The Pollution Prevention (P2) 101 LibGuide is designed to help P2 technical assistance providers find information quickly and efficiently. It’s targeted particularly at those new to the P2 field.
Start your journey with the Essential Information section, which has links to materials for training staff new to the P2 field. It includes links to foundational documents, networking sources, videos, and webinar series. Many of the materials included in this section were recommended by experienced P2 practitioners.
Continue on to the Technology Diffusion and P2 section, which discusses technology diffusion and how it relates to P2 technical assistance. It also includes links to essential reading and case studies of how technical assistance programs have used these principles to effectively provide sustainability assistance to companies.
Illinois EPA has announced scheduled household hazardous waste collections for Spring 2019. Illinois EPA holds household hazardous waste collections to encourage residents to safely dispose of unused or leftover toxic products commonly found in homes.
Ten collection sites have been confirmed for the spring. IEPA is finalizing an additional four locations. Details for the additional collections will be announced when they become available.
March 23, 2019 (COMPLETED)
115 South Sangamon Avenue
Gibson City, Illinois
Ford County Soil and Water Conservation District
April 13, 2019
Brookfield Cook County
Brookfield Zoo, North parking lot
8400 West 31st Street
Metropolitan Water Reclamation District of Greater Chicago;
April 13, 2019
Western Illinois Fairgrounds
516 South Oak Street
Pike County Economic Development Corporation
April 27, 2019
Village Square Mall parking lot
City of Effingham, Emergency Management Agency
May 4, 2019
504 South Promenade Street
Havana, Illinois 62644
University of Illinois Extension, Fulton-Mason-Peoria-Tazewell Unit
May 18, 2019
Rock Island County
Rock Island County Fairgrounds
4200 Archer Drive
East Moline, Illinois 61244
Rock Island County Waste Management Agency
May 18, 2019
World Shooting and Recreation Complex
1 Main Event Lane
Sparta, Illinois 62286
June 1, 2019
Cobden Community Park
Cobden, Illinois 62286
Village of Cobden
June 8, 2019
DeKalb County Farm Bureau
June 15, 2019
Woodford County Highway Dept.
301 South Main Street
Roanoke, Illinois 61561
Woodford County Health Department
June 29, 2019
Whiteside County Highway Dept.
18819 Lincoln Road
Morrison, Illinois 61270
St. Clair County
Note: One-day collections are open to all Illinois residents and operate from 8:00 a.m. to 3:00 p.m. on the above scheduled Saturdays.
What items can I bring for disposal?
Items that will be accepted include chemical cleaners, oil-based paints, thinners, antifreeze, motor oil, gasoline, kerosene, weed killers, insecticides and pesticides, old or outdated medication, and similar hazardous household products. Fluorescent and other high-intensity discharge lamps may also be brought to the collections.
Items not accepted include latex paint, explosives, propane tanks, fire extinguishers, smoke detectors, agricultural chemicals and business wastes.
Lake County, The Solid Waste Agency of Lake County (SWALCO) currently operates a long-term household chemical waste collection program. Information and a collection schedule can be found on their website (www.swalco.org) or by calling 847-336-9340.
For questions concerning the Illinois EPA’s one-day or long-term collections, please contact the Waste Reduction Unit of the Agency at 217-524-3300.
IEPA accepts applications each fiscal year, keeps them active indefinitely, and DOES NOT CHOOSE on a first come, first serve basis.
IEPA categorizes applications into potential large, medium or small events then ranks them by a point system based on certain criteria. They choose events each spring and fall by using the ranking system. They determine the number of collections based on available funding.
The National Pollution Prevention Roundtable (NPPR) is a national forum that promotes the development, implementation, and evaluation of efforts to avoid, eliminate, or reduce waste generated to air, land, and water.
Ms. Barnes will serve on NPPR’s web site team and the planning committee for the Roundtable’s upcoming Education Forum, as well as assist with the organization’s strategic communications.
