Earth and Environmental Sciences

This course provides an overview of current research at the world-renowned Lamont-Doherty Earth Observatory. Various Lamont researchers will present their latest research in earth, environmental, and climate science, providing students a cross-section of research projects across the LDEO divisions. Students are expected to attend each class, and meaningfully participate in class discussion.

The trip is restricted to first-years and sophomores from Columbia College/General Studies, Barnard College, and the School of Engineering and Applied Science. Early application is advised, and no later than November 12. A spring-break excursion focused on the geology of Death Valley and adjacent areas of the eastern California desert. Discussion sessions ahead of the trip provide necessary background. Details at: https://eesc.columbia.edu/content/eesc-un1010.

Recommended preparation: high school chemistry and physics; and one semester of college science. Exploration of how the solid Earth works, today and in the past, focusing on Earth in the Solar system, continents and oceans, the Earth's history, mountain systems on land and sea, minerals and rocks, weathering and erosion, glaciers and ice sheets, the hydrological cycle and rivers, geochronology, plate tectonics, earthquakes, volcanoes, energy resources. Laboratory exploration of topics through examination of rock samples, experimentation, computer data analysis, field exercises, and modeling. Columbia and Barnard majors should plan to take W2200 before their senior year to avoid conflicts with the Senior Seminar.

Recommended preparation: high school chemistry and physics; and one semester of college science. Exploration of how the solid Earth works, today and in the past, focusing on Earth in the Solar system, continents and oceans, the Earth's history, mountain systems on land and sea, minerals and rocks, weathering and erosion, glaciers and ice sheets, the hydrological cycle and rivers, geochronology, plate tectonics, earthquakes, volcanoes, energy resources. Laboratory exploration of topics through examination of rock samples, experimentation, computer data analysis, field exercises, and modeling. Columbia and Barnard majors should plan to take W2200 before their senior year to avoid conflicts with the Senior Seminar.

Prerequisites: high school algebra. Recommended preparation: high school chemistry and physics.

 Role of life in biogeochemical cycles, relationship of biodiversity and evolution to the physical Earth, vulnerability of ecosystems to environmental change; causes and effects of extinctions through geologic time (dinosaurs and mammoths) and today. Exploration of topics through laboratories, data analysis, and modeling. REQUIRED LAB: EESC UN2310. Students will be expected to choose a lab section during the first week of class from the options listed in the Directory of Classes. Co-meets with EEEB 2002

This is a field geology course focusing on the Apennine Mountains of central Italy, where a developing “accretionary prism” (associated with oceanic crust subduction) can be observed directly. Students will learn how to interpret the evolution of paleo-environments from the sediment lithologies, textures, fossils, compositions; and the tectonic history from the present day spatial and structural relationships. The rocks range from early Mesozoic oceanic crust and sediments to late Cenozoic sediments impacted by the rise of the Alps. The course visits several classic geological localities, including the Gubbio site of the discovery that the dinosaur extinction was caused by a meteorite, a Carrara Marble quarry (favored by Michelangelo for his sculptures), evaporite sediments from the dry-down of the Mediterranean, the magnificent Frasassi Cave, and effects of recent earthquakes.

Priority: This course has a limited number of spaces, and enrollment requires the instructors' permission. Students interested in enrolling are instructed to contact the instructors by email. Priority is given to Columbia College and General Studies senior and junior majors and minors in the Department of Earth and Environmental Sciences, and Barnard senior and junior majors and minors in Environmental Science. Barnard students must receive permission from the Barnard Environmental Science department chair in order to receive the subsidy.

Prerequisites: Enrollment limited to 16 students. One year of college-level science. Primarily for Environmental Majors, Concentrators and Minors. This class looks at the response of wildlife (birds and plants) to climate change and land-use issues from the end of the last glaciation to the present. Case study topics are: (1) land-use and climate change over time: a paleoenvironmental perspective, (2) environmental transformations: impact of invasive plants and birds and pathogens on local environments and (3) migration of Neotropical songbirds between their wintering and breeding grounds: land-use, crisis and conservation. We visit wildlife refuges along a rural-suburban-urban gradient in order to observe and measure the role refuges play in conservation.  Format: lecture, student presentations, short labs, data collection/analysis and field trips (some on a weekend day in April in place of the week day meeting). 

