Prologue Historien om Hammond
Man stood up and walked. He heard a bird sing and whistled back
in exultant brotherhood
of living things. So did music’s sunrise come, for music is the voice
of man. Sound is nature’s
child—the buzz, the clap, the growl, the nightingale.
In another time at another place, a rain-wet kite climbed to
brave a snarling lightning
bolt. Lightning plunged instant answer back to key man’s mind to nature’s
power. Sparks are
here and were always there, but electricity is servant to the genius
of man.
The beginning of all things was in creation. Every advance is
debtor to that past, but each
forward in science and the arts is credit to the eyes that saw old things
in a new light
and combined known things in unknown ways. The minds of men who asked
the curious
“how” and the puzzled “why” took sounds and shaped them into music,
saw sparks and
tamed electricity.
The credit for every invention goes to the man who convinces
the world and not to the
many others who may have had the same idea. It was not a new idea in
the early 1930’s to
combine the ancient principles of music with the relatively new science
of electricity and make
the electron sing. But it was Laurens Hammond of Evanston, Illinois,
whose imaginative
combination of proven principles and whose stubborn perseverance give
him credit for
invention of the world’s first practical electrical musical instrument—the
Hammond Organ.
In hundreds of thousands of homes, in tens of thousands of churches,
in all those places
of worship, of relaxing solitude, of merriment and conviviality, the
multi-million-tongued
voice of the Hammond Organ speaks the history of many centuries, a story
of many parts.
Unremembered are the beginnings of music when a savage pounded on a
hollow log or heard his breath become harmony through a dry marsh reed.
Mythology tells how the Great God Pan pursued in love the nymph called
Syrinx but lost her when her sister nymphs turned her into a reed. Pan,
it was
told, made a pipe of that reed to sing his love in her memory.
The Pipes of Pan, or syrinx, was known long before recorded history.
And it was pipes
and moving air that produced music from the first known pipe organ invented
some 300 rears
before Christ by Ktesibios of Greek Alexandria. His hydraulus was a
collection of pipes of
varying lengths that produced sounds of different pitch and color when
air was forced through
them under pressure. The compressed air came from a bell immersed in
water, trapping air
beneath it. Assistants with muscle and great endurance kept the bell
supplied with air by
pumping on bellows.
This cumbersome but “scientific” apparatus continued to delight
its listeners through
the time of its playing at the Roman games in the reign of Cicero. Nero
was an accomplished
hydraulus player, and if he played anything while Rome burned, it was
the organ and not the
fiddle. The hydraulus was still played occasionafly in the middle ages.
Byzantium, where Istanbul now stands, became the first home of
the pneumatic pipe
organ that developed into the huge and expensive wind instrument still
played today. A monu-
ment erected at Byzantium some time before 393 shows an organ with two
boys standing on
bellows that supplied the pipes with air.
A well-developed organ industry was evidently prospering at Byzantium
in 757 when
envoys from the Emperor Constantine V brought the first one to Europe
as a gift to Pepin
the Short, father of Charlemagne. Fifty-five years later another organ,
a later and improved
model it can be presumed, was presented to Charlemagne.
The organ sound caught on it seems, for about the year 950 one
was built in Winchester
Cathedral in England. It had 400 pipes that were supplied with air by
fifty men working on
twenty-six huge bellows. It was played by two musicians pounding with
their fists on levers
and must have sounded like noon hour in a factory district. Not for
almost another 300
years was the keyboard, or manual, invented, and arrangements of levers
and valves devised
to replace the slides that controlled the flow of air.
It is curious to look back through time and observe the centuries
upon centuries that
were required to make the mechanism of the pipe organ a true musical
instrument. The first
known organ to have the present arrangement of black and white keys
was the one installed
in the Cathedral at Halberstadt in Germany in 1381. Its builders also
gave it a pedal keyboard,
an innovation that was not widely copied for another 400 years.
Looking backward, it may be strange to learn that scales were
played on keyboard
instruments with only two fingers until the 19th century. No one thought
of putting the other
fingers to work, for that was the approved—and only possible—way to
play the portative
organ. This was an instrument of the middle ages that was hung from
the neck, something like
an accordion is today. The left hand worked the bellows while the right
hand did its best to
support the organ and play its keyboard that extended awkwardly out
from the body.
Flemish and German organ builders in the late 1400’s and during
the early part of the
next century added solo stops with timbres imitative of other musical
instruments. Com-
binations also were added in this period which radically changed the
nature of the instrument
and the music it could produce. Before, all pipes of any one key sounded
at the same time
as in full organ manner.
The dawn of modern science is usually set at a date around 1600
when Newton, Kepler and
Galileo were making their historic conjectures and experiments. Eyes
everywhere opened
in amazement when old things were looked at in new ways. Change and
improvement became
proper and possible. The hard muscle work of operating an organ was
relieved by gears and
levers. The famous Praetorius, or baroque, organs were the fame of Europe.
By the end of the
17th century, Gottfried Silbermann in Dresden was building organs perhaps
never equalled.
And the nature of sound and music was subjected to its first truly scientific
investigation.
Robert Hooke of England
in the year 1618 demonstrated that musical tones
could be created from nothing more than a little cog wheel and a pasteboard
card. His toothed wheel, fastened to a revolving shaft, gave a distinctive
pitch
when a card was held against it. The faster the wheel turned, the greater
the
frequency of vibrations of the card and consequently the higher the
pitch.
Doubling the frequency of a note, he found, raised its pitch one octave.
“So what?” seems to have been the scientific reception to this
laboratory curiosity, for
it was another 150 years before the French physicist Savart fastened
numerous wheels with
varying number of teeth to a revolving shaft and investigated fully
the pitch of the various
notes when a card was held against the “sound generators.”
The early 1800’s produced an explosion of inventive and scientific
genius around the
western world . . . the first steamships, railroads, gasoline engine,
the steel plow, the reaper,
the electric bell, and the first electric motor. The time had come to
lay the groundwork that,
a hundred years later, would be melded into an electric organ by an
Illinois engineer.
The electrical properties of a spinning wheel became as fascinating
to men such as
Faraday, Henry, Barlow and Davenport as the sounds created earlier by
Hooke and Savart
had fascinated them. A Vermont blacksmith named Thomas Davenport had
heard by 1834
that Joseph Henry at the school now known as Princeton University had
been able to make a
wheel turn like a motor when the wheel was fed an electric current and
held near to a small
electromagnet. Henry’s motor was somewhat similar to the earlier laboratory
apparatus called
Barlow’s wheel. This wheel revolved when connected to a battery and
placed in the field of
an ordinary iron permanent magnet. Both primitive motors were based
on Oersted’s discovery
that the flow of every electric current creates a magnetic field around
it and on Faraday’s
proof that every moving magnetic field produces an electric voltage.
Davenport, pondering this strange reversible miracle, put four
electromagnets around
an iron wheel and made the first practical, patentable electric motor
in 1834.
About thirty years later Hermann von Helmholtz showed that any
ordinary musical
sound is really a mixture of a number of simpler ones. Every complex
tone consists of a funda-
mental plus a series of harmonic overtones.
All that was needed to create musical tones electrically lay
at hand by 1863. Except for an
early 20th century device called the telharmonium, the basic facts lay
largely forgotten
until 1934 when the world’s first commercially practical electric organ
was patented by
Laurens Hammond.
A German in Hamburg
invented, in 1895, an electric clock powered by a
synchronous motor that kept time by operating in phase with the alternating
current from a power plant. That same year, on January 11, Mrs. William
Andrew Hammond gave birth in Evanston, Illinois, to a son who was given
the name of Laurens, a family name dating back to Henry Laurens, president
of the Continental Congress. That two such disparate eVents in two such
distant places could
ever converge in one story is but another confirmation of the old cliche
that truth is stranger
than fiction.
Laurens Hammond was later to invent a synchronous electric clock
whose motor would
become an essential part of his electric organ. And he was to discover,
together with all his
clock competitors, that his patent had been superseded from the day
he was born by an
unknown tinkerer that year in Hamburg.
Young Hammond’s mother, with the unusual maiden name of Idea
Louise Strong, did
much to inculcate Laurens and his three sisters with the value of ideas.
Having observed
his increasing interest in science and invention, she encouraged him
at the age of 14 to present
his plan for an automatic automobile transmission to the chief engineer
of the Renault Motor
Car Company in Paris, where Mrs. Hammond and her children were living
at the time. But
that was 1909 when cars were new and a gear shift seemed good enough
for anyone. The re-
jection of his device, however, did not dampen Laurens’ dream of becoming
an inventor.
The late 19th and early 20th century were the heyday of inventors.
In rapid succession
there were the telegraph, the telephone, electric lights, electric Street
cars, elevators, motion
pictures, and even the hint of radio and television. It was all as exciting
to read about as it is
today for young, would-be astronauts to watch television pictures of
a walk in space. And as
a young boy in Switzerland, Germany and France, Laurens had opportunity
to read what the
great minds of Europe were producing in the amazing field of electricity.
Laurens’ mother had taken the children to Europe in 1898 following
the death of her
husband in order to pursue a career as a professional painter. Her work
took her first to Geneva,
then to Dresden, and finally to Paris where she stayed with her children
until their return to
Evanston in 1909.
Although Laurens Hammond still maintains that he cannot carry
a tune or play an in-
strument, despite his invention of one of the fastest growing musical
instruments, he was early
exposed to music. In Dresden, possibly, he first heard the organ—and
probably one designed by
the great Gottfried Silbermann some century and a half before him. He
also served as an
acolyte at St. Luke’s Episcopal Church in Evanston where more organ
music struck his ear.
But engineering, science and invention were his dream, whereas
one of his sisters became
a famous poetess, another a violoncellist, and the third a missionary
to China. He read every-
thing he could find on inventors, and the news was full of the works
of Edison, Henry Ford,
Nikola Tesla and others. When only sixteen years old, Laurens obtained
a patent on an im-
proved barometer that would sell for only a dollar, yet was so sensitive
in measuring air
pressure above sea level that it could register the difference in altitude
from the floor to the
top of his desk. While his invention found no ready market, it brought
him $300 and taught
the lesson that an invention alone is not enough; it needs a buyers’
market.
