Los Alamos National Laboratory (LANL) is one of the nation's leading scientific laboratories operated by Los Alamos National Security for the Department of Energy. LANL received $212 million under the American Recovery and Reinvestment Act to fund environmental cleanup projects, including demolishing 21 buildings at Technical Area 21 and removing waste from Material Disposal Areas A and B. The Recovery Act projects are expected to save or create over 300 jobs and improve safety by reducing contamination at the site.
This document summarizes research on the health and economic impacts of mercury pollution, particularly from coal-fired power plants. It finds that even low-level exposure to methylmercury from fish consumption can slightly reduce cognitive function in children. An estimated 15.7% of women of childbearing age in the US have blood mercury levels exceeding safety thresholds. The cost of lost economic productivity from mercury-related IQ decrements in a single US birth cohort is estimated at $2.2-43.8 billion. The document calls for further analysis comparing the public health and economic impacts of different policy proposals to reduce mercury pollution.
The document summarizes renovation plans for the Chemistry Department at the National University of Singapore. It describes the existing facilities and plans to consolidate space and research areas through renovating existing buildings and constructing new buildings by 20XX. The first renovation involved converting a synthesis teaching lab, which required redesigning the lab layout, ventilation, and addressing issues like humidity control. Future plans include renovating entire labs and teaching labs on tighter schedules while managing utility considerations.
Chemistry involves exposure to hazardous chemicals, but exposure can be managed by keeping it below recognized limits and informing workers of risks. While universities produce chemists for industry, government, and academia, textbooks often omit teaching students how to safely handle concentrated acids/bases and toxic chemicals. This misses opportunities to explain dilution, hazard assessments, risk evaluations, and safe waste disposal. Instructors should introduce concepts like hazard, risk management, and chemical substitution to help students respect chemical risks and safely handle hazardous materials as future professionals.
The document discusses tools from the National Library of Medicine (NLM) for first responders, including the Wireless Information System for Emergency Responders (WISER). WISER allows users to identify unknown chemicals through physical properties, symptoms, or other criteria. It is available as both a standalone app and online, and supports many mobile platforms. The latest version adds the chemical identification features to the iPhone/iPod app.
The document discusses reactive and air/water sensitive chemicals and provides tips to avoid chemical accidents. It notes that on average there are 2 chemical accidents per day, with 6% resulting in death. Every 45 days there is a major chemical accident causing $600,000 of property damage on average. The cost of a single worker's compensation claim is $15,000. Examples of pyrophoric and air/moisture sensitive chemicals are provided. Sources of chemical safety information are listed. A tool called Hazmat Explorer is described which allows searching of chemical safety data. Methods for handling air sensitive chemicals like using syringes or glove boxes are outlined. The importance of proper equipment, procedures and training for working with reactive chemicals is emphasized
Sheila Kennedy and John Palmer teach chemistry labs with around 1000 students total each quarter at University of California, San Diego. All students are required to pass a lab safety exam administered in their second or third lab meeting to demonstrate understanding of safety procedures and could be dropped from the course if they fail. The exam is multiple choice and administered via Scantron to efficiently grade the hundreds of students. Students who fail have an option to review safety materials and retake the exam or be administratively dropped from the course. Over 90% of students pass on their first or second attempt.
This document summarizes research on the health and economic impacts of mercury pollution, particularly from coal-fired power plants. It finds that even low-level exposure to methylmercury from fish consumption can slightly reduce cognitive function in children. An estimated 15.7% of women of childbearing age in the US have blood mercury levels exceeding safety thresholds. The cost of lost economic productivity from mercury-related IQ decrements in a single US birth cohort is estimated at $2.2-43.8 billion. The document calls for further analysis comparing the public health and economic impacts of different policy proposals to reduce mercury pollution.
The document summarizes renovation plans for the Chemistry Department at the National University of Singapore. It describes the existing facilities and plans to consolidate space and research areas through renovating existing buildings and constructing new buildings by 20XX. The first renovation involved converting a synthesis teaching lab, which required redesigning the lab layout, ventilation, and addressing issues like humidity control. Future plans include renovating entire labs and teaching labs on tighter schedules while managing utility considerations.
Chemistry involves exposure to hazardous chemicals, but exposure can be managed by keeping it below recognized limits and informing workers of risks. While universities produce chemists for industry, government, and academia, textbooks often omit teaching students how to safely handle concentrated acids/bases and toxic chemicals. This misses opportunities to explain dilution, hazard assessments, risk evaluations, and safe waste disposal. Instructors should introduce concepts like hazard, risk management, and chemical substitution to help students respect chemical risks and safely handle hazardous materials as future professionals.
The document discusses tools from the National Library of Medicine (NLM) for first responders, including the Wireless Information System for Emergency Responders (WISER). WISER allows users to identify unknown chemicals through physical properties, symptoms, or other criteria. It is available as both a standalone app and online, and supports many mobile platforms. The latest version adds the chemical identification features to the iPhone/iPod app.
