Skip to Main Content

ENGR-BS - Engineering (BS)

Download as PDF

Engineering DeanUndergraduate MatriculatedBS - Bachelor of Science

Program Overview

Students pursuing a Bachelor of Science degree in Engineering can specialize in one of six major area: Biomedical Computation, Architectural Design, Engineering Physics, Atmosphere & Energy, Sustainable Architecture & Engineering or Biomechanics Engineering.

Mission of the Undergraduate Subplan in Atmosphere/Energy

The Atmosphere/Energy subplan combines atmospheric and energy sciences with engineering to prepare students to understand and mitigate atmospheric problems through optimal use of natural energy resources, energy efficiency, and energy technologies.

The Atmosphere/Energy subplan bridges a gap within the disciplines of civil and environmental engineering. Atmosphere and energy are strongly linked: fossil-fuel energy use contributes to air pollution, global warming, and weather modification; and changes in the atmosphere are fed back to affect renewable energy resources, including wind, solar, hydroelectric, and wave resources. The study of atmosphere and energy in this subplan prepares students to find the best ways to mitigate atmospheric problems, such as global warming and air pollution, by optimizing the use of natural energy resources, increasing the efficiency with which energy is used‚ and understanding the effects of energy technologies on the atmosphere.

Mission of the Undergraduate Subplan in Biomedical Computation

Quantitative and computational methods are central to advancing biology and medicine in the 21st century. These methods span analyzing biomedical data, constructing computational models for biological systems, and designing computer systems that help biologists and physicians create and administer treatments to patients. The Biomedical Computation subplan prepares students to work at the cutting edge of this interface between computer science, biology, and medicine. Students begin their journey by acquiring foundational knowledge of biological and computational disciplines. They learn techniques in informatics and simulation and their numerous applications in understanding and analyzing biology at all levels, from individual molecules in cells to entire organs, organisms, and populations. Students then focus on a depth area of their choosing and participate in a substantial research project with a Stanford faculty member. Upon graduation, students are prepared to enter a range of disciplines in either academia or industry.

Mission of the Undergraduate Subplan in Biomechanical Engineering

The undergraduate subplan in Biomechanical Engineering aims to help students address health science challenges by applying engineering mechanics and design to the fields of biology and medicine. The subplan is interdisciplinary, integrating engineering coursework with biology and clinical medicine. Research and teaching in this discipline focus primarily on neuromuscular, musculoskeletal, cardiovascular, and cell and tissue biomechanics. This subplan prepares students for graduate studies in bioengineering, biomechanics, medicine, or related areas.

Mission of the Undergraduate Subplan in Engineering Physics

The undergraduate subplan in Engineering Physics aims to provide students with a strong foundation in physics and mathematics, together with engineering and problem-solving skills. All students in this subplan take high-level math and physics courses as well as engineering courses. This background prepares them to tackle complex problems in multidisciplinary areas that are at the forefront of 21st-century technology, such as aerospace physics, biophysics, computational science, quantum science & engineering, materials science, nanotechnology, electromechanical systems, renewable energy, and any other engineering field that requires a solid background in physics. Because the subplan emphasizes science, mathematics, and engineering, students are well prepared to pursue graduate work in engineering, physics, or applied physics.

Mission of the Undergraduate Subplan in Sustainable Architecture and Engineering

The mission of the undergraduate Sustainable Architecture and Engineering aims to develop students’ ability to integrate engineering and architecture in ways that blend innovative architectural design with cutting-edge engineering technologies. Courses in the subplan combine hands-on architectural design studios with a wide variety of other courses. Students can choose from a broad mix of elective courses concerning energy conservation, sustainability, building systems, and structures, as well as design foundation and fine arts courses. In addition to preparing students for advanced studies in architecture and construction management, the subplan's math and science requirements prepare students well for graduate work in other fields, such as civil and environmental engineering, law, and business.

Mission of the Undergraduate Subplan in Architectural Design

The Architectural Design subplan is only available to students who elected into the subplan prior to Autumn 2023. Other students, see the “Sustainable Architecture and Engineering" subplan. The Architectural Design curriculum prepares students for advanced studies in architecture and construction management, and the program's strong math and science requirements prepare students well for graduate work in other fields, such as civil and environmental engineering, law, and business. The major provides a background for individuals wanting to explore a diversity of careers in architecture, engineering, construction, and structures. Completion of the undergraduate program in Architectural Design leads to the conferral of the Bachelor of Science in Engineering. The subplan "Architectural Design" appears on the transcript and on the diploma. This major is not an ABET-accredited engineering degree, nor is it designed to lead directly to professional licensure in architecture or engineering. To become a professional architect or engineer, additional graduate training and practical experience may be required.

Preparing for the Major

Preparing for the ENGR-BS

In engineering, students must balance taking advantage of Stanford’s freedom to explore and ensuring they get a reasonable start on an engineering curriculum. Technical courses tend to be cumulative because more advanced courses draw heavily on the material presented in the introductory courses that precede them. For first-year students thinking about getting started in engineering or other STEM majors, the School of Engineering has a simple online tool called the STEM Roadmap which suggests which courses might be appropriate to take in the first year.

Students interested in pursuing an Engineering Physics major should plan to take math and physics courses in the first year. Take the Physics and Math Placement Diagnostics to get advice on where to start in the sequences, and then see the sample plans for beginning the Engineering Physics (or Physics) major. Although not required, PHYSICS 59 (Frontiers in Physics Research, 1 unit) is recommended. Contact Patricia Burchat (Professor in Physics, burchat@stanford.edu) or Mark Cappelli (Professor in Mechanical Engineering, cap@stanford.edu) for pre-major advising.

Sample 4-Year plans and detailed descriptions of the requirements for all these majors can be found on the  Engineering Undergraduate Handbook website.

Minimum Units in the Program

95

Minimum University Units

180
Completion requirement

The Architectural Design Subplan is only available to students who elected into the program prior to Autumn 2023.

For others, see the Sustainable Architecture + Engineering Subplan.

Mission

The mission of the undergraduate program in Architectural Design is to develop students' ability to integrate engineering and architecture in ways that blend innovative architectural design with cutting-edge engineering technologies. Courses in the program combine hands-on architectural design studios with a wide variety of other courses. Students can choose from a broad mix of elective courses concerning energy conservation, sustainability, building systems, and structures, as well as design foundation and fine arts courses. In addition to preparing students for advanced studies in architecture and construction management, the program's math and science requirements prepare students well for graduate work in other fields such as civil and environmental engineering, law, and business.

