Bachelor of Science in Bioengineering (BSBE) Degree
The program leading to the Bachelor of Science in Bioengineering is accredited by the Engineering Accreditation Commission of ABET, https://www.abet.org, under the General Criteria and the Bioengineering, Biomedical and Similarly Named Engineering Program Criteria.
Program Learning Outcomes (Student Outcomes) for the BSBE Degree
Upon completing the BSBE degree, students will be able to demonstrate:
- An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
- An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
- An ability to communicate effectively with a range of audiences.
- An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.
- An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives.
- An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions.
- An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.
Program Educational Objectives for the BSBE Degree
The overall goal of the Bachelor of Science in Bioengineering (BSBE) degree is to prepare graduates to succeed in professional careers by equipping them with the conceptual and technical expertise sought after by top graduate and medical schools, as well as by companies seeking technical skills in bioengineering. Recognizing that graduates may embark on a number of different educational and career paths, the Program Educational Objectives (PEOs) that graduates are expected to exhibit or achieve with the Bachelor of Science in Bioengineering (BSBE) degree from Rice University are:
- Graduates demonstrate technical and/or professional skills, which may include engineering problem-solving, scientific inquiry, and/or engineering design, to solve challenging problems in bioengineering and related fields.
- Graduates are accomplished at communicating and working collaboratively in diverse work environments.
- Graduates seeking further education at graduate, medical or other professional schools find appropriate levels of success in admission to and progression through these programs. Graduates entering professional careers find appropriate career progression and success.
Requirements for the BSBE Degree
For general university requirements, see Graduation Requirements. Students pursuing the BSBE degree must complete:
- A minimum of 37 courses (97-99 credit hours, depending on course selection) to satisfy major requirements.
- A minimum of 131 credit hours to satisfy degree requirements.
- A minimum of 20 courses (48 credit hours) taken at the 300-level or above.
The courses listed below satisfy the requirements for this major. In certain instances, courses not on this official list may be substituted upon approval of the major’s academic advisor or, where applicable, the department's Director of Undergraduate Studies. (Course substitutions must be formally applied and entered into Degree Works by the major's Official Certifier.) Students and their academic advisors should identify and clearly document the courses to be taken.
Summary
| Code | Title | Credit Hours |
|---|---|---|
| Total Credit Hours Required for the Major in Bioengineering | 97-99 | |
| Total Credit Hours Required for the BSBE Degree | 131 | |
Degree Requirements
| Code | Title | Credit Hours |
|---|---|---|
| Core Requirements | ||
| Biosciences | ||
| BIOS 201 | INTRODUCTORY BIOLOGY I 2 | 3 |
| Chemistry | ||
| CHEM 121 | GENERAL CHEMISTRY I 1 | 3 |
| or CHEM 111 | AP/OTH CREDIT IN GENERAL CHEMISTRY I | |
| CHEM 123 | GENERAL CHEMISTRY LABORATORY I 1 | 1 |
| or CHEM 113 | AP/OTH CREDIT IN GENERAL CHEMISTRY LAB I | |
| CHEM 122 | GENERAL CHEMISTRY II 1 | 3 |
| or CHEM 112 | AP/OTH CREDIT IN GENERAL CHEMISTRY II | |
| CHEM 124 | GENERAL CHEMISTRY LABORATORY II 1 | 1 |
| or CHEM 114 | AP/OTH CREDIT IN GENERAL CHEMISTRY LAB II | |
| CHEM 211 & CHEM 213 | ORGANIC CHEMISTRY I and ORGANIC CHEMISTRY DISCUSSION I 2 | 3 |
| Computational Applied Mathematics and Operations Research | ||
| CMOR 220 | INTRODUCTION TO ENGINEERING COMPUTATION 1 | 3 |
| Electrical Engineering | ||
| ELEC 243 | ELECTRONIC MEASUREMENT SYSTEMS 2 | 4 |
| Mathematics | ||
| MATH 101 | SINGLE VARIABLE CALCULUS I 1 | 3 |
| or MATH 105 | AP/OTH CREDIT IN CALCULUS I | |
