Master of Science
MSCotermOverview
Our Master of Science (MS) programs are terminal degree programs for those seeking advanced knowledge in a focused civil and environmental engineering discipline to pursue a career in industry or another professional degree. The MS degree is coursework-based. Our Master’s degrees are offered under the general regulations of the university as outlined in the Stanford Bulletin.
The Department of Civil & Environmental Engineering offers Master’s degrees in five areas of specialization, described below.
The Master’s program consists of core courses, technical electives, seminars, and unrestricted electives to deepen knowledge and learning. Many fundamental skills and bodies of knowledge are the foundation of all areas of specialization in a modern CEE graduate education. These cross-cutting courses opens in a new tab are accessible to students in any program.
Civil & Environmental Engineering Master's subplans:
Atmosphere/Energy (A/E)
Stanford University’s Atmosphere/Energy MS degree program bridges the gap between the two key Civil and Environmental Engineering disciplines. This program aims to mitigate atmospheric problems by optimizing the use of natural energy resources (wind, solar, hydro, geothermal, and marine resources); learning about the electrification of transportation, buildings, and industry; increasing the efficiency with which energy is used; and understanding the effects of energy technologies on the atmosphere.
Environmental Engineering (EnvEng)
The Environmental Engineering MS degree program emphasizes applying fundamental principles to analyze complex environmental problems and devise effective solutions. With this education, graduates of our program can deal effectively with new environmental issues as they emerge and meet the challenges created globally by increasing urbanization, population growth, and ecological degradation.
Structural Engineering & Mechanics (SEM)
Previously called Structural Engineering & Geomechanics, there are no changes to academic requirements for current students already admitted to Structural Engineering & Geomechanics. The Structural Engineering and Mechanics MS degree program offers courses in various areas related to structural analysis and design, geomechanics, engineering informatics, hazard risk and reliability, structural mechanics and materials, and structural sensing, monitoring, and data analytics for the built environment.
Sustainable Design & Construction (SDC)
The Sustainable Design and Construction MS degree program prepares students for careers in the built environment: designing, building, and managing sustainable buildings and infrastructure to maximize their lifecycle economic value and net contribution to environmental and social functions and services.
Sustainable Engineered Systems (SES)
The Sustainable Engineered Systems MS degree program, available exclusively in a hybrid online/on-campus format, is designed for students who want to gain advanced knowledge of the sustainability of civil and environmental engineering systems and data science along with a specialization in structural and material systems, sustainable construction systems, environmental engineering systems, or atmospheric and energy systems.
Requirements
Subplans
RequiredAtmosphere/Energy (Subplan)
Requirements Overview
The Department of Civil and Environmental Engineering offers an MS in Civil and Environmental Engineering with a special field designation of Atmosphere/Energy on the transcript.
Students admitted to graduate study in the department can satisfy the requirements for the Master of Science in Civil and Environmental Engineering by completing a minimum of three quarters of full tuition registration (more than 8 units) and a minimum of 45 units of study beyond the BS degree. All 45 units must be taken at Stanford.
Our course requirements allow students the flexibility to select courses closest to their interest while maintaining the goal of giving students a background in both energy and atmosphere. The A/E MS degree requires at least 30 units of study at the graduate level (courses numbered 200 or above) and at least 24 units of study from the School of Engineering. Courses numbered below 100 may not be used to fulfill the 45-unit degree requirement.
Additional requirements for the MS in Civil and Environmental Engineering with an emphasis on Atmosphere/Energy include the completion of:
A minimum of 30 units in combined atmosphere- and energy-related courses
Of these 30 units, a minimum of 8 core courses of at least 3 units taken for letter grades.
Of those 8 core courses, you may take either 3 energy + 5 atmosphere; 4 energy + 4 atmosphere; or 5 energy + 3 atmosphere core courses.
The remainder of the 30 units may be from either atmosphere- or energy-related courses
15 additional units to fulfill the 45-unit MS requirement
These units must be in engineering, science, mathematics or related fields or pertinent to the student's degree objective and must be approved by the advisor. Physical education and language courses or remedial English-language instruction (EFSLANG) courses, for example, cannot count toward the MS degree. Students may take up to 6 out of the 45 units required for the MS degree on S/NC or CR/NC basis (instead of receiving a letter grade), but these pass/no credit courses cannot count toward the minimum requirement of 8 core courses. The only exception to the 6-unit rule is when a student takes a normal (non-seminar, non-research) course of 2 units that was not offered for a letter grade, so must have been offered S/NC (or the equivalent in the business school).
Energy Core and Atmosphere Core
Students must complete a minimum of 30 units of Atmosphere & Energy Core coursework and Atmosphere/Energy Electives.