Fulfill ALL of the following requirements:
Fulfill ALL of the following requirements:
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 1 of the following Courses:

Or more advanced Statistics courses numbered over 100 via approval of petition to deviate

AND
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

Or AP Physics C, score of 5, co-req: MATH 21

AND

A total of 32 units of Math and Science courses are required. Aside from the required courses listed above, students can choose from a range of elective courses to meet the total unit count. This is a list of recommended Science Electives. For a full list of Math and Science electives, see the two lists below.

Complete ANY of the following Courses:

Courses used for the Science requirement may not also be counted as Engineering Fundamental or Depth.

AND

Choose courses from the Math Electives and/or Science Electives lists below to reach 32 total units.

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:

PHYSICS 22, 24, and 26 are Laboratory courses associated with PHYSICS 21, 23, and 25, and must be taken at the same time as, or following completion of the associated Lecture course.

That is:

  • PHYSCS 22 should be taken in the same quarter or following completion of PHYISCS 21

  • PHYSCS 24 should be taken in the same quarter or following completion of PHYISCS 23

  • PHYSCS 26 should be taken in the same quarter or following completion of PHYISCS 25

AND
Complete exactly 1 course(s) and earn 3 - 5 credit(s) from the following:

Course chosen must be on the list the year it is taken.

AND

A total of 2 Courses are required - one Solid Mechanic course, and one Engineering Fundamentals elective course.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 1 of the following Courses:
  • CS 106M is a 1-units enrichment supplement for CS 106B. Students must be enrolled in CS 106B to enroll in CS 106M.

A minimum of 62 units is required from Engineering Fundamentals, Depth Core, Depth Options, Breadth Focus Options & Depth Electives.

Complete ALL of the following Courses:
Fulfill ALL of the following requirements:

Investigate any prerequisites for the listed courses and carefully plan course sequences with your major advisor.

Earn at least 12 credits from the following:
AND

Students must take at least 62 units of Engineering Fundamentals + Depth Core + Depth Options + Depth Electives to satisfy the degree program requirements and graduate.

Complete ANY of the following Courses:

Additional electives may be selected from the Depth Options areas above.  Note that a course may only be counted towards one elective, option, or core requirement; it may not be double counted.

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR

The following additional non-engineering Elective courses may count up to 4 units.

Complete ANY of the following Courses:
  • Other related electives (verify with your program advisor)

OR

Students may also count up to 4 units of CEE 199/199L in this category, and the following CEE classes: CEE 41Q and CEE 80N.

Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
  • A course may only be counted toward one elective or core requirement; it may not be double-counted.

  • All courses taken for the major must be taken for a letter grade if that option is offered by the instructor, and a grade of ‘C-‘ or better received, except that CR or S grades are acceptable for classes completed in the six quarters between Spring 2020 and Summer 2021.

  • The minimum combined GPA for all courses in Engineering Fundamentals and Depth Core + Depth Options + Breadth Options + Electives is 2.0.

Subject to the requirements outlined above, students have considerable leeway in choosing their depth electives and other courses to best suit their background and interests. By careful selection of technically-oriented depth electives, students can complement their studio experience with courses in structural analysis, construction, cost estimating, and energy efficiency.  

Students intending to apply to architecture graduate schools are encouraged to take:

  • studio art courses as early as possible in their academic career 

  • more than the minimum number of required studio classes

  • the portfolio preparation class (CEE 139) 

Students are also encouraged to take digital modeling courses which will equip them with the skillsets needed to pursue architectural and engineering internships.

The AD honors program offers eligible students the opportunity to engage in guided original research or project design over an academic year. The following outlines the process:

1. The student must submit a letter applying for the honors option endorsed by the student’s primary advisor and honors advisor and submitted to the student services office in CEE. Applications must be received in the fourth quarter before graduation. It is strongly suggested that students meet with the Architectural Design Program Director well before applying.

2. The student must maintain a GPA of at least 3.5.

3. The student must complete an honors thesis or project. The program or honors advisor will decide the timing and deadlines. At least one evaluation committee member must be a member of the Academic Council in the School of Engineering.

4. The student must present the work in an appropriate forum, e.g., in the same session as honors theses are presented in the advisor’s department. All honors programs require some public presentation of the thesis or project.

5. A pdf of the thesis, including the signature page signed by both readers, should be submitted to the student services officer. Students will be emailed instructions on archiving a permanent electronic copy in Terman Engineering Library.

Are you wondering whether an Architectural Design major is for you?  If so, Here here are some recommended courses accessible early in your undergraduate career that will help you explore your interest in our major. If you end up joining our program, this early start on fulfilling requirements will pay off by giving you more flexibility in class scheduling for your junior and senior years.

  • For an introduction to architecture, the following classes are readily accessible to frosh/sophomores, and can count towards the major:

  • CEE 31Q: Accessing Architecture Through Drawing (A, S)

  • CEE 120A: Building Modeling for Design & Construction (A, Sum)

  • CEE 133A: Studio 1 – Architecture - Light, Space, and Movement (A, W, S)

  • CEE 32 series

  • CEE 33 series

The following Science/Math classes are required for almost all majors within the School of Engineering:

  • MATH 19+20+21 or 10 units AP BC calculus (go to AP page for approval process)

  • PHYSICS 41. Mechanics (W) [co-req: MATH 21] or 41E, or 4-5 units of AP Physics C (depending upon year entered) if your AP score is 5 and Physics diagnostic places into 43/45

  • STATS: AD majors may use STATS 60 (A,W,S) or take a calculus-based STATS course that will transfer to many other SoE majors (STATS 110, STATS 116; CME 106, CEE 203, etc)

For an introduction to engineering, classes required for all our declared majors that are readily accessible to frosh/sophomores include:

  • ENGR14: Introduction to Solid Mechanics [prerequisite: PHYSICS 41] (A, W, S)

AD Program Sheet: Excel or pdf version, see the Plans & Program Sheets page on this site.

Completion requirement

Subplan Overview

The A/E degree is NOT an ABET-accredited degree, as ABET accreditation is advantageous only for obtaining specific jobs that do not overlap with those that students obtaining the A/E degree would generally consider. The degree is accredited as part of Stanford’s accreditation through the Western Association of Schools and Colleges (WASC). The study of atmosphere and energy in this subplan prepares students to find the best ways to mitigate atmospheric problems, such as global warming and air pollution, by optimizing the use of natural energy resources (e.g., 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.

Objectives and Outcomes

The objective of the A/E major is for students to:

  • understand the complexities of large-scale air pollution and climate problems as well as clean, renewable, and efficient energy solutions to address the problems.

