Mr. Speaker, a week from today, the Boulder laboratories of the National Institute of Standards and Technology will celebrate their 50th anniversary. I rise today to honor NIST and its employees on this important occasion. It wasn't long…
Mr. Speaker, a week from today, the Boulder laboratories of the National Institute of Standards and Technology will celebrate their 50th anniversary. I rise today to honor NIST and its employees on this important occasion.
It wasn't long ago that we celebrated the centennial of NIST's founding, which Congress marked with the passage of a resolution that Representative Morella and I sponsored.
The National Institute of Standards and Technology was chartered by Congress on March 3, 1901 as the federal government's first physical science research laboratory. Scientists, engineers, and industrialists first advocated the establishment of a standards laboratory, pointing to the new challenges facing the U.S. as a rapidly industrializing world power.
Today, I'd like to draw attention to the work of NIST's laboratories in Boulder, Colorado, in my district.
In 1950, to address the lack of laboratory space, NIST established a cryogenic engineering laboratory and radio facilities on land donated by citizens of Boulder. NIST's Boulder facilities were expanded in the mid 1960s, when NIST and the University of Colorado (CU) joined forces to create the Joint Institute for Laboratory Astrophysics (JILA), a cooperative effort that has gained widespread recognition in atomic physics and other fields.
The partnership between NIST and CU has led to some amazing discoveries. Beginning in the 1970s, the discipline of cooling and trapping atoms was established in part by experiments with electrically charged atoms by researchers at NIST's Boulder campus. This work inspired Dr. William Phillips and his team to demonstrate both the trapping and the cooling of atoms well below the temperature limits generally believed possible. Dr. Phillips was awarded the Nobel Prize in Physics in 1997 for this work.
In 1995, using these same techniques of laser cooling and trapping of atoms, scientists at JILA--NIST's Eric Cornell and CU's Carl Wieman-- cooled rubidium atoms to less than 1 millionth of a degree above absolute zero. This was 300 times lower in temperature than ever achieved before and created a new state of matter predicted decades ago by Albert Einstein and Indian physicist Satyendra Nath Bose. The Bose- Einstein condensate is widely hailed as one of the century's major achievements in physics, and has been honored with several internationally prestigious awards.
All of this research has enabled the design and construction of one of the world's most accurate clocks, NIST F-1, which is used by NIST (in cooperation with the Naval Observatory) to maintain the nation's time standard. The NIST-F1 is so accurate that it will neither gain nor lose a second in 20 million years! It is approximately three times more accurate than NIST-7, the previous time piece for the nation. This precise time information is needed by such users as electric power companies, radio and television stations, telephone companies, air traffic control systems, the Global Positioning System, participants in space exploration, the Internet, and navigators of ships and planes-- all of whom need to compare their own timing equipment to a reliable, internationally recognized standard, which NIST provides.
I'd also like to mention an interesting tale of ``technology transfer'' that has resulted from the time and frequency research in NIST's Boulder laboratories.
In the early 1970s, NIST developed a time distribution system that placed a hidden time code on an unused part of the TV signal. While the system was not implemented, this technology provided the basis for closed captioning. In the following years, several networks, working with NIST, took up the project and developed convenient encoding equipment and improvements to the captioning format. Then in 1980, NIST, the American Broadcasting Company, and the Public Broadcasting System received Emmys from the Academy of Television Arts and Sciences for this development. Today the Emmy is proudly displayed at
NIST's Boulder laboratories and is a wonderful example of federal research that led to significant commercial spin-offs.
These are just some of the contributions NIST's Boulder laboratories have made to the nation in the half-century of their existence. NIST is poised to contribute to even greater advances in the 21st century. I will continue to call attention to the Boulder labs' contributions and the necessity of upgrading the facilities so that the Boulder scientists can continue to produce top-flight research.
As the attached article from the Daily Camera notes, Washington scientists who were reassigned to the new Boulder labs in 1954 weren't happy about moving to what they thought was a ``scientific Siberia.'' It's remarkable what a difference fifty years can make. It turns out that NIST's arrival triggered a ``scientific renaissance'' that made Boulder the scientific hub it is today.
