Los Alamos National Laboratory

(PD) Photo: Los Alamos National Laboratory
Aerial view of Los Alamos National Laboratory, 1995

Los Alamos National Laboratory (LANL) is a U.S. Department of Energy (DOE) national laboratory located in Los Alamos, New Mexico. Since 2006, it has been managed and operated by Los Alamos National Security, LLC (LANS), and is one of the world's leading science and technology institutes.

LANL's primary mission is to ensure the safety, security, and reliability of the nation's nuclear deterrent. In addition to its primary mission, LANL's research work serves to advance bioscience, chemistry, computer science, earth and environmental sciences, materials science, and physics disciplines.

At various times in the past, LANL has been known as Site Y, Los Alamos Laboratory, and Los Alamos Scientific Laboratory.

History

World War II and the Manhattan Project

(PD) Photo: Berlyn Brixner
Trinity test of an atomic bomb on July 15, 1945 at 0.016 seconds after detonation. The fireball was about 200 metres wide.

The Manhattan Project was the secret United States project conducted primarily during World War II with the participation of the United Kingdom and Canada that culminated in developing the world's first nuclear weapon, commonly referred to at that time as an atomic bomb.

The project was initiated in 1939 by U.S. President Franklin Delano Roosevelt after he received a letter from physicist Albert Einstein (drafted by fellow physicist Leó Szilárd) urging the study of nuclear fission for military purposes, under fears that Nazi Germany would be first to develop nuclear weapons. Roosevelt started a small investigation into the matter, which eventually became the massive Manhattan Project that employed more than 130,000 people at universities across the United States, the United Kingdom and Canada as well as at the three major design, development and production facilities at:

• The weapons design and development facility at Los Alamos, New Mexico, known then as Site Y, later to become the Los Alamos Scientific Laboratory and now the Los Alamos National Laboratory. It was here that 90 eminent scientists (20 of whom were or later became Nobel Laureates) from the United States, the United Kingdom, Germany, Hungary, Italy and elsewhere worked to develop an atomic bomb. The scientific director of the Los Alamos site was the American physicist J. Robert Oppenheimer.
• The plutonium production facility at the Hanford Site in eastern Washington state.
• The uranium enrichment facilities at Oak Ridge, Tennessee.

President Roosevelt died in mid-April 1945 and was succeeded by President Harry S. Truman just a few weeks before the war against Germany and Italy in Europe ended in May 1945.

The Manhattan project culminated with the detonation of the first nuclear weapon, known as the Trinity test, in July 1945 at White Sands, New Mexico. Since Japan was still waging an aggressive war in the Pacific, President Truman decided to use atomic bombs on the Japanese cities of Hiroshima and Nagasaki. The atomic bombs were dropped by air on Hiroshima on August 6, 1945, and on Nagasaki on August 9, 1945. The Japanese surrendered shortly thereafter (August 14, 1945) and the war in the Pacific ended. A formal surrender ceremony took place aboard the USS Missouri in Tokyo Bay on September 2, 1945.

Post World War II

As soon as the war ended, many of the scientists returned to their prewar universities. J. Robert Oppenheimer, who had served as the Director of the Los Alamos site for the duration of the Manhattan project and the war, asked physicist Norris Edwin Bradbury to succeed him. Bradbury accepted and, during his 1945–1970 tenure as Director, he became the acknowledged architect of the modern Los Alamos National Laboratory.

A short four years later the Soviet Union detonated its first atomic bomb in August 1949. That event was viewed by the United States and its allies as a new peril facing the world and intensified the era of mutual distrust and antagonism between the Soviet Union and the United States that became known as the Cold War, which lasted until 1991.

The atomic bombs that had been developed by the end of 1949 were based on the energy released by nuclear fission reactions or, more simply, the splitting of atoms. Some research had already begun at the Los Alamos site by physicists Hans Bethe and Edward Teller as well as mathematician Stanislaw Ulam on what became known as thermonuclear weapons (also referred to as hydrogen bombs or H-bombs). Thermonuclear weapons are based on the energy released by nuclear fusion reactions or, more simply, the fusion of atoms.

A thermonuclear weapon generates vastly more energy, per unit of weight of the physical weapon, than does a pure fission bomb. In January 1950, faced with the fact that the Soviet Union had successfully detonated an atomic bomb, President Truman announced that the United States was going to develop thermonuclear weapons of all kinds. Almost three years later, on October 31, 1952 (local time), the United States detonated its first full-scale thermonuclear test device, code-named Ivy Mike, on Enewetak Atoll located in the Marshall Islands of the Pacific Ocean. The test device was based on a design developed by Hans Bethe and Stanislaw Ulam and it produced an energy yield of 10.4 megatonnes of TNT equivalent, which was equal to the energy yield of 800 atomic bombs such as had been used on Hiroshima. The Ivy Mike thermonuclear device was specifically designed as a test device to validate the concept of creating a nuclear fusion weapon. It weighed about 74 tonnes (82 short tons) and was much too large and unwieldy to be used as a deliverable bomb or weapon.

