Team Plastics
Allysa Babcock, Crimson Draeger, Joe Guzman III, Rachel Dodge
Overview of Wicked Problems:
Wicked problems have no complete definition, for there are no final solutions (Brown). They are complex in all aspects, all risks have to be weighed equally before tackling, and all disciplines are required to work together for a potential solution (Salwasser).
Wicked Problems are:
Highly complex problems
Unstructured
Open ended
Multi- dimensional/ multi-disciplined
Evolving
Overwhelming
Energy and Plastic as a Wicked Problem:
Energy use and single use plastics are a wicked problem because it creates worldwide pollution that is destroying the environment and leads to an increase in Greenhouse Gases that contribute to the warming of the planet. A single bottle of water requires between 5.6 and 10.2 million joules of energy per liter, depending on transportation factors. That’s about 2,000 times what it takes to produce tap water, which is 0.005 million joules per liter (How Much Energy Goes Into Making a Bottle of Water? (phys.org)). The average American consumes 217 bottles of water a year (that’s about 108.5 liters of water), creating an average of 857 million joules of energy annually.
The biggest problem with plastic consumption (especially single-use) is that it is not processed back into the energy system. It is downcycled, thrown in the trash, left in landfills, or it makes its way to the ocean where it degrades into microplastics that animals and humans consume daily. This problem creates an issue for many industries, such as fishing, tourism, and housing. The plastics that make their way into the ocean kill fish and lead to a deficit in the food supply that many populations depend on for survival. It also dirties beautiful beaches that lose tourists that are depended upon for income. The energy use and plastic go hand in hand and combine a multitude of issues that make it too complex to be solved completely. Some of these complex issues include big business, cost, and even recycling.
The Role of Recycling in Combating this Wicked Issue:
In 2016, the Environmental Protection Agency released information that producing materials made from recycled plastic uses only two-thirds of the energy used to manufacture from raw materials. Since plastics can take 200 to 400 years to decompose (under our best estimates), recycling is one of the best ways to conserve energy in the system. We may not be able to eliminate single-use plastics entirely, but conserving the energy needed to make certain materials will help eliminate greenhouse gases entering the atmosphere and combat climate change.
Problems:
Separating plastic from landfill is one of the major components of recycling. The biggest problem with this is that the general public does not understand what is recyclable and what is not. Often, items that do not get rinsed out (i.e. milk jugs, cans, etc...) do not get recycled because of the extra effort needed to clean them. In addition, bags that become cross contaminated cannot be recycled. This means if an item that belongs in the landfill gets placed in a recycle bag, the entire bag will not be recycled because it is not presorted. Only 9% of plastic waste ever produced has been recycled -- 12% incarcerated and 79% in landfills and natural environments. Education is the biggest obstacle to recycling. If not, enough people understand the impact that it can have, recycling will remain an issue long into the future.
Another obstacle is the different types of plastics out there. The chart below explains the different types of recyclable plastics out there. Certain plants can only recycle certain types of plastic. With the different type of sorting needed, this makes individual recycling rather difficult. How do people know the distinctions?
What Type of Energy Are we Saving by Recycling?
Recycling is the process of collecting and processing materials that would otherwise be thrown away as trash and turning them into new products. Recycling often saves energy and natural resources.
Natural resources include land, plants, minerals, and water. When we use materials more than once, we conserve natural resources.
For Example:
Using recycled aluminum cans to make new cans uses 95% less energy than using bauxite, the raw materials aluminum is made from.
