I was born in Newcastle, England in 1939. A memory from
my childhood is the nights in our air-raid shelter underground,
while the enemy bombers rumbled overhead, attacking the
steel mills and railroad yards in the neighboring towns.
We were safe underground.
My father had lived in the trenches throughout the First
World War, and since our family was in the building trade,
he could build our shelter based on personal experience
of what would be effective, and do a thorough job of it.
Later in the war, when the bombing had stopped, the shelter
was a wonderful playhouse, with railway sleepers (railway
ties to Americans) for steps going down into the ground,
then a left turn through a heavy low wooden door into
a small room buried beneath a big pile of dirt. The shelter
smelled of apples, because we used it to store fruit from
the autumn harvest to eat in the winter, and the smell
of apples still transports me to that time and place.
The north of England was the birthplace of the Industrial
Revolution in Britain, so technology was part of the landscape
and the culture that I grew up in. The world's first public
railroad ran from Stockton to Darlington, both nearby
towns. John Harrison, a local person, built the first
chronometer adequate for marine navigation. Even the humble
friction match was invented right in our the local chemists
shop (pharmacy in America) in Stockton.
I attended Cambridge University where I received a B.S.
in Natural Sciences in 1962 and a Ph.D. in 1965. That
same year I emigrated to the United States and went to
work at the RCA David Sarnoff Labs in Princeton, New Jersey,
where I designed photovoltaic power devices for spacecraft.
These are solar cells that produce electricity from sunlight.
Later on I worked on radiation-hard integrated circuits.
These devices are used in satellites that orbit the Earth
within the Van Allen Radiation Belts and must be able
to work in a continuous low-radiation environment.
I moved to California in 1974 and joined the Fairchild
Palo Alto Research Center to work on charge-coupled device
design and fabrication. These solid-state sensors for
detecting and recording images allow us to build the tiny
cameras mounted in astronauts helmets. They are
also used in weather satellites and spy satellites, and
in the camcorders and digital cameras that are now widely
available to consumers.
I have been at Schlumberger since 1977, first at the
Palo Alto Research Center where my work was on machine
vision and automated image analysis. I moved to Austin,
Texas in 1988. My current research work is centered on
remote sensing and Geographic Information Systems to support
field operations planning and execution. A GSS is the
digital equivalent of an atlas, but contains much more
information that can be accessed and presented in many
different forms. In addition to generating maps, a GSS
can give us street addresses, information about plants
and animals in an area and more.
My other interests include amateur astronomy, especially
observing earth satellites, building and flying model
airplanes, gardening and rebuilding antique clocks. And,
like Demos Pafitis, I have an old Citroen that I care
for.