Urban Ecosystems will cover scientific principles, concepts, and methodologies required to understand complex systems and the natural and social-ecological relationships at work in cities. You will learn the basics of ecological process and patterns of ecosystems especially applied in cities, understand how humans interact with and impact ecological processes and patterns in cities, and explore approaches for dealing with current and future urban challenges. Format: Lecture, discussion, small group work, field trips

This course seeks to impart students with knowledge of volcanic eruptions on Earth and the effects on the environment as a whole. The course will focus on the physical mechanisms responsible for eruptions, the effects eruptions have on humans and other living organisms, as well as the environment. The course will investigate how eruptions have contributed to global climate change. The course will also look at the positive effects volcanoes have had on Earth, such as providing nutrient rich soils for growing crops and providing renewable geothermal energy--a cleaner energy resource. Format: lecture, field trip, data collection and analysis, student presentations.

This course focuses on the ecology, geology, and sustainability of Bermuda. Students will explore the local flora, fauna, geology and hydrology of various habitats in the context of environmental change brought on by issues such as rising global temperatures, invasive species, and development.  Students will also look into sustainability issues, such as energy, drinking water, solid waste, and wastewater issues, some of which the country addresses in unique ways. The course will also contrast some of these topics with those in the NYC area and other subtropical and tropical islands.

Classes will meet during the spring semester at Barnard in preparation for a field trip to Bermuda for five days during spring break. 

Students and faculty will use the Bermuda Institute of Ocean Sciences (BIOS) field station for both lodging and laboratory facilities.  BIOS will provide bus and boat-based transportation.  

The excursions to caves, volcanic and pink sand beaches, outcrops, rare plant habitats and bird conservation areas in addition to engagement with the local experts at BIOS will provide an authentic opportunity to study the natural history of and environmental threats to an offshore island compared to our local environment in NYC.  

Students will take detailed field notes in Bermuda. After returning from the trip, they will focus on one or two aspects of the field trip and research related issues in depth. Topics will include:  transportation, energy acquisition, electricity generation, wind energy, solar power, carbon capture and storage, drinking water, waste management, sewage treatment and disposal, biological conservation, ecological restoration, social & environmental justice, economy, and food supply. Students are also encouraged to compare issues in Bermuda with NYC and other islands. 

The final products of the semester will be a detailed field journal, a mini research project  with an annotated bibliography and a poster summarizing the results.

Process-oriented introduction to the law and its use in environmental policy and decision-making. Origins and structure of the U.S. legal system. Emphasis on litigation process and specific cases that elucidate the common law and toxic torts, environmental administrative law, and environmental regulation through application and testing of statutory law in the courts. Emphasis also on the development of legal literacy, research skills, and writing.

This is a calculus-based treatment of climate system physics and the mechanisms of anthropogenic climate change. By the end of this course, students will understand: how solar radiation and rotating fluid dynamics determine the basic climate state, mechanisms of natural variability and change in climate, why anthropogenic climate change is occurring, and which scientific uncertainties are most important to estimates of 21st century change.

This course is designed for undergraduate students seeking a quantitative introduction to climate and climate change science. EESC V2100 (Climate Systems) is not a prerequisite, but can also be taken for credit if it is taken before this course.

This course focuses on the impact of glaciers on landscapes. We will learn about the interactions and feedbacks between landscapes and climate. We will cover what is known about glacial geomorphology, as well as the modern research methods and outstanding scientific problems.

Guided, independent, in-depth research culminating in the senior thesis in the spring. Includes discussion about scientific presentations and posters, data analysis, library research methods and scientific writing. Students review work in progress and share results through oral reports. Weekly seminar to review work in progress and share results through oral and written reports.

This course will examine geological problems from a standpoint of thermodynamic and kinetic theory. Theoretical thermodynamic concepts will be used to derive the crystallization depth and temperature of metamorphic and magmatic minerals, describe the solubility of volatile species in magmas, predict the composition of volcanic gas mixtures, model the nucleation and growth of crystals and bubbles in a melt and determine the chemical interaction between water and rock at the Earth’s surface. Kinetic treatments on the diffusion of heat and matter through crystals and melts will be used to constrain the timing of geological processes. Recommended preparation: Knowledge of mathematics at the level of partial differential equations; mineralogy (EESC 4113); and petrology (EESC 4701); or permission of the instructor.

Thermodynamics of atmospheric and oceanic processes fundamental to the climate system. Physical mechanisms of vertical energy transfer: surface fluxes, boundary layers and convection.

An introduction to how the Earth and planets work. The focus is on physical processes that control plate tectonics and the evolution of planetary interiors and surfaces; analytical descriptions of these processes; weekly physical model demonstrations.

This course is a project-based learning (PBL) course where teams of climate science and data science students collaborate to create machine learning predictive models for challenges inspired by ongoing climate data science research. Students from different background will apply their prior knowledge, work together and teach each other in high-paced collaborative projects. Through a sequence of mini-projects, i.e., “challenges”, this course provides students a deeper understanding of using machine learning for climate science and support predictive capabilities. It provides training on a broad set of practical skills for climate data science research (e.g., handling geoscience data formats, data curation, cleaning and transformation, building ML workflow, and collaboration using cloud computing resources, Git and/or GitHub). It will also offer discussions on the opportunities and challenges of using climate science and projections in decision processes.