Hammond went on to college, enrolling in mechanical engineering
at Cornell University.
His interests were so broad and his talent so evident that he took an
advanced electrical engi-
neering examination by mistake, and passed it. He even worked out the
rudiments of a
hypothesis that in some respects anticipated Einstein’s theories of
relativity.
The sound of music
as a problem in physics and enginering was of small
Concern to the yuong Illinois student in those years preceding Amirica’s
entry
Into the first world war. His studies plus a foray at college journalism
and a
Nearly succesfull gambit with play writing kept him busy enough.
The play was a scenario for a movie he wrote in response to the
offer of a
hundred dollar prize. The contest was staged by movie actress Pearl
White who visited
Cornell’s Ithaca, New York, setting to film sequences for the famous
“Perils of Pauline”
in which she starred.
Hammond’s plot was considered too advanced for the day, but it
attracted the attention of
the great playwright, actor, and producer, David Belasco. This slight
contact with the world
of the theater and motion pictures was later to bend his thoughts to
an invention that brought
him his first substantial commercial success.
Music, meanwhile, had been moving steadily toward the electric
age, and it was the pipe
organ that was the center of most of the inventors’ interest. Electricity,
it seemed obvious,
might transform the cumbersome organ into an instrument that could be
played by one
person with relative ease.
By the dawn of the 20th century, the wind organ had been improved
by the addition of
pneumatically operated devices linking the keyboards and the pipes.
Charles B. Barker had
developed a system of detachable electromagnets to assist his pneumatic
organ system. And
in 1889 Robert Hope Jones left his telephone company job to begin work
on the first organ to
use electricity to produce the wind supply and operate the complex machinery.
In 1909, the year Laurens Hammond returned with his family from
Europe, an inventor
named Thadeus Cahill had built what was undoubtedly the most curious
and impractical
musical “machine” ever constructed. Called an organ by its inventor,
it was actually a huge
room filled with electric generators of many sizes, some taller than
a man. The principle of
operation was based on Faraday’s dynamo—a wheel mechanically revolved
between poles
of a magnet creates electrical waves that vary in frequency, or pitch,
depending on the size of
the wheel and the rate at which it spins.
It seemed clear to Cahill that if he built enough generators,
or dynamos, and built them
just right, he could duplicate the wave patterns produced by an organ’s
pipes. Unfortunately
for Cahill, he didn’t have the developed radio amplifying tube that
was invented by Lee
de Forest only in 1906, so the best he could do was to hook his gargantuan
steam generator
assemblage to a telephone.

The
weird apparatus was actually used
for a while after its introduction in 1908 to
provide so-called organ music to telephone
subscribers in New York. The whole electro-
magnetic comedy came to an abrupt, verbal
egg-throwing end when, it is said, the finan-
cier, J. P. Morgan, complained to the phone
company that Cahill’s Telharmonium drowned
out one of his very important telephone con-
versations.
The summer
of 1914 rained on most of the world the
bloodiest war that history to then had known. The course
of events for nations and for men changed beyond speculation of what
might have been. But for the intervention of
World War I, Laurens Hammond might have continued in his job at the
McCord Radiator Company in Detroit where he had gone after
graduation from Cornell.
First
profitable invertion of Laurens Hammond
was a 3 D viewer for the Ziegfeld Follies.
Instead,
he went to France with the Army, returning after the armistice for a
two-year period of employment as chief engineer at the Gray Motor Company
in Detroit,
Michigan, a manufacturer of marine engines.
The interruptions of war, however, did nothing to lessen his
interest in tinkering,
designing, and inventing. Annoyed by the loud ticking of spring driven
clocks, he invented,
in 1920, a “tickless” clock in which the noisy motor was enclosed in
a soundproof box.
Marketed by the Ansonia Clock Company, it provided him with enough money
to set himself
up in business as an inventor.., and to turn his mind to the ways of
clocks and the speculation
of how electricity could perform this mundane but precision job.
Unknown to Hammond then was the 1914 patent application for an
electric clock devised
by Arthur Poole. Manufactured by Westinghouse, it survived as a competitor
to the clock that
would one day make the Hammond name known around the world.
The Hammond Organ perhaps had its remote beginning three years
after the war when
Hammond rented a loft in New York City and set up his own laboratory.
There he developed a
synchronous motor that revolved in phase with the 60 cycle electric
power plant alternating
current then becoming standard.
The following year, 1922, the tiny, efficient motor became an
essential element of the first
three dimensional movies. Hammond filmed scenes through two cameras
fixed at the distance
separating human eyes. When thrown on the screen, the overlapping pictures
were viewed as a
single, 3-D picture through a motor-powered device with a revolving
shutter that alternately
exposed the scene to one eye and then the other.
The system was sold to the Selwyn Theater in New York City through
the Teleview
Corporation financed by wealthy Chicagoan John Borden, whose daughter
later became the
wif~ of Adlai Stevenson. Reception by audiences and critics was enthusiastic,
but the venture
collapsed in thirty days for lack of continued support by the
movie industry and the public.
Hammond then made the system more economical by simplifying the viewing
device to
a pair of cardboard spectacles with one eyepiece red and the other green.
It was this 3-D
version that was revived for a short while in the 1930’s and again in
the 1950’s. In 1922 it was
used for spectacular stage effects in the Ziegfeld Follies.
Income from the Ziegfeld Follies invention permitted Hammond
to marry and take a
leisurely tour of Europe. But by 1925 the revenue ceased and it was
necessary, with a child
on the way in their Evanston home, to find work. An idea for cutting
electrical bills for New
York theaters was washed out when General Electric found a forgotten
patent covering the
invention. A process for refining sugar with 80 percent efficiency collapsed
when someone else
patented a 79 percent efficient method. The several patents Hammond
had obtained—including
one for an electric clock—seemed unmarketable.
Although Western Electric offered him a job, Hammond decided
to stay in the inventing
field. His choice was partly determined by a meeting with E. F. Andrews
of the Andrews
Radio Company. They found they thought alike and so, after liquidating
the tottering radio
firm, founded the Andrews-Hammond Laboratory.
Now thinking about radio, they sought some way to operate those
early day battery-
powered receivers with household alternating current. The solution was
the “A-Box” that
changed alternating to direct current for the radio.
Conceived in their little laboratory over an Evanston, Illinois,
grocery store, the A-Box
battery eliminator was soon in production.
A radio industry show in 1926 was the scene of recruitment of
an employee badly needed
by the research-oriented Hammond and Andrews—a salesman. Emory Penny,
demonstrating
his sales ability at the show, caught the eye of Laurens Hammond. Quickly
agreement was
reached that Penny would come to Evanston as sales manager of the A-Box
Company. Also
recruited in this period was a businessman whose organizational and
administrative abilities
were to prove of inestimable value to Hammond enterprises—Forrest H.
Redmond. In sum-
marizing the characteristics of this operational “chief”, veteran employees
say “Redmond
ran a taut ship.”
Redmond as vice president and Penny as sales manager of the A-Box
Company soon
demonstrated the business ability that was to make the Hammond Organ
the industry leader.
Penny’s phenomenal sales ability helped run up profits of $175,000 until,
once again, the
O seemingly inevitable happened. Disaster struck when complaints began
to flow in that the
converters were exploding, throwing acid on owners’ rugs and furniture.
And then the radio
industry brought out receivers that could be plugged directly into wall
outlets. The patent
was sold to the Edison Storage Battery Company, but it seemed that everything
Laurens
Hammond touched was doomed to failure or very brief survival.
In 1928, George H. Stephens became Hammond’s chief engineer,
a position he held
until his retirement in 1959. In that capacity, he established the Hammond
reputation for
outstanding quality in all its products which has distinguished the
company over the years.
He was directly responsible for the final manufacturing design of all
Hammond products,
ranging from clocks and electric bridge tables to electric organs and
World War II aircraft
control devices. He was granted more than 20 patents in these and allied
fields.
The lights had always burned late in Laurens Hammond’s laboratory
and one result
was a perfected electric clock using ideas from his sound-proofed “tickless”
clock and his
synchronous electric motor. In 1928, the Hammond Clock Company was incorporated
under
the laws of Illinois with Redmond as general manager andPenny as sales
manager. The
factory was still a loft over an Evanston grocery store.
The
Hammond Clock was the original product of the company which changed
its name to Hammond Instrument
Company
in 1937 and to Hammond Organ Company in 1953.
Hammond’s fortunes at last began to soar, even though the competition
was stiff. West-
inghouse was marketing an electric clock based on the Arthur Poole patent
and General
Electric was selling one invented by Henry Ellis Warren. The Hammond
Clock, however,
was simpler to manufacture and hence less expensive. By 1931, the Hammond
Clock Company,
incorporated under the laws of Delaware since 1930, had profits of S507,720
(and, if you can
remember, Federal Income Taxes in that day were only $69,627’).
It was in 1931 that a man joined the company who was to play
an important role in the
manufacturing of Hammond products. First as works manager and later
as vice-president for
manufacturing, Arnold H. Lesser made an important contribution both
to manufacturing
operations and to fostering good employee relations.
Employees still with the company from its earliest days recall
the difficulty with the clocks
because of the inability or disinterest of the power companies in keeping
their current at a
steady 60 cycles a second. The ingenious solution was to have Hammond
salesmen give an
electric clock to every electric utility engineer in charge of the current’s
frequency. Thus, to
be sure his clock would operate perfectly, in his home, the engineer
would keep constant
check of his generating equipment at the power plant.
The company was prospering in 1930 as the clouds of the Great
Depression drew ever
closer. The factory had been moved from Evanston to a plant on Ravenswood
Avenue in
Chicago and then to a five-story red brick building at 2915 North Western
Avenue, a location
now one of many Hammond Organ manufacturing sites.
The Hammond Electric Bridge Table made
its debut in 1932.
Competition, however, was spelled by many names. So glutted was
the market with
electric clocks—and so penniless much of America’s population—that the
bottom fell out.
One hundred and fifty clock companies went out of business in 1932 and
dumped their re-
maining inventory for whatever price they could get.