You must take a total of eight core courses (all 3 units or more for a letter grade if offered), but you can take either:
3 energy cores + 5 atmospheric cores;
4 energy cores + 4 atmosphere cores;
5 energy cores + 3 atmosphere cores.
If you started the program prior to the 2024-25 academic year, you may opt for the new requirement or stick with the previous one (4 energy cores + 4 atmosphere cores).
Energy Core Courses
CEE 176A
Energy Efficient Buildings
CEE 226
Life Cycle Assessment for Complex Systems
CEE 263H
Sustainable Energy Decisions
CEE 273S
Electricity Economics
CEE 330B
Quest for an Inclusive Clean Energy Economy
CEE 207A
Understand Energy
CEE 207R
E^3: Extreme Energy Efficiency
CEE 272R
Engineering Future Electricity Systems
CEE 276B
100% Clean, Renewable Energy and Storage for Everything
CEE 276M
Spatial Planning for Gigascale Renewables & Transmission
CEE 176C
Energy Storage Integration - Vehicles, Renewables, and the Grid
CHEMENG 432
Electrochemical Energy Conversion
ENERGY 276
Electric System Planning with Emerging Generation Technologies and Large Load
CEE 207S
Understand Energy - Essentials
EE 253
Power Electronics
ENERGY 201C
Energy storage and conversion systems: Solar Cells, Fuel Cells, Batteries
ENERGY 203
Stanford Climate Ventures
ENERGY 269
Geothermal Reservoir Engineering
ENERGY 285
Sustainability of AI and Advanced Computing
ENERGY 295
Electrochemical Energy Storage Systems: Modeling and Estimation
GEP 230
Environmental Economics: Models, Data, and Policy Design
MS&E 243
Energy and Environmental Policy Analysis
EPS 271
Mining and the Green Transition
ENERGY 291
Optimization of Energy Systems
PHYSICS 240
Introduction to the Physics of Energy
SUSTAIN 370A
Scaling Sustainability Solutions: From Breakthrough to Planetary Scale
ENERGY 203: counts toward the energy core only when taken for 3 units, and may be counted only once.
Atmosphere Core Courses
AA 210A
Fundamentals of Compressible Flow
CEE 172
Air Quality Management
CEE 261C
WindWise: CFD for civil engineers and architects
CEE 261I
Atmosphere, Ocean, and Climate Dynamics: The Atmospheric Circulation
CEE 263C
Weather and Storms
CEE 263D
Air Pollution and Global Warming: History, Science, and Solutions
CEE 278A
Air Pollution Fundamentals
CEE 362A
Uncertainty Quantification
CEE 263E
Cloud and Aerosol: From Microphysics to Climate Change
CEE 363F
Geophysical Fluid Dynamics
EARTHSYS 223
Biosphere-Atmosphere Interactions
EARTHSYS 241
Remote Sensing of the Oceans
EARTHSYS 242
Remote Sensing of Land
ESS 202
Scientific Basis of Climate Change
ESS 267
Climate Change & Extreme Weather
ESS 271
Climate Models and Data
CEE 278C
Indoor Air Quality and Human Health
Energy and Atmosphere Electives
Select additional courses from the following to meet the 30 unit minimum of Atmosphere & Energy Core coursework and Atmosphere/Energy Electives.
AA 214
Numerical Methods for Compressible Flows
CEE 208A
Explore Energy Seminar: Navigate
CEE 208B
Explore Energy Seminar: Launch
CEE 208X
Explore Energy Seminar: Propel
CEE 209S
Disaster and Climate Resilience Seminar
CEE 226E
Techniques and Methods for Decarbonized and Energy Efficient Building Design
CEE 241A
Infrastructure Project Development
CEE 255
Introduction to Sensing Networks for CEE
CEE 256
Building Systems Design & Analysis
CEE 263G
Energy Policy in California and the West
CEE 263S
Atmosphere/Energy Seminar
CEE 272T
SmartGrids and Advanced Power Systems Seminar
CEE 299
Independent Study in Civil Engineering for CEE-MS Students
CEE 301
The Stanford Energy Seminar
CEE 330
Racial Equity in Energy
EARTHSYS 144
Fundamentals of Geographic Information Science (GIS)
EARTHSYS 213
Innovating for Climate and Sustainability
EARTHSYS 216A
Climate Perspectives: Climate Science, Impacts, Carbon Markets, Decarbonization Models and Projects
ECON 250
Environmental Economics
ECON 253
Energy Markets: Theory and Evidence
ECON 256
Energy Markets and Policy
ENERGY 201A
Energy Systems Fundamentals
ENERGY 201B
Fundamentals of Energy Processes
EE 216
Principles and Models of Semiconductor Devices
ENERGY 204
Sustainable Energy for 9 Billion
ENERGY 205
Hydrogen Economy
ENERGY 253
Carbon Capture and Sequestration
ENVRES 260
Implementing & Financing a Decarbonized Economy
ESS 233
Mitigating Climate Change through Soil Management
ESS 234
Climate Displacement, Migration, and Mobility
ESS 305
Earth System Perspectives I
GEOPHYS 231
Taking the Pulse of the Planet
GEP 229
Economics for Sustainability
GEP 349
The Financial Economics of Climate and Sustainability
GSBGEN 332
Climate Tech for Rapid Decarbonization
LAW 2503
Energy Law
LAW 2504
Environmental Law and Policy
ME 351A
Fluid Mechanics
MATSCI 144
Thermodynamic Evaluation of Green Energy Technologies
MATSCI 303
Principles, Materials and Devices of Batteries
ME 361
Turbulence
ME 362A
Physical Gas Dynamics
OIT 678
Energy Operations
SUSTAIN 370B
Scaling Sustainability Solutions: Financing Sustainability Solutions
Sustainable Design and Construction (Subplan)
Requirements Overview
The Sustainable Design and Construction program prepares students for careers in the built environment: researching, designing, building, and managing sustainable facilities and infrastructure to maximize their lifecycle economic value and net contribution to environmental and social functions and services.
