Notes
Outline
Introduction
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Examples of Substituting Less Hazardous Chemicals
What is the Cost of Unused Chemicals?
According to the American Chemical Society (ACS) unused chemicals  make-up 40% or more of the hazardous waste stream generated.
Costs incurred as a result of this are: analytical expenses of unknowns, storage, packaging, transport and disposal, and the increased risk of accidents by long term storage of a chemical.
Economy of Size Myth-Cost Analysis-  Xylene
What is  a Purchasing/ Inventory Control Program?
What is  a Purchasing/ Inventory Control Program?
Inventory
Rotate stock: “first-in, first-out”
Address shelf life issues.
Use surplus chemicals within an organization or distribute to others via a chemical/material exchange.
Complete an inventory review at least one time per year.
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Examples of Chemical Tracking Programs
Stanford University, University of Michigan,  for lab chemical programs.
 The Air Force tracks the use of hazardous materials from the initial request until reuse, recycling, treatment or disposal.
Case Study: Hazmart Fort Bliss, TX, U.S. Army
Opened in February 1998 tracking and recovering hazardous materials containers.
First year savings of $230,000.
Estimate saving $200,000 per year in avoiding hazardous waste disposal costs, due to proper storage conditions, operating a re-use center and fewer purchases.
http://aec.army.mil/usaec/support/p203.html
Chemical Exchange Programs-Case Study
Bowling Green State University (BGSU) -Orphan Chemical Recycling Program
Since April of 1993, approx. 4,000 lbs of solids and 1,500 gals of liquids have been exchanged.
Cost savings (purchase and disposal) approx $370,000 to $460,000.
http://www.bgsu.edu/offices/envhs/environmental_health/orphan_chemical/orphinfw.htm
OMEx-Ohio Materials Exchange
Purpose of OMEx is to disseminate information on surplus and/or waste materials available from or wanted by industrial and commercial entities.
A materials exchange program provides a mechanism for recycling and reusing unwanted materials. The exchange service provider maintains and distributes listings of materials available and materials wanted from participants.
http://www.epa.state.oh.us/ocapp/p2/omex/omexintro.html
There is also a listing of other exchanges in Ohio at http://www.epa.state.oh.us/ocapp/p2/omex/omexother.html
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Solvent Distillation-Case Study
A campus lab with 20 employees in Texas began distilling xylene, ethanol and formaldehyde and reduced 3 tons of waste in one year, saving $96,255 in purchasing costs and $7,280 in disposal costs.  A total savings of $103,535.
Many common lab solvents like acetone, MEK, methanol, methylene chloride, xylene and toluene may be recovered, distilled and reused.
Distillation Technology Resources
For more information on this technology,  see Ohio EPA’s OCAPP Fact Sheet “On-Site Solvent Recycling Equipment”, which includes a list of vendors at: http://www.epa.state.oh.us/opp/solvents/fact9.pdf
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Waste Segregation Case Study
A lab in Arizona reduced hazardous waste generation by 87% in one year by training employees to segregate waste.
Innovation
Microscaling
Computer Simulation or Video Demonstration
Alternative methods vs. “Wet” Chemistry
Green Chemistry
What is Microscaling?
Microscale chemistry is a P2 method that decreases the amount of chemical waste generated during laboratory experiments.  In some cases, the amount of a chemical needed for an experiment has been reduced by  99%.
Microscaling Benefits:
Improve lab safety by reducing potential exposure to chemicals and reducing fire and explosion hazards.
Improve air quality due to reduced volumes of solvents and other volatile substances used.
Reduce costs for chemical purchase and disposal.
Reduce chemical waste produced at the source.
Reduce the time required to perform experiments due to shorter chemical reaction times.
Decrease the amount of storage space necessary for chemicals.
Encourage students/staff to think about waste minimization.
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University Microscaling Case Study
Bemidji Sate University in MN reduced their chemistry lab waste by almost 35% by downsizing instructional lab experiments for its 3,350 students enrolled in chemistry classes.
Total waste was decreased from approximately 10,400 liters to 100 liters. The volume of waste generated per student was reduced from 3.1 liters to .03 liters
$35,000 was saved annually.
See web site for case study:http://mntap.umn.edu/intern/projects/BSU.htm
Commercial Lab Microscale Case Study
STL, Inc. in Austin, TX, 62 employees, RCRA LQG Generator
Modified extractors to reduce amount of methylene chloride used by 35%, still adhering to U.S. EPA guidelines for sample prep.
Reduced Methylene Chloride use of 5.5 tons per year, estimated annual savings of $15,000 in 2002, may become an SQG .
See website for case study: http://www.zerowastenetwork.org/success/story.cfm?ID=495
Alternative Methods
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What is Green Chemistry?