The Hammond Clock Company shook to its financial foundations.
From net earnings
of $507,720 for the fiscal year ended March 31, 1931, gloom descended
by the next March
end to a net loss of $34,129. By 1933, the net loss was $240,844.
Wrigley chewing gum helped a little by using a half million 89~
plastic Hammond Clocks
as premiums, but still the effect on the Hammond treasury was insignificant.
The company was possibly saved from the pit of bankruptcy by
the head clock salesman,
William Hetznecker. He obtained a $75,000 advance on a sizeable order
from the Postal
Telegraph Company for the large, 12- to 15-inch dial clocks that are
still often seen keeping
accurate time in many storefronts across the nation.
The nation was crying
in despair and alarm in the summer of 1931. Banks
were failing by the scores. Some 5 million workers were unemployed,
compar-
able to having almost 8 million out of work in today’s larger population.
President Hoover had started emergency relief and public works projects.
Jobs were hard to find.
Graduated that spring from Chicago’s Schurz High School was Stanley
M. Sorensen.
He was interested in accounting as a step toward a business career,
but it was plain that he
would have to get a job, save his money, and make his way on his own.
He made his way to a series of employers with discouraging results
until he entered the
door of the Hammond Clock Company. Yes, a mail boy was needed. Would
he go to work
for eight dollars a week? With only a moment’s hesitation about this
bare minimal pay,
Sorensen accepted. He knew that at only 16 years of age he was competing
with men with
hungry families. In 1955, Sorensen was to become president of Hammond
Organ Company.
Laurens Hammond, in the summer of 1932, perfected a device that shuffled
a pack of
cards into four piles and had decided to build the mechanism into a
bridge table.
The bridge table was patented that November and 14,000 were made and
sold by Christmas
at the rather high depression era price of $25, but the line was discontinued,
primarily because
the national income had fallen to 60 percent of its 1929 level.
Laurens Hammond was
an avid and acute reader with a remarkable memory for playing
information, even in areas remote from his mechanical engineering education
and his interest in electricity and other physical phenomena. His research
into
areas of new interest was thorough.
Undoubtedly
by 1933 Hammond had a reading acquaintance with developments
in electrical and electronic production of musical sound. Duddel had
demonstrated
pure electronic musical tone generation in 1899 and Cahill’s powerplant-size
electric organ
had received wide publicity.
Names prominent in this work included Miller, Bethenod, DeForest,
Mager, Coupleaux
and Givelet, Vierling and Kock, Langer, Helberger and Lertes. Theremin
had developed an
electric musical instrument bearing his name, and Telefunken in Germany
had marketed the
Trautonium. By 1931, Ranger’s pipeless organ was played for a time on
radio station WOR
in Newark, New Jersey. Hoschke had developed what he called the Orgatron,
an electrically
powered windblown harmonium reed organ. And in Cincinnati, Ohio, Thomas
George, a
young telephone engineer and amateur organist, was building an electronic
organ as a hobby
in his spare time.
The wind pipe organ that was precursor to the Hammond Organ had
experienced a re-
vival of interest during the period of the silent movies when it was
used to accompany the
action on the screen. Improvements had been concentrated on the development
of imitative
sounds and new and unusual “noises.” As more and more sound effects
were demanded, key-
boards and pipes multiplied. Laymen were entranced with the skill of
an organist who could
control all the keys and stops and pedals of an instrument whose console
seemed to approach
the appearance of the end of a football bowl. Architects were as challenged
in finding space
for the pipes as they were in arranging seating room for the audience.
The disease of pipe organ gigantism probably began at the St.
Louis Fair of 1904. An
organ installed there, and called quite correctly at the time the “world’s
greatest organ,
had five manuals, 232 stops and 18,000 pipes. It was later moved to
the John Wanamaker
store in Philadelphia where, in 1917, it was approximately doubled in
size. But even it had to
yield its title in 1932 to the organ installed in Convention Hall at
Atlantic City, New Jersey.
This behemoth had seven manuals, 1,233 stops and 32,882 pipes. Clearly
something a bit
more compact was desirable.
In the centuries of the developing and changing pipe organ, the
music played on it changed
in many ways, too. For some unexplained reason, music manuscripts used
by orcanists did
not survive the ages preceding the 14th century, but music historians
speculate that the music
was probably purely vocal in nature and with just one melody. The melody
may occasionally
have been augmented by a second part, as is indicated by a 9th century
illustration of a
second player.
The introduction in the 14th century of polyphonic playing on
keyboard instruments
greatly influenced changes in the wind organ over some 200 years. The
exciting discovery of
the 16th century was the sound- of mixed and contrasting timbres created
by the solo stops,
or slides, that controlled the wind. These counterbalance the antipolyphonic
fifths and even
thirds of the compound stops. The music was thus given a tonal quality
that is still regarded
as the organ’s most distinctive feature, whether the sound is produced
by wind or by electricity.
By 1703 when the first known organ in America was played in Philadelphia,
the tone
colors had become softened while retaining the transparent, silvery
timbre. Vibrato effects
were popular, and invention of the crescendo pedal, or Nag’s Head Swell,
gave organ music
the radical sound characteristic of the romantic period that lasted
to about 1840. After 1900,
organ builders and players returned to the Baroque organ of Praetorius
and Silbermann and
the powerful polyphony of Handel, Bach and Couperin.
About 1800 the German priest and organist, Abbe Vogler, built
an organ that avoided
mixtures but increased expression with the aim of giving a true picture
of a well-organized
orchestra. Musicians of the day, however, rejected it because it achieved
exactly what Vogler
intended, an ironic reaction that was to be encountered in somewhat
similar form by
Hammond Organ Company.
In time, the organ did enter the concert hall after centuries
of being almost exclusively a
church instrument. As a consequence, the principal stops yanished in
a maze of solo stops
that imitated orchestral instruments. Our present century brought the
church and theater
organ to its present and perhaps final stage of development just at
the threshold of introduc-
tion of the electric organ.
The exact point at which a new idea is conceived is usually difficult
if not impossible to
pinpoint. That Laurens Hammond turned his non-musical mind to the invention
of electric
music, howeyer, is generally traced to his search for products that
could use his synchronous
motor.
The constant sound of phonograph record music from the fourth
floor test room plus the
weird electrical sounds squeaking from Hammond’s third floor lab at
the Western Avenue
plant literally made the building tremble at times. The music became
a din that hardly in-
creased the efficiency of employees in the company’s grim financial
year of 1933. None but a
trained musician could filter out a single note from the welter of musical
tones.
One musician did. He was William L. Lahey, assistant treasurer,
and also organist at
St. Christopher’s Episcopal Church in Chicago’s contiguous western suburb
of Oak Park.
At the end of one particularly ear-shattering day, Hammond approached
Lahey. “Bill,” he
asked, “did you hear any unusual sound distinctly today?” Lahey said
that he had noted
something, a flute sound. “Well,” replied Hammond, “I’ve made an electric
flute.”
That one note of the flute, the wind organ’s first solo stop
of more than 400 years earlier,
became the genesis of the electric organ.
The heart of the musical apparatus heard from the third floor
laboratory was a tone
wheel generator. About the size of a silver dollar, the wheel was made
with a patterned edge
of protruding humps or rounded, cog-like projections. In principle not
unlike the mechanical
tone wheels of Hooke in 1681 and of Savart in 1830, Hammond’s wheel
revolved in front of
an electromagnet instead of a paperboard card.
As those early electrical experimenters Oerstedt, Faraday and
Henry had shown, moving
metal in the field of a magnet produces an electrical current. The disturbance
of the magnetic
lines around the magnet varies in nature and intensity with the speed
and distance of the
wheel. It was Hammond’s theory that bumps on the rim of the wheel would
disturb the
magnetic field just as well as moving the wheel forward and backward
or changing its size.
And it worked. By winding a wire around the magnet he was able
to pick up this induced
fluctuating current and feed it into a radio amplifier. There the tiny
current was built up to a
level where it would work a loudspeaker and disturb the air in a room
so that human ears
could pick up the sound waves.
He had generated electricity just as many before him had done,
but he had discovered
how to evoke exactly those electrical wave patterns that could be converted
to musical notes.
And the basic apparatus was as simple as a cog wheel on a shaft turned
by a synchronous
motor. Yet a single pure note of the musical scale, or even all the
notes, could not produce the
multi-wave sounds that are the essence of music.
The group of engineers that was assembled to help in what seemed
the completely im-
possible job of duplicating all the sounds of a pipe organ found complexities
crowding them
out of the lab. At one time there was an assemblage of enough tone wheel
generators, switches,
and wiring to stock a warehouse.
This apparatus produced music of a sort but it hardly met Hammond’s
specifications for
a relatively inexpensive instrument of rugged construction, easy to
care for and, hopefully
then, of a size “small enough to carry in the back seat of a taxicab.”
One day Hammond bought a second-hand piano for $15 and had it
carted to his lab.
He dismantled it, saving only the keyboard, which he equipped with simple
switches connect-
ing each key to the two wires that led across the room to a threaded
maze of circuitry.
Then occurred one of those fortuitous discoveries that have so
often led to great inven-
tions and progressive theories. The wires leading from the little, chisel-nosed
magnets that
generated pure frequency tones were hooked together and attached to
one of the piano keys.
A new sound was produced! One tone blended with the other to produce
a third and mote
complex wave pattern. Another generator’s sound was added, then another,
until it became
certain that a combination of the right wire connections could build
millions of tones from a
limited number of generator wheels. All that remained to be done was
to do it.
All through the remainder of 1933 and into 1934 the days of work
were intense and long.
And it was not enough to produce pleasant and recognizable sounds. They
must be con-
nected to a keyboard that musicians would accept. The previously demonstrated
electronic
instrument that was played by waving the hands near its antennae, the
Theremin, never
became a generally accepted instrument.
