Laboratory Safety Resources
- AIHA Laboratory Health & Safety Committee
- The Laboratory Safety Institute
- Chemistry.Org (Website of the American Chemical Society)
- Safety in Academic Chemistry Laboratories, Accident Prevention for College and University Students
- Safety in Academic Chemistry Laboratories, Accident Prevention for Faculty and Administrators
- UW-Madison Safety Department: Chemical and Environmental Safety Program
Chemical Safety Committee (CSC) information
- Highly Hazardous Chemical Categories Reviewed by CSC
- Highly Hazardous Chemical Purchasing Process Flow Chart
Department of Homeland Security Reporting
In late November, 2007, the Department of Homeland Security (DHS) issued new regulations for Universities and other “chemical facilities” regarding specific chemicals that can have an impact on national security.
A copy of the unedited Department of Homeland Security list, provided for reference purposes, which includes all chemicals of national concern is presented below.
Lab inspections are a tool used to educate researchers on safe operating practices and compliance measures as well as to perform hazard assessments — all in an effort to grow the safety culture in laboratories. Lab inspections are conducted by the Lab Safety Manager and/or Safety Committee as either a part of the Group Safety Representative Program (see description below) and/ or as a hazard assessment by the Lab Safety Manager. Principal Investigators and lab supervisors are responsible to perform periodic lab inspections and develop corrective action plans in response to all inspections. The Lab Safety Manager will conduct inspections for laboratories containing chemicals, the Biosafety Officer will conduct inspections for those laboratories using bio-hazardous agents and the Radiation Safety Officer will conduct inspections for laboratories utilizing radioisotopes.
Group Safety Representative Program
Goal: The program strives to raise awareness of safety in the laboratory or shop setting and identify where improvements can be made so as to make the laboratory or shop environment safer and achieve compliance.
Group Safety Representative Responsibilities
The Group Safety Representatives (GSRs) will:
- Advise and assist their laboratory or shop supervisors in:
- Training new personnel
- Disseminating safety information
- Conducting inspections of their group’s laboratories or shops
- Inspecting and ensuring the maintenance of group safety equipment (spill containment kits, fire extinguishers, safety showers, and eyewash facilities)
- Be responsible for assisting the PI or laboratory supervisor in:
- Addressing safety and chemical hygiene issues
- Evaluating and making recommendations of safety issues that concern the entire department
- Participating in periodic safety inspections of department laboratories or shops
- Investigating accidents and implementing improvements to the laboratory operations identified as post-accident assessment recommendations.
Eating, Drinking and Smoking
Eating, drinking, smoking, gum chewing, applying cosmetics and taking medicine in laboratories where hazardous chemicals are used is strictly prohibited.
- Food, beverages, cups, microwaves and other drinking and eating utensils must not be stored in areas where hazardous chemicals are handled or stored.
- Glassware used for laboratory operations should never be used to prepare or consume food or beverages.
- Laboratory refrigerators, ice chests, cold rooms, ovens, microwaves and so forth must not be used for food storage or preparation. They must be labeled for “Research Use Only”.
- Laboratory water sources and de-ionized laboratory water should not be used for drinking water.
- Desk areas are to be assessed for location to chemicals prior to use as an area to eat or drink. Floor to ceiling walls and a door must separate food and drink consumption areas from a chemical use area.
Rooms that are adjacent, but separated by floor-to-ceiling walls and a door, and do not have any chemical, radioactive or biohazardous agents present, may be used for food consumption, preparation or applying cosmetics at the discretion of the project director responsible for the areas.
Nanotechnology is the understanding and control of matter at dimensions of roughly 1 to 100 nanometers, where unique phenomena enable novel applications.
Encompassing nanoscale science, engineering and technology, nanotechnology involves imaging, measuring, modeling, and manipulating matter at this length scale.
- International Council of Nanotechnology
- Nanotechnology White Paper , EPA
- The International Council on Nanotechnology (ICON) Review of Safety Practices in the Nanotechnology Industry
- ASTM Committee E56 on Nanotechnology
- ANSI solicits participation for proposed new Technical Advisory Group for ISO Technical Committee on Nanotechnnologies (TC 229).
- Nanotechnology and Nanoscience, Royal Society and Royal Academy of Engineering (U.K.)