Core and elective classes cover topics covering cutting-edge information technology such as sensor networks embedded in “intelligent” buildings and infrastructure, micro and macro strategy on infrastructure development across the globe, as well as entrepreneurship and organization design for new businesses, and corporate or governmental initiatives aimed at enhancing the sustainability of the built environment.
Employers of past SDC graduates include architectural and engineering design firms, general contractors across a range of sizes and geographies, design-build firms and developers focused on delivering green buildings and infrastructure; energy and sustainability consultants; facility management and sustainability departments within large companies; clean-tech startups and venture funds. Several students have also targeted opportunities in the AEC industry by launching their own businesses directly out of the SDC program.
Master of Science Degree
Graduating from Stanford’s Sustainable Design & Construction program means you have the expertise to pursue various career paths in the built environment. Alumni have gone on to join top-tier companies in the AEC industry or start their own.
Many apply with existing civil and environmental engineering degrees, but our highly interdisciplinary MS past graduates include students who majored in physics, economics, business management, public policy, industrial relations, philosophy, and music. Each incoming class also varies widely in that they include students coming directly from a bachelor’s degree and some who have worked for several years or more in industry. To support the diverse interests of our students, we offer five distinct tracks that focus on various aspects of the built environment, all of which can be completed in 1 year (3 academic quarters). The five tracks share a curriculum guide that trains students in critical fundamental skills like modern project management techniques and life cycle assessment strategies but offers unique electives within the program to allow students the flexibility to pursue the topics that most interest them. Click on the title of each track below for more information:
Emphasizes management techniques that are useful in organizing, planning, and controlling the activities of diverse specialists working within the unique project environment of the construction industry throughout all phases of development, and it covers construction engineering aspects of heavy, industrial, and building construction | |
Includes courses from construction engineering and management and the Structural Engineering and Mechanics (SEM) program to prepare students for careers in design and construction firms that provide integrated design-build project delivery, construction management, and pre-construction services | |
Includes courses on the energy-efficient design and construction of buildings and infrastructure systems to produce, distribute, and consume energy sustainably from the building scale to grid-level utility management | |
Applies multiple knowledge fields in an integrated approach to the many complex issues -- old and new -- faced by modern cities and their built environment | |
Sustainable Real Estate Development (SDC-SRED) opens in a new tab | Emphasizes multi-scale systems thinking and includes courses on real estate development, energy efficient design, infrastructure systems and construction technologies to prepare students for careers in sustainable real estate development. |
Track Specific Requirements
Students complete the requirements of their chosen track.
Management Track Required Courses
Waivable Requirements
You must satisfy the foundational requirements listed below. Your advisor or the designated waiver faculty member must approve all courses taken elsewhere. Ask your advisor who the designated waiver faculty member is for each course. All courses taken elsewhere must have a minimum Grade Point Indicator of 2.67 (B-) or above.
Stanford Course Requirements
You must satisfy the foundational requirements listed below. All courses must be completed at Stanford.
Structures Track Required Courses
Waivable Requirements
You must satisfy the foundational requirements listed below. Your advisor or the designated waiver faculty member must approve all courses taken elsewhere. Ask your advisor who the designated waiver faculty member is for each course. All courses taken elsewhere must have a minimum Grade Point Indicator of 2.67 (B-) or above.
Stanford Required Courses
You must satisfy the foundational requirements listed below. All courses must be completed at Stanford.
