Sustainability Blog

Author: Chelsea Schelly

Giving farmers a new crop: Solar Farms and expanding BTM methods for farmers

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This is a guest post from Lena Stenvig, an undergraduate student at Michigan Tech. Lena is studying Computer Science and minoring in Environmental Studies. Lena took the photos included in this blog post. She can be reached at lsstenvi@mtu.edu

 

The cherry orchard at Garthe Farms LLC

America is all about its family-owned farms. From its popular food chains serving America-grown burgers to its corn-mazes in the fall attracting people from all around, none of it would be possible without the original small-town humble farmers that do their job equally for supporting their families and for the love of what they do every day; but now our farmers need help. When people moved away from their family farms over to less body-intensive jobs for work, fewer farms began producing more product on more land. Even so, many farmers struggle to produce enough crop to sustain themselves and their family. Around 91 percent of farming families have at least one family member working at a job that is not the farm. This is where Behind the Meter, or BTM comes in.

Behind the meter is a means of producing your own energy so that you are not pulling all of the energy you use from the grid, and as a result pay less for your electricity bill. A popular technique to behind-the-meter is installing solar-panels in one’s yard on upon the roof. In this way a household can produce green energy to lower its carbon footprint and can save on the electricity bill. A typical household has room for a few solar panels. Enough to sustain itself for most of the summer months, but usually not enough when the winter heating bill kicks in. A modern American farm has much more land than your typical resident. Even if most of it is used for farming, there are certainly space that could easily be allocated for a small solar farm. Having worked for Garthe Farms LLC this summer, a cherry farm deep in cherry country near Traverse City, MI, I have seen first-hand where and how this can work. My uncle, Gene Garthe, runs this farm and in recent years invested in four large solar panels that sit in empty space near the driveway nearing the farm house. These four solar panels produce enough energy to run what electricity is needed for the farm, and that is all they desire and need.

Despite producing plenty of energy via solar, Garthe Farms is not a emissions-free facility. Large machinery is used to harvest the cherries from their trees. There are three machines that are necessary in cherry harvesting: the Shaker, which shakes the cherries from the trees, the Catch Frame, which catches the cherries shaken by the Shaker and conveyors them into a tub, and the tractor that takes the tubs when full to the loading dock and brings the Catch Frame a new tub in which to fill more cherries. All three of these machines require diesel fuel to run, and as much work as one can complete towards electric vehicles, it is not economically feasible at the moment to make a machine that chugs through an entire tank of fuel in eight hours of work to operate on an electrically-rechargeable battery. To make up for their fuel usage, perhaps it is better that farms simply produce a form of green energy that can make up for the amount of fossil fuels they consume.

 

Cherry harvest in motion: The Shaker (far) moves to the next tree while the Catch Frame (near) is receiving a new tub in which to place the harvested cherries.

 

In this way farmers can reverse the BTM method. If they can produce their usual crop while also producing energy in either the form of solar or wind, they can sustain their household while also receiving return on what they put out to the grid. This can work if they can have some of their own personal solar panels to run what they need to on the farm, and then working with solar or wind companies to lease certain areas of their land to be utilized for said energy production. For wind, this is easy by simply taking up a small portion of land for each windmill. The minimally invasive turbines do not take up much room on the farm and do not hinder the crops from receiving enough sunlight. Solar panels can prove to be trickier. Because of their method of energy production, solar panels would not work well in a field full of crops that also require sunlight in order to grow. For farms that grow plants that take up less room per unit such as potatoes or corn, placing solar panels in spare spaces around the field while mostly utilizing wind power might be the best option. For farms like my uncle’s, it is a different story entirely.

Much of a cherry orchard’s area is taken up by plants and grasses that grow below the trees, and the trees stand spaced approximately ten feet apart within each row. Each row stands about another twenty five feet apart. Where some farms may be only able to place solar panels near roads or at the end of rows, orchards may place the panels in these locations are more. If one row of trees were to be replaced with solar panels, the loss of trees would be fairly minimal while also adding enormous potential for solar production. Even without removing trees, placing solar panels at the end of rows would not affect the production of fruit while also receiving gain on solar production.

If we are to look closer at our American farms and examine the issues they face today, and if we can only look at the potential they hold for energy production, we may not only be able to solve the growing problem of farms going bankrupt, but also for finding a place to produce greener energy without disrupting land that is not being used and additionally would ecologically be better off as it is. In this way farmers can continue to do what they love, and not have to work more than they have to in order to pay bills and keep their farm from dying. With this I might say the path onto greener pastures might just be creating greener pastures.