The document discusses reactive and air/water sensitive chemicals and provides tips to avoid chemical accidents. It notes that on average there are 2 chemical accidents per day, with 6% resulting in death. Every 45 days there is a major chemical accident causing $600,000 of property damage on average. The cost of a single worker's compensation claim is $15,000. Examples of pyrophoric and air/moisture sensitive chemicals are provided. Sources of chemical safety information are listed. A tool called Hazmat Explorer is described which allows searching of chemical safety data. Methods for handling air sensitive chemicals like using syringes or glove boxes are outlined. The importance of proper equipment, procedures and training for working with reactive chemicals is emphasized
Sheila Kennedy and John Palmer teach chemistry labs with around 1000 students total each quarter at University of California, San Diego. All students are required to pass a lab safety exam administered in their second or third lab meeting to demonstrate understanding of safety procedures and could be dropped from the course if they fail. The exam is multiple choice and administered via Scantron to efficiently grade the hundreds of students. Students who fail have an option to review safety materials and retake the exam or be administratively dropped from the course. Over 90% of students pass on their first or second attempt.
Nuclear Reactors, Materials, and Waste CIKR Sector: Case Study of the Nuclea...Lindsey Landolfi
The Three Mile Island nuclear accident in 1979 was caused by a series of mechanical failures and human errors that led to a partial meltdown of the reactor core. It highlighted issues with emergency response such as delays in notifying authorities, inconsistent information provided to the public, and a mistaken evacuation order. The accident caused low levels of radiation release but no direct deaths or injuries. It revealed vulnerabilities in nuclear plant safety systems and operator training as well as poor coordination between authorities during the emergency response.
The Hallam Nuclear Power Facility site in Lancaster County, Nebraska entombed residual radioactive materials onsite after decommissioning a sodium-cooled nuclear reactor in the 1960s-1970s. Current activities include annual groundwater monitoring to ensure containment of contaminants. The 7.3 hectare site is estimated to require groundwater monitoring and maintenance from 1998 to past 2070 at an average annual cost of $46,000.
09 0214 NO To BNPP Bataan Dr. Kelvin Rodolfogtapang
The document discusses several risks and issues associated with nuclear power and reopening the Bataan Nuclear Power Plant (BNPP) in the Philippines. It notes that BNPP is located on an active volcano, Mount Natib, which last erupted 11,000-18,000 years ago. It also discusses the seismic risks, with faulting occurring as recently as 3,000 years ago. The document questions claims that reopening BNPP would only cost $800 million and take 5 years, as the plant would need extensive modernization and safety assessments given its age.
Nei japan generic_ppt_slide_deck_final_3-23-11casenergy
The document summarizes the Japanese nuclear accident at the Fukushima Daiichi Nuclear Power Plant following the 2011 earthquake and tsunami, and the U.S. response. It provides details on the status of units at the plant, the boiling water reactor design, and safety measures in place at U.S. nuclear plants. It also outlines short-term industry actions being taken in the U.S. to verify safety following lessons learned from Fukushima.
This document summarizes Ryan Lloyd's work at Los Alamos National Laboratories assisting with the Mortendad Canyon Chromium+6 Groundwater Remediation project. The project aims to reduce high levels of chromium 6 in the groundwater of Mortendad Canyon, which resulted from legacy pollution from past laboratory experiments. As part of the project, Lloyd ran water samples to test for various chemical species, recorded data, and assisted with other environmental remediation and research projects. Testing showed that chromium 6 levels in the groundwater exceeded EPA standards by 30 times, and treatment and monitoring will continue indefinitely until the contaminant plume is reduced.
The document provides information on 5 sites in New Jersey that may require long-term stewardship: DuPont & Company, Maywood Chemical Works, Middlesex Sampling Plant, Princeton Plasma Physics Laboratory, and Wayne Site. For each site, it gives a brief overview of past activities that led to contamination and notes that cleanup is not yet complete, so long-term stewardship requirements are not yet determined. Contact information is also provided for each site.
The Hallam Nuclear Power Facility in Lancaster County, Nebraska was a former nuclear reactor that operated from 1962 to 1964. It was decommissioned and dismantled in the late 1960s, with some low-level radioactive materials entombed onsite. Current activities involve annual groundwater monitoring to ensure the stability of the entombed reactor. The site is 7.3 hectares and estimated costs for long-term stewardship activities from 1998 to past 2070 are $46,000 annually on average. The primary long-term activity is groundwater monitoring to ensure no contamination has migrated from the buried materials.
LANL has a long history of addressing nuclear nonproliferation threats and reducing global dangers from weapons of mass destruction. The document outlines LANL's capabilities in areas such as arms control, detection of nuclear materials, safeguards, and emergency response. It proposes that LANL pursue opportunities to strengthen nonproliferation treaties and supply technologies to support nonproliferation research.
Scholarly Communications at a National Research Lab: Approaches to Research a...Dee Magnoni
Presentation takes a 360 degree look at open scholarly communication at Los Alamos National Laboratory (LANL), identifying key stakeholders and their roles in the success of Lab research. Approaches and activity to date are discussed, including cross-Lab collaboration, policy creation and implementation, service and tool development, and our work on international research challenges such as link rot.
The document provides site summaries for 4 locations in New Jersey - the DuPont & Company site, Maywood Chemical Works, Middlesex Sampling Plant, and Princeton Plasma Physics Laboratory. It describes the historical activities at each site, the contaminants present, and notes that the U.S. Army Corps of Engineers is responsible for remediation at these Formerly Utilized Sites Remedial Action Program sites, while the U.S. Department of Energy is responsible for any long-term stewardship activities once cleanup is complete. However, the document notes that cleanup is not yet finalized at these sites so the extent of required long-term stewardship is not yet determined.