CEE 241
Managing Fabrication and Construction
CEE 226
Life Cycle Assessment for Complex Systems
CEE 285A
Advanced Structural Concrete Behavior and Design
CEE 285B
Advanced Structural Steel Behavior and Design
CEE 258
Donald R. Watson Seminar in Construction Engineering and Management
CEE 298
Structural Engineering and Mechanics Seminar
Energy Track
Waivable Requirements
You must satisfy the foundational requirements listed below. Your advisor or the designated waiver faculty member must approve all courses taken elsewhere. Ask your advisor who the designated waiver faculty member is for each course. All courses taken elsewhere must have a minimum Grade Point Indicator of 2.67 (B-) or above.
Stanford Required Courses
You must satisfy the foundational requirements listed below. All courses must be completed at Stanford.
Sustainable Urban Systems Track
Waivable Requirements
You must satisfy the foundational requirements listed below. Your advisor or the designated waiver faculty member must approve all courses taken elsewhere. Ask your advisor who the designated waiver faculty member is for each course. All courses taken elsewhere must have a minimum Grade Point Indicator of 2.67 (B-) or above.
Stanford Required Courses
You must satisfy the foundational requirements listed below. All courses must be completed at Stanford.
Sustainable Real Estate Development Track
Waivable Requirements
You must satisfy the foundational requirements listed below. Your advisor or the designated waiver faculty member must approve all courses taken elsewhere. Ask your advisor who the designated waiver faculty member is for each course. All courses taken elsewhere must have a minimum Grade Point Indicator of 2.67 (B-) or above.
Stanford Required Courses
You must satisfy the foundational requirements listed below. All courses must be completed at Stanford.
CEE 226
Life Cycle Assessment for Complex Systems
CEE 241
Managing Fabrication and Construction
CEE 243
Intro to Urban Sys Engrg
CEE 246B
Real Estate Development and Finance
CEE 248
Introduction to Real Estate Development
CEE 258
Donald R. Watson Seminar in Construction Engineering and Management
GSBGEN 306
Real Estate Investment
Area Requirements
The chosen track/concentration determines the number of units required from each area. Review each area for unit requirements. Units earned from track specific requirements (see above Track section) count toward area requirements. Units for courses listed in multiple areas may be split between those areas (no double counting). All courses must be at or above 100 level, with at least 30 units at or above 200 level. CEE courses must be taken for a letter grade when available (otherwise, a max of 6 CR/NC units are allowed). Also, a max of 5 units of seminars are allowed in total.
Design and Development Area
Management : 4 units
Structures : 3 units
Energy : 5 units
SUS: 12 units
SRED: 12 units
CEE 222A
Computer Integrated Architecture/Engineering/Construction (AEC) Global Teamwork
CEE 222B
Computer Integrated Architecture/Engineering/Construction (AEC) Global Teamwork
CEE 241A
Infrastructure Project Development
CEE 241B
Infrastructure Project Delivery
CEE 241C
Global Infrastructure Projects Seminar
CEE 243
Intro to Urban Sys Engrg
CEE 245E
Equitable Infrastructure Solutions
CEE 246B
Real Estate Development and Finance
CEE 248
Introduction to Real Estate Development
CEE 321
Design and Operation of Integrated Infrastructure Systems
CEE 342
Designing for Gradient Spaces
GSBGEN 306
Real Estate Investment
Structures Area
Management : 0 units
Structures : 12 units
Energy : 0 units
SUS: 0 units
SRED: 0 units
CEE 203
Probabilistic Models in Civil and Environmental Engineering
CEE 223
Materials for Sustainable Built Environments
CEE 280
Advanced Structural Analysis
CEE 282
Nonlinear Structural Analysis
CEE 283
Structural Dynamics
CEE 285A
Advanced Structural Concrete Behavior and Design
CEE 285B
Advanced Structural Steel Behavior and Design
CEE 287
Earthquake Resistant Design and Construction
CEE 290
Structural Performance and Failures
CEE 293
Foundations and Earth Structures
CEE 297M
Managing Critical Infrastructure
Energy Area
Management : 4 units
Structures : 3 units
Energy : 12 units
SUS: 6 units
SRED: 6 units
CEE 176A
Energy Efficient Buildings
CEE 176B
100% Clean, Renewable Energy and Storage for Everything
CEE 226
Life Cycle Assessment for Complex Systems
CEE 226E
Techniques and Methods for Decarbonized and Energy Efficient Building Design
CEE 256
Building Systems Design & Analysis
CEE 272R
Engineering Future Electricity Systems
Construction Area
Management : 12 units
Structures : 5 units
Energy : 5 units
SUS: 5 units
SRED: 5 units
CEE 102A
Legal / Ethical Principles in Design, Construction, Project Delivery
CEE 240
Construction Project Assessment and Budgeting: The First 100 Days as a Project Manager
CEE 241
Managing Fabrication and Construction
CEE 241B
Infrastructure Project Delivery
CEE 242
Organization Design for Projects and Companies
CEE 324
Industrialized Construction
CEE 327
Construction Robotics
CEE 341
Virtual Design and Construction
Industry Area
Management : 6 units
Structures : 3 units
Energy : 4 units
SUS: 3 units
SRED: 3 units
CEE 240C
Strategic Management of Construction Businesses
CEE 241C
Global Infrastructure Projects Seminar
CEE 244
Accounting, Finance & Valuation for Engineers & Constructors
CEE 246
Venture Creation for the Real Economy
CEE 258
Donald R. Watson Seminar in Construction Engineering and Management
CEE 298
Structural Engineering and Mechanics Seminar
CEE 327S
Construction Robotics Seminar
Skills Area
Management : 4 units
Structures : 4 units
Energy : 4 units
SUS: 4 units
SRED: 4 units
Environmental Engineering (Subplan)
Engineering Core
Requirements Overview
The M.S. degree in Environmental Engineering is designed to be flexible to meet the career goals of the student. In order to ensure proficiency in a core related to Environmental Engineering, every student must complete 45 units of coursework, comprised of the following:
· Environmental Engineering Core (10 units)
· Seminar (1 unit)
· Environmental Management, Policy, and Law (3 units)
· Focused Electives (18 units)
· Breadth Electives (13 units)
Courses related to these areas are listed below.
