BME

Subject

BME

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

This course will introduce the properties of biomedical materials used as implants, prostheses, orthosis, and tissue-engineered materials as medical devices in contact with tissues and organs. Biocompatibility, immunological responses, wound healing, clotting cascade, surface compatibility and characterization of materials used for implantable medical devices will be introduced. Other topics such as ethical considerations and medical device regulatory mechanisms will be presented. MATH 211

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Prerequisite

BIOL 240 or BIOL 250 and MATH 200 or MATH 205 or

The purpose of this course is to achieve a broad overview of biomechanics, focused on the musculoskeletal system. Students will explore multiscale mechanics, including whole-body movement and mechanical properties of the structures in the musculoskeletal system. Additionally, students will survey the experimental methods and computational modeling techniques used in biomechanics research.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Prerequisite

BIOL 240 or BIOL 250, and MATH 212

Select two elective courses from the following:

Subject

BME

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Subject

BME

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

This course covers the electrical properties of cells and tissues as well as the use of electrical and magnetic signals and stimuli in the diagnosis and treatment of disease. Typical topics to be covered include basic cell physiology, endogenous electric fields in the body, electrocardiography, cardiac pacing defibrillation, electrotherapy, electroporation, electrotherapy in wound healing. In addition ultra-short electrical pulses for intracellular manipulation and the application of plasmas to biological systems will be covered.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Prerequisite

PHYS 111N or higher and MATH 200 or higher

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Plasmas (3 Credit Hours) This course is cross listed with ECE and Biology. It is designed to be taken by senior undergraduate students and first year graduate students. The course contents are multidisciplinary, combining materials from engineering and the biological sciences. The course covers an introduction to the fundamentals of non-equilibrium plasmas, low temperature plasma sources, and cell biology. This is followed by a detailed discussion of the interaction of low temperature plasma with biological cells, both prokaryotes and eukaryotes. Potential applications in medicine such as wound healing, blood coagulation, sterilization, and the killing of various types of cancer cells will be covered.

Subject

BME

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Prerequisite

Senior standing

This course explores specialized topics in biomedical engineering, providing an in-depth study of emerging trends, technologies, and applications in the field. Topics may vary by semester and are designed to enhance students' understanding of cutting-edge developments in biomedical engineering.

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Prerequisite

Departmental approval

Subject

BME

Type

course

Edition

2025-2026-undergraduate

Source

catalog.odu.edu

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course will introduce the properties of biomedical materials used as implants, prostheses, orthosis, and tissue-engineered materials as medical devices in contact with tissues and organs. Biocompatibility, immunological responses, wound healing, clotting cascade, surface compatibility and characterization of materials used for implantable medical devices will be introduced. Other topics such as ethical considerations and medical device regulatory mechanisms will be presented. MATH 211

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

BIOL 240 or BIOL 250 and MATH 200 or MATH 205 or

The purpose of this course is to achieve a broad overview of biomechanics, focused on the musculoskeletal system. Students will explore multiscale mechanics, including whole-body movement and mechanical properties of the structures in the musculoskeletal system. Additionally, students will survey the experimental methods and computational modeling techniques used in biomechanics research.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

BIOL 240 or BIOL 250, and MATH 212

This course will introduce fundamental knowledge in regenerative medicine including therapeutic applications of biomaterials, tissue and stem cell engineering, gene therapy and bioelectrics, with emphasis on structure- function relationships of biologic systems. In addition to lecture, students will have opportunities for group discussions and presentations on milestone work related to tissue regeneration. Students will leave with a thorough understanding of true mammalian regeneration, wound healing/repair processes, and medical device milestones as related to human tissue regeneration and repair. MATH 211