Nine Prairie Research Institute (PRI) carbon capture, utilization and storage (CCUS) researchers traveled to Melbourne, Australia in October for the Greenhouse Gas Control Technologies Conference 14, the field’s leading biennial scientific gathering, sponsored by the 30-nation Energy Technology Network.
While at the conference, they visited Australia’s major CCS center, the Otway National Research Center. Otway’s CO2CRC gas separation test facility is developing membranes and techniques for CO2 storage, according to ISTC Director Kevin OBrien.
OBrien added that Dr. Abdul Qader, CO2CRC’s facilities manager, explained new strategies for separating CO2 from methane. “This would be a major driver for the natural gas industry in the Asia-Pacific region,” OBrien explained.
“They also have the ability to test new sorbents as part of their research into pressure swing absorption,” he said.
Because global demand for fossil fuels is not likely to decline soon, technologies must be developed to reduce carbon emissions by capturing, storing, and finding beneficial ways to use the waste gas, OBrien said. Capture requires a lot of energy and work at PRI and CO2CRC both search for better capture efficiency to lower its cost.
Work is underway worldwide to perfect a wide variety approaches. Successful commercialization of any of these technologies could be a game changer for climate change efforts because most of the world’s economies will continue using coal and other fossil fuels for the foreseeable future, said OBrien.
Those of us in the Great Lakes region (and the rest of the US and Canada) live in a so-called “throw-away society” in which consumerism is rampant, and goods are not often designed or produced with durability in mind. In fact, in recent years, more and more goods are designed to be explicitly or implicitly disposable. Even complex products, such as consumer electronics, are treated as if they are meant to be ephemeral. The classic example is the smartphone. These devices are astounding feats of scientific innovation and engineering. For perspective, consider ZME Science’s article from September 2017: Your smartphone is millions of times more powerful than all of NASA’s combined computing in 1969. Despite their complexity, and the fact that you, and probably everyone you know, barely scratch the surface in terms of using these devices to their full potential, we are constantly bombarded with cues to upgrade to the latest model. And new models seem to be released ever more frequently, always being touted as somehow greatly more advanced than their predecessors. A simpler example is clothing–when was the last time you sewed up or patched a hole in a shirt or pair of pants? Something that once would have been done by most people as a matter of course might now be deemed peculiar. A modern member of our culture might wonder why one would bother to patch a pair of pants when a new pair could be obtained so cheaply.
Our “take-make-dispose” model can also be called a linear economy, and the message you receive in such a system is clear: if you have something that becomes damaged or has minor performance issues, you should just replace it. In fact, even if what you have is working well, the time will quickly come when you should just replace the old with the new. Replace, rinse, and repeat. A linear economy is one in which natural resources are extracted and used to create goods which will entirely, or partially, inevitably end up in landfills or incinerators. Some materials may be recovered and recycled, but over time these materials degrade in quality and are used for increasingly lower grade purposes, so that ultimately they will become waste, of little or no further use.
Of course, in order to replace whatever is being disposed of, new goods are required. And those new goods require as much or more resources as the ones that went before them–new minerals and other raw materials must be extracted. Extraction processes can have negative environmental and social impacts (e.g. pollution, habitat destruction, human rights issues related to labor practices, health issues related to exposure to chemicals or physical risks, etc.). Materials are transported to factories (requiring the use of energy in the form of fuel) where they are transformed into new products, again potentially with new human exposures to toxins or other adverse conditions, and potential new emissions of toxins or other substances of concern. In the case of products such as electronics, sometimes components are manufactured in places distant from each other and must be further transported to be brought together in yet another factory to create a complete device. And the finished product is in turn transported across the globe to reach consumers, resulting in more expenditure of energy, more emissions. By the time most products reach the consumer, a great deal of natural and human resources have been invested in them, and however positively the product itself may impact a human life or the broader ecosystem, the number of potential negative impacts all along the supply chain have stacked up. Clearly, any tendency to treat products as disposable, purposefully or incidentally, exacerbates those negative impacts by requiring the manufacture of more products, more quickly than might otherwise have been the case, as long as the demand for product does not diminish.
