Green to Red Tailgate Challenge

It’s that time of year again, football season is upon us. Our football team has been working hard to make us proud and you have the opportunity to do the same, by joining us for our 2nd annual Green to Red Tailgate Challenge.

At the Oct. 19 home game vs. the Arizona Sun Devils, join your fellow fans in a little friendly competition to bring some green into your red-out tailgating. The Green to Red Tailgate Challenge is a contest to make your tailgate as sustainable as possible. Wear red and be green during the U’s first Green to Red Tailgate Challenge. All tailgates are automatically entered. Winners will be chosen by student athlete sustainability leaders based on how sustainable your tailgate team can be in the areas of waste and recycling, transportation, energy, food purchases, and innovation. Here are some ideas:

  1. Ditch the disposables. Bring reusable cups, dishes, and cutlery. Stay hydrated with reusable jugs of water.
  2. Don’t go Solo! Those iconic red cups are a low-quality plastic. If you need plastic cups, look for clear cups that are plastic #1.
  3. Separate your recyclables. Keep two bins—one for trash and one for recycling. Make sure to avoid food and liquid in the recycling bin.
  4. Go local. You can get all your tailgating needs—including BBQ, brats, grass-fed beef, and of course, beer! (21+)—from Utah companies.
  5. More than cars. Points for people in the group who biked, carpooled, or used public transportation.
  6. Reuse your U decor. You wouldn’t throw out your favorite University of Utah t-shirt! Show your team spirit with U decorations you can use game after game.

The tailgate crew with the most points will receive an on-field experience at your choice of 2020 football game (except BYU) and dinner in the Tower for four people.

Beyond the Aluminum Can

Image credit: Todd Helmenstine / sciencenotes.org

Why Recycling Across the Periodic Table Matters

By Kate Whitbeck, Sustainability Office

When the average person thinks about metal recycling the image that pops into their head is of an aluminum or tin can – a soda can or the can that beans or corn came in. They aren’t thinking of all of the 62 elements that make up the metals of the periodic table. All of those metals, like fossil fuels, are finite resources that we, as a human population, aren’t managing responsibly. Recycling rates for most metals are well below 50 percent. The challenge is that modern technology is critically dependent on each element of the periodic table. We know that metal recycling is more energy-efficient than mining virgin materials and doesn’t have the same kind of social and environmental implications. So, how efficiently are we using these resources and what happens when metals become scarce?

Professor Barbara Reck is a senior research scientist at Yale University’s Center for Industrial Ecology who studies the role of metals in society, particularly nickel and stainless steel; where they are sourced from, how they are used, disposed of, and recycled, and the implications thereof on their future availability. On August 27th from 4-5 p.m. in ASB 210, join her for her lecture, “Why using metals efficiently matters” as part of the Global Change and Sustainability Center seminar series.

Dr. Reck earned her doctorate degree in environmental engineering at  Technische Universitӓt Berlin in Germany. In the early 2000s, she was part of a team of pioneering researchers which mapped out the first global (and national) metal cycles, looking at current and historical flows of specific metals, developing scenarios of possible future metal use, and assessing metal supply and demand. This work was part of the Stocks and Flows (STAF) project conducted at Yale’s Center for Industrial Ecology.

While working on these metal cycles, the research team came to understand that metal recycling rates were not clearly or uniformly defined.  Working in collaboration with many industry associations, academics, and EU representatives through the United Nations’ Environmental Program’s (UNEP) International Resource Panel, they set about establishing a consistent set of recycling metrics and quantifying the recycling rates for the 62 metals and metalloids of the periodic table.

What the results of those metrics indicated was that there was a large discrepancy in the recycling efficiency of major (e.g., steel, aluminum) versus minor (e.g., indium, germanium) metals. The recycling rate of major metals is around 50-60% whereas minor metals hardly get recycled at all. “One of the major challenges,” Dr. Reck explains, “is that low-carbon technologies such as solar, wind or electric vehicles are very dependent on these minor metals. For a low-carbon future, these technologies need to be up-scaled big time, which means that the demand for the minor metals involved would skyrocket in the future.” This finding led to the Criticality Project which looked at whether the future demand for each metal could be met by its supply from primary (i.e., known mines and reserves) and secondary (ie., recycled) sources.