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

BIOL 240 or BIOL 250 and MATH 200 or MATH 205 or

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course covers the electrical properties of cells and tissues as well as the use of electrical and magnetic signals and stimuli in the diagnosis and treatment of disease. Typical topics to be covered include basic cell physiology, endogenous electric fields in the body, electrocardiography, cardiac pacing defibrillation, electrotherapy, electroporation, electrotherapy in wound healing. In addition ultra-short electrical pulses for intracellular manipulation and the application of plasmas to biological systems will be covered.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Introduction to basic concepts in medical image analysis. Medical image registration, segmentation, feature extraction, and classification are discussed. Basic psychophysics, fundamental ROC analysis and FROC methodologies are covered. Cross-listed with ECE 562/MSIM 562.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Alias

ECE 562

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course explores specialized topics in biomedical engineering, providing an in-depth study of emerging trends, technologies, and applications in the field. Topics may vary by semester and are designed to enhance students' understanding of cutting-edge developments in biomedical engineering.

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Departmental approval

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course covers fundamentals of digital signal processing. Topics include frequency domain analysis of discrete-time signals and linear systems, sampling and reconstruction of signals, the Discrete Fourier Transform (DFT) and Fast Fourier Transform (FFT), and digital filter design and implementations. Practical applications and examples will be discussed. Problem solving using MATLAB is required. Cross-listed with ECE 612.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 381 or equivalent

Alias

ECE 612

This course will be offered as needed, depending upon the need to introduce special subjects to target specific areas of master's-level specializations in biomedical engineering.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Individual project directed by the student’s professor in major area of study.

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Total Credit Hours 30 The 12 credits of technical elective courses can be selected from the biomedical engineering technical electives (6 credits) or a wide variety of appropriate graduate courses (6 credits) in engineering, biology, chemistry, psychology, computer science, modeling and simulation, mathematics, statistics, or other programs. Technical electives without the BME prefix must be approved by the graduate program director. To earn a master's degree, a student needs to take at least five courses at the 600 or higher level, and no more than three courses at the 500 level.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This physiology course will focus solely on cardiovascular physiology. Lectures will focus on basic and advance cardiovascular principles. The laboratory will focus on the use of current cardiovascular research.

Subject

BME

Credits (min)

4

Credits (max)

4

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Review and discussion of current papers in the areas of biomedical sciences. Student presentation, discussions and readings in this field required.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course will cover selected current topics in cell biology that reflect recent advances in the field. Major topics include membranes and transport, signal transduction, cell adhesion and motility, cell cycle, apoptosis, and specialized cell functions. Students will read current research papers that describe the latest innovations in microscopic and molecular analysis of cellular function. This course is built on previous coursework in cell biology by reinforcing key fundamental concepts and performing a more in-depth examination of cellular mechanisms.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Course background in cell biology recommended

Engineers 1

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course introduces students without a sufficient engineering background to the essential mathematical and engineering principles needed for biomedical engineering. Students will build foundational knowledge in mathematical concepts and core engineering areas, such as mechanical and electrical engineering. This foundation will enable them to analyze, design, and implement engineering solutions to biomedical challenges. Emphasis is placed on problem-solving, critical thinking, and understanding the integration of engineering concepts within biological systems, equipping students with the insights needed for interdisciplinary work in biomedical engineering.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Three laboratory rotations (6 credits) are required by the curriculum.

Subject

BME

Credits (min)

2

Credits (max)

2

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Approval of the Program Director