The document discusses the US Department of Defense's and Navy's goals and efforts to increase their use of renewable and alternative energy sources in order to improve energy security and reduce dependence on petroleum. Some key goals include having 50% of total energy consumption from alternative sources by 2020 and demonstrating a "Great Green Fleet" that relies on biofuel by 2016. The Navy has implemented various renewable energy pilot projects and installations using technologies like solar, wind, geothermal, and wave/tidal power.
Sandia National Laboratories conducts research in renewable energy and other fields for the U.S. Department of Energy. It has been involved in wind energy research since the 1970s, focusing on developing more efficient and environmentally friendly energy technologies. Its current wind energy work supports the DOE's goal of having wind provide 35% of U.S. electricity by 2050 through research in areas like advanced rotor and blade designs, testing at research facilities, modeling and simulation, and improving reliability.
The glg slide deck as 1700 edt monday 2 may 2011 tdrolet
The document summarizes the early development of nuclear power, including key events like the first nuclear chain reaction in 1942 and the world's first nuclear power plant in 1957. It then discusses the growth of nuclear power in the 1960s-70s, challenges in the late 1970s after Three Mile Island, and renewed interest in nuclear power since the 1990s due to concerns over energy supply, climate change and peak oil. The document advocates for developing safer nuclear technologies like Gen 3+ reactors to help meet the world's increasing clean energy needs.
The Savannah River Site in South Carolina covers 80,127 hectares and produces nuclear materials. Major long-term stewardship activities include institutional controls, monitoring, and operating treatment systems. An estimated 26.4 million is spent annually on long-term stewardship. The site has remediated over 300 of 500 contaminated acres and cleaned over 4 billion gallons of groundwater. Future plans include ongoing cleanup efforts and disposition of wastes and materials stored on site.
This document summarizes a presentation on actinide and brine chemistry in salt repositories. It discusses the rationale for studying actinide/brine systems in salt repositories, including regulatory requirements to address low probability scenarios. It also discusses how repository design and geotechnical issues impact actinide/brine chemistry through factors like brine availability and redox conditions. Finally, it provides an overview of various activities related to actinide/brine chemistry, including the NEA Pitzer database and upcoming workshops on the topic.
This document provides an overview of an environmental services company. It discusses the company's profile, key clients, services, and major programs. The company has decades of experience providing environmental remediation, decontamination and decommissioning, staff augmentation, and construction services to both government and commercial clients. It has worked on high profile projects at sites like NASA, DOE laboratories, and military bases across the US and internationally.
Writing Sample - Ocean Energy Research Paperatsherwi
The following is a brief research paper that I wrote on ocean energy for an energy law course I took at Vermont Law School in 2009. This paper required research on energy policy, congressional legislation, and administration regulations.
This document discusses proposals for disposing of nuclear waste in space. It outlines two types of nuclear waste disposal: terrestrial and space disposal. Space disposal would involve processing nuclear waste into a cermet form and launching it into space using various propulsion methods. The document discusses the technical requirements and processes for fabricating nuclear waste payloads, transporting them to launch sites, and carrying out launch operations. However, it also notes that space disposal faces political, social, and risk-related challenges.
The document outlines an agenda for a presentation on building better laboratories. The presentation will discuss project roles and definitions, and provide examples of thinking like a user, including engaging maintenance staff in design, cleanliness perceptions, means and methods, BIM value, hoteling concepts, commissioning integration, and always seeking new solutions. The purpose is to explain key concepts for a successful lab project from a builder's perspective and identify what end users and facility managers should know and expect.
Yale University has transformed its former pharmaceutical campus into a research hub known as Yale West Campus. The 136-acre campus contains over 1.6 million square feet of research labs, administrative offices, and specialty storage facilities. Yale aims to establish interdisciplinary institutes that bring together faculty from across the university to work on challenges in health, environment and energy. The director of research technology discusses challenges in integrating the new campus, developing its identity and vision, and planning state-of-the-art research facilities. Several case studies highlight how old buildings have been repurposed and new centers designed to foster collaboration among researchers.
The document summarizes the role and activities of the Director of Research Technology (DoRT) at Yale University. It discusses how DoRT supports research by managing shared research instrumentation, facilitating relationships with faculty and vendors, assisting with facilities planning, and providing other services. It also gives examples of DoRT's work, such as acquiring and inventorying lab equipment from a new research campus and providing a 5-stage process for integrating new faculty into the research environment at Yale within 1 year.
Nuclear Reactors, Materials, and Waste CIKR Sector: Case Study of the Nuclea...Lindsey Landolfi
The Three Mile Island nuclear accident in 1979 was caused by a series of mechanical failures and human errors that led to a partial meltdown of the reactor core. It highlighted issues with emergency response such as delays in notifying authorities, inconsistent information provided to the public, and a mistaken evacuation order. The accident caused low levels of radiation release but no direct deaths or injuries. It revealed vulnerabilities in nuclear plant safety systems and operator training as well as poor coordination between authorities during the emergency response.
The Hallam Nuclear Power Facility site in Lancaster County, Nebraska entombed residual radioactive materials onsite after decommissioning a sodium-cooled nuclear reactor in the 1960s-1970s. Current activities include annual groundwater monitoring to ensure containment of contaminants. The 7.3 hectare site is estimated to require groundwater monitoring and maintenance from 1998 to past 2070 at an average annual cost of $46,000.