- National Nanotechnology Initiative
- NNI Links to Nanotechnology Resources
- ANSI Nanotechnology Standards Panel
- “Nanoparticles: An Occupational Hygiene Review”, The U.K. Health and Safety Executive
- Nanotechnology, U.S. Food and Drug Administration
- Center for Responsible Nanotechnology
- Nanotechnology and Nanomaterials, Chemical Industry Vision 2020
- Nanotechnology, European Commission
- Nanotechnology, EPA National Center for Environmental Research
- International Institute for Nanotechnology, Northwestern University
- The Institute of Nanotechnology
- European Nanotechnology Gateway
- Foresight Nanotech Institute
- National Nanotechnology Infrastructure Network
- National Institute for Occupational Safety and Health (NIOSH) Nanotechnology Topic Page
- Nanotechnology and Workplace Safety and Health, NIOSH
- Safe Nanotechnology in the Workplace, NIOSH
- Progress Toward Safe Nanotechnology in the Workplace, NIOSH
- National Occupational Research Agenda (NORA)
- Project on Emerging Nanotechnologies
- A Nanotechnology Consumer Products Inventory
- Nanoparticles: An Occupational Hygiene Review, Health & Safety Executive
- Nanotechnology Consensus Workplace Safety Guidelines, OCR Worldwide
Minors in the Lab
The University of Wisconsin-Milwaukee restricts minors from laboratories, studios, shops and other campus areas where physical, chemical, biological or other potential health hazards are present. Minors must be kept away from any area with a known hazardous condition. Babies and infants must be protected from any area with even a potential exposure or hazardous condition. Minors must be restricted from areas that store or use research animals, hazardous chemicals, radioisotopes, carcinogens, or biohazardous agents. Only minors who are authorized and trained are allowed in laboratories (i.e.: Students performing High School research projects). Authorization of minors in research labs is processed in conjunction with the approval of Principal Investigators, Department Management, Departmental Chair, parents and University Safety and Assurances. Minors are not allowed to be in the labs until after they guidelines are discussed and approved by US&A.
Please contact University Safety and Assurances with any questions.
Child Abuse and Neglect Policy and Criminal Background Check Policy
In accordance with UWM’s Child Abuse and Neglect Policy and Executive Order #54, “Criminal background checks will be performed pursuant to UWM’s Criminal Background Check Policy, and must be conducted on employees, volunteers, and contractors who have regular contact with children in the course of performing duties or services for UWM or in connection with a UWM-sponsored activity.” This policy applies to those individuals affiliated with UWM. Click on the links above to access the two policies and for more info and training.
Most educational and scientific diving activities at U.S. universities and research institutes are regulated by the U.S. Department of Labor, Occupational Safety and Health Administration (29 CFR 1910). In the State of Wisconsin these regulations have been adopted by the Wisconsin Department of Safety and Professional Services. The School of Freshwater Sciences has been delegated the responsibility for ensuring that all university departments involved in scientific diving comply with these regulations.
The purpose of the scientific diving standards is to ensure that all scientific diving under the auspices of the University of Wisconsin-Milwaukee is conducted in a manner that will emphasize protection of scientific divers from accidental injury and/or illness.
For additional information, please contact Geoff Anderson, Diving Safety Officer, (414-382-1709, or email email@example.com)
Laboratory workers must be trained to recognize those chemicals which they may come across which are potentially reactive or explosive. Reactive chemicals, for the purpose of this page, are defined as those substances which can, in contact with air, water or other common substances, vigorously or violently give off heat, energy or toxic gases or vapors. Some of the classes of chemicals which can contain reactive chemicals include:
- Air Reactive Chemicals-Pyrophoric
- Blasting Agents
- Cyanide containing compounds
- Fuming Acids
- Heat Sensitive
- Organic Peroxides
- Peroxide Formers
- Polymerizing Chemicals
- Shock Sensitive
- Spontaneously combustible
- Water Reactive Chemicals
For a partial listing of chemical incompatabilities, see “Chemical Incompatabilities.”
(This document is courtesy of the University of Kansas, Department of Environmental Health and Safety)
Air reactive chemicals are chemicals which react violently in contact with air or oxygen or with compounds containing oxygen. Sometimes air reactive chemicals are called spontaneously combustible or pyrophoric materials. Pyrophoric materials burst into flame spontaneously upon contact with air or oxygen. These materials are sometimes sold in gas cylinders, although they may not be gases themselves. They may be sold packaged under nitrogen or some other inert atmosphere, or they may be created by a chemical reaction in your laboratory. The flame of certain pyrophoric materials is clear and not readily visible. Spontaneous combustion means that the material does not need an ignition source to begin combustion, or to burn.
- alkali metals (potassium, cesium)
- finely divided metal dusts (nickel, zinc, titanium)
- hydrides (barium hydrides, diborane, diisobutyl aluminum hydride).
Water reactive materials can react violently or vigorously in contact with water, wet surfaces, or even the moisture in the air. These chemicals may react to give off a flammable gas (such as hydrogen) or a toxic gas, (such as phosgene) or spontaneously burn or explode. Water is obviously NOT a good choice for putting out fires caused by water reactive chemicals. A class D fire extinguisher is designed to be used to fight fires caused by certain water reactive chemicals.
- Alkali metals (Sodium metal, lithium metal)
- Anhydrides (acetic anhydrides)
- Carbides (calcium carbide)
- Halides (Acetyl chloride, titanium chloride, stannous chloride)
- Hydrides (sodium hydride)
- Organometallics (tetramethyl aluminum)
- oxides (sodium oxides)
- Peroxides (sodium peroxide)
- Phosphides (aluminum phosphide)
- and others (chlorosulfonic acid, aluminum tribromide).
