Nuclear Chemistry Research Project
Laboratory work will introduce you to state-of-the-art instrumentation and technology used routinely in basic and applied nuclear science. In addition to the formal instruction, the course will include a Guest Lecture Series and tours of nearby research centers at universities and National Laboratories.
Radioactivity was discovered in the late 1800s, and since then it has been the subject of many movies, cartoons, and TV shows. Some superhero favorites gained their power through exposure to radiation, including Spider-Man and the Incredible Hulk.Nuclear chemists work with various isotopic forms of elements to study fission and fusion processes, or they delve into the effects of ionizing radiation on materials, living organisms (including people), and the environment. Nuclear chemists may work in laboratories, or they may do theoretical work—and often, they do some of both.Nuclear chemists may work in academic or government laboratories doing basic, applied, or theoretical research.
Laboratory technicians usually require a bachelor's degree in chemistry, biology, geology, physics, or a related field. Employers typically provide significant job-specific training in laboratory procedures and dealing with specific workplace hazards.In addition to an undergraduate degree in chemistry, research positions in nuclear chemistry usually require a graduate degree in chemistry as well. Research positions generally require a Ph.D., and they often require postdoctoral fellowship experience.A doctoral degree and several years of postdoctoral experience are generally required for teaching positions at the university level. Licenses are not generally required for nuclear chemists.Nuclear chemists working in laboratories must take safety training to prepare for working with radioactive materials. They wear one or more radiation dosimetry devices in the laboratory and must submit these devices for periodic checks to ensure that they have not been exposed to various forms of radiation beyond federally established standards.Nuclear chemists working at government agencies or national laboratories may be required to undergo background checks or obtain security clearances on the basis of the nature of the work and the security requirements of the laboratory.
Nuclear chemists often work in laboratories, and they may be responsible for operating, maintaining, and repairing state-of-the-art instrumentation. They are also responsible for maintaining sample preparation supplies and equipment and ensuring the safe use and disposal of samples and other materials used in the lab. Responsibilities may include training students and other users of the laboratory facilities and ensuring that they adhere to safety procedures, including the use, monitoring, and disposal of radioactive materials.Because nuclear chemistry is a very computation-intensive specialization, researchers in this field must be able to use, and train others to use, data collection and analysis methods, software packages, and computer imaging visualization capabilities.Nuclear chemists in academic environments often teach advanced chemistry and laboratory courses. 170 the ultimate presets collection for lightroom.
At national laboratories, nuclear chemists train visiting users, and they perform their own research and maintain instruments and laboratory areas.Nuclear chemists often make presentations at conferences, and they may travel to specialized facilities to run experiments. Some international travel may be required. Although computer hardware and software have evolved to the point where they perform much of the computation, a nuclear chemist must understand the underlying principles to set up the calculations and ensure that the results are meaningful and properly interpreted. Nuclear research requires patience and attention to detail.Nuclear chemists may collaborate with physicists, engineers, physicians, biologists, and mathematicians.
Often, they have some degree of expertise across several disciplines and work with international teams on research projects. People with strong backgrounds in nuclear chemistry may have job titles that reflect their specific areas of application—for example, medical researcher or materials engineer.Experimental nuclear chemists must be meticulous about handling and disposing of radioactive materials, and they must ensure that students and laboratory users adhere to established safety standards. They may be required to administer the distribution and monitoring of personal dosimetry devices in their laboratories. AnalyticalBackground KnowledgeCommunication.
Problem-solving skills and an interest and ability to solve basic and applied research problems. Critical thinking and analytical skills to design experiments, troubleshoot processes, and analyze data collected. Mathematical ability. Computer skills, including familiarity with computer modeling and statistical analysis. Ability to use laboratory equipment.
Written and oral communication skills to explain findings and share results with scientists and nonscientists. Graduates with bachelor's degrees can find employment as laboratory technicians or research assistants. It is common for bachelor's-level graduates to receive on-the-job training after discovering an interest in nuclear chemistry during their early years on the job.Students or recent graduates with an interest in research may do one or more internships in preparation for selecting an area of specialization for a graduate degree. Research and supervisory positions generally require a doctoral degree, often with postgraduate experience. Postdoctoral fellowships are one way to gain this experience.Nuclear chemists may pursue a teaching and/or research career in academia, or they may oversee a laboratory in industry or for a government agency or national laboratory. They may also support and train facility users or students or develop new capabilities for collecting and analyzing data.After gaining several years of postgraduate experience, nuclear chemists may move into managing a suite of laboratories, or they may direct research programs.