09 0214 NO To BNPP Bataan Dr. Kelvin Rodolfogtapang
The document discusses several risks and issues associated with nuclear power and reopening the Bataan Nuclear Power Plant (BNPP) in the Philippines. It notes that BNPP is located on an active volcano, Mount Natib, which last erupted 11,000-18,000 years ago. It also discusses the seismic risks, with faulting occurring as recently as 3,000 years ago. The document questions claims that reopening BNPP would only cost $800 million and take 5 years, as the plant would need extensive modernization and safety assessments given its age.
Nei japan generic_ppt_slide_deck_final_3-23-11casenergy
The document summarizes the Japanese nuclear accident at the Fukushima Daiichi Nuclear Power Plant following the 2011 earthquake and tsunami, and the U.S. response. It provides details on the status of units at the plant, the boiling water reactor design, and safety measures in place at U.S. nuclear plants. It also outlines short-term industry actions being taken in the U.S. to verify safety following lessons learned from Fukushima.
This document summarizes Ryan Lloyd's work at Los Alamos National Laboratories assisting with the Mortendad Canyon Chromium+6 Groundwater Remediation project. The project aims to reduce high levels of chromium 6 in the groundwater of Mortendad Canyon, which resulted from legacy pollution from past laboratory experiments. As part of the project, Lloyd ran water samples to test for various chemical species, recorded data, and assisted with other environmental remediation and research projects. Testing showed that chromium 6 levels in the groundwater exceeded EPA standards by 30 times, and treatment and monitoring will continue indefinitely until the contaminant plume is reduced.
The document provides information on 5 sites in New Jersey that may require long-term stewardship: DuPont & Company, Maywood Chemical Works, Middlesex Sampling Plant, Princeton Plasma Physics Laboratory, and Wayne Site. For each site, it gives a brief overview of past activities that led to contamination and notes that cleanup is not yet complete, so long-term stewardship requirements are not yet determined. Contact information is also provided for each site.
The Hallam Nuclear Power Facility in Lancaster County, Nebraska was a former nuclear reactor that operated from 1962 to 1964. It was decommissioned and dismantled in the late 1960s, with some low-level radioactive materials entombed onsite. Current activities involve annual groundwater monitoring to ensure the stability of the entombed reactor. The site is 7.3 hectares and estimated costs for long-term stewardship activities from 1998 to past 2070 are $46,000 annually on average. The primary long-term activity is groundwater monitoring to ensure no contamination has migrated from the buried materials.
LANL has a long history of addressing nuclear nonproliferation threats and reducing global dangers from weapons of mass destruction. The document outlines LANL's capabilities in areas such as arms control, detection of nuclear materials, safeguards, and emergency response. It proposes that LANL pursue opportunities to strengthen nonproliferation treaties and supply technologies to support nonproliferation research.
Scholarly Communications at a National Research Lab: Approaches to Research a...Dee Magnoni
Presentation takes a 360 degree look at open scholarly communication at Los Alamos National Laboratory (LANL), identifying key stakeholders and their roles in the success of Lab research. Approaches and activity to date are discussed, including cross-Lab collaboration, policy creation and implementation, service and tool development, and our work on international research challenges such as link rot.
The document provides site summaries for 4 locations in New Jersey - the DuPont & Company site, Maywood Chemical Works, Middlesex Sampling Plant, and Princeton Plasma Physics Laboratory. It describes the historical activities at each site, the contaminants present, and notes that the U.S. Army Corps of Engineers is responsible for remediation at these Formerly Utilized Sites Remedial Action Program sites, while the U.S. Department of Energy is responsible for any long-term stewardship activities once cleanup is complete. However, the document notes that cleanup is not yet finalized at these sites so the extent of required long-term stewardship is not yet determined.
The document discusses the US Department of Defense's and Navy's goals and efforts to increase their use of renewable and alternative energy sources in order to improve energy security and reduce dependence on petroleum. Some key goals include having 50% of total energy consumption from alternative sources by 2020 and demonstrating a "Great Green Fleet" that relies on biofuel by 2016. The Navy has implemented various renewable energy pilot projects and installations using technologies like solar, wind, geothermal, and wave/tidal power.
Sandia National Laboratories conducts research in renewable energy and other fields for the U.S. Department of Energy. It has been involved in wind energy research since the 1970s, focusing on developing more efficient and environmentally friendly energy technologies. Its current wind energy work supports the DOE's goal of having wind provide 35% of U.S. electricity by 2050 through research in areas like advanced rotor and blade designs, testing at research facilities, modeling and simulation, and improving reliability.
The glg slide deck as 1700 edt monday 2 may 2011 tdrolet
The document summarizes the early development of nuclear power, including key events like the first nuclear chain reaction in 1942 and the world's first nuclear power plant in 1957. It then discusses the growth of nuclear power in the 1960s-70s, challenges in the late 1970s after Three Mile Island, and renewed interest in nuclear power since the 1990s due to concerns over energy supply, climate change and peak oil. The document advocates for developing safer nuclear technologies like Gen 3+ reactors to help meet the world's increasing clean energy needs.
The Savannah River Site in South Carolina covers 80,127 hectares and produces nuclear materials. Major long-term stewardship activities include institutional controls, monitoring, and operating treatment systems. An estimated 26.4 million is spent annually on long-term stewardship. The site has remediated over 300 of 500 contaminated acres and cleaned over 4 billion gallons of groundwater. Future plans include ongoing cleanup efforts and disposition of wastes and materials stored on site.