  • gain skills and understanding of tools to create and assess new solutions that avoid exacerbating problems and avoid addressing one problem while exacerbating another.

The Curriculum

A/E students take classes in atmospheric sciences, energy sciences and engineering as well as classes that integrate the two fields. The curriculum is flexible in that students interested more in energy or more in atmosphere can take most of their engineering depth classes in their area of choice. Similarly, students desiring to focus more on technology or more on science can select the appropriate depth classes to suit their interests.

Careers

The Atmosphere/Energy undergraduate curriculum prepares undergraduates for careers in industry, research, consulting, government, non-governmental organizations, and academia. Through these careers students influence public policy, guide engineering design decisions, and support the implementation of equitable energy solutions.

Graduate Study

Students with a degree in Atmosphere/Energy are well prepared for graduate studies in our A/E and other CEE coterm (MS) programs as well as in sustainability science and practice, and programs in public policy, business, and law.

Exploring the Atmosphere/ Energy Major

Try one of these recommended introductory courses:

  • APPPHYS 79N - Energy Options for the 21st Century

  • CEE 34N - Wind Energy Explained

  • ECON 17N - Energy, the Environment, and the Economy

  • MS&E 92Q - International Environmental Policy

  • CEE 63 - Weather and Storms

  • CEE 64 - Air Pollution & Global Warming: History, Science & Solutions

  • CEE 70 - Environmental Science and Technology (same as ENGR 90)

  • ENGR 50E - Introduction to Materials Science, Energy Emphasis

 In addition, the Math, Science, Technology in Society, and Engineering Fundamentals courses required by the A/E major will also count toward most of the other School of Engineering majors (see course lists below; other major programs and their specific requirements are listed elsewhere on this site).

Instructions For Declaring Major in Engineering: Atmosphere/Energy (ENGR-BS)

Enter your major declaration for Atmosphere/Energy in Axess. Select ENGR-BS as your major and A/E as your subplan. 

  • Download and complete your major Program Sheet, which can be obtained from the School of Engineering Undergraduate Handbook Program Sheets website: https://ughb.stanford.edu/program-sheets.   Be sure to fill in all courses that you have taken and those which you plan to take. You will have the opportunity to revise this later, so please fill in as many courses as you can.

  • Email your completed program sheet to nanaoki@stanford.edu  and request to have a CEE advisor assigned to you. You may request a specific advisor if you wish. 

  • Meet with your CEE undergraduate advisor and review your program sheet with them. Have your undergraduate advisor sign your program sheet. If

  • Make sure you requested the transfer of any AP credit you want applied to your Stanford transcript. To request AP credit at Stanford, contact the College Board to request that your scores be sent to Stanford. For incoming freshmen, AP credit is posted to your student record in mid-September.

  • Email your signed program sheet to nanaoki@stanford.edu, and upon receiving your signed sheet Nan will approve your major declaration in Axess.

  • You are encouraged to meet with your CEE undergraduate adviser at least once a quarter to review your academic progress.  Changes to your program sheet can be made by submitting a revised program sheet with your undergraduate adviser’s signature to Nan atnanaoki@stanford.edu. NOTE – it is very important to confirm that your program sheet is up to date at least one quarter prior to graduation. SoE and Department Deviation Petitions must be submitted at least the quarter prior to your graduation quarter. Changes to your program may be denied within one quarter prior to graduation. 

More information can be found here: https://cee.stanford.edu/academics-admission/undergraduate-degrees/how-declare-cee-your-major

A total of 96 units are required, comprised of courses from the requirements below.

Fulfill ALL of the following requirements:

Complete 23 units minimum between Groups A and B, completing at least one course from each Group.

Fulfill ALL of the following requirements:
Complete at least 1 of the following Courses:
AND
Complete at least 1 of the following Courses:
AND

Complete 20 units minimum, including all of the following Science courses.

Complete ALL of the following Courses:
  • CEE 70 can count as science or as ENGR Fundamental, but not both.

  • Additional Science courses of the students choosing must be taken to get to at least 20 units.

Complete at least 1 of the following Courses:
Complete exactly 1 course(s) and earn 3 - 5 credit(s) from the following:
  • BIO 131 can count for both WIM and Technology in Society requirement.

  • CEE 102W, CEE 100, or EARTHSYS 191 can count for both WIM and Skills Course requirement.

Complete at least 2 of the following Courses:

Of the 42 units required below, 30 units minimum must be School of Engineering coursework. One of CEE 176A, 176B, 162I, or 199 must be taken to satisfy the Capstone requirement.

Fulfill ALL of the following requirements:

Complete a total of 2 courses, one from each set below (one from CEE 63, CEE 64, or CEE 172, and one from CEE 107A or CEE 107S) for a total of 6-8 units.

Complete exactly 2 course(s) and earn 6 - 8 credit(s) from the following:
AND

No more than 5 units from the list below may count toward the 42 units of Depth. Complete 0-5 units from the following:

Complete ANY of the following Courses:

Courses outside the School of Engineering do not count toward the 30-unit engineering minimum in Fundamentals and Depth categories but can count toward the 42-unit Depth total.

Students may count no units from the list to the 42 units of Depth. However, students would still separately need a WIM class.

AND

Complete at least 29-36 units from Groups A and B, with at least 4 courses of 3 or more units from each group.

Fulfill ALL of the following requirements:

Complete at least 4 courses of 3 units or more.

Complete at least 4 of the following Courses:

Courses outside the School of Engineering do not count toward the 30-unit engineering minimum in Fundamentals and Depth categories but can count toward the 42-unit Depth total.

AND

Complete at least 4 courses of 3 units or more.

Complete at least 4 of the following Courses:

Courses outside the School of Engineering do not count toward the 30-unit engineering minimum in Fundamentals and Depth categories but can count toward the 42-unit Depth total.

To fulfill the Capstone, 3 units of one of the following courses must be taken.

  • CEE 161I is an Atmosphere-focused course.

  • CEE 176A and 176B are Energy-focused courses.

  • CEE 199 is a Skills-focused course.

Complete exactly 1 course(s) and earn exactly 3 credit(s) from the following:
Fulfill ALL of the following requirements:

The A/E honors program allows eligible students to engage in guided original research or project design over an academic year. Interested students must adhere to the following requirements:

  • Prospective honors students write up and submit a 1-2 page letter applying to the honors program in A/E describing the problem to be investigated. The student, the current primary advisor, and the proposed honors advisor, if different, must sign the letter. The student must submit the letter to the Department of Civil and Environmental Engineering (CEE) student services office. The application must include an unofficial Stanford transcript. Applications must be received in the fourth quarter before graduation. It is strongly suggested that prospective honors students meet with the proposed advisor well before applying.