| MATH 102 | SINGLE VARIABLE CALCULUS II 1 | 3 |
| or MATH 106 | AP/OTH CREDIT IN CALCULUS II | |
| MATH 211 | ORDINARY DIFFERENTIAL EQUATIONS AND LINEAR ALGEBRA 2 | 3 |
| MATH 212 | MULTIVARIABLE CALCULUS 2 | 3 |
| Mechanical Engineering | ||
| MECH 202 | MECHANICS/STATICS | 3 |
| or MECH 211 / CEVE 211 | ENGINEERING MECHANICS | |
| Physics | ||
| Select 1 from the following: | 4 | |
| MECHANICS (WITH LAB) and MECHANICS DISCUSSION 1, 3 | ||
| HONORS MECHANICS (WITH LAB) 1, 3 | ||
| GENERAL PHYSICS (WITH LAB) 1, 3 | ||
| Select 1 from the following: | 4 | |
| ELECTRICITY & MAGNETISM (WITH LAB) and ELECTRICITY AND MAGNETISM DISCUSSION 1, 3 | ||
| HONORS ELECTRICITY & MAGNETISM (WITH LAB) 1, 3 | ||
| GENERAL PHYSICS II (WITH LAB) 1, 3 | ||
| Bioengineering Core Courses | ||
| BIOE 252 | BIOENGINEERING FUNDAMENTALS 2 | 4 |
| BIOE 320 | SYSTEMS PHYSIOLOGY LAB MODULE 2 | 1 |
| BIOE 322 | FUNDAMENTALS OF SYSTEMS PHYSIOLOGY 2 | 3 |
| BIOE 330 | BIOREACTION ENGINEERING | 3 |
| BIOE 332 | BIOENGINEERING THERMODYNAMICS | 3 |
| BIOE 341 | CELL AND MOLECULAR BIOLOGY FOR ENGINEERS | 3 |
| BIOE 342 | LABORATORY IN TISSUE CULTURE | 1 |
| BIOE 370 | BIOMATERIALS | 3 |
| BIOE 372 | BIOMECHANICS | 3 |
| BIOE 383 | BIOMEDICAL ENGINEERING INSTRUMENTATION | 3 |
| BIOE 385 | BIOMEDICAL INSTRUMENTATION LAB | 1 |
| BIOE 391 | NUMERICAL METHODS 2 | 3 |
| BIOE 420 / CHBE 420 | TRANSPORT PHENOMENA IN BIOENGINEERING | 3 |
| Select 1 course from the following: | 1 or 3 | |
| APPLIED STATISTICS FOR BIOENGINEERING AND BIOTECHNOLOGY | ||
| STATISTICS FOR BIOENGINEERING 2 | ||
| BIOE 451 | BIOENGINEERING DESIGN I | 4 |
| BIOE 452 | BIOENGINEERING DESIGN II | 3 |
| Bioengineering Laboratory Courses 4 | ||
| Select 2 courses from the following (different laboratory modules may be offered each year): | 2 | |
| TISSUE ENGINEERING LAB MODULE | ||
| BIOPROCESSING LAB MODULE | ||
| MECHANICAL TESTING LAB MODULE | ||
| ADVANCED INSTRUMENTATION LAB MODULE | ||
| COMPUTATIONAL MODELING LAB | ||
| DIGITAL DESIGN & VISUALIZATION 5 | ||
| MICROCONTROLLERS FOR MEDICAL DEVICE DESIGN | ||
| TROUBLESHOOTING WORKSHOP FOR CLINICALLY-RELEVANT BIOMEDICAL EQUIPMENT | ||
| Technical Electives | ||
| Select a minimum of 3 elective courses from the Technical Elective course offerings (see course list below) | 9 | |
| Total Credit Hours Required for the Major in Bioengineering | 97-99 | |
| Additional Credit Hours to Complete Degree Requirements * | 2-4 | |
| University Graduation Requirements * | 31 | |
| Total Credit Hours | 131 | |
Footnotes and Additional Information
| * | Note: University Graduation Requirements include 31 credit hours, comprised of Distribution Requirements (Groups I, II, and III), FWIS, and LPAP coursework. In some instances, courses satisfying FWIS or distribution requirements may additionally meet other requirements, such as the Analyzing Diversity (AD) requirement, or some of the student’s declared major, minor, or certificate requirements. Additional Credit Hours to Complete Degree Requirements include general electives, coursework completed as upper-level, residency (hours taken at Rice), and/or any other additional academic program requirements. |
| 1 | Students should complete these courses during their freshman year. |
| 2 | Students should complete these courses during their sophomore year. |
| 3 | The Bioengineering department has determined that credit awarded for PHYS 141 CONCEPTS IN PHYSICS I and credit awarded for PHYS 142 CONCEPTS IN PHYSICS II are not eligible for meeting the requirements of the Bioengineering major. |
| 4 | BIOE 400 can be counted in place of one of the required senior laboratory courses if taken for at least 3 credit hours at once. |
| 5 | If BIOE 447 is taken as a Bioengineering Laboratory course, the student should note that EDES 355, listed in the Technical Electives section, will not count as a course that satisfies the Technical Electives Requirement. |
Course Lists to Satisfy Requirements
Technical Electives
To fulfill the remaining BIOE major requirements, students must complete a minimum of 3 courses (9 credit hours) from the following approved Technical Elective course offerings.
