Clement was born in Oakland, California
on Jan. 25, 1892 and like Pratt, had his heart set upon electrical
engineering by the time he reached the university. During his
pre-university years, he was greatly influenced by his New Hampshire
native maternal grandfather, Capt. Eugene Freeman, a former Cape Horn
and China Clipper ship captain, pioneer, and later Port Commissioner of
San Francisco. Not only did young Lewis obtain a love for navigation
then, but he also had impressed upon him that a sea captain in the
earlier days was a very lonely man indeed when he was out of sight of
land, because he was out of communication with home for a long period
of time, and what little he might know of where he was at any time
could only be learned by star recognition. The sextant was a captain's
best friend. But a star in a sextant looks cold; it was not as warming
to the heart as a message from home.
With
this family engineering
background, it is hardly strange, then, that he was tacitly encouraged
to become interested in wireless. At age 13 Clement built and operated
his first radio station (call letters 6XC) from his home in Oakland in
1905, was Co-Founder and Secretary of the Bay Counties Wireless
Telegraph Association in 1907, and in 1908 he made the first ever
broadcast of a sporting event, the University of California vs Stanford
football game. He soon learned how to tap the key of his rotary
gap outfit without putting out the lights in the Clements’
one-family house along with the lights of several neighbors as well as
had been the case earlier. His
classmates such as Haraden Pratt learned the same too, even before they
started their studies of electrical engineering. All three became the outstanding leaders at
the front of a very rapidly moving, changing and progressive art that
has led today to virtually instantaneous round-the-world communication
as well as communication with real men on the Moon and radio space
probes that bid fair to reach the very limits of the universe. He was in good
company; each admired the work of the others, concentrating upon what
he felt he could do best and admiring what each of the other men did
that was superb and unique. Clement
bcame a radio profssional or the first time when took a summer job
while a 19-year old college student as the wireless operator on the Pacific Coast Steamship Company coastal passenger steamer S.S.
Spokane remaining on board
with the captain when it struck a rock in Seymour Narrows, British
Columbia, Canada, on June 30, 1911 and was then beached in Plumper Bay
near Esquimalt to avoid sinking in deep water.
In
1916 Clement moved over to the
Western Electric Company as Engineer in charge of electrical design for
the radio communication equipment of Army and Navy. At Western Electric
he found a situation quite the opposite of that in Marconi; the
telephone industry sought excellence and reliability on a
24-hour-per-day, 7-day-per-week schedule and had already begun
manufacturing devices such as line finders that sought to operate
reliably for one million operations without failure. Western Electric
manufacturing was outstanding for built-in quality and its
manufacturing methods had already stabilized to the point where a
handset, bellbox, line finder, and central station equipment could be
installed just anywhere in the USA and work day in and day out in the
extreme moisture of the Mississippi delta region or 40-degree
temperatures in Montana for example, without failure due to either
corrosion or electrical leakage due to poor insulation. On August 18,
1917
he also became the first person to ever talk by voice from an airplane
to the ground while testing airborne transmitter and receivers at
Langley Field, VA that he had designed for use by the U.S. Army Air
Corps and two days later did the same with another airplane in flight
(see his August 20 letter to his then finacée, Vesta Lynde, below),
and in 1920 he developed and installed the first commercial
radiotelephone circuit between San Pedro, CA, and Avalon on Catalina
Island. In 1922 he developed the first Super Hetradyne receiver.
In about 1935, he had a phone call from
E. T. Cunningham, President of the Radio Corporation of America (RCA)
Manufacturing Company, asking him to lunch. Cunningham was under the
impression that Clement was looking for a new job—and he was not.
RCA-Camden was providing Cunningham with a prize
headache:—he was unable to obtain reliable information of
what the company was doing because of internecine squabbles and knowing
Clement "from the early days", wanted him as Vice President
in charge of Research and Engineering. But something stood in the way:
RCA Chairman David Sarnoff had an understanding with IT&T’s
founder Sosthenes Behn that neither would "raid" the other's
engineering staff. And generally speaking, such agreements
stuck—even if the engineers concerned were "stuck" with the
result. Neither Clement nor Cunningham considered this to be more
important than that the Company get the best man for the job—and
that such a good man should not be hog-tied against his will. Something
was worked out to clear up the dilemma and Clement joined RCA Camden in
1935 and stayed until 1940.
In 1940 he moved from RCA to Crosley in
Cincinnati as Vice-President of Research Development and Engineering,
where he also pulled that organization together just in time to start
as the First Prime Contractor for the VT Proximity Fuze for the Navy
Bureau of Ordnance. On October 28, 1941, Dr. L. R. Hafstad of Section
T, Office of Scientific Research and Development, representing the US
Navy Bureau of Ordnance, visited Crosley and asked to see the Chief
Engineer; he was accompanied by a BuOrd man from the local Ordnance
District. Since it was apparent that the US would enter WW2 with the
Allies, the Crosley organization had been streamlined—stripped
for action—and was ready. Dr. Hafstad and party, met with the
engineers, the facilities and qualifications of Crosley as Prime
Contractor were examined—and Crosley was approved for the VT
Proximity Fuze by verbal agreement on the same day. "Crosley is our
kind of people." They were soon Íembarked as the first
production manufacturers of the first "smart" ordnance fuze in world
history—the fuze that "knows when to go off"—it is
triggered by the presence of the target itself. 