Be a leader of change
The interdisciplinary Earth Sciences and Environmental
Sustainability Doctoral program will prepare you to be part of a growing
industry of leaders, scientists, and engineers addressing issues of climate
change, water scarcity, natural resource demand, and environmental
sustainability in the Southwest, United States, and the global community.
You have a choice of three emphases:
- Earth and Planetary Systems
- Climate and Landscape Change
- Engineering
Sustainable Systems
Admissions
View the admissions requirements for
this graduate program.
- Preference is given to students with a
graduate degree from an accredited college or university of recognized standing
in geology, earth sciences, environmental sciences, environmental policy &
sustainability, engineering, ecology, forestry, planetary sciences or a closely
related field.
- Minimum of a 3.00 cumulative GPA (scale
is a 4.0 = A)
- GRE General Test
Application deadline: February 1
Apply
now
Emphases
Our program will reach across the applied and
basic sciences and environmental policy and engineering solutions by focusing on
three emphases:
Earth and Planetary Systems
Read moreThis emphasis will prepare you to pursue research and educational
opportunities that:
1) Advance knowledge in the critical areas for society of energy, natural
resources and water, and natural hazards,
2) continue the cutting edge research currently being done on the Earth
and Planets, and
3) apply this knowledge in areas that bridge between the geosciences and
physics, chemistry, engineering, and biology.
The
focus area in Earth and Planetary Systems will train and educate future leaders
in areas of industry with growing demands (e.g., natural resources and energy),
and in government agencies that require PhD-level researchers to inform policy
decisions on some of the largest problems facing society.
Climate and Landscape Change
Read moreThe Climate and Landscape Change emphasis is designed to develop research
and educational skills that:
1) advance new understandings of the natural climate variability,
2) improve projections of climate change and its impacts on ecosystems
and their hydrological and geological underpinnings (i.e. the landscape), and
3) apply this knowledge to informing policy decisions about how best to
manage natural resources under changing climate and related environmental
stresses.
It
combines the long-term perspective from geological archives with
process-oriented investigations of today, with the goal of integrating a
field-based understanding of natural systems into predictive models to support
sustainable resource management in the face of climate change.
Engineering Sustainable Systems
Read moreThe goals of this emphasis are to develop research and educational skills
that:
1) advance engineering analysis and applications relevant to sustainable
development,
2) improve the efficiency and effectiveness of engineering processes,
products, and education, and
3) understand and apply their knowledge in the sustainability contexts of
economic viability, environmental compatibility and sustainability, societal
impacts and policy development and implications.
The
Engineering Sustainable Systems emphasis is designed for the engineer
interested in an understanding of the economic, societal and environmental
implications of engineering systems. You will have a strong background in
engineering enhanced by understanding future sustainability of our environment,
and will be prepared for careers in academia, industry, and governmental
organizations.
Course requirements
Read moreRequired for all emphases:
- ENV 555: Environmental Science/Policy Interface
- EES 605: Regional Topics in Earth and
Environmental Science and Policy
- EES 606: Research Methods in Earth and
Environmental Science
- 2 classes selected by student and committee
from:
- Environmental law & policy
- Public outreach & communications
- Management & Business
- Teaching practicum courses
- Engineering
- 2 seminar courses (698) selected by student and
committee
- 15 units of EES 799 for the research, writing,
and oral defense of an approved dissertation
- Comprehensive Exam
Earth & Planetary Systems emphasis
(30 units chosen from the following):
- GLG 670 Advanced Hydrogeology
- GLG 516 Petrologic Phase Equilibria
- GLG 520 Volcanology
- GLG 542 Advanced Structural Geology
- GLG 560 Introduction to Applied Geophysics
- GLG 561 Regional Tectonics
- GLG 565 Introduction to Solid Earth Geophysics
- GLG 570 Geochemistry
- GLG 575 Geochemistry of Natural Waters
- GLG 612 Igneous Petrology
- GLG 615 Metamorphic Petrology
- GLG 617 Isotope Geology
- GLG 625 Siliciclastic & Carbonate Petrology
- GLG 627 Depositional Systems
- GLG 629 Evolution of Sedimentary Basins
- PHY 590 Physics of the Solar System
Climate and Landscape Change emphasis
(30 additional units chosen from the following classes excluding
ENV 595 and ENV 540):
- ENV 595 Global environmental and
climate change
- ENV 540 Conservation Biology
- ENV 530
Arid land geomorphology
- ENV 544
Landscape ecology
- ENV 550
Historical ecology: Reconstructing past ecosystems
- ENV 555
Environmental science-policy interface
- ENV 580
Atmospheric change
- ENV 591
Science and management of greenhouse gases
- ENV/GLG
596 Quaternary climate change
- GLG 537
Quaternary geology
- GLG 670
Advanced hydrogeology
- BIO 426
Plants and climate
- BIO 479
Ecosystems and climate change
- FOR 500
Ecosystem science and management principles
Engineering Sustainable Systems
(30 units chosen from the following):
- CENE 502 Principles of Environmental Transport
Processes
- CENE 540 Environmental Protection: Today and Tomorrow
- CENE 543 Urban Transportation Planning
- CENE 550 Geotechnical Evaluation and Design
- CENE 551 Geotechnical Earthquake Engineering
- CENE 560 Classical Open Channel Flow
- CENE 562 Water Quality Monitoring
- ME 510 Finite Element Analysis
- ME 520 Applied Fluid Dynamics
- ME 525 Applied Computational Fluid Dynamics
- ME 530 Applied Thermal Analysis
- ME 535 Wind Energy Engineering
- ME 540 Combustion Energy Systems and Emissions
- ME 555 Manufacturing Systems & Management
- ME 560 Applied Solid Mechanics
- ME 570 Fracture Mechanics
- ME 575 Adaptive Materials and Systems
- ME 580 Composite Materials
- ME 698 Graduate Seminar
- EGR 501Topics in Sustainable Systems Engineering
- EGR 502 Topics in Advanced Engineering Design
- GLG 670 Advanced Hydrogeology
Faculty and staff
Earth & Planetary Systems
Read moreNadine Barlow, Ph.D.