Minimal formal instruction on statistics, data science, machine learning, or climate science will be given. Project cycles run every 4 weeks, where we will have mini-group data projects. Groups will be formed randomly with students from both climate science and data science background. Project products will be peer-reviewed, in addition to evaluation by the instructional team.

Prerequisites: Physics W1201, Chemistry W1403, Calculus III, or equivalent or the instructors permission. EESC W2100 preferred. Physical and chemical processes determining atmospheric composition and the implications for climate and regional air pollution. Basics of physical chemistry relevant to the atmosphere: spectroscopy, photolysis, and reaction kinetics. Atmospheric transport of trace gas species. Atmosphere-surface-biosphere interactions. Stratospheric ozone chemistry. Tropospheric hydrocarbon chemistry and oxidizing power. Legacy effects of photochemical smog and acid rain. Current impacts of aerosol pollution and climate impacts of pollution reduction. 

Prerequisites: Recommended preparation: one year of chemistry. Factors controlling the concentration and distribution of dissolved chemical species within the sea. The physical chemistry of seawater, ocean circulation and mixing, gas exchange and biogeochemical processes interact to influence the distribution and fate of elements in the ocean. The course examines in some detail the two-way interaction between marine ecosystems and their chemical environment, and the implications of these interactions for distributions in the ocean of carbon, nutrients and trace metals. Although this course does not cover specific strategies that have been proposed for Carbon Dioxide Removal (CDR) and ocean storage of carbon, it will cover the basic processes and principles underlying ocean CDR strategies.  

Communicating science well in the context of the earth and environmental sciences is critical. This science communication course will transect specific earth and environmental science disciplines to provide a foundational understanding of what it means to communicate science and how to do so effectively. Within this overarching theme of science communication, students will gain a comprehensive and holistic understanding of how to communicate earth and environmental science across a variety of formats and to a diversity of audiences. Practical outcomes include but are not limited to students learning 1) how to rationalize a research topic, 2) write a hypothesis driven proposal, 3) evaluate proposals, 4) produce clear and compelling graphics, 5) adopt the latest pedagogical approaches, and 6) present science findings to a diversity of audiences.

Seismic waves in layered media, matrix methods, free vibrations of the Earth, dislocation theory, source mechanics.

In this seminar, we will explore the interactions between volcanism and climate. From week to week, we will discuss research related to the volcano-climate interactions and address questions such as: How do volcanoes affect global climate? How do we reconstruct the climate impact of past volcanic events? How and why are mass extinction events related to supervolcano and flood basalt eruptions? Can long term changes in climate affect volcanism?

The course welcomes participation from students with diverse academic backgrounds, reflecting the inherently interdisciplinary nature of the topic, which spans volcanology, atmospheric science, paleoclimatology, geophysics, and more.

The seminar will also be open to the broader Lamont community, welcoming drop-ins from all staff, postdocs and students.

Climate change and environmental catastrophes are on the rise, and it has been well- documented by now that those facing the heaviest impacts have largely been communities of color and / or working class. Many of these communities are also survivors of colonialism’s deeper ongoing legacies of dispossession as well as of capitalist extraction projects; yet these same communities have long had much to teach on how to be in better relations with our planet and each other. The purpose of this seminar is to train students in how to ask critical questions when it comes to the production of knowledge or when doing science.

“Community-based research” and “co-production” are increasingly popular frameworks and methods that often struggle to address the power differentials between researchers in powerful institutions and the dispossessed communities in which they work. As such, we will interrogate these concepts while simultaneously learning from several examples of decolonial research methods.

We begin by examining the colonial foundations of the sciences, with a special focus on the geo- and climate sciences. The ideological underpinnings of these sciences assume the earth to be an inert object ripe for exploitation; this legacy of European modernity is often at odds with the worldviews of indigenous peoples and their relations with nature. We then explore several anti-colonial and critical science scholars’ works and ask: what would it mean to revisit the foundations of our disciplines with a decolonial lens? How do we know (study) and relate to a place in a non-extractive and mutually respectful way that centers local communities and indigenous knowledge and practices? We will explore this through several examples, including an in-depth dive into this seminar’s ongoing collaborative community project with The Black School, a New Orleans based community organization facing lead contamination on their land within the context of a long legacy of environmental racism.

Students taking the seminar for 3 credits and who aim to decolonize their own research will be trained in ethnographic methods by developing an anthropological lens - first through a self-ethnography workshop that focuses on the positionality and then through their own mini-ethnography projects.