Students obtaining the M.S. degree over quarters spanning more than one academic year must adhere to the degree requirements published during the academic year of their first quarter at Stanford. Any deviations must be approved by the academic advisor.
· The coursework, including the Breadth Electives, must form a coherent program of study in Environmental Engineering, approved by the student’s M.S. faculty advisor.
· At least 27 of the 45 units must comprise courses within the Department of Civil & Environmental Engineering.
· At least 30 units must be taken at the graduate level (courses numbered 200 or higher). All 100-level courses must be approved by your advisor.
· No courses numbered less than 100 can count towards the MS degree.
· A minimum GPA of 3.0 for MS degree students must be maintained in the quarter being evaluated.
· No more than 6 units of coursework that is offered with a letter grade option can be taken for credit/no credit (CR/NC); however, there is no limit on units taken for satisfactory/no credit (S/NC) where a letter grade option is not offered.
· No more than 9 units of research coursework may count toward the 45-unit requirement, including CEE 398 “Report on Civil Engineering Training.”
· No more than 2 units of Curricular Practical Training (i.e., CEE 398 “Report on Civil Engineering Training”). These units count toward the 9 units of research coursework, and enrollment in CEE 398 is subject to advisor approval.
· No more than 9 of the 13 units of Breadth Electives may be taken in Computer Science and/or Statistics without advisor approval.
· Maximum 3 units of seminars, including CEE 269.
· Non-technical courses, such as remedial English-language instruction (EFSLANG courses checked as required on the Report on English Screening), music courses and physical education, may not be included in the 45 units of required coursework. Students with “required” or “strongly recommended” remedial English courses (such as Linguistics 693A, etc.) must complete these courses or have them waived before applying for graduation.
Hydrology and Water Resources
CEE 260A
Physical Hydrogeology
CEE 260C
Contaminant Hydrogeology and Reactive Transport
CEE 260D
Remote Sensing of Hydrology
CEE 260G
Imaging with Incomplete Information
CEE 266A
Introduction to Hydrology
CEE 266G
Water Resources Systems Analysis
CEE 270F
Fundamentals of Applied Research Design
CEE 279X
Water Supply and Management in California and the West
Seminars
Seminars
CEE 269
Environmental Engineering Seminar
Environmental Management, Policy, and Law
Environmental Management, Policy, and Law
CEE 245E
Equitable Infrastructure Solutions
CEE 265D
Water and Sanitation in Low- and Middle-Income Countries
CEE 265F
Environmental Governance and Climate Resilience
CEE 266G
Water Resources Systems Analysis
CEE 273B
The Business of Water
CEE 275A
California Coast: Science, Policy, and Law
CEE 279X
Water Supply and Management in California and the West
Focused Electives (At least 18 units total)
Depth requirement: At least three courses from one focus area
Breadth requirement: At least one course each from an additional two focus areas
Any course listed in multiple focus areas can only be counted toward one focus area in the program of study. An Environmental Engineering core course can be counted as a core or elective, but not both. Students may enroll in core electives not listed below but relevant to the focus areas, subject to approval by the MS program advisor.