I am proud to represent the scientific hub of Boulder and all the talented and dedicated scientists and employees who work at NIST, which has rightly been called a ``crown jewel of the U.S. government.'' I would like to express my congratulations again to NIST's Boulder labs for reaching this important half-century mark.
[From the Daily Camera, Aug. 29, 2004]
NIST at 50
federal labs helped turn boulder into tech center
(By Todd Neff)
Half a century ago this Sept. 14, President Dwight D.
Eisenhower stepped before a new $4 million structure south of
Boulder and dedicated the U.S. Department of Commerce's
Boulder Laboratories. It was a landmark day for the city,
then with a population of 20,000, and not just because it was
the first visit to Boulder by a sitting president. The 10,000
people who braved the beating sun that Monday could not have
known the Boulder labs would, over the course of the next 50
years, bring billions of dollars and thousands of jobs to the
area. Nor could those present have imagined the role the labs
would play in turning Boulder into a technology center.
The lab's arrival in Boulder was a combination of good
fortune and determined effort. Some of the good fortune was
President Harry Truman's 1949 secret order to stop clustering
major buildings in Washington, D.C., because of the threat of
nuclear attack. Yet the National Bureau of Standards' Central
Radio Propagation Laboratory needed room to grow. That
laboratory, like other NBS labs, had a basic mission that
hasn't changed: Establish the standards that form the basis
of technological development. Without standards, radio
stations would broadcast on one another's turf, manufacturers
would have no means of assessing the quality of materials
such as steel, and time synchronization critical to
communications, navigation and information technology
wouldn't be possible.
As a Daily Camera editorial on Sept. 10, 1954, put it ``Of
all the agencies of the government, the NBS is perhaps the
greatest money-saving organization we have. Its huge cost of
maintenance is offset many times by what it saves the
government, business and the people in money, time and
safety.'' With the Washington, D.C., area out of the
question, NBS sought a small-town location with little radio
noise, a university and a nearby transportation hub. Boulder,
Charlottesville, Va., and Palo Alto, Calif., were the main
contenders. Some of the key effort came from the Boulder
Chamber of Commerce, led by Francis W. Reich. The chamber led
a 1950 cash drive that raised $90,000--about $700,000 in
today's dollars--in two weeks. They used $63,000 to buy 217
acres of pasture to donate to the federal government. Most of
the rest bought the land east of Boulder that's now home to
Ball Aerospace & Technologies Corp. The local money tipped
the scales. Crews broke ground at the Boulder Labs in July
1952, finishing work in the spring of 1954.
It turned out to be a good investment. A 2002 University of
Colorado study projected that the labs would bring $2 billion
in economic benefit to the state between 2001 and 2005--and
$340 million to the city of Boulder alone. About 450
scientists and support staff--some from Washington, other
from local NBS field offices--had moved in by the time
Eisenhower rode up the Boulder Turnpike from his summer White
House at Denver's Lowry Air Force Base. Yet those scientists
weren't the first at the site. The Atomic Energy Commission,
in a rush to build hydrogen bombs after the Soviet Union's
successful nuclear tests, wanted a remote location to produce
liquid hydrogen for its Los Alamos labs. It tapped NBS's
Washington, D.C.-based Heat and Power Division to build a
plant to produce liquid hydrogen. The plant began churning
out the super-cold liquid in 1952 that would go into the
world's first hydrogen bomb. When a nuclear scientists
decided atomic bombs didn't need mass volumes of liquid
hydrogen, the operation became the NBS's Cryogenic
Engineering Laboratory in Boulder.
By the Boulder NBS' 10-year anniversary in 1964, it
employed 1,400 people in two major laboratories. One was the
original Central Radio Propagation Laboratory, which tested
radio-wave behavior and developed standards associated with
all sorts of radio transmission and propagation, including
weather radar. The second was the Cryogenics Engineering
Laboratory.