  • Students must maintain a GPA of at least 3.5.

  • Students must complete an honors thesis or project over three quarters. The typical length of the written report is 15-20 pages. The deadline for submission of the report is to be decided by the honors advisor but should be no later than the end of the third week in May.

  • The student’s honors advisor and another reader must read and evaluate the report. The student’s responsible for finding and obtaining both the advisor and the reader. At least one of the two must be a member of the Academic Council in the School of Engineering.

  • Students must present the completed work in an appropriate forum, e.g., in the same session as honors theses are presented in the advisor’s department. All honors programs require some public presentation of the thesis or project.

  • Two copies of the signed thesis must be provided to the CEE student services office no later than two weeks before the student’s graduation quarter ends. A pdf of the thesis, including the signature page signed by both readers, should be submitted to the student services officer by May 15. Students will be emailed instructions on archiving a permanent electronic copy in Terman Engineering Library.

AND
  • Students must take Directed Writing Projects or its equivalent.

  • Units for the writing class are beyond those required for the A/E major.

Complete ALL of the following Courses:
AND
  • Up to 10 units of CEE 199H - Undergraduate Honors Thesis may be taken to support the research and writing (not to duplicate ENGR 202S).

  • Units for this course are beyond those required for the A/E major.

Earn at least 10 credits from the following:

Subject to the requirements outlined above, students have flexibility in selecting their depth electives and other courses to best suit their interests. If you would like to see two suggested programs outlined, one with an emphasis on energy studies and the other on atmospheric studies, go to the 4-Year Plans page and open the A/E plans. Either approach provides the necessary preparation for the master’s degree program in Atmosphere/Energy.

Completion requirement
Fulfill ALL of the following requirements:
24 unit minimum
AND
Earn at least 21 credits from the following:

And one additional course specific to your track; see track/concentration options below. Acceptable substitutes for CS 109 are STATS 116 Theory of Probability, STATS141, course Introduction to Probability, course Probabilistic Analysis, course Probabilistic Systems Analysis, MATH 151, and course Introduction to Probability and Statistics for Engineers.

Up to 10 units of AP credit (with placement into MATH 51/CME 100) may be used as long as at least 20 math units are taken. SoE Dean’s Office (in 135 Huang) must approve AP credit.

AND
17 units minimum, see Basic Requirement 2
AND
Earn at least 17 credits from the following:

Plus one additional biology, chemistry, or physics course from those listed in the Science section.

AND
Fulfill ALL of the following requirements:
Complete ANY of the following Courses:

Classes may not be double-counted within the program. Therefore, CS 106B may not be counted toward both the Engineering Fundamentals and BMC Core requirements. If student wishes to count CS 106B toward the Engineering Fundamentals requirement, another course must be petitioned and pre-approved to be substituted in its place in the BMC Core.

AND

One 3-5 unit course required; a second CS course may not be used.

Complete ANY of the following Courses:
AND

One course required from the list below.

Complete ANY of the following Courses:
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND

Select one course to satisfy BMC Capstone requirement.

Complete ANY of the following Courses:

CS 273A is also an option if taken in the past.

AND
Research projects require pre-approval of BMC Coordinators

Six units of biomedical computation research in any department, unless satisfying WIM with ENGR 199W, in which case five research units are required.

Research project proposals must be submitted via the following form below at least 2 weeks before the start of the quarter during which you are starting your research: BMC Research Project Request Form

AND

Research units taken as CS191W: Writing Intensive Senior Project or with ENGR199W: Writing of Original Research for Engineers fulfill the Writing in the Major (WIM) requirement. CS272: Introduction to Biomedical Informatics Research Methodology, which does not have to be taken in conjunction with research, also fulfills the WIM requirement.

Complete at least 1 of the following Courses:
Fulfill ANY of the following requirements:

A total of 42 Engineering Fundamentals and Core/Depth units must be taken.

The core classes in each of the Concentrations only provide 27 Engineering units, so the remaining units must be taken from within the electives list below.

All concentrations must take:

  • TWO courses from Organs/Organ systems or Cellular/Molecular

  • TWO courses from Informatics/Simulations and

  • ONE additional course from any of the concentrations

Elective categorization can be found on the table below.

All courses taken for the major must be taken for a letter grade if that option is offered by the instructor.

Complete ANY of the following Courses:
OR
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

Plus one additional course from the BIO or CHEM courses listed.

OR
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

Plus one additional course from the CS courses listed.

OR
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
OR
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
Total Units (90-104)
Honors Program

The Biomedical Computation program offers an honors option for qualified students, resulting in a BS with Honors degree in Engineering (ENGR-BSH, Biomedical Computation). An honors project is meant to be a substantial research project during the later part of a student’s undergraduate career, culminating in a final written and oral presentation describing the student’s project and its significance. There is no limit to the number of majors who can graduate with honors; any BMC major who is interested and meets the qualifications is considered.

  1. Students apply by submitting the Honors Program Application Webform found on the BMC website and should be prepared to upload a 1-2 page proposal describing the problem the student has chosen to investigate, its significance, and the student’s research plan. This plan must be endorsed by the student’s research and academic advisors, one of whom must be a member of the Academic Council. In making its decision, the department evaluates the overall scope and significance of the student’s proposed work.

  2. Students must maintain a 3.5 GPA.

  3. Students must complete three quarters of the research. All three quarters must be on the same project with the same advisor. A summer quarter counts as one quarter of research.

    • Ideally, funding should not be obtained through summer research college sources but rather through the UAR’s Student Grants Program. In no case can the same work be double-paid by two sources.

  4. Students must complete a substantial write-up of the research in a publishable research paper format. This research paper is expected to be approximately 20-30 pages and must be approved by the student’s research advisor and a second reader.

  5. Students submit an electronic pdf of their thesis, including the signature page signed by both readers, to Bioengineering student services. Students should review deadlines on the BMC website. Students are emailed instructions on archiving a permanent electronic copy in Terman Engineering Library.

  6. As the culmination of the honors project, each student presents their results in the Bioengineering Honors Poster Fair in spring quarter of their senior year.

See the Handbook for Undergraduate Engineering Programs (UGHB) for additional information and sample programs.

Completion requirement

The Biomechanical Engineering major integrates biology and clinical medicine with engineering mechanics and design.

Research and teaching in the Biomechanical Engineering Group are primarily focused on neuromuscular, musculoskeletal and cardiovascular biomechanics, and cell and tissue mechanics. Research in other areas such as hearing, vision, ocean and plant biomechanics, biomaterials, biosensors, and imaging informatics are also conducted in collaboration with associated faculty in medicine, biology, and engineering.