 the design of chemical products and processes that reduce or eliminate the use or generation of hazardous substances
Green Chemistry-Case Study
U.S. EPA awarded Bristol-Myers Squibb a Presidential Green Chemistry Challenge Award  in 2004- Developed a Green Synthesis for Taxol®
Changed process to use plant cell cultures to ferment the active drug substance instead of bark of Pacific yew tree.
Reduced workplace exposure to solvents.
Process prevents more than 240 metric tons of biomass waste and 6.4 metric tons of hazardous waste from being generated annually.
Removed 10 specific solvents from the process.
http://www.epa.gov/greenchemistry/aspa04.html
Green Chemistry-Case Study
U.S. EPA awarded BHC a Presidential Green Chemistry Challenge Award  in 1997- Developed a new synthetic process to manufacture ibuprofen
Material substitution- acetic acid for aluminum chloride
Acetic acid is recovered and re-used at a rate of 99%
Reduction of 8 million pounds of waste
Process re-engineered from 40% to 77% efficiency
The  6 step manufacturing process was reduced  to 3 steps
http://www.epa.gov/greenchemistry/aspa97.html
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Lessons from Green Chemistry Implementation
in University Curriculum
Practical Advantages:
Teaches the core lab skills and green chemistry problem solving
Reduces hazards and reliance on hoods
Uses macro- and micro-scale methods
Illustrates state-of-the-art reaction chemistry and methods
Is readily implemented in the teaching lab
http://darkwing.uoregon.edu/~hutchlab/greenchem/organiclab.html
Lessons from Green Chemistry Implementation
in University Curriculum
Unexpected Benefits:
Teaches objective evaluation of hazards
Provides students with a rational procedure for analyzing/minimizing hazards
Empowers students to use chemistry to solve environmental problems - " Ambassadors of Green Chemistry"
Changes the way students and society view chemicals, chemistry, and chemists - "Know the hazards. Not all chemicals are hazardous."
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SW-846 P2 Oriented Methods
3570 and 3511 Microscale
3051, 3015 and 3052 Microwave Assisted Digestion
http://www.epa.gov/epaoswer/hazwaste/test/new-meth.htm
http://www.epa.gov/epaoswer/hazwaste/test/3_series.htm
University of Michigan Lab SW-846 3015 Microwave Assisted Digestion- Case Study
Benefits
Reduction in sample prep time, sample storage and disposal.
Use of beakers, watch glasses and cleaning steps were eliminated saving labor costs.
Costs
Initial capital investment of $15,000- $20,000 for set up.
http://www.p2000.umich.edu/chemical_waste/cw5.htm
University and College Labs
US EPA Enforcement Actions
University of Hawaii was assessed a fine of $1.8 million dollars in 1998-1999 after Region 9 found dangerous chemicals buried for years in the basement of Honolulu campus’s main chemistry building.
University of New Hampshire was fined $49,000 and will spend $147,000 on SEP after Region 1 filed a consent decree in 2000.
Boston University was fined approx $253,000 and will pay $500,000 for community projects for a Region 1 consent decree for RCRA and CWA violations in 1995.
University and College Labs
US EPA Enforcement Actions
In September 2004 US EPA and the University of California (UC) settled a case resolving 98 RCRA violations.
Violations involved 4,000 containers of hazardous waste.
UC estimated that it spent $1.78 million and 23,645 staff hours since 2001 completing an environmental audit of 47 university facilities.
http://www.epa.gov/Compliance/resources/newsletters/civil/enfalert/labalert.pdf
U.S. EPA Resources for Colleges and Universities
US EPA Region 2 http://www.epa.gov/region02/p2/college/
Web site contains lots of information with links to self-audit and P2 manuals on the web.
To date, 93 colleges and universities in New York, New Jersey and Puerto Rico have come forward to disclose more than one thousand violations to EPA. Most of them have been granted a 100% waiver of certain penalties totaling more than $10 million.
Hazardous Waste Reduction at Lawrence Berkley National Lab
From 1993-2003 Reduced Hazardous Waste Generated 76.5%
Comply with waste min reporting requirements by the Department of Energy (DOE), the State of California, the University of California and the Lab itself
Requirements include:
Annually  revise the Waste Minimization and Pollution Prevention Awareness Plan (WMPPAP),
Annual waste min and procurement reports,
Have a Lab Employee Awareness Program
Campaign, awards, recognition, information exchange, training
http://www.lbl.gov/ehs/wastemin/index.html
Hazardous Waste Reduction at Lawrence Berkley National Lab- examples
Hazardous Waste Reduction at Lawrence Berkley National Lab- examples
University of Michigan (UM)-Waste Min Initiatives
UM launched in 1995 using the following tools:
Education (including micro-scale teaching)
Protocol Review
Non-haz product substitution
Solvent distillation
Chemical tracking system
Chemical redistribution system (Exchange program)
Program saves more than $200,000 annually in disposal and purchase of new chemicals
UM Waste Min Initiatives-Successes
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New England University Laboratories Project XL
Yearly Measurement of P2 Activities/Outcomes
