1 RU Full Time Enrollment in the Climate School
1/2 RU tuition for Climate School students
1/4 RU tuition for Climate School Students
Extended Residence enrollment category for Climate School students.
Required for students in the Climate and Society MA Program Prerequisites: undergraduate course in climate or physics; undergraduate calculus An overview of how the climate system works on large scales of space and time, with particular attention to the science and methods underlying forecasts of climate variability and climate change. This course serves as the basic physical science course for the MA program in Climate and Society
As climate related disasters continue to grow, the impacts of climate change and sustainable development on disaster threats and vulnerabilities are increasingly pronounced. Many of those in the field of disaster management are having to contend with increasing frequency and severity of disasters. Concurrently, disaster risk reduction and response frameworks are struggling to meet the challenge of 21st century disasters. At the same time, the field of disaster research is generating new insights into how the built environment, social structures, and ecological dynamics are intersecting to set the stage for disaster vulnerability, and thus can be better engineered for resilience. As this field continues to evolve, many who many not necessarily identify as disaster managers are also increasingly involved in disaster management in some capacity. With this, the dynamics of disaster risk reduction and disaster management are essential in working with communities and negotiating development activities in ways that are inclusive of a broad range of values, goals and incentive structures.
Utilizing a case-study approach, this course will offer a focused study of climate change adaptation policy, exploring dimensions of adaption across sectors and scales. With a thematic focus on pervasive global inequities, students will also consider challenges associated with international development and disaster risk management. An inter-disciplinary framework will enrich the course, and students will learn about perspectives from the natural sciences, law, architecture, anthropology, humanitarian aid, and public policy.
In the 2015 Paris Agreement, the international community vowed to “reach global peaking of greenhouse gas emissions as soon as possible,” and to achieve “rapid emissions reductions thereafter.” Despite that, however, global emissions continue to increase. The lack of progress has spurred interest in the possibility of removing greenhouse gases directly from the atmosphere. Modelling by the Intergovernmental Panel on Climate Change suggests that atmospheric greenhouse gas removal (GHGR) could help to combat climate change in three ways. First, GHGR could be used to reduce net emissions in the short-term, while countries are in the process of decarbonizing. Second, GHGR could be used to offset residual emissions from hard-to-decarbonize sectors (e.g., aviation) and thus achieve net-zero emissions. Third, in the longer-term, GHGR could be used to achieve net-negative emissions if deployed at levels exceeding residual emissions.
Scientists have proposed a variety of GHGR techniques, but questions remain about their efficacy, benefits, and risks. Technical feasibility is not the only consideration as large-scale deployment of GHGR could raise a host of social, ethical, and governance issues. For example, some climate activists have argued GHGR may discourage action to reduce emissions, and further entrench fossil fuel use. Others have expressed concern about the equity and justice implications of deploying GHGR, arguing
that it could exacerbate existing inequalities and place the most vulnerable at greater risk. Existing governance frameworks may not be effective in preventing these negative outcomes nor maximizing the benefits of GHGR.
This course will explore possible technique for large-scale GHGR. We will discuss the feasibility of deploying different techniques, with a particular focus on the ethical, social, and governance issues that large-scale deployment could raise. We will also consider strategies for advancing just and equitable deployment and explore the role of different actors (e.g., governments, the private sector, and civil society) in ensuring that occurs.
This course presents decision science to students, showing it to be a source of concepts and techniques to promote more extensive and effective climate action. It emphasizes the relevance of decision science to students who are planning professional careers in climate-focused organizations and sectors, while also being of value to students who plan future studies in academic and professional programs.
As is widely recognized, there has been insufficient progress towards the goals of stabilizing greenhouse gas concentrations at safe levels and of adapting to existing and projected climate impacts. Understanding how individuals and organizations make decisions is a key step to reducing this gap. Decision science can help design resources (finance, regulation, governance, information and communications) in ways that promote action.
The field of decision science emerged decades ago, drawing on psychology, economics and other social science fields to address problems of poor decision-making in areas such as finance and health. Recent research has extended this field to climate action. It has clarified the obstacles that impede climate decision-making in many settings, and it has developed techniques to improve these decisions. There is an increasing body of empirical research that tests the effectiveness of these techniques in a wide variety of settings.
This course familiarizes students with central concepts and methods of decision science. The modules of the course focus on specific concepts and on techniques linked to them, drawing on concrete examples from climate-relevant domains such as disaster risk reduction, health, energy, water and food security. The readings include studies which assess the effectiveness of specific techniques to support climate decisions. The course covers a range of different approaches. It shows that each of these can be useful to address obstacles to effective decision-making, but there is no silver bullet. Instead, the course provides students with means to select the decision techniques that are effective to address specific issues in specific contexts.
