.
To expand its facilities,
to train workers
and to adapt its job shop operations
to techniques of mass production, took time.
The tooling was still under
way when Germany struck.
Poland was shattered.
Holland
and Belgium were overrun.
France succumbed.
The gratitude of every home
in our island
in our Empire,
and indeed throughout the world,
except in the abodes
of the guilty,
goes out to the British airmen
who, undaunted by odds,
unwearied in their constant
challenge of mortal danger,
are turning the tide of war
by their prowess
and by their devotion.
Never in the field of
human conflict was so much owed
by so many
to so few.
Now the stubborn
British stood alone
over Poland, Holland,
Belgium and France,
Germany's Luftwaffe had demonstrated that
the airplane was a vital weapon of modern
offensive war.
In the skies above England,
the Royal Air Force now
demonstrated that the airplane
was a vital instrument of modern defensive war.
The struggle in
Europe shook America
a month after Congress had received a bill providing
only 61 combat airplanes for the Army Air Corps
for the following year,
President Roosevelt called for a long range
production program of 50,000
airplanes.
America slowly mobilized
its productive capacity.
It began to draft its young men.
It sought to train them
with wooden guns, cardboard
tanks, and mock airplanes until it could gear
its productive capacity to build the real thing.
The war spread.
Germany seized Norway
turned on its momentary
ally, Russia. Overran Greece.
Joined
its partner Italy in Africa and encouraged
its Asiatic ally, Japan.
Nothing could have convinced the people of America
more surely, of the bitter nature of modern war
than the sneak punch that Japan
threw at Pearl Harbor.
The nation fell to work to expand its token
battle forces and its production
into a great tide of men and machines.
To train men and to equip them
required long months,
particularly in aviation.
Immediately after the president's
pronouncement in 1940,
the licenses were given
to the automotive group,
largely to assist
in the production schedules which lie
ahead, and nevertheless,
until the end of 1943,
the equipment
which actually saw service
on the various fighting fronts
all over the world
were furnished entirely
by the aeronautical industry
because it was the fact
that it required
20 months
to two years for the average
automotive company to begin.
With their momentum at full flood,
the Japanese swept
through the Pacific.
Jimmy Doolittle and a little band of fliers
carried the war home to them and a joint
Navy Air Force operation.
I have frequently been asked
what was the purpose
and what was the effect of the first Tokyo raid?
Well, the purpose
was to take the war to Japan,
to show them that their
island was not inviolate.
The effect,
well the effect was
to cause them to divert
some of their military strength
that was needed in the South Pacific
to the protection of the home
islands.
The actual damaging effect
was very little.
Our airplanes were on the Hornet.
We were intercepted
just after daylight
on the morning of April 18th,
1942, by Japanese surface craft.
We took off immediately,
proceeded to target
and all but one of the planes
carried on to the coast of China.
We carried one ton of bombs
and each one of 16 airplanes.
We dropped 16 tons of bombs on 4
or 5 different targets.
When you realize that from the Marianas
and the later stages of the war,
B-29s were carrying
as much as 6000 tons of bombs
in one operation
and dropping them on a single target.
You realize how puny our effort was.
Slowly, the nation began
to regain control of the air and the sea lanes.
that it had lost in the Pacific.
The first great victory
was the battle of the Coral Sea.
Captain,
one of the Navy's ablest fliers and tacticians,
remembers that battle
and the subsequent Battle of Midway.
If you're going to apply the principle
of concentration of force, for example,
you've got to work with other people and have a
good system of teamwork.
I think that's
one of the reasons why
an attack by a carrier based air group
is so effective.
It's,
almost a simultaneous thing,
like a one, two punch in boxing
in the battle of the Coral
Sea, for example,
the dive
bombers and torpedo planes
and the fighters
came in almost simultaneously,
but the enemy concentrated
on the dive bombers
at the same time that let the torpedo
planes in.
And they did most of the damage.
On the other hand,
in the Battle of Midway later,
the enemy fighters concentrated on the torpedo
planes
and the dive
bombers came in almost unmolested.
I could see them coming down like a huge waterfall,
and there were practically no misses.
They were the ones that did
the job in the Battle of Midway.
With its growing stream
of trained soldiers, sailors and airmen equipped
with improved weapons, the United States
and her allies took the offensive.
Rommel was driven from Africa.
Sicily and Italy were invaded.
From their bases in England,
American bombers began
to strike at the heart of Germany
under the direction of General Spotts.
Strategic bombing was one of the ways
of winning the war,
and our fighter operations,
in a large measure,
developed into a covering operations
for the bombers.
In order to do that,
we had to have the development
that had taken place.
Good radio.
So the leader of the fighter
outfit could not only talk to his own men,
but be in communication
with the bombers and,
in turn get some guidance from,
ground control stations,
on the ground by radio.
This resulted
in a different type of fighting
and a different type of operation,
but it proved conclusively
in World War Two
that the airplane
had developed to such an extent
that air warfare
became a different war
altogether than land
and sea warfare.