 

 

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Tiny House Living at MTU

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The latest Humans of Michigan Tech story features Sydney, an undergrad who lives in an ambulance turned tiny home. The story barely touches the surface of the environmental, economic, and personal benefits that can come from tiny home living. Tiny homes are a great example of how environmentally responsible living is also economically beneficial – Sydney doesn’t have to pay rent or utility bills and can take advantage of the shared systems like showers and internet provided by the college campus. Sydney is not the first MTU student to live in a tiny home while completing a degree here – a student who built a tiny home on a trailer used to live in my yard, before she graduated and moved away from Houghton. There have even been discussions of developing a community of tiny houses on campus! Sydney and other students who have lived in tiny homes demonstrate that it’s possible, even in the cold snowy climate of the UP. Her story makes me wonder – How many students would live like this, if provided the opportunity to try? How can we teach more students about this possibility? What are the barriers in our way of making more environmentally and economically sound investments for qualify living through tiny homes and access to shared systems? We’re proud of you, Sydney!

 

 

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Industrial Ecology

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Photo of Shaelyn taken by Daniel Prada (daprada@mtu.edu).

 

 

This is a guest post by Shaelyn Koleber, who is an environmental engineering undergraduate student at Michigan Tech. She can be reached at sjkolebe@mtu.edu

 

Shaelyn took the photos included in her blog post.

 

 

 

Nature is full of self-sustaining ecosystems; there is a constant recycling of resources. There are complementary functions within nature and the environment is able to completely support itself without outside assistance. For example, trees absorb carbon dioxide and give off oxygen, while animals take in oxygen and give off carbon dioxide—a seemingly perfect complimentary cycle. Whether a plant is eaten by an animal or it dies naturally and decomposes on the forest floor, it is still supporting the ecosystem. Whatever nature produces eventually reaches the end of its life and will be consumed back into the ecosystem. A fallen tree limb, a dead animal, or an uneaten fruit or plant that has fallen to the floor are all absorbed and recycled back as useful forms to support the ecosystem. There is no waste produced from environmental processes and the ecosystem is a closed-loop of resources. This same concept can be applied in buildings and manufacturing where the waste produced from these processes can be used to support the ongoing production. Industrial ecology is a sustainability concept to improve the environmental management of industrial processes. Companies can keep a record of materials throughout a product’s life. There are many subcategories of industrial ecology that are used as analyzation and evaluation techniques to ultimately reduce the impact on the environment, such as: material flow analysis (MFA), life-cycle analysis (LCA), and input-output analyzation. Industrial ecology is an emerging concept that works to mimic the self-sustaining cycle of nature.

Introducing the ecological aspect to industry puts a generalized focus on environmental impact. Industrial ecology is a strategic guideline to use fewer resources while also finding a new purpose for exhausted materials and waste. This does not have to occur within one facility. Different businesses could work together to create networked, ecological industries: waste can be seen as a resource. The saying, “one man’s trash is another man’s treasure,” is demonstrated through the concept of ‘industry partnership.’ The by-product from one industrial process can be used as the input for a separate entity. For example, a coal-firing power plant has a lot of excess heat that can be distributed to a nearby community. This would reduce the energy and resources needed to provide heat services to the town, thus providing environmental and economic benefits. This could only occur with the cooperation of multiple companies independently. The transportation of these materials would have to be a short distance for the net environmental impact to be positive. This idea would have tobe mutually adopted for it to be effective, which could be seen in future years as more industries become conscious of their carbon footprint.

 

Industrial ecology is also seen in the emerging concept of cogeneration. Cogeneration, also known as combined heat and power (CHP), is when a heat engine is used to generate electricity and heat at the same time. Similar to the previously mentioned example, during the production of electricity, the heat can be harnessed and put to use instead of going to waste. This directly views the heat waste as a source and creates a concept of dual-purpose. Rather than the heat being seen as waste, it is seen as another useful product of the process. Smaller-scale industrial ecology concepts can be seen in the construction of homes or commercial buildings. Current construction techniques and technological resources build each utility with separate input needs and waste disposal. Most housing and commercial buildings do not have any industrial ecology, currently. People who plan on living in a house for an extended period of time or have a desire to live sustainably are more prone to implement advanced technologies. Instead of using an air-source air conditioner, a ground source heat pump can be used as a closed-loop system. These systems pump water from the ground where the temperature is constant year-round. While air-source heat pumps are less expensive and easier to install, ground-source pumps are much more efficient and sustainable. The ground-source pumps are buried pipes that loop around a three-to-six-foot-deep trench. This system is a constant exchange of heat with the ground and can heat or cool a home. Diagrams and explanations of the different heating systems can be found on https://smarterhouse.org/heating-systems/types-heating-systems. It takes less energy to simply move heat around than it is to generate heat; therefore, the ground-source pump does not consume a lot of energy. Since the ground-source heat pumps are more efficient, they are also more cost effective. A consumer that installs this system and plans on living in a home for a long time will see a return on their investment. This is just one example of many technologies/designs that exist as readily-available sustainable systems.