This document summarizes a presentation on actinide and brine chemistry in salt repositories. It discusses the rationale for studying actinide/brine systems in salt repositories, including regulatory requirements to address low probability scenarios. It also discusses how repository design and geotechnical issues impact actinide/brine chemistry through factors like brine availability and redox conditions. Finally, it provides an overview of various activities related to actinide/brine chemistry, including the NEA Pitzer database and upcoming workshops on the topic.
This document provides an overview of an environmental services company. It discusses the company's profile, key clients, services, and major programs. The company has decades of experience providing environmental remediation, decontamination and decommissioning, staff augmentation, and construction services to both government and commercial clients. It has worked on high profile projects at sites like NASA, DOE laboratories, and military bases across the US and internationally.
Writing Sample - Ocean Energy Research Paperatsherwi
The following is a brief research paper that I wrote on ocean energy for an energy law course I took at Vermont Law School in 2009. This paper required research on energy policy, congressional legislation, and administration regulations.
This document discusses proposals for disposing of nuclear waste in space. It outlines two types of nuclear waste disposal: terrestrial and space disposal. Space disposal would involve processing nuclear waste into a cermet form and launching it into space using various propulsion methods. The document discusses the technical requirements and processes for fabricating nuclear waste payloads, transporting them to launch sites, and carrying out launch operations. However, it also notes that space disposal faces political, social, and risk-related challenges.
The document outlines an agenda for a presentation on building better laboratories. The presentation will discuss project roles and definitions, and provide examples of thinking like a user, including engaging maintenance staff in design, cleanliness perceptions, means and methods, BIM value, hoteling concepts, commissioning integration, and always seeking new solutions. The purpose is to explain key concepts for a successful lab project from a builder's perspective and identify what end users and facility managers should know and expect.
Yale University has transformed its former pharmaceutical campus into a research hub known as Yale West Campus. The 136-acre campus contains over 1.6 million square feet of research labs, administrative offices, and specialty storage facilities. Yale aims to establish interdisciplinary institutes that bring together faculty from across the university to work on challenges in health, environment and energy. The director of research technology discusses challenges in integrating the new campus, developing its identity and vision, and planning state-of-the-art research facilities. Several case studies highlight how old buildings have been repurposed and new centers designed to foster collaboration among researchers.
The document summarizes the role and activities of the Director of Research Technology (DoRT) at Yale University. It discusses how DoRT supports research by managing shared research instrumentation, facilitating relationships with faculty and vendors, assisting with facilities planning, and providing other services. It also gives examples of DoRT's work, such as acquiring and inventorying lab equipment from a new research campus and providing a 5-stage process for integrating new faculty into the research environment at Yale within 1 year.
The document summarizes OSHA's Hazard Communication Standard 1910.1200. It outlines the purpose and definitions of key terms to ensure chemical hazards are evaluated and communicated. It describes requirements for written hazard programs, labels, safety data sheets, and employee training. It provides details on hazard classification and the changes made to harmonize with the global standard including new definitions, pictograms, and safety data sheet format.
The document discusses a new Chemical Hazard Use Authorization (CHUA) online application that will allow principal investigators to register high hazard chemicals and obtain Hazard Control Plans. The CHUA aims to provide predictable and effective management of high-risk materials through cooperative management between campus entities, promotion of active safety management, rigorous oversight and accountability, and tools to help safely manage high-risk activities.
The document describes a technique called Lab-HIRA (Hazard Identification and Risk Analysis) for identifying and assessing hazards associated with chemical synthesis in a research laboratory. Lab-HIRA involves identifying hazards using data on the physical, chemical and health properties of reactants and reactions. Once hazards are identified, appropriate risk minimization measures can be implemented. The document provides examples of how Lab-HIRA classifies hazard data and identifies hazardous characteristics and reaction types.
Using transparency to increase awareness of chemical hazardsDIv CHAS
This document summarizes a study on how to make chemical hazard information on the internet more useful for researchers and workers at universities. It tested the relevance, compatibility, and accessibility of various chemical safety websites using ratings from students and laboratory staff. Websites from the Agency for Toxic Substances and Disease Registry (ATSDR), New Jersey Right to Know program, and International Chemical Safety Cards were rated most highly. The study found that for chemical safety sites to be useful, they need relevant and easily accessible content, as well as high search engine rankings like on Google.
This document discusses lessons learned from designing an interactive safety training course. It covers how people learn, including the difference between working and long-term memory. It also presents models for instructional design, like the ROPES model of review, overview, presentation, exercise and summary. Specific techniques are discussed like varying activities every 20 minutes and interacting every 8 minutes. The document concludes by outlining the implementation of safety lessons for different chemistry courses.
This document summarizes a presentation on challenges and solutions for research operations at Oak Ridge National Laboratory. It discusses defining an operations philosophy focused on directly supporting research. It also addresses developing a team approach with expertise at all levels, from subject matter experts to local support staff. Finally, it outlines taking a plan-based approach to focus areas to continuously improve operations while keeping research progressing efficiently.
The document discusses the role of managing the interface between research organizations and teams involved in designing, constructing, and moving facilities. It focuses on minimizing research downtime by having a research representative embedded throughout the process to facilitate efficient planning, communication, and timely resolution of conflicts. The role involves listening to researcher needs, balancing those with flexibility, and negotiating communication between all parties.
