The Master of Science (M.S.) and Doctor of Philosophy (Ph.D.) programs in Biomedical Engineering prepare students for careers in solving engineering problems in health care, biomedical research, and biotechnology. Areas of current faculty research include biomaterials, nanobiotechnology, bioanalytical microsystems, patient-care devices, tissue engineering, flow cytometry, disease processes, clinical translation, and molecular and cellular systems. Instruction includes 5 core courses, a seminar and numerous electives taught by Affiliated Faculty and others within the School of Engineering, School of Medicine, College of Arts and Sciences, and College of Pharmacy.
The Biomedical Engineering (BME) graduate program prepares individuals for careers in one of the fastest growing disciplines of engineering. The Master of Science (M.S.) in Biomedical Engineering program currently offers one focus area in Molecular and Cellular Systems. Future focus areas will be added as need arises and resources are secured. Instructors from a spectrum of backgrounds in biomedical engineering offer a comprehensive core curriculum comprising five courses and a seminar course. Electives are accepted from a number of courses taught in the School of Engineering, College of Arts and Sciences, College of Pharmacy, and School of Medicine. Graduates of this program have the technological background to solve important problems in a number or areas including health care, biomedical research, biotechnology, and bioengineering.
The general admission requirements described in the Graduate Program section of this Catalog apply to the Biomedical Engineering Graduate Program (BMEGP). The following additional requirements hold for the initial focus area in Molecular and Cellular Systems. They may be modified or augmented as other focus areas are added to the program. Successful applicants to the BMEGP must have a bachelor's degree in a natural science or engineering field in which they attained a sophisticated level of ability to study, model, or manipulate biological systems at the molecular or cellular level. Because of the multifaceted nature of BME research, the Admissions Committee will make admissions decisions on a case-by-case basis. The following subject areas will be used to judge the suitability of students for admission:
Persons who have not passed courses in one or more of these subject areas may be admitted to the BMEGP, but may be required to take undergraduate courses to eliminate deficiencies in their background. Each case is considered individually.
Application Process
Please see the Graduate Program section of this Catalog for the general process for applying to graduate school. In addition to those requirements, successful applicants to the M.S. in Biomedical Engineering program must submit the following directly to the BMEGP Program Office for review by the Admissions Committee:
The general requirements for this degree are identical to those specified in the Graduate Program section of this Catalog. (Please see the Graduate Program section of this Catalog for detailed requirements and procedures common to all UNM graduate programs.) In addition the the general requirement specified in the Graduate program, graduates must complete the core and elective BME M.S. curriculum specified below. The BMEGP offers both Plan I (thesis) and Plan II (non-thesis) options for completion of an M.S. in Biomedical Engineering. BME 567 (Biomedical Engineering Seminar) should be taken every semester, but a student can only apply a maximum of 4 credit hours of this seminar toward their course degree requirements.
Completion requirements of a thesis-based M.S. degree (Plan I)
The minimum requirements for the thesis-based M.S. include 6 hours of thesis credit (BME 599) and 24 credit hours of course work that must include 18 credit hours of mandatory courses, as approved by the Committee on Studies, and at least 3 credit hours from the electives such as those listed below. Plan I automatically meets the requirement of at least 12 credit hours of course work at the 500 level or higher, exclusive of thesis credit, as stipulated by the UNM Catalog for this plan.
Completion requirements of a course-based M.S. degree (Plan II)
The minimum requirements of the Plan II Course-Based M.S. degree program include 32 credit hours of course work for credit, with at least 24 credit hours drawn from the list of BME required and elective courses and 3 credit hours of research seminar/problems course. At most, 6 credit hours of *400 level School of Engineering courses are allowed. Also, at least 12 credit hours of course work should be at a 500 level or higher, as stipulated by the Catalog for this Plan.
Focus Area: Molecular and Cellular Systems
The following core courses are required of all Master's students in Biomedical Engineering.
| BME 517 | Applied Biology for Biomedical Engineers |
| BME 544 | Mechanics and Thermodynamics of Molecular Components in Cells |
| BME 547 | Biomedical Engineering Research Practices |
| BME 556 | Protein and Nucleic Acid Engineering |
| BME 558 | Methods of Analysis in Bioengineering |
Equivalent graduate-level courses taken at other institutions may be used to satisfy these requirements. The BMEGP Graduate Advisor or the BMEGP Curriculum Committee must approve such substitutions.
For completion of the M.S. degree, the student must complete a minimum of 6 credit hours of elective courses from the list below. (Please see the Graduate Program section of this Catalog for detailed requirements and procedures common to all UNM M.S. Plan I and Plan II programs.)
Master's students may substitute electives other than those listed below as approved by the BMEGP Graduate Advisor or the BMEGP Curriculum Committee.