After months of laborious experimentation, Hammond and his aides
concluded that 91
tone wheels of different shapes were sufficient to produce all the sounds
required for the com-
binations most pleasant and familiar to the human ear. However, it was
necessary that they
revolve at different speeds, so precisley accurate gearing had to be
developed to transmit the
power from a single shaft to each wheel. Hammond’s “flea power” synchronous
motor,
rated at oniy about one one-hundredth of a horsepower, kept the shaft
spinning at a constant
speed. Only when a key on the manual was depressed would a series of
switches close and send
a combination of tone wheel sounds to the amplifier and on to the loudspeaker.
For example,
the sound from the wheel whose humps passed the magnet at the rate of
440 a second pro-
duced the international standard note of “A.”
Pure, single wave notes, or fundamentals, produce recognizable
and acceptable music.
However, like the relatively pure notes of the flute, such music can
become monotonous and
strident unless “mellowed” or colored by other sounds such as that of
the violin with its many
harmonics. The builders of the first Hammond Organ knew they would have
to make these
other sounds, above and below the fundamental, available to the player.
And they knew that
the volume or intensity of each tone would have to be controlled.
The solution was found in a complexity of some 1,500 tiny switches
with long-wearing
paladium contact points and eight-and-a-half miles of wire, some as
thin as a human hair.
Each key on the manual depressed nine switches. Each switch was connected
to different
drawbars situated above the keyboard. It is these unique Hammond harmonic
drawbars
that permitted the Hammond player to mix fundamental tones with overtones
and control the
volume of each of these ingredients in the musical melange of sound.
Sometimes called
“tonebars”, they can be set to produce millions of different tones.
The testing of the
first prototype model began in 1933 when Lahey came from
his treasury division office, pulled up a bench, and played Brahms’
First
Symphony. Soon two organist-typists were employed to take turns playing
the
instrument hour after hour and day after day. News of the miraculous
invention
leaked out and visitors from many parts of the world dropped in at Hammond’s
Western Avenue plant to listen in admiration.
As winter came, the organ builders focused all efforts on perfecting
the mechanism of the
tone generator, the circuits that carried the miniscule current from
the 91 magnets, the trans-
ormer that blended the tones, and the amplifier and speaker that produced
the sound of music.
It was a race against a rapidly mounting company deficit and against
the possibility that some
other inventor might design a marketable electro-mechanical or electronic
organ.
Misfortune seemed once again to shadow Laurens Hammond.The treasurer’s
projection indi-
cated that the company would lose almost a quarter of a million dollars
for the fiscal year.
By January of 1934 the time for action could no longer be delayed.
Hammond packed up
the “packing box prototype” organ and took it directly to the United
States patent office in
Washington, D.C. There it was set up in the building’s basement amidst
the plans and models
of many an unsuccessful invention.
Patent office officials were more than usually attentive. They
knew of the many previous
attempts to build an electric organ, and they were interested in doing
their utmost to push
into production any product that gave even slight promise of providing
jobs for workers.
As the organist began to play, the rich tones filtered through the building,
attracting to the
basement a crowd of employees from the upper floors. It was not difficult
to predict that the
originality and worth of Hammond’s invention would lead to quick approval.
The patent was
granted, in almost record time, on April 24, 1934.
The world’s first practical electric organ was scarcely back
in Chicago when, on February
7, 1934, two engineers from the Ford Motor Company arrived with instructions
from Henry
Ford himself. They were to survey the field and determine whether they
could build an electric
organ for the music-loving inventor of the Ford automobile. When they
heard the Hammond
Organ and examined its design, they knew that their job had been done
for them. Their report
to Ford brought forth the first order for the musical instrument that
was not yet in production.
Delivery of one of the first models bff the line was promised following
public introduction.
By the fall a few hand-built demonstration models had been completed
and the perform-
ance was so satisfactory that tools and dies for production were ordered.
Cabinetmakers,
electricians, electronic
engineers, machine operators and assemblers were put to work. By
spring a sizeable stock of Hammond Organs had been produced, tested,
and boxed for delivery.
The company deficit had improved from $240,844 in 1933 to a loss of
$137,176 for the fiscal
year ended March 31, 1934, because of improving clock sales. But the
new musical instrument
was to save the day and change a clock company into an electric organ
manufacturer.
Active in the development of the organ in its first year was
Milwaukeean John Hanert. As a youth he had played pipe organ accompaniment
for silent movies and later gone to work for Captain Ranger who invented
the vacuum tube organ that was demonstrated briefly in the early 1930’s.
Hanert, in 1934, read in the paper about the Hammond Organ patent
and decided he would like to be a member of the Hammond research team.
Because of his knowledge of music and electrical and electronic engineering,
he was employed as a research engineer. His inventive mind produced
many Hammond innovations—the Solovox, the vibrato system, the Extravoice
and the pedal solo unit. His vibrato system was the first that could
be used with tone generators of the wheel type. In all, his patents
totaled 57. Undoubtedly worth recalling, for sheer prodigious inventiveness
and hard work, was his wartime device he called an automatic orchestra.
Full orchestra sounds were actually created
under the direction of a central “electric brain’
conductor that, fantastic for the time, read directly from musical scores
written with a special
pencil. Impractical for production, it was a marvel of ingenuity and
complexit Hanert, who had served the company for 28 years, was vice
president for research at the time of his tragic death in an auto accident
in 1962.
Emory Penny, sales
manager since the days of the unpredictably explosive
A-Box,
and John Hanert were selected to present the new organ to the public.
Loading one of the first units produced into a battered Ford panel truck.
they
set out for New York and the first (and only) Industrial Arts Exposition
in
Radio City’s RCA building. But on the way they were to stop off in Detroit
and give a demonstration for the company’s first customer—Henry Ford.
Early rising Ford met early arriving Penny and Hanert at the
Dearborn Laboratories
which they had reached along rough and muddy roads that gave the electric
organ an un-
intended road test for durability. Reluctantly following directions
to drive their truck into a
building with gleaming oak floors, they patiently waited half the day
for the motor tycoon to
give their organ a hearing. Their stay, hardly relieved by Ford’s practicing
hill-billy band
and a lunch of grueling soybean dishes, ended with an audience that
produced an unexpected
order for six organs.
One of the Ford organs was exhibited for more than a quarter
of a century in Ford’s
Greenfield Museum in Dearborn until consumed in a fire that destroyed
many “firsts” of
American industry. During those years it was seldom idle, however, for
Henry Ford routed it
through all of his plants and loaned it for many worthwhile causes.
The road from Detroit lay straight to New York City where, on
April 15, 1935, the
Hammond electric organ was unveiled to nearly unanimous critical acclaim.
Pietro A. Yon,
organist of New York City’s St. Patrick Cathedral, and Fritz Reiner,
later conductor of the
Chicago Symphony, took turns at the keyboard, as did George Gershwin
who immediately
ordered one for his own use. Metropolitan Opera stars Rosa Ponselle
and Giovanni Martinelli
sang to the Hammond Organ’s accompaniment that day, while Deems Taylor
looked in approvingly.
The list of top flight musicians who
took the Hammond to heart and home
reads like a directory of concert and radio
stars . . . Leopold Stokowski, Walter
Damrosch, Sir Thomas Beecham, Roger
Wolfe Kahn, Rudy Vallee, Lawrence Welk,
Hal Kemp and many another. Production
and delivery of organs was more the prob-
lem in those first months of 1935 than
selling. Organ demonstrations were arranged
at such public places as skating rinks and
race tracks. These public showings created
the headline news that popularized the
instrument.
The company’s first advertisement in
the April 25th issue of Musical America
magazine was, with its dignified, institu-
tional style message and layout, in sharp
contrast with the publicity stunts. “A nota-
ble musical development,” the ad began.
“The Hammond Organ is a new musical
instrument. Yet it is built to conform
to established pipe organ standards, requires
pipe
organ technique of the musician who market until after World War II.
plays it, and produces the entire range of
tone coloring necessary for the rendition,
without sacrifice, of the great works of clas-
sical organ literature. In addition, it permits many tone colors never
before heard on any musical instrument.
It is installed by plugging into an electric light socket
The first demonstration
models were plugged into light sockets over much
of the nation during that first year. Penny, applying the same fervor
to the
organ that he had to the selling of clocks and bridge tables, piled
up orders
for 1,400 organs as he visited one music dealer after another from coast
to coast.
Prices starting at
$1,250 would have
seemed likely to discourage depression era
buyers, but the cost was actually negligible
compared to the heavy investment required
for a traditional pipe organ. And of great
sales value, aside from the instrument’s in-
stantly popular sound, was the fact that the
Hammond Organ never required tuning and
its maintenance was little more than an oc-
casional drop or two of oil.
Penny worked long and hard to place
the new Hammond line with leading musik
dealers. In New York City, Chicago, Los
Angeles, San Francisco and Houston, how-
ever, company-owned and operated studios
were the chosen alternative.
One of the first to stand enthralled in the lobby of the Hammcnd
Clock Company on
Western Avenue as the new electrical instrument was played was Mitt
Herth. He had spent
his last 15 cents for carfare to see and hear this wonder of the day.
Not long after, in August,
1935, stony broke, he hitched a ride to Gary, Indiana, to audition as
organist at radio station
WIND. He got the job, and, for 30 years has been “married to the Hammond.”
Herth’s staccato style of playing the Hammond on WIND and other
radio stations
caught on quickly and became the distinguishing characteristic of his
work. His “Stomping
at the Savoy” recording of 1936 was the first of many discs that helped
build his fame as a
leading entertainer of theater, radio and night clubs.
The honor of owning the first Hammond Organ has been a matter
of controversy, with
George Gershwin being accorded the title. But in actuality, the Hammond
instrument with
serial Number One was delivered to Kansas City and sold to the Paseo
Methodist Church.
More than a dozen years later, Reverend Edward W. Potts wrote the company
that upkeep
on the organ had amounted only to a new set of tubes for the amplifier.
. . but he added that
he might soon need to order another can of oil!
The
Paseo organ has now been replaced by a later model, but Hammond Number
One
is still performing. Twenty-five hundred organs were produced without
any change in the model.
The Swell and Great manuals each had 61 keys and there was a 25 note
pedal
keyboard. There were 36 harmonic drawbars, two sets of nine for each
manual,
and two drawbars for the foot pedals to control the 8’ and 16’ organ
tones.