The tragedy of this linear cycle of use and disposal has lead to the advocacy for a circular economy–one in which extraction of resources is minimized and products and services are designed in such a way as to maximize the flow of materials through resource loops as close to perpetually as physically possible. In such a system, what might have once been considered “waste” continues to be valued in some form or another. A circular economy is built upon design for durability, reuse, and the ability to keep products in service for as long as possible, followed by the ability to effectively reclaim, reuse and recycle materials.
There are many barriers to repair, including costs (real or perceived), knowledge, confidence in those performing the repair (one’s self or someone else), and access to tools, instruction manuals and repair code meanings which tell technicians exactly what the problem is so they can address it. Manufacturers of a variety of products, particular those with electronic components (everything from automobiles to cell phones to tractors) have come under pressure in recent years over the attempt to monopolize access to parts, tools, and necessary information for performing repairs, leading to what is called the Right to Repair movement. Currently, 18 US states, including Illinois, Minnesota, and New York in the Great Lakes region, have introduced “fair repair” bills which would require manufacturers of various products to make those tools, parts, and pieces of information accessible to consumer and third-party repair shops. You can read more about the history of the right to repair movement and right to repair legislation on the Repair Association web site.
In an increasing number of communities around the world, citizens are coming together to share their knowledge, tools, and problem-solving skills to help each other repair every day items for free. I’m writing this on the campus of the University of Illinois at Urbana-Champaign, and here are some examples of local projects that can help you repair the items you own:
Illini Gadget Garage. This one’s my favorite, but I’m admittedly biased, since I helped launch this project and coordinated it for the past few years. The IGG is a collaborative repair center for personally-owned electronic devices and small appliances. “Collaborative repair” means that project staff and volunteers don’t repair your device for you; rather they work with you to troubleshoot and repair your device. Assistance is free; consumers are responsible for purchasing their own parts if needed, though staff can help determine what parts might be necessary. In addition to working with consumers by appointment at their campus workshop, the IGG crew conduct “pop-up” repair clinics in various public spaces around the Champaign-Urbana community and across campus. Consumers not only benefit from the “do-it-together” approach, they also get access to specialized tools (e.g. soldering irons, pentalobe screwdrivers, heat guns, etc.) that enable device repair, which many folks wouldn’t have in their tool box at home. Though successful repair obviously can’t be guaranteed, project staff say that if it has a plug or electrical component, and you can carry into the shop (or pop-up), they’ll help you try to figure out and fix the problem.
The Bike Project of Urbana-Champaign. Including both a downtown Urbana shop and a Campus Bike Center, this project provides tools and space for bicyclists to share knowledge and repair bicycles. This project sells refurbished bikes, and individuals who are willing to work on fixing up a donated bike (with assistance) can eventually purchase a bike at a discount. See https://thebikeproject.org/get-involved/join-the-bike-project/ for membership fees; an equity membership based on volunteer hours is available.
CU Community Fab Lab. Though technically a makerspace, this project provides access to a variety of tools that individuals may not own themselves, as well as a community of tinkerers and creative minds to foster sharing of knowledge. See http://cucfablab.org/inside-the-lab/tools/ for available tools. Note that some fees may apply for consumable materials. Workshops are also offered to help you learn various skills. The Fab Lab is free to anyone in the community during open hours.
Restart Project. Focused on electronics, this is a UK project, but you can host a “restart party” anywhere, and some K-12 schools, including some in the US are integrating restart centers to help teach repair skills and instill ideas of sustainability among students.