This document discusses the challenges and solutions for research operations at a premier aerospace and defense company that works with high-risk energetic materials. It outlines the organizational structure, business challenges including budget constraints, and technical challenges of working with explosives and propellants. Solutions discussed include organizational checks and balances between research and operations, implementing hazard recognition and risk management processes, taking a lifecycle approach with operational discipline, using tracking tools, and ensuring leadership engagement. Recent successes highlighted effective planning and preparation, establishing new processes safely, and growing business lines.
This document discusses fire codes and chemical limits for scientific facilities. It provides examples of how infrastructure affects maximum allowable quantities of hazardous materials. Specifically, it compares a 1950s facility with one constructed in 1999. The older facility had inadequate fire barriers and a single chemical control area, limiting it to lower quantities. The newer facility has proper fire barriers and 10 separate chemical control areas, allowing storage of much greater amounts divided among the areas. The document emphasizes that chemical storage limits depend on the occupancy classification, safety features of the building, and requirements of the building and fire codes.
Developing effective safety training for a changing audienceDIv CHAS
The document discusses developing effective safety training for a changing audience. It notes that effective training incorporates visual, auditory, and kinesthetic learning modalities and encourages active learning. Examples of training methods discussed include instructor-led training using objectives, worksheets, and demonstrations, as well as online or computer-based training using video, audio, and interactivity. The goal is to develop training that meets different learning needs and engages learners through problem-based scenarios.
Princeton University has rigorous lab safety training requirements for all individuals working in its over 600 laboratories. The training includes a 3-hour classroom session covering topics like health hazards, emergency procedures, and risk assessment. Undergraduate science majors must complete this training, as well as additional in-lab training, to ensure they are prepared to work independently in future research projects. Graduate students also receive mandatory safety training tailored to their programs. The goal is for all laboratory workers to have a strong base of safety knowledge no matter their role at the university.
Using transparency to increase awareness of chemical hazards.pptxDIv CHAS
This document summarizes a study on how to make chemical hazard information on the internet more useful for researchers and workers. The study tested how 35 participants rated the relevance, compatibility and accessibility of various chemical safety websites in responding to hypothetical chemical exposure scenarios. Websites from government agencies like ATSDR and NIOSH rated highly according to these criteria. The findings suggest that for chemical safety information online to be truly useful, sites need relevant and easy-to-understand content as well as high searchability in engines like Google.
This document discusses efforts to improve chemical safety culture at Texas Tech University's Department of Chemistry and Biochemistry following a laboratory explosion in 2010. It provides background on Texas Tech University and the chemistry department. It then outlines the response to the explosion, which included reorganizing safety committees, requiring safety training and personal protective equipment, and increasing regulatory oversight of laboratories. It describes additional changes made by the chemistry department such as implementing peer safety reviews, developing incident reporting processes, and emphasizing safety in graduate education and faculty evaluations. Finally, it discusses lessons learned about the challenges of ensuring chemical safety culture.
Safety culture and academic laboratory accidentsDIv CHAS
The document summarizes Miriam Weil's research on safety culture in academic laboratories. It details accidents that occurred at UCLA, Northwestern, and Dartmouth and how each institution addressed laboratory safety after the incidents. Weil conducted interviews and literature reviews to analyze the key elements of safety culture. Her research identified management commitment to safety, communication of safety information, and trust as the three most critical values of an effective safety culture.
This document describes a hazard identification and risk analysis (Lab-HIRA) technique for chemical research laboratories. The Lab-HIRA technique involves identifying hazards of planned chemical syntheses using data on reactants, reactions, and experimental conditions. This includes assigning hazard indices to discrete property values and characteristic hazards. Once hazards are identified, appropriate risk minimization measures can be implemented. The document provides examples of applying the Lab-HIRA technique to sample chemical properties, characteristics, reaction types, and conditions.
Chemistry involves exposure to hazardous chemicals, but exposure can be managed by keeping it below recognized limits and informing workers of risks. While universities produce chemists for industry, government, and academia, textbooks often omit teaching students how to safely handle concentrated acids/bases and toxic chemicals. This misses opportunities to explain dilution, hazard assessments, risk evaluations, and safe waste disposal. Instructors should introduce concepts like hazard, risk management, and chemical substitution to help students respect chemical risks and safely work with hazardous materials as future chemists.
This document discusses the installation of fire suppression systems in gloveboxes and summarizes the research done to evaluate options. An automatic clean agent fire extinguisher was selected that is self-contained, compact, and activates based on temperature. Computational modeling and experiments were used to validate the reliability and performance of the extinguisher under different conditions. The extinguisher was certified to extinguish Class A, B, and C fires and presents the most reliable option, especially in seismic events.
1. ATOMICS in Action:
An Injury-Free Career at
Los Alamos National Laboratory
American Chemical Society
Fall 2010 National Meeting & Exposition
August 22 – 26, 2010 Boston, Massachusetts, USA
Mary Rose L. Montalvo, ESH-OFF
Jim Kleinsteuber, ESH-OFF
LA-UR-10-01882
Slide 1
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
2. Los Alamos National Laboratory (LANL)
Los Alamos National Laboratory is one of the nation’s leading scientific and
defense laboratories, operated by Los Alamos National Security, LLC for the U.S.
Department of Energy’s NNSA. LANL is one of the original weapons complex labs
dating back to the days of the Manhattan Project during World War II.