Wellwood Beall,
a member of a team of designers
who created the B-17,
saw the airplane
altered from a defensive
to an offensive weapon.
The conception of
strategic air bombing,
was not,
fully developed at that point.
Originally, for instance, the,
B-17, was built,
to protect our coast
from an invading fleet,
and hence it was called a flying
fortress.
But, when we got to England,
it was obvious that,
to use these bombers,
to the greatest advantage
that we would have to,
not only get the enemy's,
supply lines,
but, the places
where he manufactured,
his, military equipment.
The British,
thought it would be easier to do it at night.
It had a much greater
chance of success
and would be less vulnerable
to enemy fighters.
And they called air bombing
saturation bombing.
They dropped large numbers of bombs
on, a large industrial area.
The Americans, however,
decided that with the B-17
and the B-24
that they could pinpoint,
specific targets.
For instance, the ball bearing factory in Swinford,
they, in order,
to do the job properly,
decided that it should be done a daytime
where their bombsight
was the most effective.
Step by step, the allies began sweeping
back across the reaches of the Pacific.
The terrible
cost
we took Rawa, Saipan,
Kwajalein, Guam, Bougainville
and the Philippines, setting the stage
for the aerial assault on Japan itself.
At home,
the United States had channeled
its great energies, and its vast technologies
to produce and flood the goods of war.
And now, with our allies,
our integrated sea, land
and Air Combat Team attacked.
You know.
No one in aviation
believes that aviation alone
won the war.
We do believe that the
war might not have been won
by ourselves and our allies.
Except that we had control
of the air.
The massive, intricate,
highly trained combat team that America had put together
at a stupendous cost dissolved
almost overnight.
A free people yielded
to a free impulse.
They demobilized their men and discarded
much of their equipment.
In the field of aviation alone,
they had built an incredible
96,318 airplanes
in the war year of 1944.
Two years later, the production had shrunk
to 1,669
planes. Where the civilian aviation
interest had turned to stunting and barnstorming
at the end of World War One.
Now the airplane had assumed the civilian role
of a fast passenger and freight carrier.
The network of airlines,
which had sprung up in the 20s and 30s,
was extended to every corner of the free World.
Four engine transports of ocean spanning range
sped millions of passengers
across the continent and across the seas.
The wartime DC four and constellation
were followed by faster, farther
ranging successors:
DC-6s,
advanced constellations,
Strato cruisers,
and such twin engine ships
as the 202 and 340.
In a time of spiraling costs
only air travel grew cheaper.
From fewer than 6000 passengers
the airlines had hauled in 1926,
they quickly rose to where
in 1952 they carried 24 million
passengers, 12
billion passenger miles.
The Wright brothers’
vision was still the goal of virtually
all men in aviation, such as Robert Gross,
whose industrial team produced
the constellation series.
Of course, it's obvious to,
I guess, everyone that
the airplane has been
preponderantly military
since its start many years ago.
But there are signs, particularly
in the last few years, that perhaps it wasn't
always going to be ponderantly a military weapon,
man, and science
must go forward hand in hand.
It can do a lot of things
this airplane, it can bring hundreds
of millions of people throughout the world
in intimate contact with one another,
and contact with one
another means understanding
and understanding
in the end, means peace.
[Announcing flights]
In the war's closing hours,
Germany had employed
guided missiles brutally,
but without decisive effect.
Simultaneously,
England and Germany
had put a few airplanes in the air, powered
by a radical new type of engine,
the jet turbine.
The jet became really important in aviation.
The accumulated engineering knowhow
that this country had built up with its pistonation
equipment suddenly became
very much less important.
This event was really a great
leveler
in engineering
background and potential for all countries,
and we had to start over again
to try to regain the supremacy
which we had in World War Two.
In their march across Germany,
Russia had seized Germany's
military tools and designs,
and many of the engineers who were developing the jet.
The Russians now
increasingly saw the Allied victory in which
they had been a partner as largely
their own.
The Western world was either bled
white by the war or demobilized.
Russia and its communist allies alone
kept their armies intact
their whole creed was one of force,
and they began imposing
that force on Poland,
Bulgaria, Romania
and Czechoslovakia.
Russia's abrupt
belligerence forced this country's attention
upon the air power we had let melt away.
For the third time in
little more than a generation,
the nation set about building
a modern air arm,
this one to be shaped
around the fantastic speeds
the gas turbine engine provided.
Then, in 1948,
when the Russians sealed off the land corridors
leading to western Berlin,
the United States, England and France
countered with a famous Berlin airlift
from their bases
outside the Iron Curtain,
a steady stream of airplanes
flew night and day, supplying West Berlin's 2
million residents with food, fuel and medicine.
Finally, the communists capitulated
and reopened the land corridor.
Then they sent their minions
into war in Korea.
There, the United Nations chose
to stand and fight.