The Illinois governor recently signed House Bill IL-HB5741 that amends the University of Illinois Scientific Surveys Act. The new section 21 asks the Prairie Research Institute (PRI), which was established under the Scientific Surveys Act in 2008, to conduct a scientific literature review of chemicals identified in wastewater treatment plant effluents that are recognized as contaminants of emerging concern. It also requests that PRI compile a listing of the specific actions recommended by various state and federal agencies to address the environmental or public health concerns associated with the chemicals. PRI will provide its impartial report to the General Assembly by June 30, 2020.
Although the law requests a literature review of contaminants of emerging concern associated with wastewater treatment plant effluent, these contaminants also enter the environment from other sources. These include non-point sources, such as agricultural fields, and other point sources, such as large animal feeding operations, septic systems, and industrial operations.
Today is an important “holiday” of sorts for those of us who are sustainability professionals. On this day in 1972, the United Nations Conference on the Human Environment, held in Stockholm Sweden, began (June 5-16, 1972). The purpose of that conference was to discuss human interactions with the environment, as well as encouraging governments and international organizations to take action related to environmental issues and providing guidelines for such action. This was the UN’s first major conference on international environmental issues, and it culminated in what’s commonly called the “Stockholm Declaration”—the first document in international environmental law to recognize the right to a healthy environment. Two years later, in 1974, the first World Environment Day was held on June 5 with the theme of “Only One Earth.” Since then, World Environment Day has been celebrated annually on June 5th. Each year has a theme around which activities center, and beginning in the late 1980s, the main celebrations began to rotate to different cities around the globe. Learn more about the UN Conference on the Human Environment at https://sustainabledevelopment.un.org/milestones/humanenvironment and the history of World Environment Day at http://worldenvironmentday.global/en/about/world-environment-day-driving-five-decades-environmental-action.
This year’s World Environment Day theme, chosen by the host nation, India, (New Delhi is the host city) is “beating plastic pollution,” with the tagline “If you can’t reuse it, refuse it.” According to the World Environment Day web site: “While plastic has many valuable uses, we have become over reliant on single-use or disposable plastic – with severe environmental consequences. Around the world, 1 million plastic drinking bottles are purchased every minute. Every year we use up to 5 trillion disposable plastic bags. In total, 50 per cent of the plastic we use is single use. Nearly one third of the plastic packaging we use escapes collection systems, which means that it ends up clogging our city streets and polluting our natural environment. Every year, up to 13 million tons of plastic leak into our oceans, where it smothers coral reefs and threatens vulnerable marine wildlife. The plastic that ends up in the oceans can circle the Earth four times in a single year, and it can persist for up to 1,000 years before it fully disintegrates. Plastic also makes its way into our water supply – and thus into our bodies. What harm does that cause? Scientists still aren’t sure, but plastics contain a number of chemicals, many of which are toxic or disrupt hormones. Plastics can also serve as a magnet for other pollutants, including dioxins, metals and pesticides.”
Choose which type of single-use plastic you’re ready to give up.
Take a selfie (photo or video) showing yourself with the reusable alternative that you’re ready to embrace.
Share your selfie on social media and “tag” three friends, businesses or high-profile people to challenge them to do the same within 24 hours. Be sure to use the #BeatPlasticPollution hashtag and mention @UNEnvironment.
When we think of chemicals that could be on our food, we usually think of the pesticides that are used to eliminate pests. We rarely think of the cookware that we use to prepare it. Maybe we should start.
One of the most common ways that people come in contact with chemicals called per- and polyfluoroalkyl substances (PFASs) is through nonstick cookware. PFASs are a collection of man-made chemical compounds that include PFOA, PFOS, and newer GenX chemicals. They were created in the mid-twentieth century and have been used in manufacturing of various products ever since. They’re popular because they don’t degrade and can make products stain-resistant, waterproof, or non-stick. Because of their popularity, they have managed to make their way into water systems and living organisms through leaching and contamination. In addition to cookware, you can find PFASs in a variety of food packaging, household products, clothing items, fire-fighting foams, industrial waste, and drinking water. They also accumulate in the tissue of living organisms, including humans.