Aquatic Chemistry & Biology and Process Engineering
Depth requirement: At least three courses from 1 focus area
Breadth requirement: At least one course each from an additional two focus areas
CEE 270F
Fundamentals of Applied Research Design
CEE 270M
Aquatic and Organic Chemistry for Environmental Engineering
CEE 271A
Physical and Chemical Treatment Processes
CEE 274P
Environmental Health Microbiology Lab
CEE 279D
Providing Safe Water for the Developing and Developed World
Environmental and Geophysical Fluid Mechanics
Depth requirement: At least three courses from one focus area
Breadth requirement: At least one course each from an additional two focus areas
CEE 261C
WindWise: CFD for civil engineers and architects
CEE 262A
Hydrodynamics
CEE 262B
Transport and Mixing in Surface Water Flows
CEE 262E
Rivers, Streams, and Canals
CEE 262F
Ocean Waves
CEE 363B
Chaos and Turbulence
CEE 263C
Weather and Storms
CEE 363C
Ocean Modeling
Environmental Data, Statistics and Modeling
Depth requirement: At least three courses from one focus area
Breadth requirement: At least one course each from an additional two focus areas
CEE 201D
Computations in Civil and Environmental Engineering
CEE 203
Probabilistic Models in Civil and Environmental Engineering
CEE 254
Data Analytics for Physical Systems
CEE 260G
Imaging with Incomplete Information
CEE 261C
WindWise: CFD for civil engineers and architects
CEE 261D
Data Assimilation
CEE 362A
Uncertainty Quantification
CEE 270F
Fundamentals of Applied Research Design
Human Health and the Environment
Depth requirement: At least three courses from one focus area
Breadth requirement: At least one course each from an additional two focus areas
CEE 172
Air Quality Management
CEE 265D
Water and Sanitation in Low- and Middle-Income Countries
CEE 270F
Fundamentals of Applied Research Design
CEE 274P
Environmental Health Microbiology Lab
CEE 278A
Air Pollution Fundamentals
CEE 279E
Wastewater Treatment: From Disposal to Resource Recovery
Hydrology and Water Resources
Depth requirement: At least three courses from one focus area
Breadth requirement: At least one course each from an additional two focus areas
CEE 260A
Physical Hydrogeology
CEE 260C
Contaminant Hydrogeology and Reactive Transport
CEE 260D
Remote Sensing of Hydrology
CEE 260G
Imaging with Incomplete Information
CEE 266A
Introduction to Hydrology
CEE 266G
Water Resources Systems Analysis
CEE 270F
Fundamentals of Applied Research Design
CEE 279X
Water Supply and Management in California and the West
Structural Engineering (Subplan)
This is a complete list of requirements for completing the MS degree in Structural Engineering.
Forty-five total units of coursework relevant to the structural engineering profession must be completed.
Five Structural Engineering Core Courses must be completed.
Thirty units of coursework must be taken within the graduate-level Structural Engineering and Mechanics Program. Acceptable courses for these 30 units consist of any of the Structural Engineering Core Courses, as well as courses from the Breadth Electives Courses (courses offered for 3-4 units may count as four units toward this requirement, regardless of enrollment units, but please note that if enrolled for three units, only three units will count toward the minimum 45 unit requirement for degree conferral).
At least 36 units must be completed within the School of Engineering.
All courses taken to fulfill the thirty units within the graduate-level Structural Engineering and Mechanics program (item 3), and at least 36 units of courses, must be taken for a letter grade. In addition, no more than six units may be taken CR/NC, subject to approval by your advisor.
The following exception to item 5 applies: There is no restriction on the number of units taken for CR/NC in Summer 2020, Autumn 2020, Winter 2021, Spring 2021, and Summer 2021 that may be counted to satisfy the degree requirements.
No more than ten units of undergraduate coursework may be counted toward the degree. As per university policy, all units for a graduate degree must be in courses at or above the 100 level.
No more than six units of the undergraduate prerequisites listed above may be counted toward the degree.
No more than six combined Independent Study and CPT units may be counted toward the degree.
CEE 298, the Structural Engineering and Mechanics Seminar, must be completed
No more than three units of seminar courses may be counted toward the degree.
Your study list must be coordinated with and approved by your academic advisor.
Core Courses: Analysis
CEE280 and CEE283 are required courses that must be taken unless a waiver is obtained from the professor.
Core Courses: Design
CEE285A and CEE285B are suggested courses.
Core Courses: Mechanics
CEE281 and CEE291 are suggested courses.
CEE291 is offered during alternating academic years, and will not be offered during AY 26-27. Please check Navigator for more information.
Core Courses: Risk and statistical modeling
CEE203 is a suggested course.