It was a strange, bitter,
circumscribed war.
The Air Force's prime striking weapon,
its Strategic Air Command, was ruled out of bounds.
The first sustained jet
combat in history took place in a quadrangle
of sky up to 40,000ft above the Earth,
but always south of the Yalu
River.
Russia sent aloft a first rate
jet fighter, the MiG.
Only the Air Force's
saber from the United Nations
array of fighter planes could match it.
It was a war in which
transport airplanes flew
7000 miles to deliver material
and to return sick and wounded men,
and it was a war
in which the helicopter,
with its ability to fly, standing still and land
anywhere, did a multitude of jobs,
among them transporting literally
thousands of wounded from the battlefield
to area hospitals
for prompt surgical attention.
Under the impact of Korea,
the nation had begun again
to turn out modern aircraft in quantities.
Mundy
Peale, the chairman of the Industry’s association.
That we as an aircraft industry
are at present time
turning about 14,000 airplanes.
At the moment we are a healthy industry.
We have to pour back tremendous amount of funds
into research and development
funds that we earn
when we make the airplanes.
This is a very healthy thing.
It creates competition.
We want competition.
Dutch Kendelberger, whose organization
built the saber, pictures the sky ten miles
high as man flies at a speed approaching that of sound.
Today
we are flying at very great speeds and at very high altitudes.
As a matter
of fact, up in the area at which
a lot of the fighting is being done,
around 50,000ft.
We have a different world.
It's a thin
blue, dark blue air.
The sun
doesn't shine so readily because there's
nothing to reflect it.
There's no plane of reference
for the pilots, such as hills
or clouds or sky
and such an atmosphere as this
even a bomber is hard to see.
And the trouble that we are facing
the future is not the sound barrier.
We know how to fly through that
now. The thing that is bothering everybody
is the thermodynamic barrier.
The air flowing over an airplane at these
very high speeds by friction
will heat up the surface of the airplane.
As a matter of fact,
if we go to Mach number two, which is twice
the speed of sound at sea level,
the surface of the
airplane will get hot
very rapidly and
will stabilize at about 500 degrees.
Since ordinary aluminum alloy loses
half its strength by 350 degree,
and that even
titanium and steels
begin to give trouble
at 500 and 600 degrees,
it's obvious that we are in a great deal
of difficulty in the future.
There also are many things
like hydraulic fluid.
We don't know how to make hydraulic fluid
that won't boil away at this temperature.
We don't know how to make packings
that won’t seize at this temperature
of bearings or lubricants.
In fact, if they bubble
with which everybody is familiar
gets soft
and which loses its shape
and disappear at 300 degrees.
So we have ahead of us
a great deal of research and a long,
long time of trouble
before we are going to be going
anything like the speeds
at which our magazine
supplement writers,
seem to think
we are ready for tomorrow.
Modern test pilots who fly at sonic speeds
and incredible altitudes,
take an equally factual view
of their calling. Tex
Johnston sums up his philosophy
after putting the J-57
powered B-52 through its paces.
After
12 years of, testing.
Ten years in the
jet field
involving,
first jet airplane to fly in this country,
the B-59
first rocket airplane
to fly in the United States, the X-1.
Incidentally, the first airplane to fly
faster than the speed of sound.
The B-47,
the B-52,
I believe all the more.
and two old
things. First, that one test
flight is worth a thousand expert opinions,
and the other one for the flyboys,
an altitude above you
and runway behind you will never do you any
good.
Chuck Yeager, the first man
to fly through the sonic barrier.
And Bill Bridgman, a test pilot
who has flown almost twice the speed of sound
and has piloted a plane
at an altitude of 79,000ft, discussed
their calling and language peculiarly their own.
Certainly enjoyed the work.
I think lodging’s
the only safe way to get into that kind of flying.
It's a heck of a lot safer
take offs that’s for sure.
Yeah, and you burn so much fuel
when you take off
before you get up
to the altitude where the airplane can drop you.
And I actually, I personally think
that's the most fun involved in flight
is when the guy cut you loose, you're just hanging there
for a minute just like on a roller coaster.
Yeah, you're pretty close to the stall, too
when you came out of there weren’t you?
Yeah, we stalled at around 240
indicated, with the full fuel load.
So a one time I remember Jack Ridley
if we had a release failure,
and he dropped me out at about 180
indicated, and I didn't know which end was up for a while.
Well,
I know I was on the skyrocket when we first dropped out
you could kind of feel a stall
by watching the boom out there, the boom began
to shake was he was on the mean.
You see it bend. - You see it oscillate a little bit.
And so the airplane has evolved
from the Wrights, whose first flights
at Kittyhawk were at speeds hardly faster than an athlete
can run, to speeds today, where the Bridgemans
was the Yeagers and the Johnstons
traveled faster than a bullet.
Horizons far beyond
today's achievements
still beckon.
Can't find what you're looking for?
Get subtitles in any language from opensubtitles.com, and translate them here.