African and African Diasporic peoples have been central to the creation and transformation of global ecologies and landscapes. As the birthplace of humankind, the African continent features the longest archaeological record in the world, with abundant, yet often underrepresented, material and historical evidence for remarkable Indigenous African innovations in the areas of technology, food production, and resource and land use. This course specifically examines Black ecologies preceding and then radically transformed by the Trans-Atlantic Slave Trade. Beginning in the late fifteenth century, the enslavement of millions of Africans and their forced translocation to the Americas and Caribbean precipitated ecological transformations on all sides of the Atlantic, as African peoples, knowledge, resources and ecological inheritances were appropriated by the European mercantile system. Enslaved Africans transformed American landscapes via extractive industries of plantations and mines and suffered the emergence of toxic landscapes and disease alongside Native American communities. Africans also recreated African ecologies as they created livelihoods and landscapes of resistance and freedom in the Americas. The legacies of the Atlantic Era maintain a persistent dynamic in which African and African Diasporic communities experience disproportionate burdens of environmental injustice today. The concept of Black ecologies reflects the marginality, systemic racism and dispossession experienced by Black peoples and their landscapes. Black ecologies also allow us to understand African and African Diasporic ecological innovations, resistance and resilience, and the pathways to future sustainability and justice they promise.
With climate change visibly affecting communities around the world, it is essential to society to transition to renewable energy sources to minimize further climate warming. As for any generation source, installation of renewables is very capital intensive. This course will examine key “ingredients” necessary to finance a renewable project / make it economic, including but not limited to:
Ability to finance at the project level
Different forms of capital available / requirements to successfully finance
Revenue models for renewables investors and required returns
Role of government incentives in financing renewable energy / latest US legislation
Key technical issues that arise with increased renewables penetration
Global geopolitical landscape and its impact on energy transition
Equity an inclusion in the approach to building a renewable landscape
As part of the course, we will review multiple case studies and will approach the topics both from theoretical and quantitative perspectives.
This course brings students from The School of the Arts and The Climate School together to explore new and compelling approaches to navigating climate solutions in the worlds we create and the stories we tell in theater, film, television, digital, visual art, and creative writing. In our current era of rapid change and transformation, artists and environmentalists have an important role to play in grasping the zeitgeist through an integrated lens of science, culture, and imagination.
Interdisciplinary collaboration in storytelling can drive feelings of understanding and agency by articulating the massive social changes that are imminent and the emotional uncertainties around climate. There’s a rapidly growing audience for these stories — but there are way too few of them. Delving into key areas of environmental concerns, students will learn how to access and analyze systems of science-based research and innovation, and build new muscles in storytelling, cultural strategies and longterm thinking for a wide range of artistic visions. Arts students will strengthen climate literacy and sciencethinking skills; Climate students will strengthen storytelling skills. We will study the connection between stories and audiences, including multi-cultural perspectives across the platforms where we consume arts and entertainment today. Together we will explore a multitude of narrative structures and styles of storytelling and we will produce fresh thinking for this generation around the role that climate storytelling can play in popular culture and adapting to change. Students will track their evolution of their vision over the span of the course, culminating in Week/Class 11: The Republic of Zeitgeist & Our Future, where students lead and co-teach this class around our collective visions for what our future should be.
Students will participate through creative writing assignments, student-led discussions and team exercises, and watching & reading climate content. We will practice collaborative strategies to explore new ways to tell creative and complex human stories in the arts and assess effective ways to shift culture to imagine and adapt to what life on a transformed global scale may become for all of us.
Averting the deepest climate crisis and mitigating the substantial financial costs of global warming and its consequences will require the decarbonization of the world’s energy systems by 2050, necessitating trillions of dollars of public and private investment. Pathways and policies are not clear – or are inconsistent – on the respective roles of public and private investment, and often overlook the myriad structural, legal, and institutional barriers to scaling both. The absence of coherent policy frameworks has also led to a proliferation of voluntary private-sector initiatives, including the explosion of “ESG investing.” Many of the challenges of sustainable investment are approached in silos - focusing specifically on public finance or on private capital, or on certain sectors, technologies, or impacts. This course is decidedly interdisciplinary and international. We will explore the myriad interrelated challenges to investing in the energy transition, to see why the ‘big picture’ is important for really understanding policies or practices at a granular level. And we will understand the importance of policy frameworks to guide, incentive, enable and structure critical investments for the energy transition. Finally, we will engage deeply with the complexities, tensions and policy trade-offs that surround investing in the energy, so that students can think about how to navigate these.
This is the discussion that corresponds with the course CLMT 5015 Climate Change Adaptation. Students are required to register for a discussion section.
This is the discussion that corresponds with the course CLMT 5015 Climate Change Adaptation. Students are required to register for a discussion section.
This is the discussion that corresponds with the course CLMT 5015 Climate Change Adaptation. Students are required to register for a discussion section.