Engineering Electives
| CHNE/NSMS 522L | Fundamentals of Nanofluidics |
| CHNE/NSMS 530 | Surface and Interfacial Phenomena |
| CHNE/NSMS 536/436 | Biomedical Technology |
| CHNE/NSMS 538/438 | Biosensors Fundamentals and Applications |
| CHNE 504 | Nanomaterials |
| CHNE 521 | Advanced Transport Phenomena I |
| CS 529 | Machine Learning |
| CS 530 | Geometric and Probabilistic Methods in Computer Science |
| CS 561 | Algorithms/Data Structures |
| CS 590 | Topics: Complex Adaptive Systems |
| ECE 500 | Theory of Linear Systems |
| ECE 510 | Medical Imaging |
| ECE 533 | Digital Signal Processing |
| ECE 537 | Foundations of Computing |
| ECE 539 | Digital Signal Processing |
| ECE 547/CS 547 | Neural Networks |
| ECE 561 | Engineering Electrodynamics |
| ECE 581 | Colloidal Nanocrystals for Biomedical Applications |
| ME 501 | Advanced Mechanics of Materials |
| ME 504 | Computational Mechanics |
| ME 512 | Introduction to Continuum Mechanics |
| ME 530 | Theoretical Fluid Mechanics |
| ME 571/NSMS 569 | Advanced Materials Science |
Biology/Biomedical Sciences Electives
| BIOM 509 | Principles of Neurobiology |
| BIOM 510 | Physiology |
| BIOM 514 | Immunobiology |
| BIOM 515 | Cancer Biology |
| BIOM 516 | Molecular Genetics and Genomics |
| BIOL **351 | Microbiology |
| BIOL 547 | Advanced Techniques in Light Microscopy |
| BIOC 545L | Intensive Introductory Biochemistry |
Prospective candidates can apply for admission directly to the Ph.D. program. The Admissions Committee makes admission decisions on a case-by-case basis.
Details of applying to the Ph.D. program are found at the Biomedical Engineering graduate program Web site.
The general requirements for this degree are identical to those specified in the Graduate Program section of this catalog. In addition to the general requirement specified in the Graduate Program, graduates must complete the core and elective BME curriculum specified below. BME 567 (Biomedical Engineering Seminar) should be taken every semester, but a student can only apply a maximum of 8 credit credit hours of this seminar toward the course degree requirements.
Students must pass the Qualifying Examination before applying for Candidacy or proceeding to the Comprehensive Exam. upon successfully passing the Doctoral Comprehensive Exam and following approval of their application for Candidacy by the program faculty and the Dean of Graduate Studies, students are admitted to Candidacy for the doctoral degree.
For successful completion of the program requirements, all candidates must pass a Final Examination (Defense of Dissertation).
For students pursuing degrees in the focus area of Molecular and Cellular Systems, the following core courses are offered at least once per academic year:
| BME 517 | Applied Biology for Biomedical Engineers |
| BME 544 | Mechanics and Thermodynamics of Molecular Components in Cells |
| BME 547 | Biomedical Engineering Research Practices |
| BME 556 | Protein and Nucleic Acid Engineering |
| BME 558 | Methods of Analysis in Bioengineering |
| BME 567 | Biomedical Engineering Seminar |
Equivalent graduate-level courses taken at other institutions may be used to satisfy one or more of the above core requirements, as approved by the student's Graduate Advisor or Curriculum Committee.
For completion of the Ph.D. degree, the student must complete a minimum of 18 credit hours of elective courses from the list below. At least 9 of these must be from courses offered in the School of Engineering. Ph.D. candidates may substitute electives other than those listed below, as approved by the student's Graduate Advisor or Curriculum Committee.
| Biomedical Engineering Electives | |
| BME 570 | Physical Bioanalytical Methods |
| BME 572 | Biomaterials Engineering |
| BME 579 | Tissue Engineering |
| BME 598 | Special Topics |
| Engineering Electives | |
| BIOL **351 | General Microbiology |
| BIOL 547 | Advanced Techniques in Light Microscopy |
| BIOM 507/BIOL 581 | Advanced Molecular Biology |
| BIOM 508/BIOL 582 | Advanced Cell Biology |
| BIOM 509 | Principles of Neurobiology |
| BIOM 510 | Physiology |
| BIOM 514 | Immunobiology |
| BIOM 515 | Cancer Biology |
| BIOM 516 | Molecular Genetics and Genomics |
| CHNE/NSMS 522L | Fundamentals of Nanofluidics |
| CHNE/NSMS 530 | Surface and Interfacial Phenomena |
| CHNE/NSMS 538/438 | Biosensors Fundamentals and Applications |
| CHNE 504 | Nanomaterials |
| CHNE 521 | Advanced Transport Phenomena I |
| CS 529 | Introduction to Machine Learning |
| CS 530 | Geometric and Probabilistic Methods in Computer Science |
| CS 561 | Algorithms and Data Structures |
| CS 590 | Topics: Complex Adaptive Systems |
| ECE 500 | Theory of Linear Systems |
| ECE 510 | Medical Imaging |
| ECE 533 | Digital Image Processing |
| ECE 537 | Foundations of Computing |
| ECE 539 | Digital Signal Processing I |
| ME 501 | Advanced Mechanics of Materials |
| ME 504 | Computational Mechanics |
| ME 512 | Introduction to Continuum Mechanics |
| ME 530 | Theoretical Fluid Mechanics I |
| ME 571 | Advanced Materials Science |
BME 517. Applied Biology for Biomedical Engineers. (3)
BME 544. Thermodynamics of Biological Systems. (3)
BME 547. Biomedical Engineering Research Practices. (3)
BME 556. Protein and Nucleic Acid Engineering. (3)
BME 558. Methods of Analysis in Bioengineering. (3)
BME 567. Biomedical Engineering Seminar. (1 to a maximum of 8)
BME 570. Physical Bioanalytical Methods. (3)
BME 572. Biomaterials Engineering. (3)
BME 579. Tissue Engineering. (3)
BME 598. Special Topics. (1-3, no limit Δ)
BME 599. Master's Thesis. (1-6, no limit Δ)
BME 699. Dissertation. (3-12, no limit Δ)
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