The Biomechanical Engineering major provides a fundamental understanding of mechanics in the fields of biology and medicine. However, it is not normally recommended as a terminal degree. This major is well-suited for those interested in future graduate studies in bioengineering, medicine, or related areas. The course of study allows students to satisfy many pre-medical, pre-dental, or pre-paramedical fields.

General Major Requirements:

  • All courses taken for the major must be taken for a letter grade if that option is offered by the instructor.

  • All courses taken for the major must be included under one category.

  • Minimum required grade for each course taken for the major is a C, and the minimum weighted GPA is 2.5 for courses taken for the major.

A minimum of 24 mathematics units are required. The CME offerings of mathematics courses are strongly preferred for the BME major. Students who take the MATH sequence are strongly encouraged to take course before encountering courses that expect MATLAB experience.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

10 units of AP Calculus BC, with placement into course/course, is equivalent to course/course/course and acceptable in any engineering major. If 6-8 units of AP or IB credit are given, must be taken regardless of the Math Diagnostic Placement results. If 6-8 units of AP or IB credit are given, MATH21 must be taken regardless of the Math Diagnostic Placement results.

AND
Fulfill ANY of the following requirements:
Complete ALL of the following Courses:
OR
Complete ALL of the following Courses:
AND
Complete ANY of the following Courses:

A minimum of 22 science units is required. Must include 2 quarters of Bio or HumBio Side A Core. AP Credit may be used if placed into Chemistry or Physics courses via the Diagnostic Placements.

Fulfill ALL of the following requirements:
Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR
Complete ALL of the following Courses:
AND
Fulfill ANY of the following requirements:
Complete at least 2 of the following Courses:
OR
Complete at least 2 of the following Courses:
Complete ANY of the following Courses:

ENERGY 177A and ENERGY 177B  are a 2-course series that should be taken for a total of 3 units. 

Students choosing the research capstone should take BIOE131 to satisfy both TiS and WIM requirements. Students choosing the ME170A/ME170B capstone may use any TiS course listed above.


Complete ALL of the following Courses:

The Engineering Depth requirements for the BME major include a core set of introductory mechanical engineering courses, a set of more advanced mechanical engineering courses selected from a prescribed list, and a set of BME depth courses (generally taken during the senior year).

BME course offerings vary somewhat from year to year. As most BME depth courses are intended for advanced undergraduates and first-year graduate students, some courses have implicit expectations for prerequisite knowledge. Students should be aware of expected prerequisites and plan their schedules accordingly. Note that more advanced (300-level) BME courses may be used with the permission of the instructor and the student’s advisor.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 4 of the following Courses:
AND
Complete at least 2 of the following Courses:
AND
Fulfill ANY of the following requirements:
Complete ALL of the following Courses:

ME170A requires ME102, ME103, and either ME281 or ME283 as prerequisites; these courses should be selected as part of the ME and BME depths. Other listed prerequisites are not enforced for BME majors.

OR

The research capstone is fulfilled by taking 8 units of ME191 over 3 quarters under the supervision of a Biomechanical Engineering faculty member. Completion of the research capstone requires submission of a thesis, which will be evaluated by BME faculty. Students choosing the research capstone should take BIOE131 to satisfy both TiS and WIM requirements. Note that research for the capstone cannot overlap with research for the honors thesis.

Complete ALL of the following Courses:

Take additional math, science, or engineering courses at or above the level of listed courses (e.g., excluding lower-level physics courses, statistics courses not based on calculus, IntroSems, seminar courses, etc.) only as needed to bring the unit total to 99 units. Math or Science courses must be on the SoE-approved list.

The School of Engineering offers a program leading to a Bachelor of Science in Engineering: Biomechanical Engineering with Honors. This program allows qualified BME majors to conduct independent study and research related to biomechanical engineering at an advanced level with a faculty mentor.

Honors Criteria:

  • GPA of 3.5 or higher in the major

  • Arrangement with an ME faculty member (or a faculty member from another department who the BME Undergraduate Program Director approves) who agrees to serve as the honors advisor, plus a second faculty member who reads and approves the thesis. The honors adviser must be a member of the Academic Council in the School of Engineering.

  • Apply to the ME student services office no later than the second week of the term two quarters before the anticipated conferral (e.g., Autumn for Spring conferral, Spring for Autumn conferral). An application consists of: 

    • A one-page written statement describing the research topic, with signatures indicating approval of both the thesis advisor and thesis reader on a cover page 

    • An unofficial Stanford transcript; 

  • Applications are subject to review and final approval by the BME Undergraduate Program Director. Applicants and thesis advisors receive written notification when a decision has been made. 

  • To graduate with honors:

    • Declare ENGR-BSH (honors) program in Axess

    • Maintain 3.5 GPA

    • Submit a completed thesis draft to the advisor by the third week of the quarter the student intends to confer. Further revisions and final endorsement by the advisor and reader are to be finished by week six when two bound copies are to be submitted to the Mechanical Engineering student services office. A pdf of the thesis, including the signature page signed by both readers, should also be submitted to the student services officer. Students are emailed instructions on archiving a permanent electronic copy in the Terman Engineering Library.

    • Present the thesis at the Mechanical Engineering Poster Session held in mid-April. If the poster session is not not offered or the student does not confer in the spring, an alternative presentation will be approved on a case-by-case basis with the advisor and BME Program Director’s approval.  

Note: Students may not use work completed toward an honors degree to satisfy BME course requirements

Completion requirement

In addition to completing the set of required courses described immediately below, each Engineering Physics major completes a course satisfying the Writing in the Major requirement, the Capstone requirement, and an additional three courses in one of seven defined specialties described below: Aerospace Physics, Biophysics, Computational Science, Electromechanical System Design, Materials Science, Quantum Science & Engineering, Renewable Energy. 

See the Engineering Physics section of the Handbook for Undergraduate Engineering Programs (UGHB) major section for four-year plans and other information relevant to the major.

At least 35 of the units in Engineering Fundamentals, Required Depth Classes, Required Depth Electives, and other electives must be School of Engineering units. Up to 3 research units (e.g., ENGR 199 or a departmental research course such as ME 191) may be counted toward the 35-unit requirement. NOTE: ENGR 1, Introductory Seminar and Sophomore College courses, Technology in Society (TiS) courses, and student-initiated courses cannot fulfill this 35-unit requirement.   Unless otherwise noted, a course may only be counted toward one requirement; units may not be double-counted. 