The research that Dr. Reck and her colleagues have been focused on has helped ensure that corporate, national, and global stakeholders have the tools they need to make strategic decisions around metal use. To learn more about the importance of building a circular economy when it comes to using metals in addition to your aluminum and steel cans come to ASB 210 on August 27 at 4 p.m. for Dr. Reck’s GCSC Seminar Series lecture, “Why Using Metals Efficiently Matter.”

 

 

When Green isn’t Green

Kate Whitbeck, communications manager, Sustainability Office
Wes Mangum, communications specialist, Facilities

Our landscape has slowly been changing around us. Those who have been on campus for more than 10 years remember when much of it was a vast expanse of lush green turf. As awareness of water conservation became more prevalent, the University of Utah began slowly adapting the landscaping.

Since then, the university’s Landscape Maintenance team has primarily focused on turfgrass replacement, water-wise landscape design and modern irrigation systems. By using “Slow the Flow” guidelines designed by our state water conservation experts, following the U.S. Green Building Council (USGBC) LEED standards for planting and expanding the use of well water for irrigation, the team has created a dramatic transformation saving the university millions of gallons of water and hundreds of thousands of dollars every year. In 2018 alone, 3,093 centum cubic feet of water (CCF), which equals 2.3 million gallons, were conserved through the efforts of the landscaping team.

So, why do we still have so much turf on campus? Unfortunately, this isn’t a process that can happen overnight both due to the enormous scope of the project and budgetary constraints. The university covers over 1,500 acres and manages 1,000 acres while about 439 acres have been set aside to remain in their wild state under the Heritage Preserve Program. Each year, the landscaping team reduces the amount of turf on campus and replaces it with water-wise landscaping. Where that happens is often a result of where the opportunity presents itself. The ideal opportunity to remove turf is often when a new building is erected or a large-scale remodel is occurring.  In 2018, 12 acres of turf were removed.

While replacing turf with water-wise landscaping is immediately noticeable, a lot of water conservation related to landscaping happens behind the scenes. The irrigation team is completing a substantial upgrade to the central irrigation systems that involves installing equipment that improves the U’s ability to manage irrigation, fine-tune water delivery and report outcomes. This project will conserve roughly 117,000 CCF (87.5 million gallons) water per year and provide better data for researchers. Because of the vast amount of water conserved through this project the return on investment is under four years.  The project was jointly funded through the Sustainable Energy Fund ($150K) and Facilities’ Sustainability & Energy Program ($400K).

What is significant about this new system is that it allows each zone to be calibrated by the water delivery technology and associated flow rate, from the giant, high-flow spray nozzles used on big turf areas to slow drip used for xeriscape. Lisa McCarrel, the current landscape supervisor is responsible for overseeing the irrigation upgrade.

“The ability to monitor water used for irrigation purposes at the level that this equipment and program gives us is remarkable. It allows each irrigator or horticulturist access to the program to make changes based on root zones, soil type, slope and other landscape data while in the field,” said McCarrel. “The system provides reports indicating water flow issues, which are received each morning. It provides information that helps the technician determine which problem should be addressed first, based on water loss or possible plant material loss. The calculated water cost savings could reach $10 million in seven to 10 years. In addition to water savings, the reporting will result in a significant reduction in labor and maintenance costs.”

The irrigation overhaul and changes in planting practices are producing good results. When looking at the five-year average for total water usage (both irrigation and culinary) on campus, the numbers indicate that water efficiency has outpaced growth. Water use intensity (CCF/sq. ft) is continuing to trend down. This is a direct result of water-efficient appliances, well-managed central plants and growing utilization of well water (secondary water) for irrigation.

And yes, we have all walked by that rogue sprinkler that is going off in the hottest part of the day or leaking all over the sidewalk. Our landscaping teams get stretched thin at the height of the irrigation season, and they need our help to let them know when something is malfunctioning or broken. Any malfunctioning irrigation issues can be reported by tweeting @UofUFM or calling 801 581-7221.