The names have all changed, often in mind-bending ways. For
example, NBS' Central Radio Propagation Laboratory moved to
the U.S. Weather Bureau in 1965, then became the
Environmental Science Services Administration and, in 1970,
the National Oceanic and Atmospheric Administration, or NOAA,
as it's known today. The same 1965 move created the Institute
for Telecommunication Sciences, which did radio-spectrum
work. Today, the Institute for Telecommunication Sciences
labs make up the whole of the National Telecommunications and
Information Administration's presence in Boulder. The
Cyrogenics Engineering Laboratory and a host of additions
remained with the NBS until 1988, when NBS became the
National Institute of Standards and Technology, or NIST.
Then there were the two NIST joint laboratories with the
University of Colorado at Boulder. The Joint Institute for
Laboratory Astrophysics, or JILA was created in 1962. Its
researchers work in everything from astrophysics to atomic
physics. It was two JILA scientists, Eric Cornell of NIST and
Carl Wieman of CU, who won the 2001 Nobel Prize in physics
for their discovery of Bose-Einstein condensate, a new form
of matter. The CU-NIST Cooperative Institute for Research in
Environmental Sciences, or CIRES, was created in 1967 and
focuses on atmospheric physics. NIST, NOAA and the smaller
NTIA make up today's Boulder labs. Combined, they employ
about 1,800 including full-time government researchers,
visiting researchers and students. About 750 are associated
with NIST, 1,000 with NOAA and 75 with NTIA. Research has
evolved even faster than names.
Bob Kamper, 71 a physicist who started at the labs in 1963
and rose to serve as NIST's director in Boulder from 1982
until his retirement in 1994, described how work evolved in
the Cryogenics Division, where he started.
First it was about liquid hydrogen for the U.S. nuclear-
weapons program. But by the 1960s, superconductivity--in
which certain materials have zero electrical resistance at
extremely low temperatures--was a major research interest.
Expertise in super-cold temperatures also led to work in
metallurgy (metals become brittle when temperatures plummet),
work that eventually became part of today's NIST Materials
Reliability Division. Among its efforts, that division is
investigating the causes of the World Trade Center collapse
after the terrorist attacks of Sept. 11, 2001. Efforts to
establish the behavior of fluids at ultra-low temperatures
became part of the NIST Physical and Chemical Properties
Division. Kamper said that division played an important role
in figuring out characteristics for new refrigerants in the
wake of chlorofluorocarbon bans, for example.
Superconductivity-bred expertise in magnetics led to more
advanced superconductor work as well as broad research in
computer-storage devices. NIST's $93 million 2004 budget
includes $29 million from outside sources, such as other
government agencies and technology companies. ``You very much
worked on what people would pay for, which is why I would say
there is very little dead wood,'' Kamper said. He said he
doesn't think the research ethos has changed. ``We were
pretty enthusiastic way back when, and talking to the
youngsters now, I think they still are,'' Kamper said.
``They're very much absorbed in their work.''
John Richardson, 82, arrived in Boulder in 1952 to work in
microwave physics. He moved into the new labs when they
opened in 1954. Richardson said NBS's arrival in Boulder
triggered a ``scientific renaissance,'' strengthening the
University of Colorado, luring the National Center for
Atmospheric Research to the city and fueling technology
companies such as IBM and Ball Aerospace & Technologies Corp.
Many Washington scientists reassigned to Boulder in the
early 1950s were ``very anxious about it, because they viewed
Boulder as a scientific Siberia,'' Richardson said. Half the
staff left rather than come to Boulder, said Alan Shapley,
85. Shapley came to Boulder on an NBS scouting mission in the
late 1940s and worked at what became NOAA until his
retirement in 1983. ``There were very few who had ever heard
of Boulder,'' Shapley said. But that changed quickly.
Richardson said he and other Boulder labs researchers taught
as adjunct professors at CU. The NBS presence attracted major
scientific conferences to Boulder, as well, he said.
``Visitors came, saw the climate, saw the quality of life,
and I have no doubt that many were persuaded to locate here,
either individually or in business,'' he said. He calls NIST
a ``crown jewel of the U.S. government.'' ``All our
measurements and all our scientific progress ultimately can
be traced back to NIST,'' Richardson said. ``If there were no
NIST, it would have to be invented.''