All courses taken for the major must be taken for a letter grade (if that option is offered) and must be completed for a grade of C- or better. (CR or S grades are acceptable for classes completed in the six quarters between spring 2020 and summer 2021).

The minimum combined GPA for all Engineering Fundamentals and Depth courses is 2.0.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

PHYSICS111 may be substituted by CME204 or MATH131P or MATH173 or MATH220

The Math 50 series is a corequisite for PHYSICS 61, 71, 81.

AND
Complete ALL of the following Courses:

*Students may be able to place out of Physics 41 and/or 43 based on advice from the Physics Placement Diagnostic.

*Students may replace PHYSICS 79L with PHYSICS 89L

*Students may replace PHYSICS 81L with PHYSICS 71L

AND
Complete ANY of the following Courses:
AND

Two courses minimum (course or B recommended; PHYSICS104 may be used in place of ENGR 40M).

The Engineering Fundamental courses must be selected from the School of Engineering approved list. Fundamentals courses acceptable for the core program may also be used to satisfy the fundamentals requirement as long as 35 unduplicated units of Engineering are taken.

Complete at least 2 of the following Courses:
Fulfill ALL of the following requirements:
Complete at least 1 of the following Courses:

Also qualified are course, any Math or Statistics course numbered 100 or above, and any CME course numbered 200 or above, except course.

AND

Take one course sequence.

Complete at least 2 of the following Courses:

EE 142 may not be offered every year.

AND
Complete ANY of the following Courses:
AND
Complete ANY of the following Courses:
Complete at least 1 of the following Courses:
Complete at least 1 of the following Courses:

MATSCI 310 and ME 346A may not be offered every year.

One course required

Complete at least 1 of the following Courses:

See the recommended Design course for each Specialty Area listed below.

Complete three courses from one of the following seven specialties or work with an advisor to create an Individually Designed Specialty to be reviewed by the Engineering Physics Co-Directors.

Fulfill ANY of the following requirements:

In Aerospace Physics, students develop a deep background in physics and mathematics and apply it to understanding the space environment and the dynamics, design, and control of space vehicles.

Complete at least 3 of the following Courses:

Additional recommended courses: AA 100; AA 190 for WIM; AA 236A for Design.

OR

Biophysics prepares students to employ methods in physics to the study of biological systems.  Students have the opportunity to learn about the physical biology of systems on a broad range of scales, techniques developed in biophysics for imaging, measuring, and manipulating biological systems, and the application of quantitative analysis techniques to topics in biology and genomics.

Complete at least 3 of the following Courses:

Additional recommended courses: BIOE 131 for WIM/TiS; EE 261 for Advanced Math; BIOE 123 for Design or Electronics Lab (may not also be used as an elective if used for one of these); BIOE 80 for Engineering Fundamental.

OR

Computational Science prepares students to apply modern computational techniques to problems in engineering and applied science, and to the analysis of data. Students have the opportunity to study computational theory and algorithms, as well as applications in modeling, data analysis, data science, and machine learning.

Complete at least 3 of the following Courses:

May also use any CME course greater than CME 300 and less than 390.

Additional recommended courses: CS 182W for WIM/TiS; CS 109 for Advanced Math; CS 107E, 108, 140E, 230, or 248A for Design; CS 106A or B for Engineering Fundamental.

OR

Electromechanical System Design provides the opportunity for students to explore the process of design, analysis, and realization of modern electromechanical systems, including “smart products” with embedded sensing and actuation.

Fulfill ALL of the following requirements:
Complete at least 1 of the following Courses:
AND
Complete at least 2 of the following Courses:

Additional recommended courses: ENGR 102W or PHYSICS 191 for WIM (or ENGR 199W for students pursuing an independent research project); ME 103 for Design; ENGR 40M or PHYSICS 104, and CS 106A or B for Engineering Fundamentals.

OR

In Materials Science, students learn how to design and synthesize materials with particular structures at the nanometer and micrometer scale that provide special electrical, optical, magnetic, or mechanical properties. Students can learn to use these materials to make integrated circuits, light-emitting diodes, solar cells, fuel cells, microelectromechanical systems, and other advanced devices.

Fulfill ALL of the following requirements:
Complete at least 1 of the following Courses:
AND
Complete at least 2 of the following Courses:

Additional recommended courses: MATSCI 161 or 164 for WIM; ENGR 50/50E/50M for Engineering Fundamental; CHEM 31A/B or 31M.

OR

Quantum Science & Engineering provides opportunities for students to develop an understanding of quantum systems – including atoms, lasers, and quantum devices – and investigate potential applications, such as timing and navigation, quantum computing, quantum communication, quantum cryptography, and tests of fundamental physics.

Fulfill ALL of the following requirements:
Complete at least 1 of the following Courses:
AND
Complete at least 1 of the following Courses:
AND
Complete at least 1 of the following Courses:

Additional recommended courses: EE 134, ENGR 102W, or PHYSIS 191 for WIM; EE 134 or PHYSICS 106 for Design.

OR

In Renewable Energy, students explore energy conversion and storage technologies that are relevant in renewable energy systems, such as solar cells, wind turbines, batteries, fuel cells, and hydrogen production and storage.

Complete at least 3 of the following Courses:

Additional recommended course: EE 153 or MATSCI 161 for WIM.

OR

Choose set of three courses in one area of concentration with the approval of the advisor and program Co-Directors.

To satisfy the capstone requirement, students must complete the capstone requirement in a department closely aligned with the specialty the student is pursuing. See lists of eligible courses below.

Students should choose one option from one of the lists below. Please note that some options are comprised of one course, and others require two courses to complete.

An Honors Thesis can satisfy the Capstone requirement with approval from the student's advisor and the program Co-Directors.

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ALL of the following Courses:

Complete a research project and document it in a capstone paper for ENGR 199W. ENGR 199W requires approval from the student's advisor and the UG Directors.

OR
Complete at least 2 of the following Courses:
OR
Complete ALL of the following Courses:
OR

Choose one of the following 3 Physics Course Capstone options.

Fulfill ANY of the following requirements:

Note that PHYSICS 100 and PHYSICS 108 may have limited enrollment, so students planning to use one to fulfill their Capstone requirement should have a backup plan in case they cannot enroll in one of these courses.


Complete ANY of the following Courses:
OR

Complete a Senior thesis and at least 3 units in PHYSICS 205; see Honors section of program for Senior thesis requirements. To fulfill the Capstone requirement using this option, it is not necessary to meet the other requirements for Honors (e.g., GPA requirements). Thus, a student can complete the Capstone requirement with this option even if they are not graduating with Honors.

