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Campus sustainability and the goal of reaching carbon neutrality have become a major trend among many Higher Education Institutions (HEIs) globally, and many of them have taken public pledges to reach carbon neutrality as early as 2025. Despite this push and apparent eagerness to make campuses greener, the simple fact

Campus sustainability and the goal of reaching carbon neutrality have become a major trend among many Higher Education Institutions (HEIs) globally, and many of them have taken public pledges to reach carbon neutrality as early as 2025. Despite this push and apparent eagerness to make campuses greener, the simple fact remains that HEIs account for very little of the global carbon footprint, and achieving carbon neutrality does very little to combat climate change in the grand scheme of things. It is widely held that HEIs seek to use carbon neutrality goals to demonstrate their strong commitment to sustainability and also to educate the next generation of thinkers and leaders in the hopes that graduates from these institutions apply these methods to higher levels of society thereby decarbonizing communities’ level by level. However, since carbon neutrality took center stage in campus sustainability goals, it is imperative to scrutinize and audit the past and current energy portfolio and analyze any meaningful changes to see their year-by-year progress and what methods have been most successful in reaching carbon neutrality. Not only that, but carbon neutrality seemingly means different things to different institutions. This research asks what is the role of a campus energy portfolio in terms of achieving carbon neutrality? Using the Institutional Analysis and Development framework, this research utilizes a case study analysis of Arizona State University which was one of the first universities in the United States to achieve carbon neutrality. The results of this study suggest that a campus energy portfolio is integral in understanding the role of carbon neutrality and that becoming carbon neutral is not always the “green standard” indicator many HEIs want others to think it is.
ContributorsSingh, Sukhmani Kaur (Author) / Shrestha, Milan (Thesis director) / Parker, Nathan (Committee member) / School of Politics and Global Studies (Contributor) / School of International Letters and Cultures (Contributor) / School of Sustainability (Contributor, Contributor) / Barrett, The Honors College (Contributor)
Created2020-12
Description

Synthetic plastics are ubiquitously used in a broad range of applications, including food and drink packaging. Plastics often contain chemical additives, including bisphenols, phthalates, and terephthalic acid, which can degrade under thermal stress. The environmental presence of these chemicals is cause for public concern, especially in consumer products that utilize

Synthetic plastics are ubiquitously used in a broad range of applications, including food and drink packaging. Plastics often contain chemical additives, including bisphenols, phthalates, and terephthalic acid, which can degrade under thermal stress. The environmental presence of these chemicals is cause for public concern, especially in consumer products that utilize plastic packaging, as many have been identified as endocrine disruptors. This study sought to determine exposure to phthalates, bisphenols, and terephthalic acid by quantifying a broad spectrum of these analytes within three bottled water brands at varying temperature exposure levels using the combination of solid phase extraction followed by isotope dilution liquid chromatography-tandem mass spectrometry. Monobenzyl phthalate was detected in two of the three brands after bottles were heated to ~100 °C, ranging from 98 – 107 ng/L, and bisphenol A was detected in one brand at ~100 °C at an average concentration of 748 ± 36 ng/L. Subsequent mass loading calculations demonstrated that bioaccumulation of BPA from Brand C after high levels of temperature exposure well exceeded the tolerable daily intake (TDI). Findings in this study indicate that consumers should not be expected to incur harmful exposures to the target compounds under normal conditions as analytes were not measured in water bottle samples at 25 °C or 60 °C. Further studies should explore a more nuisance approach to heating over long durations, including that of ultraviolet exposure.

ContributorsZevitz, Jacob (Author) / Halden, Rolf (Thesis director) / Driver, Erin (Committee member) / Barrett, The Honors College (Contributor) / School of International Letters and Cultures (Contributor) / School of Life Sciences (Contributor)
Created2022-12