Industrial ecology is a concept that must be practiced by all companies and manufacturers; it must also be well-understood by the general public in order to be fully adopted and implemented into the function of society. Since our society relies heavily on industrial processes, we cannot simply shut them down. However, we can no longer standby and knowingly accept the pollution that companies create through their industrial processes. While it is not reasonable to shut down industrial processes completely, we must keep these companies responsible for the waste and pollution they create. A partial reinvention of industrial processes into industrial ecology will reduce the environmental impact significantly. Without the public’s understanding and demand for such changes, there will be no urgency to place official regulations and therefore create a zero-pollution global industry. This foreseen change will not come easily or naturally; it needs to be talked about and broadcasted on media to mass-educate the public. With a widely supported concept, the engineers, scientists, and policy makers can work together to put the ideas into action. Industrial ecology allows humans to increase their efficient use of ecosystems by mimicking what nature already does. The implementation of this concept will only come with the mutual support from companies, the government, the people, and environmental conservationists. If we continue to move forward with these concepts, the earth can thrive for many eons in our future.

 

 

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Your Role in Progressing Toward a Soft-Energy Society

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Photo by Meghal Janarda

 

This is a guest blog post from Zoe Reep, who is an undergraduate mathematics major at Michigan Tech. Zoe can be reached at zkreep@mtu.edu

 

As our society has grown in population, technology, and abilities, so has its need for energy. And as our need for energy has grown, we have been forced to step outside of early methods of capturing and extracting this energy. Over time, society has shifted from reliance on muscular and biomass sources such as animal labor and firewood in the 15th century to a reliance on fossil fuels such as coal, oil, and natural gas in the late 20th century (Evolution of Energy Sources).

 

Figure 1: Graph representing the evolution of energy sources across periods of time (Evolution of Energy Sources).

In the late 1900s, influential writer and scientist Amory Lovins took a critical look at the future of our energy sector in his essay “Energy Strategy: The Road Not Taken?.” He proposed that there are two ways in which society can proceed: the hard path, society’s current path characterized by intense fossil fuel consumption and lack of regard to the environmental effects of such consumption; and the soft path, the path that Lovins believed to be the better alternative characterized by renewable energy and the commitment to energy conservation and efficiency.

Those in support of the hard path argue that fossil fuels and nuclear energy alone can sustain our ever-growing population, with its ever-growing desire for energy, if we simply alter our extraction, conversion, distribution, and usage methods to be more efficient. Proponents of the hard path believe that society should focus on providing incentives, such as tax breaks and subsidies, for fossil fuel companies to encourage the exploration and extraction of coal, uranium, and petroleum. Following the decline of the availability of fossil fuels, these hard-pathers support a shift to nuclear power. Typically, those in support of the hard path envision a future of expensive, centralized systems (Newton).

In contrast, those in support of the soft path hold the belief that a reliance on solely fossil fuels is not only unsustainable in the long run, but dangerous. They believe that creating and sustaining large, concentrated facilities for power production enables powerful companies to dictate energy’s place in society and turns energy into a socioeconomic issue. Instead of these centralized systems, proponents of the soft path favor more local energy retrieval methods, such as solar panels on buildings or the use of wind turbines on properties. Additionally, soft-pathers would like to see society slowly transition from a heavy reliance on fossil fuels to a more dispersed reliance on renewable energy sources such as hydro, geothermal, solar, and wind power (Newton).

Lovins views sparked a time of controversy, but also brought up an important issue: which direction is the direction that we need to move in order to ensure that our successors have the same abilities to live full and meaningful lives as we do?

We’ve reached a point where it is difficult to argue that there isn’t something wrong with our current energy industry. [Check out https://ourworldindata.org/fossil-fuels for a look at the increase in fossil fuel consumption. Think our current methods can keep up with the ever-growing demand for energy?] Scientists and researchers have been presenting more and more evidence that our current path is unsustainable and that we might even reap the irreversible consequences of our procrastination and selfish desires in our lifetime. It is beginning to seem that the majority of people recognize the correlation between the dependence on fossil fuels and Earth’s degrading environment and atmospheric conditions , so what’s stopping us from converting to a more sustainable alternative?

We have grown increasingly dependent on energy and the comforts and commodities it supplies to us. We believe that others will find an answer for us, and that the answer will allow us to continue our life of ease. We hold the assumption that our own individual efforts will not produce change, since we are merely a single ant in the midst of a ginormous colony.

I tested a thought that I had on my Energy and Society class. I wanted to see if, when provided the education of why change was important and the means of producing that change, my peers would change small areas of their life that they had grown up comfortable with to benefit the world around them.

We had spent the previous class walking around campus and discussing areas that we felt could be improved, through methods such as user awareness or the implementation of more efficient systems,  to lessen energy consumption. The general consensus seemed to be that there were many aspects of our college life that, with a little change, could lower our energy consumption significantly and if only people knew about these areas, or acted on these areas, we would be in a much better position, energy-speaking.

I used a topic that I knew would strike controversy and that my class would be resistant to: food, and the environmental effects of the current animal agriculture industry – and our consumption of the proteins stemming from it.

Before I began, I asked my class whether they were vegetarian. This elicited several skeptical looks and maybe one or two hesitant “I once was…” or “I tried at one point…” I then provided them with some basic education on the negative effects of the animal agriculture industry through short videos. These videos walked my class through the water, land, and fuel consumption required to create even a single patty and informed them of the emissions and other land-and-water-degradation that results from a mass animal agriculture system.