Certain chemicals can form peroxide either upon aging, or upon contact with air or other substances. Some of the peroxides are shock sensitive and can explode if handled less than gingerly, or upon heating. Sometimes peroxides can be present in a solvent and cause no problem until the solvent is evaporated (during distillation, for example) and the peroxides concentrate.
If you work with peroxide formers:
- Date bottle when material is received
- Test for peroxides before every use or every 3 months
- Write the test results on the bottle with the date tested and your initials
- If the material is greater than or equal to 80ppm, it is considered a peroxide hazard, contact Environmental Protection office.
- Ethers (Isopropyl ether, ethyl ether, diethyl ether)
Out of the many polymers today, a many generate large amounts of heat upon polymerization, and a few can cause runaway polymerization reaction which can explode. Sometimes the heat buildup can cause bumping, over-booking, or rupture of the container, which can also cause explosive-like damage.
- acrylic acid
- vinyl chloride
Explosives can release extremely large amounts of thermal or physical energy. Explosive can cause a true detonation, which is defined as a shock wave traveling at supersonic speeds. Subsonic shock waves are called deflagrations.
- Acetylanic compounds
- Azo compounds
- Nitro compounds
- Nitro esters
- Other compounds with excess nitrogen
- Strained ring compounds
Please keep in mind when chemical reactions are not properly managed, they can have harmful, or even catastrophic consequences, such as toxic fumes, fires, and explosions. Laboratory personnel should protect themselves by identifying those substances which have the potential to cause violent reactions. Clear identification of containers, proper storage practices, complete training and information on chemicals, and timely removal and disposal of reactive chemicals can significantly reduce the probability of accidents or injuries. For disposal of reactive chemicals, please contact Environmental Affairs staff at x4999 or x2883.
Additional information on working safely with dangerously reactive solids and liquids can be found at:
- Prudent Practices in the Laboratory: Handling and Disposal of Chemicals 5.G.6 Reactive or Explosive Materials Requiring Special Attention
- OSHA’s Chemical Reactivity Hazards
- “Dangerously Reactive Liquids and Solids and Their Hazards”
The Canadian Centre for Occupational Health and Safety (CCOHS)
All university employees, with the exception of Research Assistants, are covered under the provisions of the Wisconsin Worker’s Compensation Act, Chapter 102, Wisconsin Statutes, at no cost to the employee. Worker’s Compensation pays benefits in the event an employee is injured, acquires a disease or dies as a result of employment at UW-Milwaukee. Benefits provided may include disability payments, death benefits, and payment of reasonable and necessary medical expenses.
All accidents, injuries, or near-misses should be reported to your supervisor. Supervisors are required to complete the “Employer’s First Report of Injury or Disease” form and send it to Worker’s Compensation, located in Engelmann 125, within 24 hours after being notified of a work-related injury or illness. This form must be properly completed in order to meet state and federal reporting requirements and to file a claim under Workers Compensation. The information on this form may initiate an accident investigation by the Department of University Safety and Assurances, where applicable.
NOTE: Should an injury result in more than three days lost time from work, contact the Worker’s Compensation Office at x5652. Medical documentation is required to substantiate disability payments under Worker’s Compensation.
A “General Incident Report” is completed when an undergraduate student (not employed by UWM), a Graduate Student Research Assistant (payrolled by UWM), a volunteer or guest is injured. Students who are payrolled as Graduate Student Research Assistants are considered to be working on a degree and are not considered employees for worker’s compensation purposes. The “General Incident Report” form should be completed within 24 hours of the injury and submitted to the University Safety and Assurances.
Whenever an incident/injury occurs the following actions must be taken:
- Incident/injury must be reported immediately to supervisor.
- Supervisor and/or department completes the State of Wisconsin standard form for Workers Compensation injuries. These forms can be obtained from the Worker’s Compensation Office located in Engelmann Hall, Room 125.
- Questions regarding the Worker’s Compensation form or claim handling should be referred to the Worker’s Compensation Office in Engelmann 125 or at x5652.
- Supervisors and/or departments should investigate the cause or causes of incidents to prevent reoccurrence. The Department of University Safety & Assurances located in Engelmann Hall Room 270 (x6339) can be contacted by the department for technical assistance if needed.
- Follow-up should be done by the department to ensure that corrective action has been taken.
- The UW-System Office of Safety and Loss Prevention records all Worker’s Compensation claims received from the UWM Worker’s Compensation Office. Incidents are summarized according to accident type, injury type and body part. In addition, a summary of incident date, name, occupation, incident description and days lost are listed.
The “Employee’s Work Injury and Illness Report” and the “Employer’s First Report of Injury or Disease” forms are available online or from the <a “http://www4.uwm.edu/hr/toolkits/workers_comp/index.cfm”>Worker’s Compensation Office in Engelmann 125. Any questions or concerns regarding the Worker’s Compensation Program should be addressed to staff in the Worker’s Compensation Office at x5652.