The Chemistry and Metallurgy Research Replacement Facility, usually referred to as the CMRR, is a facility under construction at Los Alamos National Laboratory in New Mexico which is part of the United States' nuclear stockpile stewardship program. Blood brothers willy russell script download free. The facility will replace the aging Chemistry and Metallurgy Research (CMR) facility. It is located in Technical Area 55 (TA-55) and consists of two buildings: the Nuclear Facility (CMRR-NF) and the Radiological Laboratory, Utility, and Office Building (RLUOB). The two buildings will be linked by tunnels and will connect to LANL's existing 30-year-old plutonium facility PF-4.[1] The facility is controversial both because of spiraling costs and because critics argue it will allow for expanded production of plutonium 'pits' and therefore could be used to manufacture new nuclear weapons.
Background[edit]
Construction of the Chemistry and Metallurgy Research (CMR) building began in 1949 and was completed in 1952.[2] The building contained six wings and in 1959 a seventh laboratory wing was added. In 1960, Los Alamos built Wing 9, a 64,000-square-foot (5,900 m2) addition containing hot cells with remote handling capabilities. In total, the CMR building now contains roughly 550,000 square feet (51,000 m2) of laboratories and related facilities.
According to Los Alamos officials, 'many of the CMR facility systems and structural components are aged, outmoded, eroding, and generally deteriorating.' In 1999, the NNSA decided to plan for the 'end-of-life' of the CMR building around 2010.[2][3] Thereafter planning began for the CMRR facility which would serve as a replacement. There is evidence the need for an upgrade is real, since in 2010 federal safety auditors reported the building was 'seismically fragile and poses a continuing risk to workers and the public.'[4]
Ground was broken on the CMRR project on January 12, 2006.[5] Construction of the CMRR is proceeding in three phases. The first phase is the construction of the Radiological Laboratory Utility Office Building, which is expected to be finished around 2011.[5] It has an estimated cost of $164 million and will house 'a radiological laboratory, a training center, two simulation labs, and cleared and uncleared office space for some 350 Lab personnel'.[6] The second phase is the Special Equipment Facility (SPF) and the third phase is the Nuclear Facility (NF).[7]
The initial cost of the CMRR project was approved at $745–$975 Million. The total projected cost in 2008 was reported at $2 billion.[6] In 2010, the total cost of the project was still not finalized but was estimated between $4 and $5 Billion.[8][9] There is a $4 billion placeholder in the Obama administration's Fiscal Year 2011 budget for the CMRR.[10] In 2010, a top lab manager suggested that the final price tag probably will not be known until 2014.[10] The expected completion date is also unknown but it has been reported the project may not be completed until 2022.[11]
CMRR-NF[edit]
The Nuclear Facility portion was expected to be completed around 2014 but has been delayed. It is a very complex building, featuring NNSA Security Category 1 laboratory space and a total of approximately 306 enclosures, 26 fume hoods and 43 sections of Material Transfer System (MTS).[12] The Nuclear Facility will contain a 6-metric ton vault that will approximately triple LANL's plutonium storage capacity.[1] There have been several difficulties in design including earthquake concerns and fail-safe issues regarding plutonium vault design.[1] In particular, security worries called for the facility to be largely underground, but this led to increased seismic worries, which pushed the excavation requirements from 50 feet (15 m) to 125 feet (38 m) and increased the amount of concrete in the foundation to 225,000 cubic yards.[8]
Controversy[edit]
Critics argue that the CMRR project is a violation, or has the potential to be a violation, of the Nuclear Non-Proliferation Treaty between the US, China, Russia, Britain and France.[1] Critics also argue that the new facility is unnecessary for maintaining the nuclear stockpile and may be seen as a threatening development because it allows for the production of new types of nuclear weapons.[9] Critics also cite the spiraling costs (mentioned earlier) as a major problem. Greg Mello, the director of the Los Alamos Study Group (LASG), 'The dramatic cost escalation at CMRR-NF together with the problem of bringing other facilities into compliance with seismic safety requirements has unquantified cost implications and unknown feasibility.' The original cost of the CMRR-NF was estimated at $400 million in 2003 and has grown to a current estimate of $3.7 - $5.8 billion.