Following the videos, I asked a very straightforward question: “Who is going to become vegetarian?” When that didn’t receive a response, I decided to cut them a little slack: “Who is going to change their diet?” That received a couple grunts.

I then posed one final question, which is what I want to leave you with today: if you’re not going to make the change, even after being educated about the issue and being provided means to pursue this lifestyle change (even if it is more expensive than the alternative, “normal” route), then what makes you think that anybody else will?

Stop believing that change will occur only when everyone buys into the change; start the change, and help people buy into it. Your actions are important and do create discussion. They have the potential to incite change. If you agree that this energy path we are taking is in fact unsustainable and quite dangerous to rely on, then step up, alter your lifestyle (yes, you might need to give up some of your comforts), and encourage others to do the same. And if you won’t do it for yourself, do it for the generations to come.

Zoe Reep.

 

 

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On Industrial Ecology

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This post is a guest post from a student in SS3815 Energy and Society who wishes to remain anonymous.

 

Most of us are somewhat aware of industrial practices along with a high school level understanding of ecology, but what about their interconnection? Can two completely different topics combine for a new concept or understanding? And how does it relate to sustainability?

“Industrial ecology is the study of industrial systems aimed at identifying and implementing strategies that reduce their environmental impact. Industries, such as manufacturing and energy plants, extract raw materials and natural resources from the earth and transform them into products and services that meet the demands of the population” (study.com). Industrial ecology works in a way similar to that of a workplace or school sustainability initiative for recycling or net zero waste, but to a deeper and grander scale. A forest’s ecosystem may give tree saplings to mammals and insects, but the surviving saplings grow big and strong. These trees provide cover from the elements, as well as shelter for other species. They also act as carbon sinks, providing clean oxygen. This cycle of environmental sustainability is what industrial ecologists are looking to achieve.

When Eagle Mine was first proposed to the Marquette area, there was severe backlash from the community regarding its environmental impact on the nearby Salmon River. Their skepticism was understandable, a simple Google Map satellite search will show you the nearby retention ponds of Empire Mine, among others, with a remarkable color of orange. In case you didn’t already know this: water is not orange in its natural state. Local fishermen opposed the mine on the grounds of mining’s notorious mark on nearby bodies of water and land, so proper measures were put in place.

 

Eagle Mine Fly Over (Links to an external site.)

 

Firstly, the mine is not open-face, it is an underground operation. This limits the dust exposure compared to open-face or mountaintop mining, whose presence lasts long after operations cease. Second, truck loading takes place indoors, further reducing the potential dust travel. Trucks and boots have designated pathways for travel to prevent exposure off the site. There is even a water treatment center inputting from the site and outputting into the river. One of the most interesting aspects of exposure prevention is their handling of snow and rainfall. The entire site is concave in so all liquids pool to the central holding ponds. This site is a prime example of industrial ecology because of every aspect to protect the local ecosystem and reduce its overall impact. On top of all this, Eagle Mine plans on returning the site to its former natural state when all is said and done.

 

Modern Mining – How Eagle Mine produces nickel and copper (Links to an external site.)

 

When looking at the product of Eagle Mine, said minerals are made into a wide array of products and parts, which in turn can return to the site via phone or truck.

In my Population & Environment course with Dr. Winkler, we ran a website test determining how many earths would be required to live if everyone lived like the test taker. I ended up receiving a score of about 1.5 earths, but I wanted to test some options. The life habit that created the biggest jump was the amount of trash one produces. By adding a few pounds to my weekly trash output, my earths jumped up to almost 3 whole earths. Industrial ecology is an important term to understand because it is a relatively new concept with future consequences. Industrial waste is a topic that needs to be addressed because the reduction of overall waste and waste streams is one of the most significant ways to reduce its environmental impact. Ever seen a loaded truck carrying brand new vehicles down the highway? Each vehicle is wrapped in single-use plastic that is battered by the wind, and some even falls off. When the vehicles reach their final destination, this plastic is stripped off and the car is stored elsewhere. How do I put this lightly…do we really need to continue to manufacture single use plastics? Obviously, there are exceptions to this, particularly medical equipment, but even then, we can invest in alternate materials. Ford Motor Company’s most recent sustainability report details its net zero waste initiative, most notably its near zero landfill output in the United States at most sites. An increasing number of companies are moving towards zero landfill waste, which is incredibly impressive considering the amount of office waste that can accrue.

It can be said that industrial ecology is similar to life cycle analysis, which is an assessment of environmental impacts associated with all the stages of a product’s life from raw material extraction through materials processing, manufacturing, distribution, use, repair and maintenance, and disposal or recycling. Life Cycle Assessments look into everything that occurs cradle-to-grave when it comes to products. In other words, from pre-manufacturing to disposal. This can be inversely related to industrial ecology because the industry is the cause while the product carries the effect. Think of how a Red Solo Cup takes over 400 years to fully decompose, how can a company change the material of the famous Red Solo Cup so it can decompose in 10 years? How does the Red Solo Cup manufacturer justify making products that will last centuries into the future when none of the current generation will be alive to experience it? I would certainly hope there are environmental policies in place to counter overdue decomposition in the future, but what can a company do right now to counter? Gone are the days of simply throwing trash away- out of sight, out of mind– and here are the days of sustainability. I’d find peace in working for a company with such strong devotion to internal standards, and the standards of the surrounding environment.