Please Note: The following list of courses are those that satisfy the approved Technical Electives requirement. In certain instances, courses not on this official list may be substituted upon approval of the department's Director of Undergraduate Studies. The list of approved courses may change from year to year, and course offerings may vary from year to year. Students should check with their academic advisor before registering for Technical Elective courses. Students and their academic advisors should identify and clearly document the courses to be taken.
| Code | Title | Credit Hours |
|---|---|---|
| BIOE 321 | CELLULAR ENGINEERING | 3 |
| BIOE 348 | MOLECULAR TECHNIQUES IN BIOENGINEERING | 3 |
| BIOE 360 / GLHT 360 | APPROPRIATE DESIGN FOR GLOBAL HEALTH | 3 |
| BIOE 365 / CEVE 314 / GLHT 314 | SUSTAINABLE WATER PURIFICATION FOR THE DEVELOPING WORLD | 3 |
| BIOE 380 / ELEC 380 / NEUR 383 | INTRODUCTION TO NEUROENGINEERING: MEASURING AND MANIPULATING NEURAL ACTIVITY | 3 |
| BIOE 392 / GLHT 392 | NEEDS FINDING AND DEVELOPMENT IN BIOENGINEERING | 3 |
| BIOE 400 | ENGINEERING UNDERGRADUATE RESEARCH 1,3 | 1-4 |
| BIOE 408 | SYNTHETIC BIOLOGY | 3 |
| BIOE 421 | MICROCONTROLLER APPLICATONS | 3 |
| BIOE 422 | GENE THERAPY | 3 |
| BIOE 431 | BIOMATERIALS APPLICATIONS | 3 |
| BIOE 454 / CEVE 454 / MECH 454 | COMPUTATIONAL FLUID MECHANICS | 3 |
| BIOE 464 | EXTRACELLULAR MATRIX | 3 |
| BIOE 484 | BIOPHOTONICS INSTRUMENTATION AND APPLICATIONS | 3 |
| BIOE 492 | SENSORY NEUROENGINEERING | 3 |
| BIOE 509 | POINT-OF-CARE DIAGNOSTICS | 3 |
| BIOE 518 | INTRODUCTION TO COMPUTATIONAL BIOLOGY | 3 |
| BIOE 523 / CHBE 523 | BIOENGINEERING SYSTEMS AND CONTROL | 3 |
| BIOE 526 | ADVANCES IN GENOME EDITING AND ENGINEERING | 3 |
| BIOE 543 | DNA BIOTECHNOLOGY, BIOPHYSICS, AND MODELING | 3 |
| BIOE 558 / CHBE 558 | INTRODUCTION TO GENOME EDITING AND ENGINEERING | 3 |
| BIOE 564 / COMP 572 | BIOINFORMATICS: NETWORK ANALYSIS | 3 |
| BIOE 574 | CONTINUUM BIOMECHANICS | 3 |
| BIOE 580 / CHBE 580 | PROTEIN ENGINEERING | 3 |
| BIOE 587 | OPTICAL IMAGING AND NANOBIOPHOTONICS | 3 |
| BIOE 589 | COMPUTATIONAL MOLECULAR BIOENGINEERING/BIOPHYSICS | 3 |
| BIOE 615 | BIOENGINEERING AND CARDIAC SURGERY | 3 |
| BIOE 620 / CHBE 620 | TISSUE ENGINEERING | 3 |
| CEVE 315 | URBAN WATER SYSTEMS: SOURCES, TREATMENT, DISTRIBUTION, RESOURCE RECOVERY AND REUSE | 3 |
| CEVE 316 | URBAN WATER SYSTEMS LAB: WATER QUALITY PARAMETERS AND TREATMENT TECHNIQUES | 1 |
| CHBE 310 | FUNDAMENTALS OF BIOMOLECULAR ENGINEERING | 3 |
| CHBE 390 | CHEMICAL KINETICS AND REACTOR DESIGN | 3 |
| CHBE 640 | METABOLIC ENGINEERING | 3 |
| CMOR 302 | MATRIX ANALYSIS | 3 |
| or CMOR 303 | MATRIX ANALYSIS FOR DATA SCIENCE | |
| CMOR 360 | INTRODUCTION TO OPERATIONS RESEARCH AND OPTIMIZATION | 3 |
| CMOR 423 / CEVE 455 | NUMERICAL METHODS FOR PARTIAL DIFFERENTIAL EQUATIONS | 3 |
| COMP 341 | PRACTICAL MACHINE LEARNING FOR REAL WORLD APPLICATIONS | 3 |
| COMP 450 / ELEC 450 / MECH 450 | ALGORITHMIC AND AI-DRIVEN ROBOTICS | 4 |