Complete ALL of the following Courses:
OR

Students carry out a physics-related research project, which can be pursued at Stanford or another institution during the summer quarter or the academic year. During their junior or senior year, the student submits a proposal describing the topic of their Capstone paper based on their research project and identifying their research advisor. The Director must approve the proposal for Undergraduate Studies. After this approval, the student writes a Capstone paper. This paper can be written for either course (WIM) or course. If the student chooses to write the paper in Physics 191, it will be written for one of the assignments in the style of a journal article (e.g., Physics Review Letters). If the student chooses instead to write the paper in Physics 192, then the student enrolls in that course with the official research advisor as the instructor.   If the project is carried out with an advisor at another institution, the student must identify an official advisor who is a faculty member in the Physics Department at Stanford to write their Capstone paper. If the project is carried out with a faculty member at Stanford who is not in the Physics department, then that advisor can serve as the instructor for Physics 192.

Complete ANY of the following Courses:

Honors Criteria

  1. Minimum GPA of at least 3.5 in courses that count toward the major.

  2. Independent research conducted at an advanced level with a faculty research advisor and documented in an honors thesis. The honors candidate must identify a faculty member who will serve as their honors research advisor and a second reader who will be asked to read the thesis and give feedback before endorsing it. One of the two must be a member of the Academic Council and the School of Engineering.

Application: The application deadline is November 1 in autumn quarter of the senior year. The application documents should be submitted to the Student Services Officer. A subcommittee of the faculty advisors for Engineering Physics majors reviews applications. Applicants and thesis advisors receive written notification when the application is approved. An application consists of three items:

  1. A one-page description of the research topic

  2. The Honors Application form, which is available on the Engineering Physics page of the Undergraduate handbook. The Honors thesis advisor must sign it

  3. Unofficial Stanford transcript

Requirements and Timeline for Honors in Engineering Physics:

  1. Declare the honors program in Axess (ENGR-BSH, Subplan: Engineering Physics)

  2. Download the application form

  3. Apply to the honors program by November 1 in autumn quarter of the senior year

  4. Maintain a GPA of at least 3.5 in courses that count toward the major

  5. Optional: Under the direction of the thesis advisor, students may enroll for research units in ENGR 199W Writing of Original Research for Engineers or in departmental courses such as  AA 190 Directed Research and Writing in Aero/Astro or ME 191H Honors Research

  6. Submit a completed thesis draft to the research advisor and second reader by April 15

  7. Present the thesis work in an oral presentation or poster session in an appropriate forum (e.g., an event that showcases undergraduate research and is organized by the department of the advisor, the school of the advisor, or the university)

  8. Incorporate feedback, which the advisor and second reader should provide by April 30, and obtain final endorsement signatures from the thesis advisor and second reader by May 15

  9. Submit a PDF of the thesis, including the signature page signed by both readers, to the student services officer by May 15; students are emailed instructions on archiving a permanent electronic copy in the Terman Engineering Library

The School of Engineering offers a program leading to a Bachelor of Science in Engineering: Engineering Physics with Honors.
Completion requirement

This major is not an ABET-accredited engineering degree.

Stanford’s Sustainable Architecture+Engineering major integrates architectural design with engineering in developing sustainable strategies for the built environment.

Through a rigorous sequence of studios, you will learn design methodologies that merge spatial thinking with innovative engineering technologies. These hands-on courses will teach you to speculate, investigate, measure, and solve as you confront the complex problems of an urbanizing world with finite resources.

Objectives and Outcomes for Sustainable Architecture+Engineering

You will learn how to think critically and innovatively through a sequence of project-based studios.

  • To envision a more sustainable future, you will tackle problems at multiple scales, from the craft and assembly of building elements, to design in the urban realm.

  • You will develop the design, technical, visual communication, and digital modeling skills needed to address a range of current and future architectural and engineering problems, building upon a strong historic and theoretical foundation.

  • Harnessing research projects in a range of laboratories, you will learn how architecture integrates structural and mechanical engineering, building performance, and material sciences in formulating sustainable solutions.

Our program embraces the joys and challenges of inquiring, testing and solving through making as we mine the potentials between architecture and engineering. Through participation in our program, you will receive strong mentorship, develop strong skill sets, and graduate with the ability to generate high-impact solutions to our planet’s pressing environmental challenges.

The Curriculum

The undergraduate Sustainable Architecture+Engineering curriculum includes core coursework that provides a broad introduction to the major areas of architectural and engineering design with a focus on promoting sustainability in the built environment.

Through the studio sequence and elective courses, you will gain a depth of design experience while also developing breadth in specific topics of interest, which range from building performance and energy, earth systems, sustainability, structures and construction, history/theory, urban studies, to fine arts.

The curriculum culminates in an integrated capstone design experience to be completed by all majors.

Careers

The Sustainable Architecture+Engineering major lays a foundation for a broad range of careers including architecture, structural engineering, construction management, environmental engineering, sustainable design, and urban planning.

Graduate Study

This major is not an accredited engineering degree, nor is it designed to lead directly to professional licensure in architecture or engineering. To become a professional architect or engineer, additional graduate training and practical experience is required.

Sustainable Architecture+Engineering Honors

The Sustainable Architecture+Engineering Honors program offers eligible students the opportunity to engage in guided original research, or project design, over the course of an academic year. For interested students, the process and requirements are:

  1. The student must submit a letter applying for the Honors option endorsed by the student's major advisor and honors advisor and submitted to the student services office in CEE. Applications must be received in the fourth quarter prior to graduation. It is strongly suggested that students meet with their degree program advisor well in advance of submitting an application.

  2. The student must maintain a GPA of at least 3.5. 

  3. The student must complete an honors thesis or project. The timing and deadlines are to be decided by the major or honors advisor. At least one member of the evaluation committee must be a member of the Academic Council in the School of Engineering.

  4. The student must present the work in an appropriate forum, e.g., in the same session as honors theses are presented in the department of the advisor. All honors programs require some public presentation of the thesis or project.

Are you wondering whether a Sustainable Architecture+Engineering major is for you?  If so, here are some recommended courses accessible early in your undergraduate career that will help you explore your interest in our major. If you end up joining our program, this early start on fulfilling requirements will pay off by giving you more flexibility in class scheduling for your junior and senior years.