This term deserves to be normalized in order to become a pillar in sustainability efforts and studies. I think that industrial ecology can be a catalyst for severe societal change. It’s known that work environment and cultures influence our own environment and culture at home, so sweeping ecological successes could have trickle-down effects.

 

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Off-Grid Energy

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This guest post is provided by Alannah, who is a Sustainability Science and Society undergraduate major at Michigan Tech. She can be reached at amwoodri@mtu.edu

 

Photo by Kevin Stace

 

Hi, I am Alannah Woodring a third year Sustainability Science and Society undergrad. Off grid energy production is intertwined with sustainability. These are systems that individuals use to generate their own power removing the need for energy companies. This gives individuals independence, no longer needing to be connected to the energy grid. Most commonly through solar panels residents and communities can create their own micro grid.

Since I was in Middle School, I have considered living in an off grid in a tiny house, earth ship, converted shipping container or other forms of alternative housing. The main reason for this is to reduce my footprint and my overall individual consumption. Currently, in my free time I draw up blueprints for tiny houses and modular homes. My first blueprint started in 2014 and I keep sketching up new ideas. One element all these living spaces have in common is an off-grid energy system. To accomplish this, I would have solar panels with battery reserves create my own energy system. There would also be the ability to connect to the grid if needed. Having the on and off grid flexibility is a necessity when having a mobile living situation. Beyond my desire for an off-grid system there are many possibilities to aid in energy issues within the United States and help developing countries who lack access to energy.

Photo taken in Windsor, California by Kirsten Dirksen. “Agile villages for fire victims as templates to fix CA housing?”faircompaines.com. October 20, 2019.

 

Off grid energy systems could be applied to places that have a failing energy infrastructure. In California during the beginning of October 2019 widespread organized blackouts occurred by Pacific Gas & Energy (PG&E). This was in hopes to reduce the possibility of widespread fires during a few very windy days.

This blackout affected more than 500,000 people. With the usage of micro grid systems people who would not have been affected by strong winds could have left their power on but since they are all part of a large grid majority of people got their electricity shut off. During the 2017 wildfire PG&E was to blame resulting with an 11-billion-dollar settlement that was reached this September. Shutting off the electricity in October was to prevent a wildfire to the magnitude that was seen in 2017. As conditions worsen in California due to climate change the current energy infrastructure is showing a growing number of problems.

Many California residents cannot afford to rebuild after the fire, and it is estimated that 3,300 people decided not to move back after the 2017 fire. For others who decided to move back they are choosing to live in 480 square feet homes renting for $950. Community members are coming together to get temporary housing permits for those effected from the wildfire. Through the usage of a micro grid system these small homes could have not been affected by blackouts and this would reduce the chance for wildfire if their energy infrastructure was to be built underground. Having power lines above ground does not have to be the status quo but it is the system that the United States is used to having. Coming up with solutions using off grid energy systems to combat rising issues from climate change should be considered widely as climate change is predicted to worsen conditions.

Another potential for off grid energy systems is in counties that do not have energy infrastructure such as power lines already in place. It can take many years for widespread grids to be established in rural and remote areas. By using off grid energy systems rural communities who would have had to wait many years for access would be able to produce energy in a matter of months. This adds self-sufficiency within energy production for developing countries who often lack the complete infrastructure needed to maintain systems.

Furthermore, here is a ted talk that outlines the expansive sustainable potential of off grid energy systems. https://www.youtube.com/watch?v=20adDr7Felw

There are many companies like Powerhive that are helping people in rural areas who cannot afford the initial cost of power lines to be connected to their communities. They instead install solar panels in rural areas to connect communities that would not have access to electricity otherwise. Electricity is a necessity for life within our globalized world. Rural areas surfer the most from inequalities and access to electricity can help bridge the gap. When I was in high school deciding what I wanted to major I knew proving energy to remote and rural areas was always a possibility. I hope that I can work within off-grid energy systems sometime in my life.

 

Source: Powerhive, Powerhive: Resilient Energy Infrastructure for Off-Grid Communities. August 10, 2016

 

 

When having an off-grid energy system individual become more aware of their energy consumption. They look at the peak times they consume energy. With having this system, they can avoid peak energy price changes that electric companies charge.

In Tyalgum, Australia they are a community of a little more than 300 members. They are choosing to have their own off grid energy system to have independence from energy suppliers and go carbon neutral. In Australia much of their energy mix comes from fossil fuels as they have large reserves in their country. The carbon lock in cycle can be observed in Australia. Members of the Tyalgum community feel Australia does not have a progressive enough stance on incorporating renewables, so they have decided to take matters into their own hands.