As climate change alters our weather patterns and our summers become longer and hotter, we will all have to be ever more diligent about water conservation. We are grateful that the landscaping team is doing their part to adapt our landscape to the changing conditions providing a model for us all.

This article was featured in @theu July 26, 2019

New Directions for Environmental Justice

By Nicholas Apodaca, graduate assistant, Sustainability Office

Many of us who care about climate change and environmental justice take action in our daily lives to do our part: we recycle, use sustainable products, use public transportation or eat locally grown food. Yet often environmental problems play out at a larger scale, and while our personal actions can help in small ways, it is important to understand the forces at work in creating environmental hazards and injustice from the start. If we know where injustice begins, we can begin to make a change for the better.

Professor David Pellow of the University of California, Santa Barbara, is exploring new directions in environmental justice in his research. On April 16 from 4 – 5 p.m. in ASB 210, join him for his lecture, “Toward a Critical Environmental Justice: Exploring State Violence & the Settler Colonial Conflicts.”

Pellow began his research in Sociology and Environmental Justice in the 1990s when he completed his Ph.D. dissertation in Sociology,  “Black workers in green industries: the hidden infrastructure of environmental racism,” at Northwestern University. He has since taught at Colorado, UC San Diego, and Minnesota, before arriving at UC Santa Barbara in 2015. There he is the Dehlsen Professor of Environmental Studies and Director of the Global Environmental Justice Project.

In his lecture, Pellow will explore new directions in the theoretical side of environmental sociology.  He breaks it down into multiple approaches. First, he is attempting to further build on existing research that focuses on the intersection between environmental hazards and class, income, race, gender, citizenship and nationality. He sees these intersections as critical for developing nuanced solutions to the complex interactions that produce injustice. “[I am] trying to ask bigger questions about the role of government or the nation-state in producing and exacerbating environmental problems and environmental justice issues in the first place,” Pellow explains. The contradiction is one of “relying on some of the same institutions that are arguably creating the problem in the first place.”

Pellow is also concerned with questions of scale in environmental justice research. He sees environmental justice as an issue that affects us  individually as well as globally. “Environmental hazards regarding academic and policy analysis must be approached as multi-scalar,” argues Pellow. “What happens at the micro scale is almost always revealed to be linked the community or national scale.” As no environmental issues exist in a vacuum, local and regional issues are just as “global” in consequence as environmental injustice outside of the United States. Often, we can find problems in our own neighborhood. Pellow’s recent research on oil refineries located in residential areas of Richmond, California illustrates this well, showing how global economic dynamics can lead to visible environmental impacts on real people.

Lastly, Pellow will explore the ethics of environmental injustice research.”The kind of environmental research I’m doing seeks to question the expendability of ecosystems, of habitats, and of marginalized human populations,” Pellow says. Pellow believes that environmental sociology shouldn’t simply seek to expose injustice, but should fight these notions of expendability. “It’s really about declaring, loudly, the indispensability (of marginalized people). It’s about saying every voice counts. Otherwise, it’s not a democracy.”

Should you too believe that every voice counts in the fight against environmental injustice, and have an interest in the cutting edge of environmental sociology research, come to ASB 210 on April 16 at 4 PM for David Pellow’s GCSC Seminar Series lecture, “Toward a Critical Environmental Justice: Exploring State Violence & the Settler Colonial Conflicts.”

RECYCLE RIGHT

Originally posted on @theU on March 25, 2019.

By Ayrel Clark-Proffitt, Sustainability Office

“You think you know…but you have no idea.”

Sure, this is the lead-in for a celebrity exposé series on MTV, but in reality, it’s probably the best line to describe the state of recycling. Recycling isn’t a particularly new concept, even in the United States—Depression-era families couldn’t afford to throw things away and wartime conservation pushed for reduce, reuse, recycle before it was a “thing.” But the system we know today came out of the 1970s, 80s and 90s.