Complete a list of hazardous Chemicals of Concern and verify they are within a defined “shelf life.”
Identify one P2 assessment per lab per year, focusing on waste stream or similar processes.
Increase by 20% from baseline the quantity of haz materials and waste redistributed to labs.
Reduce haz waste generation by 10% from baseline.
Assess and demonstrate improvement of environmental awareness of lab workers.
Achieve objectives and targets defined on the Environmental Management Plan and record improvement.
U.S. EPA Resources for Colleges and Universities
Environmental Virtual Campus
This project was undertaken by the Massachusetts Institute of Technology (MIT) for settlement of an enforcement action brought by the USEPA and the US Department of Justice
http://www.c2e2.org/evc/LabIndex.html
MIT’s Environmental Virtual Campus web site
U.S. EPA Resources for Colleges and Universities
US EPA Sector Programs for Colleges and Universities
The Sector Strategies Program works collaboratively with 12 sectors to improve environmental performance while reducing regulatory burden and providing an expert staff liaison for each sector in the program.
Web site has links to resources :http://www.epa.gov/sectors/colleges/index.html
Resources for Middle & High School Labs/Teachers
Lab Waste and P2- A Guide for Teachers by Battelle Seattle Research Center
This guide explains how hazardous wastes and other undesirable by-products generated by experiments that are performed in classroom labs can be minimized. It is intended for middle school, high school, and college science teachers.
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Resources for Middle & High School Labs/Teachers
US EPA Schools Chemical Cleanout Campaign (SC3)
In summer of 2004, EPA provided initial funding to the ten regions to support Schools Chemical Cleanout Campaign (SC3) programs. Each region is using this money to fund former, current or newly developed school cleanout programs in schools with a self-identified need for assistance.
http://www.epa.gov/epaoswer/osw/conserve/clusters/schools/index.htm
Resources for Middle & High School Labs/Teachers
Region 5
Regional Contact: Maryann Suero
suero.maryann@epa.gov
(312) 886-9077
Funds for the SC3 will be used to assist an under-served area in school chemical cleanouts in Region 5. Within the designated area, schools will be given the option to participate in a one-time disposal of expired and used lab chemicals and will also be given the option to participate in a voluntary audit of their lab.
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Resources for Middle & High School Labs/Teachers
US EPA Healthy School Environments
Chemical Use & Management
Chemical purchasing and management contributes to a healthy school environment, so consider the possible health, safety and environmental implications before buying a particular chemical.
http://cfpub.epa.gov/schools/index.cfm
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Case Study-Formalin Recycling
Albany Medical College 1995-2004 saved $327,000
Purchased 5 gallon capacity unit to recycle formaldehyde waste.  Cost: $10,000.
Recycled approx. 40,000  gallons.
Saved $185,000 in disposal costs and $142,000 in purchase of chemicals.
http://www.sustainablehospitals.org/cgi-bin/DB_Report.cgi?px=W&rpt=Subcat&id=18!21
Resources
Checklists
Guidance Documents
Programs
Training/Conferences
Comprehensive listing of resources used for this training
OCAPP P2 Checklist for Labs
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Lab Equipment-Recycling/Purchasing
LabX.com is a media service founded in 1995, provides a forum where buyers and sellers of new, used, surplus, refurbished scientific, and lab equipment can find an item, negotiate the terms, and complete a purchase online.
http://www.labx.com/
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National Nanotechnology Initiative
The National Nanotechnology Initiative (NNI) is a federal R&D program established to coordinate the multiagency efforts in nanoscale science, engineering, and technology.
Twenty-two federal agencies participate in the Initiative, including U.S. EPA
http://www.nano.gov/
U.S. EPA is Funding Research on Nanotechnology
Concerning human health and environmental effects, fate and transport of nanomaterials,  and continuous environmental monitoring/sensing applications (essentially transporting the laboratory to the sample source)
USEPA funded 32 research grants for more than $11 million in the applications of nanotechnology through the Office of Research and Development’s National Center for Environmental Research
http://es.epa.gov/ncer/nano/
Future Applications of Nanotechnology
Drug delivery systems, including implantable devices that  automatically administer drugs and sense drug levels;

• Medical diagnostic tools:  cancer tagging mechanisms and lab-on-a-chip, real time diagnostics for physicians;

• Cooling chips or wafers to replace compressors in cars, refrigerators, air conditioners and multiple other devices, utilizing no chemicals or moving parts;

• Sensors for airborne chemicals or other toxins;

• Photovoltaics (solar cells), fuel cells and portable power to provide inexpensive, clean energy, and

• New high-performance materials.
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