Breadth Electives
CEE 222A
Computer Integrated Architecture/Engineering/Construction (AEC) Global Teamwork
CEE 222B
Computer Integrated Architecture/Engineering/Construction (AEC) Global Teamwork
CEE 226
Life Cycle Assessment for Complex Systems
CEE 261A
Physics of Wind
CEE 284F
Fire Engineering Design for Buildings
CEE 284W
The Dynamics of Wind Turbines
CEE 286
Structural Monitoring
CEE 290
Structural Performance and Failures
CEE 293
Foundations and Earth Structures
CEE 306
Computational Fracture Mechanics
CEE 310
Computational Solid Mechanics
CEE 314
Computational Poromechanics
CEE 315
Plasticity Modeling and Computation
CEE 380
Optimization in Structural Engineering
CEE 385
Performance-Based Earthquake Engineering
CEE 297M
Managing Critical Infrastructure
CEE284W is offered during alternating academic years, and will not be offered during AY 26-27. Please check Navigator for more information.
Free Electives
Select additional courses from the list of breadth electives and course offerings from the engineering and engineering-related disciplines that contribute to a coherent program of study. See the Suggested Courses by Areas of Interest opens in a new tab for more courses.
Mechanics & Computation (Subplan)
Conditions
This is a complete list of requirements for completing the MS degree in Mechanics & Computation.
Forty-five total units of coursework relevant to the field of Mechanics & Computation must be completed.
CEE 281 and CEE 291 are required courses. CEE291 is offered during alternating academic years, and will not be offered during AY 26-27. Please check Navigator for more information. Students must take CEE 306, and depending on which spring course is offered, either CEE 314 or CEE 315. If one of these courses is not offered, please consult the instructor of that particular course to find an alternative.
One of the two seminars, CEE 298 (Structural Engineering and Geomechanics Seminar) or ME 395 (Mechanics and Computation Seminar), must be completed.
Thirty units of coursework must be taken within the graduate-level Mechanics & Computation Program. Acceptable courses for these 30 units consist of any of the Mechanics and Computation Core Courses and courses from the Breadth Electives Courses. Courses offered for 3-4 units may count as four units toward this requirement, regardless of enrollment units, but note that if enrolled for three units, only three units will count toward the minimum 45-unit requirement for degree conferral.
At least thirty-six units must be completed within the School of Engineering.
All courses taken to fulfill the thirty units within the graduate-level Mechanics & Computation program (item 4), and at least 36 units of courses, must be taken for a letter grade. In addition, no more than 6 units may be taken CR/NC, subject to approval by your advisor.
No more than ten units of undergraduate coursework may be counted toward the degree. As per university policy, all units for a graduate degree must be in courses at or above the 100 level.
No more than six units of the undergraduate prerequisites listed above may be counted toward the degree.
No more than six combined Independent Study and CPT units may be counted toward the degree.
No more than three units of seminar courses may be counted toward the degree.
Your study list must be coordinated with and approved by your academic advisor.
Required Core Courses
Students starting in even years are required to take CEE 306 and CEE 314. Students beginning in odd years are required to take CEE 310 and CEE 315 instead.
One of the two seminars, CEE 298 or ME 395, must be completed.
CEE 291 is offered during alternating academic years, and will not be offered during AY 26-27. Please check Navigator for more information.
Core Courses: Numerical Analysis & Scientific Computing
Core Courses: Statistics and Machine Learning
CEE 203
Probabilistic Models in Civil and Environmental Engineering
CS 229
Machine Learning
CS 230
Deep Learning
CEE 254
Data Analytics for Physical Systems
ENERGY 260
Uncertainty Quantification in Data-Centric Simulations
Core Courses: Mechanics of Materials
CEE 223
Materials for Sustainable Built Environments
CEE 305
Damage and Failure Mechanics of Structural Systems
MATSCI 208
Mechanical Properties of Materials
Core Courses: Geomechanics
CEE 260A
Physical Hydrogeology
CEE 293
Foundations and Earth Structures
GEOPHYS 203
Fluids and Flow in the Earth: Computational Methods
GEOPHYS 262
Rock Physics
Breadth Electives
CEE 201E
Nonlinear Dynamics
CEE 261A
Physics of Wind
CEE 262A
Hydrodynamics
CEE 282
Nonlinear Structural Analysis
CEE 284W
The Dynamics of Wind Turbines
CEE 286
Structural Monitoring
CME 302
Numerical Linear Algebra
CME 345
Projection-Based Model Order Reduction
CS 221
Artificial Intelligence: Principles and Techniques
GEOPHYS 229
Earthquake Rupture Dynamics
GEOPHYS 238
Waves in Solids and Fluids
GEOPHYS 259
Laboratory Characterization of Properties of Rocks and Geomaterials
MATSCI 251
Microstructure and Mechanical Properties
MATSCI 358
Fracture and Fatigue of Materials and Thin Film Structures
ME 233
Automated Model Discovery
ME 303
Soft Composites and Soft Robotics
ME 345
Fatigue Design and Analysis
ME 346A
Introduction to Statistical Mechanics
STATS 200
Introduction to Theoretical Statistics
CEE284W is offered during alternating academic years, and will not be offered during AY 26-27. Please check Navigator for more information.