This course covers the design of modern biomedical instruments including select diagnostic, assistive, therapeutic, prosthetic, imaging, and virtual devices and systems. Techniques for mechanical, electrical, and chemical sensor and transducer design; stimulation and measurement; data acquisition; digital signal processing; and data visualization will be examined.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course on mathematical modeling in human physiology emphasizes the development of mathematical models, their implementation, and the interpretation of simulation data. The course focuses on cellular physiology, including membrane channels, excitability, and calcium dynamics; it also covers intercellular communication and spatially distributed systems.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course cover fundamental principles and properties of biomedical materials used as implants, prostheses, orthosis, and tissue-engineered materials as medical devices in contact with tissues and organs. Advanced concepts of biocompatibility and material characterization will be discussed. Physiological response factors associated with materials and implanted devices used in the human body will be presented, including immunological responses, wound healing, clotting cascade and surface compatibility. Other topics such as ethical considerations and medical device regulatory mechanisms will be discussed.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course is designed to guide predoctoral students through the process of developing and writing competitive fellowship grant applications. Students will work one-on-one with a mutually agreeable faculty mentor to identify funding opportunities, refine research proposals, and draft key components of their applications. Emphasis will be placed on understanding the expectations of funding agencies, writing clear and compelling narratives, and addressing reviewer criteria. By the end of the course, students may have a polished grant proposal.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course provides an understanding of the finite element method (FEM) as derived from an integral formulation perspective. It demonstrates the solutions of (1-D and 2-D) continuum mechanics problems such as solid mechanics, fluid mechanics and heat transfer. It also provides insight into the theoretical formulation and numerical implementation of finite element methods.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course explores the engineering principles and techniques applied to regenerative medicine. Topics include advanced engineering methods for scaffold development, material characterization techniques, and the evaluation of tissue-engineered constructs through in vitro and in vivo analysis. Students will gain a comprehensive understanding of how engineering tools are utilized to address challenges in regenerating tissues and organs, bridging the gap between biology and engineering in regenerative medicine. MATH 205 or MATH 211

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Either BIOL 240 or BIOL 250 and one of MATH 200 or

Well-designed graphical media capitalizes on human facilities for processing visual information and thereby improves comprehension, memory, inference, and decision making. This course teaches techniques and algorithms for creating effective visualizations based on principles and techniques from graphic design, visual art, perceptual psychology and cognitive science. Both users and developers of visualization tools and systems will benefit from this course.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

The course will introduce students to the responsible conduct of science and scientific research.

Subject

BME

Credits (min)

2

Credits (max)

2

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Engineering (3 Credit Hours) This course covers the theoretical foundation and application of commonly used techniques in biomedical engineering. Topics include linear algebra, partial differential equations, regression analysis, applied probabilities, multivariate distributions, Bayesian statistics, hypothesis tests, multiple comparisons, ANOVA, solution of non-linear equations, numerical methods and optimization. Programming software will be used to perform simulations and analyze biomedical data.

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Graduate status

Bioelectrics is a new field encompassing both the science and technology of applying electrical stimuli to biological systems. This course covers the pulsed power technology that is required to generate electrical stimuli as well as the biological responses they evoke in cells and tissues. Particular emphasis is placed on the medical applications of bioelectrics, including tumor ablation, gene electrotransfer, wound healing, decontamination with cold plasma, and treatment of cardiac arrhythmias.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 454 or ECE 554 or BIOE 454 or BIOE 554

This course will give an overview of the structure and dynamics of biomembranes, the ion channels that are embedded in them, and the electrical properties of biomembranes. Topics include molecular dynamics modeling of biomembranes, membrane damage and repair, ion channel dynamics and their experimental assessment using patch clamping, and excitability in neurons and cardiomyocytes. Old Dominion University Graduate Catalog 2025-2026 440

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 454 or ECE 554 or BIOL 523

and Control

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Course explores hands-on exposure to state-of-the-art algorithms in medical image analysis, which builds on open-source software (Insight Segmentation and Registration Toolkit - ITK), as well as the principles of medical image acquisition in the modalities of clinical interest. Medical imaging modalities - X-rays, CT, and MRI/ITK image pipeline; image enhancement, feature detection; segmentation - basic techniques, feature-based classification and clustering, graph cuts, active contour and surface models; surface and volume meshing; registration - transformations, similarity criteria; shape and appearance models are all explored and discussed in this course.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Knowledge of C++ and object-oriented programming

Under the guidance of members of the graduate faculty and with the approval of the program track coordinator, the student will carry out in-depth studies of selected topics relevant to the area of specialization. Extensive surveys and analyses of the literature. Written reviews, comprehensive and synoptic, and oral presentations are required of each student.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Provides students with the skills to write competitive grant proposals to both private and federal funding sources (emphasis on NIH and NSF). Students will learn how to find the most appropriate funding mechanisms and how to position themselves to be competitive. Different grant writing formats will be illustrated through proposal development projects.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Principles and techniques of two-dimensional processing of images. Concepts of scale and spatial frequency. Image filtering in spatial and transform domains. Applications include image enhancement and restoration, image compressing, biomedical imaging for diagnosis of disease, and image segmentation for computer vision.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 782 or ECE 882