| COMP 502 / ELEC 502 / STAT 502 | NEURAL MACHINE LEARNING I | 3 |
| COMP 571 | MODELING AND INFERENCE IN COMPUTATIONAL GENOMICS | 3 |
| DSCI 303 | MACHINE LEARNING FOR DATA SCIENCE | 3 |
| or COMP 576 / ELEC 576 | A PRACTICAL INTRODUCTION TO DEEP MACHINE LEARNING | |
| or ELEC 478 | INTRODUCTION TO MACHINE LEARNING | |
| DSCI 435 / COMP 449 | APPLIED MACHINE LEARNING AND DATA SCIENCE PROJECTS | 4 |
| EDES 300 | ENGINEERING DESIGN WORKSHOP 1 | 3 |
| EDES 301 | INTRODUCTION TO PRACTICAL ELECTRICAL ENGINEERING | 3 |
| EDES 350 | NEEDS IDENTIFICATION AND DESIGN IMPLEMENTATION | 3 |
| EDES 355 | DIGITAL DESIGN AND VISUALIZATION 2 | 3 |
| ELEC 301 | SIGNALS, SYSTEMS, AND LEARNING | 3 |
| ELEC 305 | INTRODUCTION TO PHYSICAL ELECTRONICS II | 3 |
| ELEC 326 / COMP 326 | DIGITAL LOGIC DESIGN | 3 |
| ELEC 327 | IMPLEMENTATION OF DIGITAL SYSTEMS | 3 |
| ELEC 378 | MACHINE LEARNING: CONCEPTS AND TECHNIQUES | 3 |
| ELEC 422 | VLSI SYSTEMS DESIGN | 3 |
| ELEC 425 / COMP 425 | COMPUTER SYSTEMS ARCHITECTURE | 4 |
| ELEC 435 | NEURAL INTERFACE ENGINEERING LABORATORY | 3 |
| ELEC 475 | LEARNING FROM SENSOR DATA | 3 |
| ELEC 478 | INTRODUCTION TO MACHINE LEARNING | 3 |
| ELEC 487 | IMAGING OPTICS | 3 |
| ELEC 489 / CMOR 416 / NEUR 416 | NEURAL COMPUTATION | 3 |
| ELEC 677 | SPECIAL TOPICS | 1-4 |
| GLHT 400 | GLOBAL HEALTH TECHNOLOGIES INDEPENDENT RESEARCH PROJECTS 1 | 1-3 |
| MECH 310 | RIGID BODY DYNAMICS | 3 |
| MECH 311 / CEVE 311 | MECHANICS OF SOLIDS AND STRUCTURES | 3 |
| MECH 343 | MODELING OF DYNAMIC SYSTEMS -LECTURE & LAB | 4 |
| MECH 371 | FLUID MECHANICS I | 3 |
| MECH 400 / CEVE 400 | ADVANCED MECHANICS OF MATERIALS | 3 |
| MECH 417 / CEVE 417 | FINITE ELEMENT ANALYSIS | 3 |
| MECH 420 / ELEC 436 | FUNDAMENTALS OF CONTROL SYSTEMS | 3 |
| MECH 488 | DESIGN OF MECHATRONIC SYSTEMS | 3 |
| MECH 497 | NEUROMUSCULOSKELETAL MODELING AND SIMULATION | 3 |
| MSNE 402 | MECH PROPERTIES OF MATERIALS | 3 |
Footnotes and Additional Information
| 1 | Maximum allowances: BIOE 400 or EDES 300 or GLHT 400 can count for a maximum of 6 credit hours towards the Technical Elective requirement with minimum iterations of 3 credit hours per course in one semester. Any combination of independent research and/or independent design courses (i.e., BIOE 400, EDES 300, GLHT 400) can be used for this allowance. If the same course is taken twice, a petition will need to be submitted to the Undergraduate Affairs Committee describing the scope and new skills attained. |
| 2 | EDES 355 can be applied toward the Technical Elective requirement only in the event that BIOE 447 is not completed as a Senior Lab requirement. |
| 3 | BIOE 400: Students may substitute 3 credit hours (in one semester) of BIOE 400 in place of one and only one credit of the BIOE Laboratory Requirement for BIOE 442, BIOE 443, BIOE 444, BIOE 445, BIOE 446, BIOE 447, or BIOE 449. This substitution will not count toward the Technical Elective requirement allowance. (See Footnote 1). |
Policies for the BSBE Degree