Sustainable Engineered Systems (Subplan)
Conditions
The Hybrid SES MS program was designed with four goals in mind:
To provide a graduate degree that focuses on the application of systems-thinking concepts and data science tools to the disciplines of civil and environmental engineering
To provide increased access to Stanford Civil and Environmental MS degrees for working professionals who are not able to leave the workforce for an entirely full-time MS degree program (typically 1.5 years in CEE)
To allow Civil and Environmental Engineering master’s students to apply lessons from their graduate studies in their daily professional career by taking 1/3 of their required units as a part-time student with the opportunity and flexibility to take courses online
To increase the affordability of earning an MS in Civil and Environmental Engineering by enabling students to continue working full-time while completing 1/3 of the required units part-time with the opportunity and flexibility to take courses online
With these four goals in mind, to earn the hybrid SES MS degree, students complete 45 graduate academic units. These units are distributed across four components of the degree.
Students complete their hybrid SES MS courses as part-time Honors Cooperative Students (HCP) opens in a new tab. They can take between three units and seven units of graduate courses per hybrid quarter. Hybrid SES MS students can complete the hybrid component of their degree in as little as three quarters or as many as 5 or 6 quarters. Most importantly, students in the hybrid SES MS program should plan to complete their hybrid courses in the spring or summer quarter before joining us as full-time residential graduate students on campus in the autumn quarter.
Hybrid (online) Degree Component
Students take a minimum of five of the following available systems-focused and data science-focused courses, depending on student interest.
(Not all courses are offered every quarter and every year. Some courses are offered every other year. The quarter offered is subject to change.)
Systems-focused Courses
If you complete three of these courses, you only need to complete two of the Data Science-focused Courses.
If you only complete two of these courses, you must complete three of the Data Science-focused Courses.
Data Science-focused Courses
If you complete three of these courses, you only need to complete 2 from the Systems-focused Courses.
If you only complete two of these courses, you must complete three of the Systems-focused Courses.
Residential (on-campus) Degree Depth Component
Take five to six courses in person as a full-time graduate student focused on a depth area in civil and environmental engineered systems.
Sustainable Construction Systems Depth Area
CEE 226
Life Cycle Assessment for Complex Systems
CEE 241
Managing Fabrication and Construction
CEE 241B
Infrastructure Project Delivery
CEE 241C
Global Infrastructure Projects Seminar
CEE 256
Building Systems Design & Analysis
CEE 258
Donald R. Watson Seminar in Construction Engineering and Management
Environmental Engineering Systems Depth Area
Courses
In addition to these required courses, two courses are required from one of the two groups below (Aquatic Chemistry & Biology and Process Engineering Group or Environmental Fluid Mechanics and Hydrology Group), and one course is required from the other group below.
Aquatic Chemistry & Biology and Process Engineering Group
If you complete two of these courses, you only need to complete one from the Environmental Fluid Mechanics and Hydrology Group.
If you only complete one of these courses, you must complete two from the Environmental Fluid Mechanics and Hydrology Group.
Environmental Fluid Mechanics and Hydrology Group
If you complete two of these courses, you only need to complete one from the Aquatic Chemistry & Biology and Process Engineering Group.
If you only complete one of these courses, you must complete two from the Aquatic Chemistry & Biology and Process Engineering Group.
Atmospheric and Energy Systems Depth Area
Courses
CEE 176A
Energy Efficient Buildings
CEE 207A
Understand Energy
CEE 207R
E^3: Extreme Energy Efficiency
CEE 261A
Physics of Wind
CEE 261C
WindWise: CFD for civil engineers and architects
CEE 263C
Weather and Storms
CEE 263D
Air Pollution and Global Warming: History, Science, and Solutions
CEE 272R
Engineering Future Electricity Systems
CEE 278A
Air Pollution Fundamentals
Sustainable Engineered Systems Elective Component
Students are encouraged to pursue additional depth by taking graduate courses in one of the engineered system depth areas in CEE or broaden their systems understanding by taking relevant graduate courses in another department across the Stanford School of Engineering, the Stanford Doerr School of Sustainability, or any school at Stanford.
Sustainable Engineered Systems Breadth Component
Students must complete a “breadth experience” either during their on-campus residency or the summer following their third residential quarter (summer quarter) on campus.
This breadth experience can take the form of a second seminar course in another CEE depth area to broaden your engineering systems skillset and connect with even more students in other CEE MS programs. Options are listed below.
Rather than a second seminar course, international students can alternatively enroll in Curricular Practical Training (CPT), CEE398*, during the summer quarter following their third residential quarter on campus to broaden their practical knowledge in industry.
* Advisor consent required

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