  • For an introduction to architecture, the following classes are readily accessible to frosh/sophomores, and can count towards the major:

  • CEE 31Q: Accessing Architecture Through Drawing (A, S)

  • CEE 120A: Building Modeling for Design & Construction (A, Sum)

  • CEE 133A: Studio 1 – Architecture: Light, Space, and Movement (A, W, S)

  • CEE 32 series

  • CEE 33 series

  • For an introduction to engineering, classes required for all our declared majors that are readily accessible to frosh/sophomores include:

  • ENGR14: Introduction to Solid Mechanics [prerequisite: PHYSICS 41] (A, W, S)

  • CEE 100A: Managing Sustainable Building Projects [WIM] (A)

  • The following Science/Math classes are required for almost all majors within the School of Engineering:

  • MATH 19+20+21 or up to 10 units AP Calculus

  • PHYSICS 41: Mechanics (W) [co-req: MATH 21] or 4-5 units of AP Physics C (depending upon year entered) if AP score of 5 and Physics diagnostic places into 43/45.

  • STATS: Majors may use STATS 60 (A,W,S) or take a calculus-based STATS course that will transfer to many other SoE majors (110, 116; CME 106, CEE 203, etc.).

  • Students must complete minimum of 62 units required from Engineering Fundamentals, Core, Breadth Focus Options & Other Electives 

  • A course may only be counted toward one elective or core requirement; it may not be double-counted.

  • All courses taken for the major must be taken for a letter grade if that option is offered by the instructor, and a grade of ‘C-‘ or better received.

  • The minimum combined GPA for all courses in Engineering Fundamentals, Core, Breadth Focus Options & Other Electives is 2.0. 

Fulfill ALL of the following requirements:
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 1 of the following Courses:
AND
Fulfill ALL of the following requirements:
Complete ALL of the following Courses:

Or AP Physics C, score of 5, co-req: MATH 21

AND

A total of 32 units of Math and Science courses are required. Aside from the required courses listed above, students can choose from a range of elective courses to meet the total unit count. This is a list of recommended Science Electives. For a full list of Math and Science electives, see the two lists below.

Complete ANY of the following Courses:

Courses used for the Science requirement may not also be counted for Engineering Fundamental or Depth.

AND

Choose courses from the Math Electives and/or Science Electives lists below to reach 32 total units.

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:

PHYSICS 22, 24, and 26 are Laboratory courses associated with PHYSICS 21, 23, and 25, and must be taken at the same time as, or following completion of the associated Lecture courses.

That is:

  • PHYSICS 22 should be taken in the same quarter or following completion of PHYSICS 21

  • PHYSICS 24 should be taken in the same quarter or following completion of PHYSICS 23

  • PHYSICS 26 should be taken in the same quarter or following completion of PHYSICS 25

Complete exactly 1 course(s) and earn 3 - 5 credit(s) from the following:

Course chosen must be on the list the year it is taken.

A total of 2 courses are required - one Solid Mechanics course and one Engineering Fundamentals elective course.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 1 of the following Courses:

CS 106M is a 1-unit enrichment supplement for CS 106B. Students must be enrolled in CS 106B to enroll in CS 106M.

A minimum of 62 units is required from Engineering Fundamentals, Depth Core, Depth Options, Breadth Focus Options & Depth Electives.

Fulfill ALL of the following requirements:
Complete ALL of the following Courses:
AND
Complete at least 3 of the following Courses:

132A, B, or C can be repeated to satisfy requirement.

Choose at least two courses each from two Breadth Focus areas, and one course from a third Breadth Focus area. Courses taken for Core Requirements cannot be counted toward a Breadth Focus area. Some courses offered in alternating years. 

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:

Students must take at least 62 units of Engineering Fundamentals, Core Requirements, Breadth Focus Options, and Other Electives to satisfy the degree program requirements and graduate. 

To reach a total of 62 units, students may choose from the following elective options:

  1. Additional electives may be selected from the Breadth Focus areas above.  Note that a course may only be counted towards one elective, option, or core requirement; it may not be double counted. 

  2. Additional Elective courses (listed below)

  3. Up to 4 units of non-engineering Elective courses (listed below)

  4. Up to 4 units of CEE 199/199L (listed below)

Courses counted toward other requirements cannot also be counted as electives.

Fulfill ANY of the following requirements:
Complete ANY of the following Courses:
OR

The following additional non-engineering Elective courses may count up to 4 units:

Complete ANY of the following Courses:

Verify other related electives with your major advisor.

OR

May count up to 4 units of the following:

Complete ANY of the following Courses:
OR
Complete ANY of the following Courses:

Subject to the requirements outlined above, students have considerable leeway in choosing their breadth focus area options, depth electives, and other courses to best suit their background and interests. By careful selection of technically-oriented depth electives, students can complement their studio experience with courses in structural analysis, construction, cost estimating, and energy efficiency.  

Students intending to apply to architecture graduate schools are encouraged to take:

  • studio art courses as early as possible in their academic career 

  • more than the minimum number of required studio classes

  • graphics and presentation (CEE 31B) and the portfolio preparation class (CEE 139) 

Students are also encouraged to take digital modeling courses which will equip them with the skillsets needed to pursue architectural and engineering internships.

Enter your major declaration for SA+E in Axess. Select ENGR-BS as your major and SA+E as your subplan. 

  • Download and complete your major Program Sheet, which can be obtained from the School of Engineering Undergraduate Handbook Program Sheets website: https://ughb.stanford.edu/program-sheets.   Be sure to fill in all courses that you have taken and those which you plan to take. You will have the opportunity to revise this later, so please fill in as many courses as you can.

  • Email your completed program sheet to nanaoki@stanford.edu and request to have a CEE advisor assigned to you. You may request a specific advisor if you wish. 

  • Meet with your CEE undergraduate advisor and review your program sheet with them. Have your undergraduate advisor sign your program sheet. If

  • Make sure you requested the transfer of any AP credit you want applied to your Stanford transcript. To request AP credit at Stanford, contact the College Board to request that your scores be sent to Stanford. For incoming freshmen, AP credit is posted to your student record in mid-September.

  • Email your signed program sheet to nanaoki@stanford.edu, and upon receiving your signed sheet Nan will approve your major declaration in Axess.

  • You are encouraged to meet with your CEE undergraduate adviser at least once a quarter to review your academic progress.  Changes to your program sheet can be made by submitting a revised program sheet with your undergraduate adviser’s signature to Nan at nanaoki@stanford.edu. NOTE – it is very important to confirm that your program sheet is up to date at least one quarter prior to graduation. SoE and Department Deviation Petitions must be submitted at least the quarter prior to your graduation quarter. Changes to your program may be denied within one quarter prior to graduation. 

More information can be found here: https://cee.stanford.edu/academics-admission/undergraduate-degrees/how-declare-cee-your-major