Treatment of the next generation of manufacturing technology. Topics include additive manufacturing; rapid prototypying; electronic manufacturing; micro and nanofabrication; process simulation; product life cycle management; and sustainable design and manufacturing.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

MAE 682 or permission of Program Director

The purpose of this course is to achieve a broad overview of biomechanics, focused on the musculoskeletal system. Students will explore multiscale mechanics, including whole-body movement and mechanical properties of the structures in the musculoskeletal system. Additionally, students will survey the experimental methods and computational modeling techniques used in biomechanics research.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

MATH 212 or equivalent

A broad introduction to the field of cellular biomechanics. Topics include overview of cell architecture, cytoskeleton, adhesion and molecular motors, biomolecular/biopolymer dynamics and mechanics, techniques to measure cell mechanical properties, techniques to mechanically stimulate cells, models of cell mechanical behavior, mechanobiology and mechanotransduction. Will include discussion of classic and current research articles. Course content will aim to cater to students with diverse backgrounds – students with biological science background will be exposed to physical science concepts and analysis; students with engineering/physical science background will be exposed to biological phenomena and concepts. Pre- or corequisite: MATH 212

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Total Credit Hours 12 Appropriate course substitutions may be considered with permission of the Graduate Program Director.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This physiology course will focus solely on cardiovascular physiology. Lectures will focus on basic and advance cardiovascular principles. The laboratory will focus on the use of current cardiovascular research.

Subject

BME

Credits (min)

4

Credits (max)

4

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Review and discussion of current papers in the areas of biomedical sciences. Student presentation, discussions and readings in this field required.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course will cover selected current topics in cell biology that reflect recent advances in the field. Major topics include membranes and transport, signal transduction, cell adhesion and motility, cell cycle, apoptosis, and specialized cell functions. Students will read current research papers that describe the latest innovations in microscopic and molecular analysis of cellular function. This course is built on previous coursework in cell biology by reinforcing key fundamental concepts and performing a more in-depth examination of cellular mechanisms.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Course background in cell biology recommended

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course introduces students without a sufficient engineering background to the essential mathematical and engineering principles needed for biomedical engineering. Students will build foundational knowledge in mathematical concepts and core engineering areas, such as mechanical and electrical engineering. This foundation will enable them to analyze, design, and implement engineering solutions to biomedical challenges. Emphasis is placed on problem-solving, critical thinking, and understanding the integration of engineering concepts within biological systems, equipping students with the insights needed for interdisciplinary work in biomedical engineering.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Three laboratory rotations (6 credits) are required by the curriculum.

Subject

BME

Credits (min)

2

Credits (max)

2

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Approval of the Program Director