(PD) Photo: U.S. Government
Fireball of Castle Bravo hydrogen bomb test

Two years later, the United States conducted its first test of a deliverable thermonuclear hydrogen bomb. The test was code-named Castle Bravo and it took place on March 1, 1954 (local time) on Bikini Atoll in the Marshall Islands of the Pacific Ocean. The bomb weighed 10.70 tonnes (11.75 short tons) and had an energy yield of 15 megatonnes of TNT equivalent. The Bravo crater in the atoll had a diameter of 1.98 km, with a depth of 76 m. Within one minute, the mushroom cloud had reached 15 km, breaking 30 km two minutes later. Eight minutes after the test the cloud had reached its full dimensions with a diameter of 100 km, a stem 7 km thick, and a cloud bottom rising above 16.5 km. It was the most powerful nuclear weapon ever detonated by the United States. LANL played a major role in the design and construction of the the thermonuclear test devices and bombs.

The success of the Ivy Mike and Castle Bravo tests inaugurated a new era of developing smaller nuclear weapons having increased destructive power. From the mid-1950s until the early 1970s, the focus was upon miniaturizing the thermonuclear weapons to make them deliverable by aircraft and, later, to fit into long-range missiles.

By the early 1970's, the focus on designing and building new weapons began to wane and the emphasis shifted to the stewardship and upgrading of the weapons already in the stockpile. It became important to make sure that nuclear weapons would only detonate on command and not by accident. Many of the underground nuclear tests conducted by the United States in the 1980s and early 1990s were safety tests of stockpiled weapons. With the current ban on nuclear weapon tests, computer simulation and other methods are now used to ensure the safety of the stockpiled weapons.

Just exactly when LANL began to focus a significant part of their work on scientific and technological fields other than nuclear weapons is not very clear, but it was presumably sometimes during the 1990s after the Cold War had ended.

The University of California has managed the Los Alamos Laboratory for much of the laboratory's history. However, in 2003 the Department of Energy opened the management contract up to other bidders. In June of 2006 management of the laboratory was taken over by Los Alamos National Security, LLC, a private company of partners that include the University of California, Bechtel National Corporation, Babcock & Wilcox Company, and URS Corporation.

LANL Organization

As mentioned above Los Alamos National Laboratory is managed by Los Alamos National Security, LLC (LANS) which is a private limited liability company formed by the University of California, Bechtel National Corporation, Babcock & Wilcox Company, and URS Corporation. As agreed by the four LANS partners, a Board of Governors is charged with oversight and governance of LANS. The Board includes three individuals appointed by the University of California and three individuals appointed by Bechtel, as well as five independent Governors who are selected for their expertise and experience in fields pertinent to LANL operations. The Board includes an Executive Committee that consists of the six University of California and Bechtel appointees.

The President of LANS reports directly to the Board of Governors and also serves as the Director of Los Alamos National Laboratory.

The day-to-day operations of LANL are led by its Director and a Deputy Director assisted by an Executive Director and an Executive Office Manager. As shown in the organization chart below, five operating divisions, each headed by a Principal Associate Director, report to the Director's office:

(PD) Chart: Los Alamos National Laboratory
LANL Organization Chart

In addition, these twelve administrative functions report to the Director's office:

Audits & Ethics Director Community Programs Office Chief Prime Contracts Office of Equal Opportunity and & Diversity Ombudsman Office Government & Community Affairs

Contractor Assurance Office Chief Information Security Officer Chief Information Officer General Counsel Chief Financial Officer LANS, LLC Executive Staff Director

Personnel and operating costs

As of May 2011 there were a total of 11,782 personnel in the Los Alamos National Laboratory with the following breakdown:

• 9,685 Los Alamos National Security (LANS) personnel
• 477 contract guard force personnel
• 524 personnel working for various other contractors
• 1,116 students

The operating costs for the fiscal year of 2010 was about $2,000,000,000 with the following breakdown:

• 51% for National Nuclear Security Administration (NNSA) weapons programs
• 8% for nonproliferation programs
• 11% for environmental management programs
• 4% for the U.S. Department of Energy's Office of Science
• 5% for energy and other programs
• 6% for safeguards and security
• 15% for other work

Participation in collaborative programs

LANL participates in a number of collaborative programs such as:

• The LANL's Center for Nonlinear Studies, in conjunction with the University of New Mexico and others, organizes the annual International q-bio Conference on Cellular Information Processing held at St. John's College in Santa Fe, New Mexico. The annual conferences are intended to advance predictive modeling of cellular regulation. The emphasis is on modeling and quantitative experimentation for understanding and predicting the behaviors of regulatory systems that occur in many biological systems, as well as the general principles of cellular information processing.

• The Joint Genome Institute (JGI) in Walnut Creek, California, supported by the DOE Office of Science, combines the expertise of Lawrence Berkeley National Laboratory (LBNL), Lawrence Livermore National Laboratory (LLNL), Los Alamos National Laboratory (LANL), Oak Ridge National Laboratory (ORNL), and Pacific Northwest National Laboratory (PNNL) as well as the HudsonAlpha Institute for Biotechnology in Huntsville, Alabama to provide fundamental data on key genes that may link to biological functions including microbial metabolic pathways and enzymes used to generate fuel molecules, affect plant biomass formation, degrade contaminants, or capture carbon dioxide (CO₂).

• LANL operates one of the three National High Magnetic Field Laboratories (NHMFL) in collaboration with two other sites located at the Florida State University in Tallahassee, Florida and the University of Florida in Gainesville, Florida. The NHMFL operates state-of-the-art, high-magnetic field facilities for researchers and engineers. High magnetic fields are important to fundamental research in a diverse range of disciplines including biology, biochemistry, bioengineering, chemistry, engineering, geochemistry, materials science, medicine and physics.