Reasons for switching to off grid energy systems can be ranging from reducing natural disasters amplified from climate change or just wanting to reduce carbon emissions. No matter the reason for wanting off-grid systems they can help mitigate climate change issues while providing energy justice to people who previously had none. Benefits come from small scale energy generation that many would not consider since off-grid is not a common practice. With more knowledge surrounding off-grid energy individuals can think of energy as a public good. Fossil fuels are not sustainable and rethinking the current energy infrastructure can create a new sustainable blueprint for the future.

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Managing Split Incentives as a Better Way to be Energy Efficient While Renting?

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Brendan Beecham is an undergraduate Computer Science major at Michigan Tech. He can be reached at blbeecha@mtu.edu.

Understanding the Need

In the present-day variable economy, split incentives could be used as a method of lowering the overall energy bill for a renting tenant. By sharing the cost of energy between the landlord and the tenant, the difficulty that arises with paying for high-cost energy services is mitigated. This in turn allows the renter to use the saved money to pay for other goods and services and inspires sustainable living through spending less on utilities.

 

Source: nucherenonagel.com

 

The power of utilizing split incentives comes from the motivation from the landlord and tenant to be energy efficient. If the landlord accepts one lump sum fee from the tenant as a substitute for the tenant paying the utility themselves, they have much less reason to be mindful of how much energy they use. On the other hand, if a tenant pays their own electric bill every month themselves, the landlord might not see it as worth their money to install energy efficient lights and appliances. This is where split incentives shine.

When each party in the landlord/tenant relationship is responsible for their own half of the electric bill, there is much more pressure to be energy efficient. This is present in many more cases than just rental housing, but for simplicity I will focus on just the landlord/tenant relationship instead of hotels or big businesses.

 

Affordability For Those That Need It

Split incentives are especially important when discussing energy poverty. This is where lower income renters will end up allocating significantly more of their household income to energy bills than other renters. In this case, split incentives can cripple the financial stability of that renter and affect their quality of life. Additionally, this renter’s landlord will most likely be affected by the instability of the renter’s financial situation, which could lead to possible missed rent payments and cause for both parties to be in an unstable financial relationship. Implementing split incentives effectively can help both the renter and the landlord.

Energy poverty is an issue that arises from the infrastructure and behavior of the energy industry as it stands today. This is a huge issue. Until people are able to afford the energy that they need to take part in society, the thought of living efficiently is much less a choice for some than it is a requirement. There is hope, however, as the idea of split incentives is a versatile one and can help to push forward renewable energy technology.

 

Source: thebalance.com

 

Creating A Better Transition For Renewable Energy

Split incentives could be managed in ways that create energy poverty solutions, but they could also be helpful in mitigating the cost of installing renewable energy solutions like solar panels. Where many cite the initial sunk cost of installing solar panels as the number one reason for never transitioning to using renewable energy solutions, a program that effectively splits incentives could mean a lessened financial impact on each one of the parties involved, the renter and the landlord. While no tenant wants to pay for their landlord to install solar panels out of their own pockets, a cooperative action as well as the promise of lower energy costs in the future could cast a much more appealing light on the transition. In fact, this is not unlike the benefits that come from a government incentive program, one that gives tax breaks to parties who install renewables or who have a portion of their power grid being powered by renewables.

 

Sharing the Cost to Save Energy

Split incentives may mean that landlords have no reason to invest in energy efficiency or renewable energy, because they don’t see the benefits of lower utility bills themselves. By acknowledging and effectively managing split incentives, the solutions for reducing energy poverty and the transition to renewable energy can be streamlined. Like with most improvements to infrastructure systems, it is the programs that are put in place to reduce sunk costs and reduce risk on one party that will push forward for the most change. No landlord will front the cost of installing solar panels if they know there is no incentive to do so. In most private rental situations, there will need to be a push to get an incentive.

 

Source: energynews.us

 

The cost of renewable energy installation makes it a very unrealistic option for most tenants, even those in long term rentals. Even with the price of solar panels dropping as the market expands, for many tenants, the cost of installations are still too high, and the split incentive of renting (when they might not directly benefit from the reduction in utility expenses) is a huge barrier. While renting is an increasing trend in the housing market, tenants won’t want to put money into rental housing, since they don’t own it and won’t see the benefits from the housing value. Most renters are less financially well off that their landlords, so spending their income to install solar panels for the benefit of the landlord is not likely.

 

Conclusion

Split incentives can be managed in ways that have the potential to improve quite a few factors that all relate to energy and the way it’s used in rental housing. Dividing the costs between the landlord and the tenant could provide a stronger reason to be more energy efficient for both parties. Most importantly, incorporating  sustainability into the way we live is quite a daunting task, especially if money is an issue. So to share the burden with others is possibly the biggest leap to see the biggest benefits. Whether it is minimizing the energy footprint that we are leaving, or attempting to save money to be able to afford the everyday essentials in life, managing or leveraging split incentives to provide maximum benefits and incentives to both landlords and tenants is a smart first step.