Chances are, the majority of people who recycle have been doing it wrong for decades. Recycling bins have long been the receptacle of hope—“aspirational recyclers” toss everything in the bin because they want it to be recyclable. That’s not how it works. Now, with China and other countries banning the import of a number of waste materials, including post-consumer plastic and mixed paper, as well as reducing the contamination threshold for other materials, learning to recycle right is more important than ever.

In January, the Sustainability Office, in partnership with Athletics and Stadium & Arena Event Services, launched the “Recycle Right” campaign at the Huntsman Center. We installed recycling and trash bins that follow best practices in waste management and added eye-catching posters designed to remind people to think before they throw. Then, on March 2, we decided to test how well the bins were working as part of the Pac-12 Team Green push to promote sustainability in conference sports facilities. After the gymnastics meet (in which our Red Rocksachieved a season-best score and beat Michigan!), employees and students in Sustainability and Facilities opened up the bins.

LANDFILL: Drink cups, lids, straws, condiment packets, chip bags, popcorn containers, food containers, food wrap, hotdog wraps, plastic cutlery, Styrofoam, napkins, paper towels, excess food and liquids. RECYCLING: Soda and water bottles, aluminum cans, candy cardboard boxes, paper drink trays, souvenir cups, clean food containers. No food or liquid.

 

We found recyclables—cans, plastics, perfect “10” signs—but we also found a lot of contaminants, aka trash. Contamination has long been a concern in single-stream recycling, where all recyclable materials go in one bin. The U uses single-stream recycling in the Huntsman Center to make recycling easier for fans and to reduce bin space. For the recycling bins on March 2, half the material by weight, was in the wrong bin. (By volume, an alternate way to measure, 40 percent was trash.)

We know people want to do the right thing, so we’re here to help you do the right thing right. Here are the top five contaminants we saw in the Huntsman bins:

  1. “Paper” soft drink cups
    Just like “paper” coffee cups, soft drink cups from concessions should go in the trash. While the outside of the cup is paper, the inside is a thin layer of plastic, which is what makes it able to hold liquid. It’s next to impossible to split the materials, so multi-layered cups go to the landfill.
  2. Liquid
    No liquid should go on the recycling side. So, if you have a soda bottle that is half empty that you want to recycle, empty the liquid first and then place the plastic bottle in the recycling bin. Same goes for water.
  3. Food
    Food is particularly problematic when all recycling is placed together. Large amounts of recyclable paper ended up in the trash because of food, syrup from ice cream and liquids. How clean should a container be before it goes in the recycling bin? Its contents shouldn’t spread to other materials. Also, popcorn isn’t recyclable.
  4. Food containers
    Paper popcorn bins should go in the trash, because like the cups, they are lined with plastic. Additionally, the red-checkered boat and paper need to go to the trash can.
  5. Napkins
    Yes, they are paper, but they can’t be recycled. Napkins are often soiled with food or human by-products (eww), plus the paper is such low quality that it doesn’t get recycled even when unused.

By eliminating these items from recycling bins, we can significantly reduce contamination and improve our recycling totals. It takes a community, and luckily, we’ve got a good one.

BYOB: Bring Your Own Bottle

Recycling is good, but reducing our waste generation in the first place should be the priority. The three Rs—reduce, reuse, recycle—are actually a hierarchy, with recycle being the last option. Fans can reduce their waste by bringing their own water bottles. From the Stadium & Arena Event Services A-Z Fan Guide:

One factory-sealed bottle of water per person (1 liter or less), is permitted in the stadium and arena. Bottled water may not be frozen. In an effort to be sustainable, empty, clear, plastic water bottles will be permitted. Bottle-filling stations can be found throughout the concourses at Rice-Eccles and the Huntsman Center.

HEALTHIER CAMPUS INITIATIVE

Originally posted on @theU on March 8, 2019.

By Shawn Wood, communications specialist, University of Utah Communications

The University of Utah has adopted guidelines to promote better health on campus through nutrition, physical activity and programming over the next three years through the Healthier Campus Initiative sponsored by the Partnership for a Healthier America.

President Ruth V. Watkins signing the Healthier Campus Initiative.