Detractors also argue against the un-justified capabilities to produce new plutonium pits, which constitute the core and active component of nuclear weapons.[13] LANL currently has the capacity to produce 10 to 20 pits a year, but this is expected to come to an end with the shut down of the CMR in 2010. The CMRR will expand this capability, but it is not known by how much. An Institute for Defense Analyses report written before 2008 estimated a “future pit production requirement of 125 per year, with a surge capability of 200.'[11] The need for pit production is a complex issue, with the government and the military arguing that refurbishment and replacement capabilities are needed. The aging time of pits before refurbishment is needed is still being studied but some believe it is likely around 100 years or more.[14] The U.S. has about 23,000 pits, of which about 10,000 are in weapons and roughly 15,000 are in storage at the Pantex Plant near Amarillo, Texas.[14]
Several protests were held, including a 10-day summer camp in August 2010 called 'Disarmament Summer Encampment' held in Los Alamos and organized by the nuclear abolition group Think Outside the Bomb.[15] A non-violent civil disobedience style protest on August 6, 2010 resulted in eight arrests.[16]
On August 16, 2010, the Los Alamos Study Group filed a lawsuit against the Department of Energy (DOE) and the National Nuclear Security Administration (NNSA) which states that the original environmental impact statement (EIS) completed in 2003, with a record of decision (ROD) in 2004, is not a legitimate EIS for the current design and is a direct violation of the NEPA. The lawsuit states that the current CMRR-NF project needs to be halted until a new EIS is studied, accessing the need for this facility and its purpose and studying thoroughly all alternatives, including other locations, upgrading existing facilities, or canceling the project all together.[4][17] NNSA decided to complete a new 'Supplemental Environmental Impact Statement' on the project, but LASG refused to drop the suit. Judge Judith Herrera dismissed the lawsuit on May 23, 2011, saying the case was “prudentially moot” and “not yet ripe”.[18] NNSA officials—without any public review—revamped the design of the CMRR-NF, using what they describe as a multi-functional “hotel concept” that can be used in the future for a range of unspecified nuclear weapons activities. LANL officials were considering using the 400,000 cubic yards of excavated volcanic ash from construction to cap two old waste disposal sites that contain 14 million cubic feet of nuclear and chemical residues.[4] The lawsuit claimed this was a violation of the National Environmental Policy Act and noted 'The decision to leave 14 million cubic feet of nuclear and chemical waste in shallow unlined disposal pits covered by this material would be a major federal action significantly affecting the quality of the human environment, with far-reaching impacts.'[17]
References[edit]
- ^ abcdMello, Greg (20 March 2008). 'The U.S. nuclear weapons complex: Pushing for a new production capability'. Bulletin of the Atomic Scientists. Retrieved 25 September 2010.
- ^ ab'Historical Overview'. LANL. Archived from the original on May 27, 2010. Retrieved 25 September 2010.
- ^'CMRR Project Schedule'. LANL. Archived from the original on May 27, 2010. Retrieved 25 September 2010.
- ^ abcFleck, John (September 23, 2010). 'New Study of LANL Project Proposed'. Albuquerque Journal. Retrieved 25 September 2010.
- ^ ab'Laboratory breaks ground on new CMRR building'. LANL News Bulletin. January 13, 2006. Retrieved 7 July 2010.
- ^ ab'Builders Place Final Beam in First Phase of CMRR Project'. LANL Press Release. July 22, 2008. Retrieved 25 September 2010.
- ^'CMRR Public Meeting, September 19, 2006 Volume 2'(PDF). LANL. Retrieved 25 September 2010.[permanent dead link]
- ^ abSnodgrass, Roger (18 August 2010). 'Group files suit to halt LANL nuke facility'. The New Mexican. Retrieved 25 September 2010.
- ^ abMalten, Willem (April 17, 2010). 'Los Alamos Lab's CMRR-NF project would send wrong message to world'. The New Mexican. Archived from the original on February 1, 2013. Retrieved 25 September 2010.
- ^ abFleck, John (June 29, 2010). 'Congress Chafes Over Nuke Costs'. Alberquerque Journal. Retrieved 25 September 2010.
- ^ abPein, Corey (August 21, 2010). 'It's the Pits: Los Alamos wants to spend billions for new nuke triggers'. Santa Fe Reporter. Retrieved 25 September 2010.
- ^'CMRR Project: Nuclear Facility (NF)'. LANL. Archived from the original on May 27, 2010. Retrieved 25 September 2010.
- ^'Restarting plutonium pit production: no need, high costs (talking points)'. LASG. Retrieved 25 September 2010.
- ^ ab'Plutonium Pit Production — LANL's Pivotal New Mission'. Retrieved 25 September 2010.
- ^Parker, Phil (August 2, 2010). 'Protest Planned for Los Alamos'. Albuquerque Journal. Archived from the original on 2011-07-22. Retrieved 25 September 2010. See also February 28, 2010 CMRR protest pictures here
- ^'LANL 8 Head to Court in Los Alamos, New Mexico Today'. Think Outside the Bomb Press Release. August 9, 2010. Retrieved 25 September 2010.
- ^ abLobsenz, George (August 18, 2010). 'Greens Sue To Stop New Plutonium Plant At Los Alamos Lab'. Defense Daily. Retrieved 25 September 2010.
- ^July 1, 2011.Study Group Resumes Litigation againstProposed $6 Billion LANL Plutonium Facility