Impact Cratering and Planetary Surfaces
E-mail: Nadine.Barlow@nau.edu
Phone: 928-523-5452
Ernest Duebendorfer, Ph.D.
Structural Geology
E-mail: Ernie.D@nau.edu
Phone: 928-523-7510
Thomas Hoisch, Ph.D.
Metamorphic Petrology and Tectonics
E-mail: Thomas.Hoisch@nau.edu
Phone: 928-523-1904
David Koerner, Ph.D.
Astrobiology
E-mail: David.Koerner@nau.edu
Phone: 928-523-4562
Rod Parnell, Ph.D.
Aqueous Geochemistry
E-mail: Rod.Parnell@nau.edu
Phone: 928-523-3329
Mary Reid, Ph.D.
Igneous Petrology and Isotope Geochemistry
E-mail: Mary.Reid@nau.edu
Phone: 928-523-7200
Nancy Riggs, Ph.D.
Volcanology and Tectonics
E-mail: Nancy.Riggs@nau.edu
Phone: 928-523-9362
James Sample, Ph.D.
Low-temperature Geochemistry and Structural Geology
E-mail: James.Sample@nau.edu
Phone: 928-523-0881
David Trilling, Ph.D.
Planetary Sciences
E-mail: David.Trilling@nau.edu
Paul Umhoefer, Ph.D.
Tectonics
E-mail: Paul.Umhoefer@nau.edu
Phone: 928-523-6464
Climate & Landscape Change
Read moreEngineering Sustainable Systems
Read moreTom Acker, Ph.D.
Energy Systems and Renewable Energy
E-mail: Tom.Acker@nau.edu
Phone: 928-523-8363
Bridget Bero, Ph.D.
Environmental Transport, Air Quality
E-mail: Bridget.Bero@nau.edu
Phone: 928-523-2051
Constantin Ciocanel, Ph.D.
Engineering Mechanics and Advanced Materials
E-mail:
Constantin.Ciocanel@nau.edu
Rand Decker, Ph.D.
Snow and Avalanche Engineering
E-mail: Rand.Decker@nau.edu
Phone: 928-523-6083
Heidi Feigenbaum, Ph.D.
Advanced Sustainable Materials
E-mail:
Heidi.Feigenbaum@nau.edu
Paul Flikkema, Ph.D.
Computational Ecological Systems
E-mail: Paul.Flikkema@nau.edu
Phone: 928-523-6114
Joshua Hewes, Ph.D.
Sustainable Structural Engineering
E-mail: Joshua.Hewes@nau.edu
Phone: 928-523-1478
Brent Nelson, Ph.D.
Energy, Renewable Energy, Thermal Processes
E-mail: Brent.Nelson@nau.edu
Phone: 928-523-0862
Ernesto Penado, Ph.D.
Applications of Composite Sustainable Materials
E-mail: Ernesto.Penado@nau.edu
Phone: 928-523-9453
John Tester, Ph.D.
Systems Engineering and Engineering Education
E-mail: John.Tester@nau.edu
Phone: 928-523-0032
Peter Vadasz, Ph.D.
Energy Systems and General Sustainability
E-mail: Peter.Vadasz@nau.edu
Phone: 928-523-5843
Niranjan Venkatraman, Ph.D.
Sustainable Electrical Engineering
E-mail: Niranjan.Venkatraman@nau.edu
Phone: 928-523-0373