Recycling at Grand Valley:
2020 Campus Race to Zero Waste (Recyclemania)
Diversion (Recycling)- 142,900 pounds (51.18%)
Per capita (Per person)- 23.649 Pounds per capita
Compost (Organics)- 353,700
Named #1 Diversion category for a large campus
Rankings
Composting- Central Michigan, Aquinas, University of Michigan, Grand Valley
Per capita- Grand Valley, University of Michigan, Aquinas,
Diversion- Aquinas, Grand Valley, University of Michigan, Central Michigan
Alternatives to Plastics
Cotton Shopping bags
Plastic/ Stainless Steel Reusable bottles
Stainless steel straw
Silicone food bags
Bamboo forks/ spoons/ toothbrush
Silicone stretch lids
Eco- friendly conditioner/ shampoo bar
Plastic free gum
Beeswax food wrap
Compostable trash bags
Dog waste bags
Menstrual cup
Action Plan
Spread awareness of plastic related issues and the consequences that follow.
Introduce new concepts to the GVSU recycling department.
Ensure students are exposed to GV's recycling system/ goals.
Educate on reusables and their benefits to our environment.
Stakeholders:
Janet Aubil, Operations Supervisor in Facilities (Trash and Recycling), GVSU
Janet, was our main contact on campus and for student information regarding recycling. She provided us with real world figures, insights on the issue of single use plastics and practices to improve GV's recycling overall.
We tried to connect with other stakeholders that were larger organizations, but no one responded.
"Smallness" - Kaplan, Irvine
Interview with Janet from Recycling Department of Grand Valley
Q: I know you said we now do the single stream system. Is that for all the waste on campus? Do we know what happens to it after it's picked up?
A: It is for all recycling on campus. When it leaves here and it’s not contaminated, it will go to Kent County recycling center for processing. Republic service also has a recycling center in Ottawa county and some of our stuff might go there too but mostly Kent County.
Q: Do we separate these different types of waste (compost, recycling, landfill) on a regular basis? Or only with events like Recycle mania or other similar events?
A: We separate all by the different dumpsters on campus. Dumpsters with blue tops are for cardboard, the long ones with many windows are for recycling and the other ones are trash. The light green or orange are compost. When we participate in Recycle mania or Zero Waste football games, we actually getting weights of each category.
Q: Are there any concerns or challenges overall with recycling on campus? How could students alleviate this?
A: Challenges are with people who don’t care and will throw anything in any dumpster. This contaminates recycling and compost forcing our hauler to take it all to the landfill. Another challenge is Allendale residents. They think our dumpsters are here for them to use but they don’t know what to throw in recycling dumpsters either and are continuously contaminating. Students try to and will help during competitions but it’s not an everyday thing for them.
Q: What is working/ not working on campus when it comes to recycling? Do the different bins actually work?
A: The different containers work and getting constant reminders out via social media or the Lanthorn helps. But there is such a turnover of people every year, it gets expensive to do this. I just hope people care but it’s surprising how many don’t. Plus, with all the changes in the world with recycling like China is not taking any of our plastics, it’s very hard for processing centers to find places to send this stuff.
Q: Do you think plastics are a wicked problem?
A: And yes, plastics are a headache. If more people would just use reuseables, it would make a difference. I know there are people working hard at Kent County to find buyers for products.
Works Cited:
Valerie Brown, et al., "Tackling Wicked Problems: Through the Transdisciplinary Imagination," Chapter 1, pp. 3-15, (c) 2010, Earthscan, Washington DC.
Kaplan, S. Irvine(2001). Coping with change: The small experiment as a strategic approach to environmental sustainability. Environmental Management, 28(6), 713–725.
Salwasser, Hal. 2004. Confronting the implications of wicked problems: changes needed in Sierra Nevada National Forest planning and problem solving. In: Murphy, Dennis D. and Stine, Peter A., editors. Proceedings of the Sierra Nevada Science Symposium. Gen. Tech. Rep. PSW-GTR-193. Albany, CA: Pacific Southwest Research Station, Forest Service, U.S. Department of Agriculture: 7-22.
U.S. Energy Information Administration - EIA - independent statistics and analysis. Recycling and energy - U.S. Energy Information Administration (EIA). (2021, January 6). Retrieved November 12, 2021, from https://www.eia.gov/energyexplained/energy-and-the-environment/recycling-and-energy.php.