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Life Cycle Assessment and Sustainability

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This is a guest post from Dante Paglia, who is a fourth year computer science undergraduate at Michigan Tech. He can be reached at dfpaglia@mtu.edu

 

Life cycle assessment, also known as life cycle analysis, is used to assess environmental impacts associated with all stages of a product’s life. The stages include the collection of the raw materials, processing those materials, manufacturing the product, distribution via various transportation techniques, use of the product as well as the repair, disposal and recycling during the products end of life. This kind of assessment is used by companies and product designers to better understand their products impacts, discover where the product can be improved, and work toward implementing those improvements. Below is a visual of the stages of a products life that are looked at during a life cycle analysis.

 

The National Institute of Standards and Technology (NIST) [Public domain] image of Life Cycle Thinking, Wikimedia Commons
Photo from: https://commons.wikimedia.org/wiki/File:Life_Cycle_Thinking_Product_System.jpg

 

There are four main phases of a life cycle analysis. The first phase is the goal and scope. This sets the outline of the study and depicts the format of the results as well as who will receive the results of the assessment. The second stage is the life cycle inventory. In this stage the inventory flow of inputs for a product are recorded. Examples of inventory flows include, water, energy, raw materials and waste releases to either land, air or water. In this step, all of the inputs and outputs that are used or created during the products life are recorded. The third stage of a life cycle assessment is the actual impact assessment. The data gathered in the previous step is sorted and assigned impact categories to help weigh the impact the product has on the environment. Lastly, interpretation is done. The information from the results of the analysis must be checked and evaluated. In other words, the results of phases two and three are summarized in the interpretation phase. The completed assessment is then reviewed to understand the impacts of the product and to see where improvements can be made to lessen the overall impact on the environment.

Life cycle analyses are a widely popular tool to increase a company’s sustainability. This is because the analysis usually includes information that fits into all three pillars of sustainability. While the overall goal of the assessment is to review environmental impacts, social and economic impacts are considered as well. You can learn more about the three pillars of sustainability by clicking here.

There are many variants of a life cycle assessment where different stages of a products life are analyzed. The three most common kinds are cradle to gate, cradle to grave, and cradle to cradle. Cradle to gate only looks at a product when it is in the hands of the producer, once it leaves the factory its impacts are no longer considered. Cradle to grave takes it a step further and follows a product from the very beginning all the way until it is disposed of. Lastly, cradle to cradle takes things even further and instead of disposal of the product, it is recycled and reused in the process again. Often a cradle to cradle design leads to the least amount of environmental impact. One example of cradle to cradle is discarded asphalt pavement being reused to create new pavement. Below is a graphic showing another example of cradle to cradle design with steel production. This shows how everything, including the waste bi-products of steel production can be used for something useful or simply recycled back into the steel making process.

 

Life Cycle Assessment – What is it?

Photo from: https://www.flickr.com/photos/mitopencourseware/3247853726

 

An example of the use of life cycle analysis is the U.S. Department of Energy produced report that shows the energy and environmental benefits of LED lights over incandescent and fluorescent lights. LED lights proved to be more energy efficient and less harmful to the environment to produce as well as transport than both other kinds. This led to a rise in popularity of LED lights hence providing an overall benefit of large energy savings and significantly less environmental harm. The full study can be found by following this link.

Additionally, life cycle assessment is something that many solar panel producing companies are required to do and have planned out prior to receiving funding from the government. Since solar panels include hazardous materials like cadmium and cadmium compounds, it is not only important to make sure that the raw resources are being retrieved in a safe manner but the end of life of the products needs to be taken into account. If a solar panel is to be disposed of for any reason, whether it be because it broke during production or it is no longer being used or is being replaced, companies need to make sure that their product with these hazardous chemicals is properly disposed of. This means it cannot be tossed into landfills but needs to be recycled in a manner where the harmful compounds are disposed of properly or reused for new solar panels. This article on solar panel recycling explains some of the options there are for safe disposal of unwanted or old panels.  A life cycle assessment helps find issues in these stages and brings them to the attention of the product’s producers allowing them to change their ways.

Life cycle assessment is an important concept to be aware of because every company should be doing some variant of a life cycle analysis for their products. Not every company needs to do cradle to cradle analysis, but they should assess their production in some way. By doing so they can discover issues in their production cycle as well as make improvements to make their product better in terms of energy and environmental harm. With this, their product and company as a whole will become more sustainable and attractive to the large number of investors and customers who are paying closer and closer attention to companies sustainability policies. Most importantly in modern day, the end of life portion of production needs to be analyzed and understood so companies can mitigate the environmental impact their product does. The more recycling options that can be found for products the better to reduce the amounts ending up in landfills causing more harm with their pollution than good they provided overall. Without these kinds of analysis, companies would be able to do whatever is the most cost effective in production, which almost never coincides with sustainability and being environmentally friendly.

 

 

 

 

 

 

 

 

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By the Community, for the Community: Co-creating pathways to local food system sustainability

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This is a guest post from Jack Wilson, Sustainability Science & Society major

 

Jack Wilson interning at Marble Mountain farm during Summer 2018, an organic vegetable and herb farm in Happy Camp, California

 

 

 

Sustainability is about more than the development of systems designed to sustain themselves. It’s also about practicing radical forms of democratic process to develop human and more-than-human communities built on dense networks of socioecological relations that allow for individuals to co-create the systems that they call home.