This course covers the design of modern biomedical instruments including select diagnostic, assistive, therapeutic, prosthetic, imaging, and virtual devices and systems. Techniques for mechanical, electrical, and chemical sensor and transducer design; stimulation and measurement; data acquisition; digital signal processing; and data visualization will be examined.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course on mathematical modeling in human physiology emphasizes the development of mathematical models, their implementation, and the interpretation of simulation data. The course focuses on cellular physiology, including membrane channels, excitability, and calcium dynamics; it also covers intercellular communication and spatially distributed systems.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course cover fundamental principles and properties of biomedical materials used as implants, prostheses, orthosis, and tissue-engineered materials as medical devices in contact with tissues and organs. Advanced concepts of biocompatibility and material characterization will be discussed. Physiological response factors associated with materials and implanted devices used in the human body will be presented, including immunological responses, wound healing, clotting cascade and surface compatibility. Other topics such as ethical considerations and medical device regulatory mechanisms will be discussed.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course is designed to guide predoctoral students through the process of developing and writing competitive fellowship grant applications. Students will work one-on-one with a mutually agreeable faculty mentor to identify funding opportunities, refine research proposals, and draft key components of their applications. Emphasis will be placed on understanding the expectations of funding agencies, writing clear and compelling narratives, and addressing reviewer criteria. By the end of the course, students may have a polished grant proposal.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course provides an understanding of the finite element method (FEM) as derived from an integral formulation perspective. It demonstrates the solutions of (1-D and 2-D) continuum mechanics problems such as solid mechanics, fluid mechanics and heat transfer. It also provides insight into the theoretical formulation and numerical implementation of finite element methods.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course explores the engineering principles and techniques applied to regenerative medicine. Topics include advanced engineering methods for scaffold development, material characterization techniques, and the evaluation of tissue-engineered constructs through in vitro and in vivo analysis. Students will gain a comprehensive understanding of how engineering tools are utilized to address challenges in regenerating tissues and organs, bridging the gap between biology and engineering in regenerative medicine. MATH 205 or MATH 211

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Either BIOL 240 or BIOL 250 and one of MATH 200 or

Well-designed graphical media capitalizes on human facilities for processing visual information and thereby improves comprehension, memory, inference, and decision making. This course teaches techniques and algorithms for creating effective visualizations based on principles and techniques from graphic design, visual art, perceptual psychology and cognitive science. Both users and developers of visualization tools and systems will benefit from this course.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

The course will introduce students to the responsible conduct of science and scientific research.

Subject

BME

Credits (min)

2

Credits (max)

2

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Engineering (3 Credit Hours) This course covers the theoretical foundation and application of commonly used techniques in biomedical engineering. Topics include linear algebra, partial differential equations, regression analysis, applied probabilities, multivariate distributions, Bayesian statistics, hypothesis tests, multiple comparisons, ANOVA, solution of non-linear equations, numerical methods and optimization. Programming software will be used to perform simulations and analyze biomedical data.

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Graduate status

Bioelectrics is a new field encompassing both the science and technology of applying electrical stimuli to biological systems. This course covers the pulsed power technology that is required to generate electrical stimuli as well as the biological responses they evoke in cells and tissues. Particular emphasis is placed on the medical applications of bioelectrics, including tumor ablation, gene electrotransfer, wound healing, decontamination with cold plasma, and treatment of cardiac arrhythmias.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 454 or ECE 554 or BIOE 454 or BIOE 554

This course will give an overview of the structure and dynamics of biomembranes, the ion channels that are embedded in them, and the electrical properties of biomembranes. Topics include molecular dynamics modeling of biomembranes, membrane damage and repair, ion channel dynamics and their experimental assessment using patch clamping, and excitability in neurons and cardiomyocytes.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 454 or ECE 554 or BIOL 523

and Control

Subject

BME

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Course explores hands-on exposure to state-of-the-art algorithms in medical image analysis, which builds on open-source software (Insight Segmentation and Registration Toolkit - ITK), as well as the principles of medical image acquisition in the modalities of clinical interest. Medical imaging modalities - X-rays, CT, and MRI/ITK image pipeline; image enhancement, feature detection; segmentation - basic techniques, feature-based classification and clustering, graph cuts, active contour and surface models; surface and volume meshing; registration - transformations, similarity criteria; shape and appearance models are all explored and discussed in this course.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

Knowledge of C++ and object-oriented programming

Under the guidance of members of the graduate faculty and with the approval of the program track coordinator, the student will carry out in-depth studies of selected topics relevant to the area of specialization. Extensive surveys and analyses of the literature. Written reviews, comprehensive and synoptic, and oral presentations are required of each student.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Provides students with the skills to write competitive grant proposals to both private and federal funding sources (emphasis on NIH and NSF). Students will learn how to find the most appropriate funding mechanisms and how to position themselves to be competitive. Different grant writing formats will be illustrated through proposal development projects.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Principles and techniques of two-dimensional processing of images. Concepts of scale and spatial frequency. Image filtering in spatial and transform domains. Applications include image enhancement and restoration, image compressing, biomedical imaging for diagnosis of disease, and image segmentation for computer vision.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

ECE 783 and ECE 883

Treatment of the next generation of manufacturing technology. Topics include additive manufacturing; rapid prototypying; electronic manufacturing; micro and nanofabrication; process simulation; product life cycle management; and sustainable design and manufacturing.