L-R Jerry Basfor, Robin Marcus, President Watkins and Alexis Pearl Lee.

“I’m impressed with the work being done on campus,” said President Ruth V. Watkins, who signed the initiative on March 7, 2019. “I fully support doing whatever we can to encourage and educate our students, staff and faculty about the importance of engaging in healthy habits and the difference eating well, exercising regularly and taking care of their overall wellness will make throughout their lives.”

The Healthier Campus Initiative partners with 73 colleges and universities across the nation to advance healthy living. Each partner commits to meeting a majority of the guidelines developed by Partnership for a Healthier America in collaboration with some of the nation’s leading nutrition, physical activity and campus wellness experts.

By joining the initiative, the U has agreed to meet at least 23 separate guidelines in three categories: food and nutrition, physical activity and overall wellness programming.

A new campus wellness committee will guide the U’s work over the next three years. Members are charged with identifying and organizing campus activities that promote living well for students, staff, faculty and visitors. Supporting a One U approach, the broad-based committee will develop recommendations and direction of campus wellness initiatives and promote healthy living on campus and in the community.

The leaders on campus are Robin Marcus, chief wellness officer, U of U Health, and Jerry Basford, associate vice president, Student Affairs. They will steer the committee to support innovative projects led by students, staff and faculty across campus, ranging from sustainable gardens to food-focused courses and cooking workshops, to outdoor recreation trips and active transportation.

“We are thrilled to partner across our campus to continue our move toward the healthiest campus,” said Marcus. “The habits formed in college—including what they eat and how much physical activity they get—can last a lifetime.”

Committee members will include representatives from:

GOOD TO GROW

Originally published in Continuum on September 17, 2018.

Jessica Kemper, coordinator of the U’s Edible Campus Gardens, shows off produce from this season’s abundant harvest at their garden east of Pioneer Memorial Theatre. Kemper helps organize more than 75 student volunteers, who work shifts year round composting, trellising, weeding, planting, and harvesting at both the Pioneer Garden and their plot by the Sill Center. Come fall, there is enough produce to donate to the Feed U Pantry, share with volunteers, and sell at the U’s Farmers Market, which takes place Thursdays just west of the Union Building from mid-August to early October.

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Sustainable Sanitary Pads

Originally posted on May 29, 2017.

By Vince Horiuchi, public relations associate, University of Utah College of Engineering

Each year, nearly 20 billion sanitary pads, tampons and applicators are dumped into North American landfills every year, and it takes centuries for them to biodegrade inside plastic bags, according to a 2016 Harvard Business School report. Additionally, it requires high amounts of fossil fuel energy to produce the plastic for these products, resulting in a large carbon footprint.

PHOTO CREDIT: Ashlea Patterson

The SHERO Pad, developed by a team of University of Utah materials science and engineering students, is a new feminine hygiene pad that is 100 percent biodegradable and made from all natural materials. It consists of four layers and can break down in as little as 45 days.

But a team of students led by University of Utah materials science and engineering assistant professor (lecturer) Jeff Bates has developed a new, 100-percent biodegradable feminine maxi pad that is made of all natural materials and is much thinner and more comfortable than other similar products.

The SHERO Pad uses a processed form of algae as its super-absorbent ingredient, which is then covered with cotton and the same material that makes up tea bags. The result is a maxi pad that is effective, comfortable to wear and can break down anywhere from 45 days to six months.

“This is novel in comparison to other biodegradable options out there for pads,” said Amber Barron, a University of Utah junior in materials science and engineering who is on the team of four students. “Most are really bulky because they don’t have a superabsorbent layer.”

The need for something like the SHERO Pad originally came from SHEVA, a nonprofit advocacy group for women and girls in Guatemala, which turned to Bates because it was looking for a sustainable solution for feminine hygiene waste. One of Bates’ area of research is in hydrogels, which are water-absorbing polymers.

“In Guatemala, there’s no public sanitation system. All the rivers are black because they are so polluted,” Bates says. “So there really is a genuine need for people in Guatemala to have biodegradable options.”