In addition there were 18 preset keys that enabled the organist to switch
instantly to the instrumental
or other voice he desired without setting the harmonic drawbars.
The 359 pound instrument also had one expression pedal controlling
the Swell, Great
and Pedal keyboards, and there was one adjustable tremulant for all
three. Alt this was con-
tained in a console, or cabinet, that was only a fraction over four
feet wide, three feet high
and two feet deep. “Church organ in a packing box” was a reasonably
exact description.
A second model was introduced in 1936, the only change being
a new case with some-
what different woodwork. A third model for the church market was virtually
the same. These
early models changed the old clock company’s deficit of $38,256 in 1935
to a profit of $228,393
in 1936... and the March year end figure in 1937 was a positive $364,680.
Beginning in 1937, a series of new models was introduced, each
designed to meet special
marketing requirements.
Business was booming in 1937 for Hammond despite another slump
in the general econ-
omy. The company was still selling clocks, but it was apparent that
organs would be a sub-
stantial part of the company’s business, so the company name was changed
to the Hammond
Instrument Company to cover any additional products which might be made
in the future.
An additional plant was put into production on Chicago’s Bloomingdate
Avenue and a
warehouse leased on George Street.
The two Hammond “Men of the Year” could hardly have been so described
at the time,
although one has already appeared in this story—Thomas George. George’s
efforts to perfect
an organ that generated tone from radio vacuum tubes had reached one
stage of fruition
and he had applied for a patent. But finding no manufacturer rushing
to him with marketing
plans, he came to Hammond for a job. His period of services to the company
extended over
a period of seven years until he resigned in 1943. After years of negotiations,
he eventually
succeeded in having his organ built and marketed under his given name
of Thomas. Some
20 years later he returned to the Hammond fold in the role of a consultant,
a position he
still holds in 1965.
The other new employee who joined the Hammond staff in 1937 was
John A. Volkober
who started as an office boy. In 1965, he was named president of Hammond
Organ Company
when Sorensen became chairman of the board.
The term “routine” might have been applied to the Hammond business
in 1937 until,
one day, a “time bomb” communication was received. It was a so-called
stipulation from the
Federal Trade Commission asserting that certain statements in Hammond
advertising were
not completely accurate.
The complaint, in general, said that the Hammond instrument was
not an “organ” and
that it could not produce an “infinite number” of tone variations. Laurens
Hammond, more
the self-effacing and quiet inventor than a public pugilist, nevertheless
decided to fight. He
was a participant in one of the most amazing events in the history of
music.
The FTC had decided to have an impartial panel listen to a $75,000
pipe organ and a
$2,600 Hammond installation to determine whether the panelists could
tell the difference.
Players of both instruments were hidden from view by screens and the
Hammond speaker
cabinets were concealed among the organ pipes at the University of Chicago
Chapel.
A panel of 15 students and 15 professional musicians was asked
to record whether it
was the pipe organ or the Hammond electric organ that was being played
in a number of
test pieces. That these jurors were wrong in their answers ten times
out of 30 was indication
enough that the Hammond had carved itself a permanent niche in the musical
instrument
field. A year later the FTC decided that the company could call its
instrument an organ but
must desist from claiming an infinite number of tones . . . for, after
all, it could produce
only 253,000,000 tones!
The Model
‘E” Hammond Organ.
The Novachord was
an instrument conceived largely in Laurens Hammond’s
mind—an organ that would produce all the sounds of an orchestra from
notes
generated by radio vacuum tubes. Introduced in 1939 at the New York
World’s
Fair, with Collins Driggs at the keyboard, it seemed to provide what
the musical
world had wanted.
Resembling a piano in appearance, the device produced music with
amazing resemblance
to that of a dance band. But the public evidently preferred to see the
band, and the instrument
never caught on.
The Novachord was discontinued at the outbreak of World War II
but the basic idea in
this first purely electronic organ was predecessor to all the Hammond
and other vacuum tube
and transistor sound generating organs on the market today.
A curious product appeared under the Hammond name in 1938; curious
because it
seemed to take a step backward out of the electrical age and borrow
some wind from the old
pipe organ. It was a roll player organ. The instrument was the basic
1937 BC model Hammond
in a slightly higher case to accommodate the roll playing mechanism
that was made available
through agreement with the Aeolian Skinner Organ Company of Boston.
The basic price of
$2,000, however, was more than the public wanted to pay for an automatic
organ, so the model
was discontinued after that first year.
But Hammond Company had more tricks up its sleeve. In 1940 it
introduced the
Solovox, an electronic apparatus invented by John Hanert to augment
a piano with accom-
paniment of orchestral sounds. The Solovox, generating sound with vacuum
tubes, had a
three octave keyboard like the piano but was arranged so that it could
be played in six octaves.
It had 12 tone selectors that produced a broad range of sound effects
instantly popular with
piano entertainers and piano owners. Three models were brought out in
the years from 1940
to 1948, after which it was discontinued.
A story about the earliest Hammond products links two of the
famous oersonalities of
that and a later day. Arrangements were made for a Hammond Organ to
be presented to
President Franklin D. Roosevelt’s Warm Springs, Georgia, Polio Foundation.
The presenta-
tion was made at the Hammond studios in New York City with Mrs. Roosevelt
accepting
on behalf of the Foundation. Her signature was added to the guest book
that carried the
autographs of many of the great figures of the musical and non-musical
worId.
A year later, New York’s Governor Tom Dewey came to the studios
to buy a Solovox
for use with the grand piano he had just purchased. As he idly thumbed
through the euest
book, his eye fell on the name of the peripatetic and ubiquitous Eleanor
Roosevelt. Astonished
to find her signature in an organ studio, Dewey could only remark aloud:
“That 31d girl reai!\
gets around, doesn’t she?”
Another famous woman who really “got around”, and contributed
immensely to the
spreading popularity of the electric organ, was the noted organist Ethel
Smith. Stories var~
as to ~here she first saw the Hammond. But whether it v~as on a Hollywood
movie lot or
while she was vacationing in Miami, Ethel fell in love with the Hammond
and the Harnmond
people fell in love with Ethel.
It was while she was playing at the St. Regis Hotel, bored to
tears with the routine job,
that she received a phone call from the New York Hammond Studios and
was told to dress
her best and rush over. When she arrived she met the owner of the elegant
Copacahana Club
in Rio de Janeiro who wanted an attractive girl who owned a Hammond
to play his club for
a 26 week engagement. Ethel wanted the job, and got it. But without
the money to buy a
Hammond, it was arranged to let her take one with a record minimum down
payment. She
stayed in Brazil about a year, as fascinated with learning the South
American rhythms as her
audiences were in hearing her play them on the Hammond.
After her return to New York, Ethel Smith was entertaining on
the St. Regis roof one
evemr.e when she was asked to join a gen~icn;an at his table. The man
was George WashI..g~n
Hill, fabled head of the American Tobacco Company. He had heard her
play in Rio and wanted
her for his Saturday night radio program, The Hit Parade.
Her career truly launched, Ethel Smith earned some of the highest
fees ever paid a radio
instrumentalist, appeared in several movies, and established a music
publishing house that has
one of the world’s largest stocks of music for the Hammond Organ. Her
recording of “Tico
Tico” sold more than two million copies, and her “Bouquet of Blues”
disc in 1960 was the
first recorded collection of blues played on the Hammond.
Affairs of the company were not greatly disturbed in 1940, although
the year was marked
with recognition of Laurens Hammond’s electronic organ at two of the
highest scientific and
industrial levels. He was awarded the Franklin Institute’s John Price
Wetherell medal and
the National Association of Manufacturers’ Modern Pioneer Award.
Pearl Harbor year of 1941 marked the end of Hammond’s civilian
production for the
duration, as it did for so many others.
America’s entry into the war put Hammond into the military production
“front lines.”
However, a limited run of electric alarm clocks was produced, and about
1,400 “GI” electric
organs were made for service personnel aship and ashore around the world.
Many of these
organs, containing the mechanism of the Church Model D with its chorus
generator (pro-
duced 1939-1942), can still be seen in their wartime cabinets at army
posts, in hospitals and
aboard naval vessels performing their religious and entertainment functions.
During the war period, Hammond leased a Ravenswood Avenue plant
for war work
and a building on Oakley Avenue for research and development. The company
designed and
manufactured many of the flight control systems for glide bombs and
for the Northrup Flying
Wing. It developed and gave to the air force a flight path simulator
computer for training
glide bomb pilots. Also developed by Laurens Hammond and his engineers
were infra-red
and light-sensing devices for bomb guidance, a new type gyroscope for
control systems. a
mechanical shutter for high speed aerial cameras, a simple and inexpensive
bank and turn
indicator, and a “throw away” device for determining a plane’s altitude
The latter apparatus
was dropped out of the plane, emitting a radio signal until it crashed
into the ground or ~‘.ater.
The elapsed time of fall would indicate the plane’s altitude.
The
Hammond Organ sang many a song of reverence and camaraderie during the
second
world war. One, mounted on a truck, traveled the length and breadth
of the island of New
Caledonia in the South Pacific. Astonished natives, knowing nothing
but the sound of their
tribal drums, came out of the bush to listen in wonderment. In cold
Aleutian is~and outposts,
the Hammond was heard in chapels and recreation halls. It launched a
ship in Seattle, relieved
monotony for troops at gun batteries on the West Coast, and played for
memorial services
for President Roosevelt on Okinawa only two weeks after the invasion.
A Hammond Organ found
amidst the com-
plete destruction of the Evangelical Church
near Baguio in the Philippines, was playing
again as soon as electricity was restored.
Wherever there was a Hammond, there
was never a shortage of men to play it, strange
as it seems. And part of the reason was that
pianists among the troops had little difficulty
mastering the technique of the electric organ.
Often the sound of electric music welled from
tents and shacks and quonsets on the most
forbidding war fronts at all unlikely hours of
the day as GI’s practiced on the Hammond.
Many sent money home regularly throughout
their service to build a fund for buying an
organ after the war. The music of the Ham-
mond followed the men to war, and the men
returned to follow hobbies and careers with
the Hammond.