Transfer Credit
For Rice University’s policy regarding transfer credit, see Transfer Credit. Some departments and programs have additional restrictions on transfer credit. Requests for transfer credit must be approved for Rice equivalency by the designated transfer credit advisor for the appropriate academic department offering the Rice equivalent course (corresponding to the subject code of the course content). The Office of Academic Advising maintains the university’s official list of transfer credit advisors on their website: https://oaa.rice.edu. Students are encouraged to meet with the applicable transfer credit advisor as well as their academic program director when considering transfer credit possibilities.
Additional Information
For additional information, please see the Bioengineering website: https://bioengineering.rice.edu/.
Opportunities for the BSBE Degree
Academic Honors
The university recognizes academic excellence achieved over an undergraduate’s academic history at Rice. For information on university honors, please see Latin Honors (summa cum laude, magna cum laude, and cum laude) and Distinction in Research and Creative Work. Some departments have department-specific Honors awards or designations.
Fifth-Year Master's Degree Option for Rice Undergraduate Students
In certain situations and with some terminal master's degree programs, Rice students have an option to pursue a master’s degree by adding an additional fifth year to their four years of undergraduate studies.
Advanced Rice undergraduate students in good academic standing typically apply to the master’s degree program during their junior or senior year. Upon acceptance, depending on course load, financial aid status, and other variables, they may then start taking some required courses of the master's degree program. A plan of study will need to be approved by the student's undergraduate major advisor and the master’s degree program director.
As part of this option and opportunity, Rice undergraduate students:
- must complete the requirements for a bachelor's degree and the master's degree independently of each other (i.e. no course may be counted toward the fulfillment of both degrees).
- should be aware there could be financial aid implications if the conversion of undergraduate coursework to that of graduate level reduces their earned undergraduate credit for any semester below that of full-time status (12 credit hours).
- more information on this Undergraduate - Graduate Concurrent Enrollment opportunity, including specific information on the registration process can be found here.
Rice undergraduate students completing studies in science and engineering may have the option to pursue the Master of Bioengineering (MBE) degree. For additional information, students should contact their undergraduate major advisor and the MBE program director.
Additional Information
For additional information, please see the Bioengineering website: https://bioengineering.rice.edu/.