Part of Bates’ solution came one night while feeding his 5-year-old daughter.

“One day we were eating dinner with white rice, and my daughter spilled it all over the floor,” he says about that night two years ago. “The next morning, when I was cleaning it up, it was all dry and crusted. I drove to work and thought, ‘What was it about rice that does that?’”

That question of how rice hydrates and dehydrates began a two-year process of searching for the right natural materials for the feminine pad, which included testing with different leaves, such as banana leaves, and forms of cotton.

Bates, Barron and the rest of the team — which includes sophomore students, Sarai Patterson, Ashlea Patterson and Ali Dibble — ultimately developed the SHERO Pad, which is made up of four layers: An outer layer of raw cotton similar to a tea bag to repel liquid, a transfer layer of organic cotton to absorb the liquid and pull it from the outer layer, the super-absorbent layer made of agarose gel (a polymer from brown algae), and a final layer made of a corn-based material that keeps the moisture inside and prevents leakage.

While there are other similar sustainable feminine pads on the market today, they either use a hydrogel that is not 100 percent biodegradable or they use thicker layers of natural cotton that are uncomfortable to wear, Barron says. Another advantage to the SHERO Pad is that it can easily be manufactured in smaller villages using locally sourced materials and without sophisticated tools, just common presses and grinding stones, Bates says.

While the team originally developed the SHERO Pad for users in developing countries such as Guatemala, Bates and the students also will start selling the product in the U.S. for environmentally conscious women. A working prototype has been produced, and they have launched a startup company based in Bountiful, Utah. They hope to have products in Guatemala and on U.S. store shelves within a year.

RECYCLE GLASS ON CAMPUS

Emerson Andrews, Sustainable Campus Initiative Fund coordinator. Originally posted on Jan. 9 2017. 

Glass recycling has arrived at the University of Utah thanks to the combined efforts of three students, Facilities Management and the Sustainable Campus Initiative Fund, or SCIF.

Fifty bins will be placed in buildings during the beginning of the spring 2017 semester and available for use by students, faculty and staff. At least one glass recycling bin will be placed in all major buildings across campus with a few extra in high-traffic places like the Union and Marriott Library.

While taking Global Changes in Society, a course offered by the Global Change & Sustainability Center, GCSC, three environmental humanitiesgraduate students proposed a glass recycling pilot project. Jennifer Lair, Nicole Cox and Carissa Beckwith wanted to implement an on-campus glass recycling bin program utilizing the Momentum Recycling facility in Salt Lake City.

They took their idea from the classroom straight to Facilities Management and the Sustainable Campus Initiative Fund. Joshua James, the university’s campus recycling coordinator, provided both the support and knowledge to implement glass recycling on campus. He helped students develop a plan that could make glass recycling a continued service with space to grow.

“We had a great opportunity open up with Momentum making a glass recycling facility in town,” James commented.

Once the plan was in place, it was a matter of finding the money to pay for it. The students secured the support of both SCIF and the GCSC to raise the $10,000 necessary for the project. These funds were used to purchase bins, install them on campus and develop a schedule for collection and drop-off. This project illustrates the power of a resource like SCIF in the hands of students.

“The GCSC class provided us with the time, space and support we needed to propose and implement the glass recycling initiative on campus,” Beckwith commented. “SCIF funding was instrumental to kick-starting this project.”

If the bins work well, the glass recycling program will grow in the future. It is important to remember that glass can only be recycled in the glass recycling bins — glass in other recycling bins presents a hazard to custodial staff.

“It’s important to continue to develop the program. But in order to do that, people need to make sure that glass goes into the correct bin.” James continued, “Glass going into the normal recycling stream could cause a lot of problems.”

These bins are only big enough for faculty, students and staff to recycle glass acquired here on campus. If people would like to recycle their glass from home, there are two public drop-off bins: One bin is located by student housing in Fort Douglas, and the other is located just off of Guardsman Way.

“I hope that glass recycling on campus catches on quickly with students, staff and faculty,” Beckwith concluded. “It is an easy action that can provide a huge payoff for the planet!”