LA-UR-10-01882 Slide 2
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
3. LANL Mission
The Laboratory's mission is to develop and apply science and technology to
Ensure the safety, security, and reliability of the U.S. nuclear deterrent;
reduce global threats; and
solve other emerging national security challenges.
LA-UR-10-01882 Slide 3
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
4. Collaborative Research
Center for Bio-Security Science - threats to national security, public health and agriculture from natural,
emerging, and engineered infectious agents.
Center for Information Science and Technology - IS&T integration and support such as MaRIE and the new Bio-
Security and Energy Security centers.
Center for Integrated Nanotechnologies - ultrafast spectroscopy, physical synthesis, nano fluidics and chemical
synthesis.
Center for Nonlinear Studies - computational molecular biology, agent-based systems and modeling.
Energy Security Center - reliable, secure and sustainable carbon neutral energy solutions
Institute for Complex Adaptive Matter/LANL - emergent or nonlinear behavior in materials science
LA-UR-10-01882 Slide 4
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
5. Collaborative Research
Institute of Geophysics and Planetary Physics - astrophysics, complex dynamical systems, solid earth geo-
science, space physics
Los Alamos Neutron Science Center - spallation neutron sources for research
Lujan Neutron Scattering Center - employs pulsed spallation neutron source for neutron scattering studies of
condensed-matter
National High-Magnetic Field Laboratory - exotic, nonmagnetic materials for megagauss sensors
Superconductivity Technology Center - electric power and electronic device applications of high-temperature
superconductors
Quantum Institute - quantum cryptography, quantum computing
Seaborg Institute - plutonium and lighter actinide elements research
LA-UR-10-01882 Slide 5
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
6. Los Alamos National Laboratory (LANL)
LA-UR-10-01882 Slide 6
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
7. LANL received $212 million for environmental cleanup as part of
the American Recovery and Reinvestment Act of 2009.
The Lab’s Recovery Act projects include:
Decontamination and demolition of 21 buildings at Technical Area 21.
Removal and remediation of early laboratory waste from Material Disposal Area
B.
Installation of 16 groundwater monitoring wells.
The projects are expected to save or create or save more than 300 jobs and are
scheduled for completion in September 2011, except for MDA-B, which is
scheduled for completion in late 2010.
LA-UR-10-01882 Slide 7
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
8. Recovery Act Clean-Up
The Delta Prime (DP) Site, known as Technical Area 21 (TA-21).
TA-21 is located on DP Mesa southeast of the Los Alamos town site in
New Mexico. It was the site of chemical research for refining plutonium
and plutonium metal production from 1945 to 1978.
Funded by the American Recovery and Reinvestment Act of 2009,
TA-21 Closure Project is on schedule to complete investigations,
remediation, and decontamination and demolition activities by 2015.
LA-UR-10-01882 Slide 8
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
9. Los Alamos National Laboratory (LANL)
Many of the 20-plus buildings at the end of DP Road in Los Alamos, called
Technical Area 21 or TA-21, were built as long ago as the 1940s and served
various uses during the Manhattan Project and Cold War eras.
LA-UR-10-01882 Slide 9
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
10. Demolition by Design
Pre-demolition activities continue in other areas of Technical Area 21
as crews prepare buildings for demolition by removing equipment,
fixtures and pipes. To date, more than 300 tons of clean metal from
buildings at Technical Area 21 have been recycled.
LA-UR-10-01882 Slide 10
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
11. Demolition by Design
Tearing down a building is not as simple as swinging a wrecking ball or
sledgehammer. To ensure worker and public safety through demolition
and the removal of debris, each of the 21 buildings at TA-21 undergoes
a thorough preparation process.
LA-UR-10-01882 Slide 11
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
12. TA-21 Update
By January 2010, six buildings at TA-21 have been demolished,
including the 22,000-square-foot Building 210. The footprint of TA-21
has been reduced by about 27,000 square feet and 56 tons of metal
have been shipped for recycling.
LA-UR-10-01882 Slide 12
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
13. Material Disposal Area (MDA) A
MDA A is a Hazard Category 2 nuclear facility comprised of a 1.25-acre, fenced,
and radiologically controlled area situated on the eastern end of DP Mesa.
Two 50,000-gal. cylindrical steel storage tanks referred to as the General's Tanks
constructed for underground storage were emptied in the 1970's. The tanks
contain residual sludge from waste solutions contaminated with
plutonium-239/240 and americium-241.
Two eastern pits containing solid waste potentially contaminated with polonium,
plutonium, uranium, thorium, and other unidentified chemicals associated with
Laboratory operations. The pits received waste from 1945 to 1946.
LA-UR-10-01882 Slide 13
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
14. Material Disposal Area (MDA) A
One central pit containing TA-21 decontamination and
decommissioning debris potentially contaminated with radionuclides.
The central pit received waste from 1969 to 1978.
A former surface drum storage area that was used to store drums of
sodium hydroxide solution and stable iodine and that reportedly was
contaminated with plutonium and possibly uranium. The drum storage
area was used from the late 1940s until 1960.
LA-UR-10-01882 Slide 14
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
15. Material Disposal Area (MDA) B
Material Disposal Area (MDA) B is an inactive subsurface disposal site,
designated as Solid Waste Management Unit (SWMU 21-015), that may
contain both hazardous and radiological chemicals.
RCR activities regarding the hazardous chemical component of MDA B
are regulated by the New Mexico Environment Department (NMED)
through a Compliance Order on Consent.