The prevalence of PFASs in the environment is a concern because they have been proven to harm both the environment and human health. PFASs are stable molecules, which make them resistant to most treatment methods. This resistance to breakdown means they stay in any living organisms that they come in contact with and can accumulate in the body over time. Additional research has shown that these chemicals can lead to a wide range of adverse health effects, which include immune system deficiencies, low infant birth weights, cancer, thyroid hormone distribution, developmental and liver problems, and potentially many more. Water contamination specifically is becoming a large concern. Drinking water in two Detroit suburbs has tested positive for PFAS contamination. PFASs also have been detected in several other of Michigan’s drinking water sources such as waterways and lakes. It is clear that PFAS are increasingly becoming more of a problem for our health and the environment.
Thanks to the PFOA Stewardship program, most PFASs production has been phased out in the United States. However, people can still come in contact with them through imported goods because they are not yet banned internationally. In addition, companies in the U.S. are still producing next generation PFASs, called GenX. These compounds are found in firefighting foams and food packaging. Because of that, further research on these chemicals is being done all over the country and world.
The Illinois Sustainable Technology Center (ISTC) has teamed up with researchers at the University of Illinois at Urbana-Champaign Department of Civil and Environmental Engineering and the University of California at Riverside to combat this issue and work toward a solution. Researchers from each university are currently investigating the effects of cobalt (Co)-catalyzed defluorination to degrade PFASs. ISTC is working to connect the PFAS research community and increase public awareness through seminars and conferences surrounding research findings.
A ban on the use of 24 antiseptic ingredients, including triclosan, for use in health care settings will take effect at the end of this year, the U.S. Food and Drug Administration (FDA) announced last month. That extends a 2016 ban on Triclosan, and other active ingredients, from use in consumer products.
The action is the latest development in a long road of coping with the competing rights and responsibilities of marketplace innovation, regulatory power, public health, and rapid advances in our scientific ability to detect such compounds.
Since then triclosan and other antibacterials have continued to find their way into many consumer products. For example, Hasbro, the maker of Playskool toys, was fined in 1997 for false advertising because they claimed their toys made with antibacterials were safer for kids than those without.
Present in antibacterial soaps, toothpastes, and body washes, triclosan is considered a Pharmaceutical and Personal Care Product (PPCP), which the Water Quality Association defines as “products used by individuals for personal health/well-being or for cosmetic purposes.” PPCPs have been identified as emerging contaminants of concern by the U.S. Environmental Protection Agency because little is known about their impact on the environment or their risks to human health when released into the ecosystem.
The Natural Resources Defense Council (NRDC) sued the FDA in 2010 to force a decision on triclosan and other antibacterials. Four years later, the U.S. Geological Survey (USGS) supported the FDA’s original findings by reporting triclosan as one of the top contaminants of emerging concern detected in biosolids. The FDA finally made the decision to ban triclosan in consumer products in 2016; now in 2018, this ban will be extended to the medical industry.
Why all the concern? They are pervasive. The widespread use of triclosan and other antibacterials has left residues in our environment, as well as in our bodies. Using bio-monitoring, triclosan residue was detected in 75 percent of Americans over six years old. Thought to be absorbed through the skin, tests have found traces of triclosan in human blood, urine, and breast milk.
Also research at ISTC and elsewhere have shown PPCPs can act as endocrine disruptors (EDCs), which alter hormone functions. Animal studies have shown that triclosan alters the way hormones work in the body, which is alarming considering potential impacts on human health. To spread awareness of the most recent emerging contaminant research, policies, and education, ISTC is hosting its third conference on emerging contaminants this June 5-6.
ISTC has also sponsored research to study the impact of triclosan on the environment. A three-year study ran from 2009 to 2012 and involved researchers analyzing two rivers in the Chicago area receiving effluent from wastewater treatment plants. Effluent from wastewater treatment plants can serve as a point source for a range of pollutants, including PPCPs. When analyzing the rivers, researchers found that increased exposure to triclosan was linked to both an increase in triclosan resistance and a decrease in biodiversity within the benthic bacterial communities. These results show that the common and widespread use of triclosan could have negative ecological consequences.