 

This feeling of home is something that has inspired me to get deeper into my work on local food system sustainability. After my first year at Michigan Tech, I transferred from Geophysics to the new Social Sciences interdisciplinary major Sustainability Science & Society. In this major, I work with a framework that studies sustainability beyond the perceived duality of human and environmental systems. Ultimately this duality is artificial, and it’s necessary that we begin perceiving human systems as embedded in and interdependent on one larger interconnected biogeophysical system that is sustained through a network of reciprocal relations. Over the last year and a half, as I’ve become more familiar with the system of relations that comprise our local food system, I find that this feeling of home grows within me.

 

For those who aren’t familiar, a food system can be broadly defined as all of the patterns, processes, and networks which facilitate the flow of food, from its inception to its consumption. When I tell people here at Tech about what I study, they usually respond with some variation of “really? You study the food system here? What food system?” In some sense, they’re not wrong in saying so.

 

The Keweenaw region today produces an incredibly minute amount of food relative to that which is consumed, so we rely mostly on imported food from the fossil-fuel intensive conventional global food system. Because we rely on food grown in distant lands by the hands of unknown people, many of us don’t know how unsustainable our food system actually is.

 

It didn’t used to be this way. The conventional food system is actually a relatively new phenomena in the context of this land’s human history. For centuries the Anishinaabe people derived sustenance from many of their more-than-human relatives in the region, such as fish and rice. While many Anishinaabe people still have these relations, the colonization that has occurred from the 19th century into the present has created structures of power which hinder the ability of communities to develop and maintain sovereignty over their food system. This history is vital in helping us conceive of how a more sustainable food system might be possible. While the United States Department of Agriculture (USDA) considers the entire U.P. food insecure, we can look to the Indigenous communities for knowledge about how we might actually find an abundance of food in the waters and forests of this land.

 

In the 2018/2019 school year, I received funding through a Portage Health Foundation Undergraduate Research Internship Program (URIP) to conduct ethnographic research studying how local farmers navigate the challenges in our local food system and identify as opportunities for improved resilience. This work was inspired and informed by classes I had taken in the Sustainability Science & Society program, including SS 4700 Communities & Research, SS 3110 Food Systems & Sustainability, and SS 4211 Ethnographic Methods. When I asked one farmer what they wished the broader community knew about the farming in the Keweenaw, they said, “I just wish they had a better understanding of what is possible.”

 

This public misunderstanding of our food system seems to derive from the general lack of awareness about our local food system and its potential to support a more sustainable future. For example, when I ask people what they think about the possibility of developing a sustainable local food system in the Keweenaw, they often are quick to point out logistical challenges such as “we have too short of a growing season” or “we live too far north” or “the soil is too poor.”

 

While it is true that our growing season is short relative to other places, I’ve learned through my research that local farmers are using cold storage technologies to allow for the preservation of vegetables for months into the fall and winter season. While it is true that we live very far north, farmers have shared with me that there’s actually a number of places throughout the Keweenaw that have significantly extended growing seasons because of the way Lake Superior acts as a heat sink and regulates the climate, thus extending the season further into the fall. Further, these farmers have shared a number of technologies like low-tunnels and hoop houses which also allow for the season to be extended. Finally, while it is true that there are many places throughout the region with low amounts of organic matter in the soil, many of these farmers are working to build healthy soil over time through regenerative agricultural practices.

 

When that farmer told me they wished people had a better understanding of what is possible, I thought about how limited my own understanding was before conducting this research, and how that hindered my pursuit to uncover solutions to these sustainability challenges. The solutions that farmers shared with me speak to the vast reservoirs of ideas and solutions already existing in our own communities.

 

I will continue to pursue these questions through a Summer Undergraduate Research Fellowship (SURF) in the summer of 2019 and another URIP in the 2019/2020 academic year under the continued supervision of Dr. Angie Carter. Through my research, I’ve also become more engaged in our community, working at Metsa Hill Farm and volunteering with the Western UP Food Systems Council and Food Not Bombs. It’s through engaging in this research and these dialogues that we can begin to develop a more holistic understanding of these systems and tailor our system interventions in a way that ensures we are working towards a world of justice, equity, and sustainability.

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Tech Forward! On Sustainability & Resilience

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Michigan Tech has ambitious plans to address the future of education, the contexts in which education operates, and the objectives and aims that a University education serves, given the expected disruptions resulting from external factors (you can read more about Tech Forward here). Discussions and meetings in the fall 2018 semester (you can read more about that process here) resulted in the announcement of big, broad Initiatives intended to create plans for proactively addressing the challenges faced by MTU, Universities, and the societies in which we live. One of the Initiatives is focused on Sustainability & Resilience, and the Working Group has been meeting regularly to discuss possibilities, priorities, and the principles that should guide Sustainability & Resilience activities at MTU — What do you think? What do you think Sustainability & Resilience should look like at MTU?

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