With VJ Day celebrating
vic-tory over the Japanese and the end of that awful war, theHammond
company quickly converted back to civilian production. Laurens Hammond
stepped out of his laboratory to assume active management of the company
during the illnesses of Vice President Forrest Redmond and Treasurer
Cedric V. Merrill in 1946.
Upon
Redmond’s return to work, Assistant Treasurer Sorensen was assigned
to drive him to and from work to give him an opportunity to learn much
from Redmond in the areas of general management. When Redmond died in
1953, Sorensen was elected executive vice president and general manager.
The organ was greatly improved after the war, incorporating many
additions. Most significant of the features of the new organ was the
vibrato, an effect that had been difficult to achieve despite many.
attempts.
The tremulant sound is a fluctuation in the intensity or volume
while vibrato is a fluctua-
tion in pitch. The Hammond vibrato not only produced this effect without
the delay caused
by slow-acting mechanical parts, but it could be controlled in various
degrees. The sound
is pleasant to hear because vibrato’s wavering sound waves affect more
nerves in the ear.
The vibTato was available on both home and church models from 1946 on,
and, in 1949,
was improved so that it could be used on both manuals simultaneously
or on either manual
separately. This latter advance also was accompanied by a control for
normal or soft overall
volume of the music.
Also introduced in 1949 was a concert organ, Model RT, which
incorporated a unique
pedal note solo system with separate volume control.
The growth in organ sales and diversity of product line since
the end of the war had
increased the company’s need for additional office and production space.
As a solution, the
Hammond company purchased a building at 4200 Diversey Avenue that, later
enlarged,
still serves as the main office of the corporation.
The year
of 1949 requires a place of its own in the annals of the modern organ
industry for it marked a turning point in the conception of both market
and product.
Previously, Hammond Organ models and those of competitors had not been
designed
primarily for the home. Since many Hammond Organs were going into homes,
Hammond management again led
the industry in concluding that an untapped market lay in plain sight—the
average American homee that a
popular-priced organ could offer enough musical value to draw customers
from the piano market, and from an
even more implausible group of people who had never played a note on
any instrument in their lives.
The Hammond staff invented, designed and built the “Cinderella”
organ and saw it
transformed into the reigning princess of the industry. The new product
was the Hammond
Spinet Model M.
Those who saw the new Spinet organ recognized that its size—slightly
smaller than the
first Hammond Model A—was perfectly dimensioned for a modern living
room or game
room. And there was no need for additional space for amplifying and
speaker equipment,
for these were all housed in the console. The styling was functional
and attractive, the music
was “real organ” and the price of Sl,285—only $35 more than the Hammond
of more than
a dozen years ago—was right.
That the Hammond Spinet had only 44 keys on each of its two manuals
instead of the
standard 61 did not dismay any considerable number of potential buyers.
They wanted organ
music in their homes, and here it was! They learned to play with the
two manuals and the
12-note keyboard. They learned to play for their own pleasurable relaxation
and for the
entertainment of their friends. Many became skilled organists and traded
in their Spinets for
larger and more versatile Hammond models.
The Spinet, like all Hammond Organs, was “built like a battleship.”
Small churches
bought them and large churches used them in their chapels. And, the
ultimate compliment,
Hammond’s competitors quickly rushed their own smaller sized organs
onto the market in
imitation of the leader. Within six years, Hammond sold more Spinets
than all of the organs
it had previously produced.
The Spinet brought
friends and neighbors together for
listening, learning, and old fashioned barber shop harmony
singing. These meetings in homes of Hammond owners led
to the spontaneous formation of Hammond Organ Societies
for combining music with an evening of fun and relaxation.
Among the first of these was the society in St. Louis.
Later, in 1957, the Hammond Organ Society of Tacoma,
Washington, built its own clubhouse with the labor of its
members, another Hammond “first.”
So enthusiastic were these society members that
Hammond Organ Company developed a program for them,
using many of the ideas employed by its dealers on the
scene. A book of instruction on organization, programs,
publicity and many other topics was supplemented with
membership certificates, cards and badges, letterhead, party
napkins . . . all the essentials for getting groups started and
keeping them actively interested in their music. Today there
are some 500 Hammond Organ Societies across the country.
For any who may have asked “how much simpler can
an organ be,” Hammond had an answer the very next year—
the first “chord organ” that anyone could learn to play in
simple tuneful fashion in a few minutes. Unlike anything
seen or thought of before, it was so eminently practical for
the person who had never touched a keyboard that another
whole market area
opened up. With its simplicity and attractive price of only 5975, many
households began to weigh a Hammond Organ against a piano. Many families
began to
consider organ playing well within the capabilities of their children.
What had always been a
predominantly adult instrument was now an organ for everyone. It was
meant to be played
for fun and not as an instrument for producing trained organists.
The Chord Model S had a single, three-octave manual with 37 keys.
In addition, it had something brand new, unless it could be compared
with the chord buttons on an accordion a panel of 96 buttons producing
any of those selected chords when the key was depressed with the fingers
of the left hand. It also contained a patented automatic feature of
two foot pedals that selected the “root” note and the “fifth” tone of
any chord played.
To make things even easier for new learners, special sheet music
was developed in accord with the most recent educational discoveries.
Instead of being printed horizontally, the staffs were vertical and
the notes were marked as squares, with the proper directions for operating
the chord buttons clearly shown. Playing the Chord Organ became as easy
as reading an ordinary road map or, for many map-puzzled motorists,
far easier.
The sounds of the Hammond Chord Organ originated, not in the
electro-mechanical sound generator of standard Hammonds, but in electronic
vacuum tubes. In fact, part of the Wcircuitry of the Solovox was built
into the new product.
Millions of dollars were spent in advertising to bring people
into dealers’ stores to try
the Spinet and Chord for themselves. The belief that many people are
tone deaf, cannot carry
a tune, and, therefore, cannot produce music, was virtually relegated
to the area of myth.
Prospects found themselves playing tunes like “Silent Night” in ten
minutes . . and a large
proportion were those who had never dared open their mouths at a songfest.
Dealers offered a limited number of free lessons to both Chord
and Spinet buyers in the
manner popularized and proved successful long ago with the sewing machine.
Another pro-
gram was a rental plan \4ith free lessons. The renters became buyers
in almost 90 percent of the
cases, and the number who defaulted later on their extended payment
plans was infinitesimal.
In fact, there were reports of people letting their cars go before sacrificing
their organs.
Realizing that the teachers of these new organ owners would be
the best of all possible
spokesmen for the Company, Hammond set up a progrAm of teacher workshops
in 1951 under
the direction of Porter Heaps. Two hundred of these one-day teacher
meetings were held over
a three-’, ear period for some 6,000 music teachers. They were taught
methods for overcoming
any lack of confidence, often common to beginners, and ways to maintain
their initial enthu-
siasm as they progressed into more complex scores. In addition, the
company published
“Tips for Teachers” six times a year, a magazine, “Chord Organ Comments,”
and made
available to them a comprehensive catalog of instructional materials,
Porter Heaps Teachers
Handbook, solos, current and classic songs, and organ albums.
Hammond continues, and constantly improves, its many-faceted
program for organ
teachers. Since its beginning, Hammond Organ Company has relied heavily
on the advice
and support of music teachers and professional musicians, New models
are subjected to
the criticisms and suggestions of panels of these experts. They, like
the dealers, are close to
the needs and desires of electric organ prospects and owners. It is
they who greatly affect
the success of the product and the company’.
The Chord Organ was
produced for a time in a leased plant on St. Paul Street
but production was moved in 1953 to a company-purchased building at
4045
North Rockwell Street. At that time the name of the company was changed
to
Hammond Organ Company, The Hammond Instrument Western Export Corporation,
established a year earlier to handle Western hemisphere buissness.
outside the United States, was renamed the Hammond Organ Western Export
Corporation.
To handle the company’s mounting volume of business with more
efficienc\. a building
with ground area for parking and future expansion was purchased in Chicago’s
western suburb
of Melrose Park in 1956. All Hammond Organs are now assembled and shipped
from the
Melrose Park plant. At the same time, a three-story annex was added
to the Diverse building.
In the period following the introduction of the Spinet organ.
the company concentrated
its efforts on the refinement of its products, rather than the development
of new products. Its
efforts were directed toward making more efficiently the several models
of the Hammond
Organ in an attempt
to provide the consumer the greatest
musical value for the dollar. In this period, the engineering staff
of Hammond Organ Company was small and occupied itself
largely with the activities of finding newer and better ways to
produce the Hammond Organ. Engineering development of
new products and features was minimal.
It was recognized by management that in any market situ-
ation which was growing with the speed with which the market
for Hammond Organs was gro ing and any product which
stirred the imagination and excitement of the consumer as did
the Hammond Organ would soon encourage others to attempt
to harvest the profits available in this growing market. So,
under Sorensen’s direction and in anticipation of those com-
petitive encroachments, engineering activities were expanded
substantially
to provide for the development of new’ products
and new product features so that the Hammond Organ would
continue to be the leader in the industry’, not only in terms
of its
sales volume but in terms of its introduction of newer and
more advanced organ models.

At that time, steps were taken to broaden the company’s distribution
base through the gradual expansion of its dealer outlets and with particular
emphasis on the establishment of Hammond Organ Studios. The Hammond
Organ Studio was a concept which had been developed earlier
by a management committee composed of young company executives for the
purpose of exploiting the sales opportunity in secondary markets which
were not being effectively’ covered by its then franchised music dealers.
The Studio concept had not been promoted aggressively until this time,
although a few Studios had been established under private ownership
and had been very successful.
In the same period, greater emphasis was placed on out-of-store
promotions in
Recognition
of the fact that relatively few people were aware of the existence of
organs for
the home or, if they were aware, thought of the organ as something too
difficult to play and,
therefore, not suitable for them. This was the beginning of the out-of-store
promotion program and ofthe “easy-to-play” theme for selling organs,
which dominates selling in the industry to this day Until that time,
the company had been informally organized because that type of an organization
was best suited for the company. As it grew’ and the pace quickened,
it became apparent that a somewhat formal organization should be established
and that there should be a greater delegation of responsibility to trusted
subordinates so that the company’s actions the competitive market place
could be more spontaneous.