LA-UR-10-01882 Slide 15
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
16. Material Disposal Area (MDA) B
The wastes disposed of at MDA B were highly heterogeneous, primarily
radioactively contaminated laboratory wastes and debris, and limited
liquid chemical waste; however, a formal waste inventory was not
maintained.
The excavation of Material Disposal Area B (MDA-B), the Lab's oldest
waste disposal site, will occur inside 13 sturdy metal buildings.
LA-UR-10-01882 Slide 16
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
17. Material Disposal Area (MDA) B Enclosures
Erecting and testing the mobility of the metal structures over MDA B.
LA-UR-10-01882 Slide 17
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
18. Safety, Secure Workplace
Make safety and security integral to every activity we do.
Safety and security are crucial.
Commitment: We will work to make safety and security the personal
responsibility of all of us, develop programs and engineered controls to
improve safety and security Labwide, and make Los Alamos a safer
place through employee involvement and continually improved
leadership.
LA-UR-10-01882 Slide 18
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
19. Safety Accomplishments
All Recovery Act work performed without a safety, security, or conduct
of operations reportable or lost work case
Worker Safety and Security Team (WSST) established
Safety Observation training ongoing for all Recovery Act workers
LA-UR-10-01882 Slide 19
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
20. Safety Observations
Tool to raise safety awareness in a non-threatening way
Allows for directed / guided observation teams
Tool to build trust with built-in anonymous feedback loop mechanism
↑ increase safety awareness
↓ decrease anxiety or threat of reporting errors
Goal is to fix things quickly and effectively
LA-UR-10-01882 Slide 20
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
21. Safety Observation Objectives
Provide positive reinforcement / feedback for safe behaviors
observed.
Identify error-likely conditions for corrective actions.
Gather meaningful data for analysis that identifies institutional
weaknesses in work management systems.
LA-UR-10-01882 Slide 21
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
22. Train to change perceptions:
1. Safety is not about the absence of
events, accidents, and mishaps.
2. Safety, in fact, is the presence of
defenses that safeguard against
events.
LA-UR-10-01882 Slide 22
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
23. Defense in Depth
LA-UR-10-01882 Slide 23
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
24. Observations
Identify job site hazards
Identify Controls or Lack of Controls
Identify Error-Likely Conditions
Manage exposure to risk
Reduce exposure and thereby reduce injury
LA-UR-10-01882 Slide 24
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
25. Human Performance Principles
1. People are fallible, and even the best make mistakes.
2. Error-likely situations are predictable, manageable, and preventable.
3. Individual behavior is influenced by organizational processes and values.
4. People achieve high levels of performance based largely on the
encouragement and reinforcement received from leaders, peers, and
subordinates.
5. Events can be avoided by understanding the reasons mistakes occur and
applying the lessons learned from past events.
LA-UR-10-01882 Slide 25
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
26. Identify Critical Tasks
If we can predict it: we can prevent it!
When implementing the process, workers provide ongoing input into
the sites data sheets which are designed to identify and manage risks
associated with their work.
Data sheets guide workers to ask the right questions necessary for
performing informed decisions prior to initiating work activities.
LA-UR-10-01882 Slide 26
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
27. Identify Critical Tasks
Data sheets guide workers to ask the right questions necessary for
performing informed decisions prior to initiating work activities.
LA-UR-10-01882 Slide 27
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
28. Observation Data Sheet Example
LA-UR-10-01882 Slide 28
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
29. Observers apply a strategic approach:
Anticipate and prevent active error at the job site.
Reduce total number of “at-risk” critical behaviors and/or conditions.
Identify and eliminate the related barriers/latent organizational weaknesses.
Change other factors to encourage safe behaviors.
LA-UR-10-01882 Slide 29
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
30. Organizational Responsibilities:
Reducing Errors (observations)
It is naïve (foolish) to think that positive reinforcement is the single
mechanism for safety observations success.
Managing Defenses (data analysis)
The organizational change initiative, identification of system, facility,
and equipment issues identified are at least as likely to be primary
improvement mechanisms as positive reinforcement.
LA-UR-10-01882 Slide 30
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
31. Data Recording and Analysis
Data analysis critical to improve safety performance, and identify
organization & process weaknesses
To enable good data analysis, all observations need to be recorded
Issues resulted from observation to be entered into LANL Performance
Feedback and Improvement Tracking System (PFITS) using the Issue
and Corrective Action Management (ICAM) process for resolution
LA-UR-10-01882 Slide 31
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
32. Management Engagement
First Line Managers or Team Leaders with support by the WSST
• Review observation data for adequacy
• Analyze data for trends, patterns and systemic issues, and identify
corrective actions
Group & Division managers
• Support their organizations to correct deficiencies as needed
• Analyze data from their organizations for trends, patterns and
systemic issues, and identify corrective actions
LA-UR-10-01882 Slide 32
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA
34. Management Engagement
As ATOMICS has evolved at the Plutonium Facility, other organizations in the
laboratory have recognized safety successes at the Stockpile Manufacturing and
Support Directorate and have requested implementation support.
Managers and workers alike share ownership of a robust safety & health
program and at the same time understand the impact of tools available to them.
In addition to making the work environment safer, safety observations can also
improve worker morale, reduce near misses, and improve lessons learned
programs by sharing best practices.
LA-UR-10-01882 Slide 34
Operated by Los Alamos National Security, LLC for the U.S. Department of Energy’s NNSA