Further laboratory studies have matched ISTC’s suggestion that triclosan may contribute to bacterial resistance to antibiotics. Antibiotic resistance has significant impacts to human health, as it could diminish the effectiveness of some medical treatments, including antibiotic treatments.
Despite being used for the past four decades, manufacturers have proven neither the effectiveness nor the safety of long-term use of triclosan. The FDA has determined that antibacterial soap is no more effective than plain soap and water and challenged the industry to demonstrate otherwise.
Excluded from the new regulative action are six antiseptic active ingredients: ethyl alcohol, isopropyl alcohol, povidone-iodine, benzalkonium chloride, benzethonium chloride, and chloroxylenol. The FDA said further research is needed before commenting on the safety or effectiveness of these six ingredients.
The new FDA rule will go into effect Dec. 20, 2018.
You may have heard that a new Star Wars movie came out last week. If you haven’t had a chance to see it yet, don’t worry, we won’t spoil it for you. But it got us thinking about sustainability in the Star Wars universe.
Yes, it was a long time ago in a galaxy far, far away. But are there lessons, and warnings in the story for us? On one end of the sustainability spectrum there are the Ewoks, who live respectfully off the land and use their resources wisely. On the other end of the spectrum there’s the Death Star, which destroys entire planets just to show off its power. Generally speaking, folks in our world fall somewhere in between.
The Ewoks’ Forest Moon of Endor sustained them in their happy lifestyle. But what happened on Tatooine, where Anakin and Luke grew up? Environmentally it took a wrong turn at some point, reminding us of droughts and wildfires growing more common in California and across the country.
Habitat preservation is important if we want our world to remain habitable for generations to come. On Tatooine, they acknowledged the scarcity of water on their planet and relied heavily on moisture farms. One predicted effect of climate change here on earth is altered weather patterns, leading to a shift in agricultural growing zones. In the Midwest, we love our corn and soybean farms. No one wants to replace this valuable facet of our economy with moisture farms, which use moisture vaporators to pull water from the humidity in the air, just to have access to clean water. If avoiding the effects of climate change means reducing energy consumption and greenhouse gas emissions, count me in.
C-3PO, rebuilt by young Anakin Skywalker from scrap parts, demonstrates the value of reusing resources and recycling. Han Solo and Chewbacca also repaired and refurbished the legendary Millennium Falcon many times rather than scrapping it for a new starship. The electronics and machinery repair in Star Wars is inspiring, as we have so much electronic waste in our society today. To learn how to reuse, recycle, and repair your electronics, visit the Illini Gadget Garage, or check what repair resources are available in your community.
You may be wondering what fuel these spaceships used to travel such great distances – let’s hope they didn’t have to deal with inflated gas prices around the holidays! The Millennium Falcon and other standard starships use different sorts of fuels, commonly Rhydonium, mined on the planet Abafar. According to Wookieepedia, the Millennium Falcon used hypermatter to go into hyperdrive and reach lightspeed. While we’re not sure about the sustainability of using hypermatter, we do know about at least one renewable energy source in the Star Wars universe.
As part of Jedi training, younglings were sent to the Crystal Caves of Ilum to mine kyber crystals for their lightsabers. Kyber crystals, while rare, are inexhaustible sources of energy as their power does not diminish over time. These crystals are used to power lightsabers as well as the Death Star’s planet-destroying superlaser — I guess both the light- and dark-sides appreciate renewable energy!
When we look to our own world we can see renewable energy sources such as wind and solar on the rise. Innovations in these areas include printable solar panels, floating wind turbines, and sustainable lighting that help fight mosquito infestations.
Ah, Star Wars…. A fictional story perhaps it may be. But, teach us much about how to keep our light in the galaxy it can.