While Hammond Organs had been sold in many foreign countries
prior to World War II
the company had not been able to expand its foreign business, except
in Canada, until the
conclusion of the Korean conflict. This was not due to any lack of interest
on the part of the
company but was largely a matter of foreign currency restrictions. As
such restrictions have
been eased, the company has moved aggressively into the foreign markets
and, as of 1965,
approximately 10 per cent of the company’s total organ and reverberation
business comes from
the foreign market which continues to grow even more rapidly then the
domestic market.
For much of its organ product life, the company’ was unchallenged
It vtas the industry
that it had created. Electric organ was synonomous with the F’[ammond
and its tone wheel
generator that by its very nature could never get out of tune. Hammond
became a word
in dictionaries, encyclopedias and text books.
In later years, however, competitive products emerged, as has
always been the case in the
growth pattern of all new businesses. The competition has been healthy
for the industry, for
music, and for the country. The mushroom growth of electric and electronic
organ ownership
is a visible indicator of more jobs for more people and more pleasure
for untold thousands.
New careers have opened in this area of engineering, in organ manufacture
and marketing, in
teaching and professional playing in both religious and entertainment
fleids.
The electric organ’s main competitor in the musical instrument
field (excluding the rela-
U tively inexpensive guitar) had always been the piano, long an article
of furniture and ssmbol of
prestige, as much as a producer of music, in American homes. But in
1958 the tables were
reversed. Console organ sales surpassed those of the piano in total
retail dollar volume, a
pattern to continue to the present without interruption, save for a
slight drop behind in 1959.
In unit volume, of course, pianos still hold the lead as the electric
organ is a more expensive
instrument. In 1964, for example, 220,000 pianos were sold compared
with 121,500 console
organs, according to the American Music Conference.
The astounding growth of the organ industry is best shown in
the increase of people play-
ing the instrument. In 1955 the total was 825,000, while in 1964 it
was 3,600,000. And yet the
organ today’ is found in only about three percent of American homes,
a figure that leads
statistical forecasters to predict a future industry growth to reach
a home saturation of five
to six times its present size.
The Hammond firm’s growth pattern in its first 30 years of organ
manufacture is the
tracery of a space rocket. its total assets on March 31, 1934, were
5828.346. At fiscal year end
in 1965 they were S28.34l.250.
One oricinal share of the company’s stock has increased to 32
shares through stock splits
and the 2.987.222 outstanding shares are held by’ 10,000 shareholders
who received dividends of
$1.40 a share in 1965, when after tax earnings were $5,961,719 from
sales totaling 550.634.243.
The concept of reverberation occurred to Laurens Hammond in 1939.
He understood
that sound leaving an organ, or any instrument, goes in all directions.
Part of the sound wave
travels directly to the listener’s ear, but much of it bounces off wails.
ceiline. floor, furniture
and other objects.
thus delaying its
“reception” by’ the ear. The differ-
ences in travel times and volume
create an overlapping effect when
heard,
some waves reinforcing
each other, some damping or can-
ceiling out completely. The result-
ant sound is what people are
accustomed to hear; not the pure
sound at its origin point.
To achieve this effect before
the sound leaves the organ speaker.
he developed a coil spring device,
using oil filled tubes for damping,
through which the sound was re-
quired to travel. By arranging dif-
ferent length paths. the sound was
made to echo or reverberate.
in 1958. Herbert Meinema.
a Hammond engineer, developed a
so-called dry reverberation unit
employing helical springs some-
what resembling screen door
springs. The sound was made to
travel through springs of different
lengths and different quality, some-
times t\vo or more springs being
hooked together to delay the sound
exactly the right length of time.
The musical notes. passing through
these varying “speed traps”. pro-
duced the echo effect.
This development led, in 1959, to the introduction of a new’
and improved reverberation unit.
The new unit was smaller and lower in cost than the unit Hammond had
used since 1939. it avoided the
necessity of using oil filled tubes. It thereby became useable not only
in organ tone cabinets,
but also within organ consoles. In addition, it has found use in hi-fl
equipment and auto-
mobile radios. It has become a contributing factor in company earnings,
and its contribution
is expected to increase as more and more automobiles are equipped with
reverberation units
of the present compact size.
The “turn of the decade” is remembered for an event and an innovation
that vastly’ broad-
ened the audience and the market for the Hammond Organ. Dedicated to
the public at Chicaca’s
world renowned Museum of Science and industry was an extensive and elaborate
Ffammc’nd
exhibit on the physics of sound and the art of music. Daily over succeeding
\ears thousands of
school children and
adults have
operated the automated displays
that make visual and audible the
waves of air and the waves of dee-
tricity that make the music that
man has alxsavs loved.

Laurens
Hammond
in 1960 could look
back on 25 years
electric organ his-
tory with pride. He had invented
a new kind of musical instrument.
He had foundad a new industry.
In his lifetime, he
had been granted 90 patents since
the first one when he was a chi~d
in France. It had been a bus\ ife. a
productive life, a devoted one. And
there were many good years ahead.
For a few sears prior to his
retirement, Laurens Hammond
“practiced” retirement by taking
extended vacations, giving Soren-
sen ample opportunity to run the
company completely on his own.
Upon his final retirement on
February 12, 1960, he left •.sithout
fanfare, the way he had always
lived, and disassociated himsalf
from the company. Since tHr time,
he has been enjoying his well-
deserved retirement betuesn his
homes here and abroad, finally
having found the time he always
wanted to devote to reading, the theater, opera. Sports, achting and
traveling.
I The innovation
of the times was
Hammond’s new offering of a
broadened number of sties in
console cabinetry. Organs, it
had always been believed,
should look like organs. So, following Henry
Ford’s ruling that a customer could have any
color Model T just so long as it was black
Hammond had kept its models pristine, tra-
ditional and practically unchanging.
It was the introduction of the electric
organ into the home that required a new a at-
look. Modern women wanted their homes to
be as beautiful as the color plates in magazInes.
They wanted French Prcxinciai. Tudor or
Contemporary They liked red mahaga- i, or
walnut or cherry. They wanted a choice and
Hammond concurred.
Interior decorators were consulted, and the company’s woodworking
devision experiment-
ed with many’ beautiful native and imported woods. New stains and finishes
were finishes were inverstigated
The result was a line of organs available in many styles, wods
and finishes all the equall
or superior of the finest furniture made To help the buyer in his selection
the compagny
promoted
a program of decorating aids. Designers were enlisted to explain that
Beauty is the
sum of diffeerences . , , that styles of difi’erent eras and woods of
contrasting tone can be as
successfully mixed as they can be harmonized. The product was beautifu
music encased in
beautiful furniture.
Hammond woodworking craftsmen_ machinery and raw material at
tK enx
manufacturers.
The beautiful cabinetry that marks the entire organ line is as meticulousy
machined and fitted as many crdical meial components of the instrument’s
tone wheel generator.
Visitors to the woodworking plant often express astonishment
on seeing great machines
drill dozens of holes at many angles in one operation, much as automatic
devises do the job on
drilling an. auto engine block. Then inspectors check the tolerance
with all the minute precision
of a tool and die maker. That wood, subject to expansion and contraction,
can thus be "ma
chined” in the metalworkinn sense has been the subject of several studic
by woodworking
trade magazines.
This attention to detail begins the minute the wood arrives at
the plant for storage. kiln
drying, shaping, gluing and finishing. The wood is expensive inhialiy,
for it is carefully selected
as to color, grain and blemishes. The work that is added makes understandable
the dollar
value of perfection.
This same pattern of modern. techniques, critical inspection,
and quality control is en-
countered in every phase of Hammond manufacture. Since the first Hammond
Organ in 1934,
quality has been built into the product . , . the kind of quality that
lasts through the years. If
no machine is available to do the job properly, Hammond engineers design
one that will.
Many of the plant operations today rely’ on Hammond-designed and Hammond-made
tools
and equipment.
In 1964 the company changed advertising and public relations agencies
to assist it in
attaining the new dimensions it has staked out for itself. A three-man
market development group
has been named to implement a three-year program to expand its dealer
outlet organization
in the U.S.A. that now numbers 600. New Hammond Organ Studio dealers
will be assisted
financially, when needed, given markets of proven potential, and trained
and supervised as
have those in the past.
Sophisticated planning includes product forecasts for three to
five years in advance. It
means improvement of employee relations, good as they have always been,
through better
insurance benefits, training programs, and attitude surveys. Today’s
pattern also includes wage
and salary analysis and psychological testing.
There is a product design committee of engineers, division management
personnel, and
marketing people who are responsible for making recommendations to corporate
management.
Regional sales meetings, service clinics and training schools are scheduled
regularly to upgrade
personnel and open channels of communication.
Very effective in the area of communication is Hammond’s “President’s
Dealer Panel”
set up in 1962. Dealers in each of 12 districts elect a member to the
Panel for a three-year term
These Panel members meet three times a year in Chicago for two-day meetings
with manage-
ment personnel on matters of mutual interest.
The company has made it plain that it plans to grow in the organ field,
diversify internally
with new products, and acquire outside operations that are suitable.
The Gibbs manufac-
turing and Research Corporation of Janesville, Visconin, which was engaged
in sophisti-
cated electronics and eiectro-mechanical work primarily for the government,
oWered an
opportunity to the company to diversify in non-musical products. The
appeal of this company
was somewhat enhanced by a development project in whIch it was engaged.
an institutionallv
directed organ which was intended to sim iate very closely the sound
of a pipe organ.
After the acquisition of the Gibbs corporation in 1961, and after
the expenditure of con-
sider ,ble engineering effort and money in the further development of
this organ project. it was
the consensus of Hammond’s engineering and marketing people that this
project be aY tndored
Further disappointment in the acquisition was brought about when, because
of its acquisition
by a large company, Gibbs lost its status as a small business and was
not eligible for the
preferential government treatment afforded such companies. Therefore,
it was necessary for
Gibbs to retrench and to develop new products which would enable it
to operate under its
new status. This challenge was successfully met. The company now’ operates
profitable
its output grows comfortably each year.