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

MAE 682 or permission of Program Director

The purpose of this course is to achieve a broad overview of biomechanics, focused on the musculoskeletal system. Students will explore multiscale mechanics, including whole-body movement and mechanical properties of the structures in the musculoskeletal system. Additionally, students will survey the experimental methods and computational modeling techniques used in biomechanics research. Old Dominion University Graduate Catalog 2025-2026 442

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

MATH 212 or equivalent

A broad introduction to the field of cellular biomechanics. Topics include overview of cell architecture, cytoskeleton, adhesion and molecular motors, biomolecular/biopolymer dynamics and mechanics, techniques to measure cell mechanical properties, techniques to mechanically stimulate cells, models of cell mechanical behavior, mechanobiology and mechanotransduction. Will include discussion of classic and current research articles. Course content will aim to cater to students with diverse backgrounds – students with biological science background will be exposed to physical science concepts and analysis; students with engineering/physical science background will be exposed to biological phenomena and concepts. Pre- or corequisite: MATH 212

Subject

BME

Credits (min)

3

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course allows students to develop specialized expertise by independent study (supervised by a faculty member).

Subject

BME

Credits (min)

1

Credits (max)

3

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

Prerequisite

departmental approval

Total Credit Hours 48 The technical elective courses provide a basis for dissertation research and future career objectives. These courses can be selected from the biomedical engineering technical electives (6 credits) or a wide variety of appropriate graduate courses (6 credits) in engineering, biology, chemistry, psychology, computer science, modeling and simulation, mathematics, statistics, or other programs. At least 15 credits of non-dissertation course work must be at the 800-level. A minimum of 3 credits must be selected from the biomedical engineering technical electives list; the remaining credits can be selected from 239 Engineering with a Concentration in Cybersecurity (DEng) this list or other graduate courses with approval of the student's advisor and the graduate program director. Doctor of Philosophy Degree Requirements The Ph.D. in biomedical engineering is offered in accordance with the general requirements for doctoral degrees as specified in the Requirements for Graduate Degree Section of this catalog. Specific program of study requirements include the following: 1. Completion of a minimum of 48 hours of graduate credits to include: a minimum of 24 credits of course work beyond the master’s degree and a minimum of 24 credits of dissertation research. At least 15 credits of non-dissertation course work must be at the 800-level. The Graduate Program Director in concurrence with the Chair can approve exceptions to these requirements under special circumstances. 2. For students without a master's degree, a total of 78 credit hours of graduate level coursework is required, consisting of 48 credit hours of graduate courses (the 24 course credits listed above for master's holders, plus 24 elective credits), as well as 30 research credit hours (BME 899). Three fifths of the required 48 course credit hours must be at the 800 level and need to comply with regular PhD program degree requirements. 3. Successful completion of a written diagnostic examination before the end of the first academic year. 4. Successful completion of a written and oral qualifying examination near the completion of the coursework. 5. Successful presentation of a dissertation research proposal at the beginning of the dissertation research. 6. The successful completion and public defense of a dissertation representing independent, original research worthy of publication in a peer-reviewed scholarly journal. At least one published and one submitted manuscript as first author in peer-reviewed, indexed journals are expected.

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu

This course is a pass/fail course doctoral students may take to maintain active status after successfully passing the candidacy examination. All doctoral students are required to be registered for at least one graduate credi hour every semester until their graduation. BMS - Biomedical Sciences

Subject

BME

Credits (min)

1

Credits (max)

1

Type

course

Edition

2025-2026-graduate

Source

catalog.odu.edu