In the period when the status of the Gibbs corporation was uncertain,
Hammond Organ
Company transferred to it the responsibility for the manufacture of
its reverberation devices,
Therefore, it is interesting to note that while that device successFully
carried Gibbs through its
retrenchment period, Gibbs also successfully’ promoted the sale of the
device in nun-organ
applications and increased its government work as well.
Hammond Organ Company had expressed an interest in diversifying
in the musical instru-
ment field. In casting around for possible acquisitions in that industry,
in 1962 it settled on the
Everett Piano Company of South Haven, Michigan, which was of moderate
size, well managed
and highly respected in the piano industry.
The opportunity for broadening Everett’s base of distribution
and increasing its sales
through more aggressive marketing techniques were factors that made
this a desirable acquusi
tion. The Everett Piano Company has proven its worth in that its output
has increased since
its acquisition by Hammond Organ Company to the point that its manufacturing
facilities
w’ere recently’ expanded to permit even further production. it is a
source of supply for Ham-
mond Pianos. which were intended originally for sale exclusively through
Hammond Organ
Studios, but, because of the name ‘Hammond” and their consumer-oriented
styling, they’
also have found favor w’ith a great number of general line music dealers.
The Hammond International Division is responsible for overseas
sales of organs, pianos
and reverberation devices, which provide a steadily increasing percentage
of compagny business.
In addition to its Hammond Organ Western Export Corporation. the company
in 1964 set up
two joint ventures: Hammond Organ (U.K.I Ltd. in London and Organo’s
Hammond de
Mexico in Mexico City’. A similar venture is in process of negotiation
for South .Africa. Organs
distributed through these channels are assembled locally by native craftsmen.
to Hammond
specifications. (The wholly’ ow’ned subsidiary. Hammond S.A. in Lausanne.
Switzerland. was
dissolved in 1965 because of a change in federal tax laws.)
The foreign distribution of Hammond products is thus routed through
several channels.
but at the final retail level the pattern much resembles the one developed
in the United States
There are today’ more than 200 outlets in 60 countries, and the list
is continualiy lenghtning
Hammond is rightfully proud of the dealer organization it developed
from the 193o' on.
The full line music houses that were aw’arded Hammond franchises were
carefuliv selected for
reputation. financial stability, and creative marketing. Few of those
iudgements were ever
proved wrong.
In the same manner, the new idea of establishing independent
Hammond Organ studios
or retail outlets. was carefully structured on plausible geographic
market lines. In many. cases
the dealerships went to people who had no previous experience in the
selling of musical
instruments. First consideration was given to business abiiitx and the
other factors guiding
franchise allotment to music stores. In this ooeraticn—now totaling
150 independently owned
studios—the pattern of long and successful tenure of franchises was
repeated.
was the Hammond marketing plan that it was widely copied by the organ
industry. And this
has long been the case, too, with Hammond innovations for increasinc
oonula.
organ playing which is the basis of increased sales.
The opening years of the century's seventh decade were not ones
of laggardness in im-
proving product and the plant that produced it. Another addition was
constructed at the
Diversey building to accommodate the expanded office force.
The new M-l00 and L-l00 Organs of 1961 provided improved instruments
in both the
medium and lower priced field, with reverberation as one of the added
features and. for the
first time. provided tabs in addition to drawbars for tone control and
playing facility.
Undoubtedly’ the year 1964 will be recorded as one of the outstanding
peaks of Hammond
Organ development. The instrument of note and w’ide acclaim was the
Hammond Grand 100
concert organ w’hich has 50 speaking stops for playing all classic,
baroque. romantic. and
modern music. Each stop of this organ is separately derived without
unification or borrowing.
It also contains an antiphonal division entirely independent of the
main organ. Priced at
S13,750, the Grand 100 represented the most sophisticated and expensive
instrument in the
Hammond line. Prior to its introduction, the highest priced Hammond
Organ sold for S4.000.
The fact that Hammond
Organ sales are predominantly’ to the home market
does not detract from the great strides made in the institutional and
concert area.
Today the Hammond Organ is heard in more than 50,000 churches through-
out the world. The historically’ famous Canterbury Cathedral rings with
the
great music from a Hammond RT model. It is played in the Cathedral of
Mexico,
largest in the Western Hemisphere and third largest in the world. There
is a Hammond in the
great Cathedral of St. Marv~s in Trenton. New Jersey, and in St. Mary’
Major of Rome. Almost
every major religion and denomination emploding inspirational music
has found the Ham-
mond an instrument for spiritual warmth and economical service.
Hammond maintains an extensive program of special service activities
for churches,
schools and other institutions. It will survey the acoustical characteristics
of the installation
site, and even suggest ways to raise funds to pa~’ for the organ.
The mammoth audiences that have heard the Hammond Organ have
perhaps never sur-
passed the 200.000 persons gathered at Bombay, india. in November and
December, 1964.
it was the 38th International Eucharistic Congress of the Catholic Church
to w’hich Pope
Paul VI made an unprecedented pilgrimage.
A comment of the organist playing for that great throng of worshippers
is a tribute to
Hammond quality and its musical and acoustic powers. “Although the assembly
was an open
air one.” he rote. “I always had the impression that I was playing in
a cathedral—thanks to
the marvelous reverberation system.”
Descending abruptly from the sublime, a recent report tells of
an unusual institutional
organ usage. In a department store in New York state. the organist playing
for the Christmas
shopper rush may suddenly be heard swinging into the somewhat unseasonal
“Diamonds are
a Girl’s Best Friend.” Not at all a Yuletime lapse. the abrupt transition
alerts store detectives
to the alarm that the organist from his elevated perch has spotted a
robbery’ in progress in the
jewelry department. Other appropriately coded songs are used to warn
of thefts in other de-
partments visible to the organist.
In the field of entertainment, Hammond has always led the popularity
poll. Organists eas-
ily shifted from the gigantic theater organs of the past to the early,
modestly-sized Hammond
Model A. Over the years, more and more of the theater-type sounds were
made available in
improved organs. But not until 1965 and the Hammond X-66 (the X-66 is
an engineering
designation being used until the model is named in a contest ending
March 31, 19661 were so
many theater organ sounds incorporated in a Hammond instrument.
The
story of the X-66 began some five years before its introduction when
the Hammond
management sponsored a contest among senior industrial design students
at the Chicago Art
Institute. Although surveys had revealed some demand for the horseshoe-shaped
console of
the theater organ of the 1920’s, it was determined that this nostalgia
among “senior citizens’
would not likely be translated into any valuable volume of sales. So.
in this instance, old wine
in a new bottle seemed the best answer. The students were asked to let
their imaginations run
wild.
The best designs were transferred to projection slides and shown
to a panel of expert organ-
ists. From their decision, which was surprisingly unanimous, the prototype
design was selected.
Year by year ideas for the instrument were suggested. culled,
developed and rejected.
Finally the ultimate in entertainment organs was unveiled. an instrument
that the company’ is
convinced knows no competition, It is a total musical evolution from
the Model A to the pres-
ent with many’ revolutionary new features and a futuristic design far
ahead of its time.
The X-66 can be played so it sounds exactly like the Model A
or any subsequent model.
It can sound like competitive electronic organs or like a big theater
pipe organ. It is all things
to all people. It is the result of the new emphasis on consumer oriented
products to meet the
ever increasing needs of the marketplace.
The X-66 “space age” organ by no means stood alone in the Hammond
story of 1965.
It was one of many: more models were introduced in this year than in
any’ previous one in
company history. The more than 300 dealers from the United States and
the distributors from
foreign countries who met in Chicago to see their new product line found
that they had an
organ to meet most areas of competition and most buyers’ needs.
The Hammond Organ
story began in a loft over an Evanston grocery store.
for it was there, even before an electric organ was contemplated. that
the organ-
ization was born that was to become the founder of an industry and its
leading
member Today the Hammond name is known and respected around the world.
and its nearly’ 3,000 employes in parent company and subsidiaries work
in
a million square feet of plant space. An initial investment of S25.000
has pvramided to a book
value of more than S21 million.
Owners and players range over all areas of American life—former
president Dwight D.
Eisenhower and his brother. Milton. baseball’s Bob Feller. Blackstone
the magician, humorist
H. Allen Smith, Jack Benny. Lucille Ball, Jackie Gleason . . and the
new chief of the Central
Intelligence Agency. Admiral William F. Ravborn. Jr. Even the Beatles’
Rinco
In 30 years, Hammond Organs have been sold throughout the world
to the tune of one
billion dollars. The stories they could tell would fill volumes. An
industry -estimated 3.600.00C
people are organ players today’ in the U.S.A. alone, proof that Laurens
Hammonds invention
has added full measure of pleasure. learning and emplo~’ment to our
nation and the world.
As they review the past 30 years and the great strides which
have been made by the com-
pany’ since the first Hammond Organ was introduced in 1935. Board Chairman
Sorensen.
President Yolkober and their staff look forward to even greater achievements
for the organiza-
tion which launched the organ industry.
With an outstanding line of organs for prospective customers
of nearly’ every economic
level and degree of musical ability, with a highly selective dealer
organization, with strong
top management teams in the areas of research, engineering, manufacturing
and marketing,
and with the financial capability necessary to support the continuing
growth of the organiza-
tion. Hammond Organ Company looks confidently to the expanding future
of the organ
industry’ and to its continued leadership in that industry’.
In the past four years, the company has broadened its product
base by two acquisitions.
The Everett Piano Company has strengthened its position in the music
industry and the Gibbs
Manufacturing and Research Corporation has brought the company into
the field of sophisti-
cated electronics and electro-mechanical manufacturing.
Hammond Organ Company continues its active search for additional
acquisitions which
would further broaden its product base and which would provide entry
into areas in which
it is not now represented.
The company that created an industry with the introduction of
the Hammond Organ
in 1935 has developed in three decades into an effectively integrated
and diversified organiza-
tion which enjoys a world-wide reputation for the high quality of its
products. And it is plan-
ning for continued growth. both through new products developed by its
present organization
and through the acquisition of additional companies. Its potential—virtually
unlimited!
Historien venligst udlånt af Hammond Hardy
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