UB M.S. in BiomedicalEngineering

UB M.S. in BiomedicalEngineering This is UB's official Biomedical Engineering Page degree in
Biomedical Engineering.

The Biomedical Engineering program takes an integrated and interdisciplinary approach to advance the knowledge of its graduates toward developing an understanding of fundamental issues at the interface of engineering, biology, and medicine. Students will learn about the evolutionary process, focusing on how living things function and how several branches of engineering and science are interconnect

ed in these processes. Biomedical Engineering has the potential to improve human health through cross-disciplinary research and application that integrate the engineering sciences with the biomedical sciences and clinical practice. This program builds knowledge, skills, and critical thinking necessary to further new discoveries in tissue regeneration, biomaterials, biologically inspired materials, tissue engineering, physiological measurements, bioelectronics, biomechanics, bioMEMS, wireless communications in cells, biosensing, biorobotics, biosignaling, ergonomics and associated interfaces. Mechanical Engineering
University of Bridgeport
The School of Engineering
126 Park Avenue
Bridgeport, CT 06604
203-576-4165
[email protected]
Admissions Contact:
Office of Graduate Admissions
University of Bridgeport
126 Park Avenue
Bridgeport, CT 06604
203.576.4552
1.800.EXCEL.UB
[email protected]
Dual Degrees
The department offers the opportunity to acquire
dual graduate degrees along with the M.S. Candidates for these dual
Master’s Degree programs are typically required to
complete a total of 48-52 credit hours to satisfy the
requirements of two Master’s Degrees. This implies 15-19 credit hours in addition to
the 34 hours required for the M.S. Program Core
Students in the Biomedical Engineering
graduate program must earn 34 credits. While 28 credits are earned by taking classes,
six credits are earned by completing a team-based,
publishable graduate-level research project. The core curriculum accounts for 16 credits.
• BMEG 565: Biomedical Materials
and Engineering
• BMEG 580: Tissue Engineering
• BMEG/ELEG 412: Bioelectronics
• BMEG 620-A: Master’s Thesis or Project
• ENGR 400: Engineering Colloquium
Concentrations
Students will be able to choose from a broad range
of concentrations beyond the curriculum. Biomaterials and Biomechanics
• BMEG 508: Biomechanics
• BMEG 565: Biomedical Materials
and Engineering
• BMEG/ELEG 547: BioMEMS
• BMEG/ELEG 562: Nanofabrication
with Softmaterials
Bioelectronics
• BMEG/ELEG-412: Bioelectronics
• BMEG/ELEG-443: Digital Signal Processing
• BMEG/ELEG 453: Pattern Recognition
• BMEG/ELEG 513: Biomedical Image
Processing
Cellular and Molecular Bioengineering
• BMEG 580: Tissue Engineering
• BMEG/ELEG 511: Applied Cardioengineering
Bioninformatics
• BMEG/ELEG 413: Bioinformatics
• BMEG/TCMG 466: Management of
Biomedical Data

UB Faculty Research Day 2016In the Graduate Student Poster Winners, the SOE Graduate Student won 3 awards:2nd Place: Kam...
05/05/2016

UB Faculty Research Day 2016
In the Graduate Student Poster Winners, the SOE Graduate Student won 3 awards:

2nd Place: Kamila Aikebaier
Poster Title: Directed Self-assembly of Magnetite through Electrospinning with Potential Applications in Nanopatterning

Honorable Mention: Rupesh Srinivasalu
Poster Title: Gold Nanoparticles and SiRNA Complex for Targeted Drug Delivery

Honorable Mention: Sheila Berna
Poster Title: Influence of Graphene on PCL Scaffolds for Tissue Engineering Applications

Lab Equipments
03/24/2016

Lab Equipments

03/24/2016

Objectives

Consistent with the university’s vision, and with the missions of the School of Engineering and the Biomedical Engineering Program, the educational objectives for the Master of Science in Biomedical Engineering program were established as follows:

1.Graduates of the BME program will have a sound integrated knowledge of science and engineering fundamentals with respect to the biomedical issues.
2.Graduates will be proficient in the use of modern techniques, tools, procedures, and information sources which are useful in the definition and solution of problems in biomedical engineering.
3.Graduates will have the ability to apply their scientific knowledge and engineering tools and techniques to design useful and economically feasible novel materials, devices, systems and processes which address problems relevant to the fields of biomedical engineering.
4.Graduates will have the breadth and depth of knowledge, and a commitment to continued learning, necessary to understand the economic, social, ethical, and aesthetic aspects of their profession and their work, and to effectively communicate the results of their work.

03/24/2016

Mission Statement

Our unique Biomedical Engineering Program thrives in serving the university, the community, and the biomedical engineering and biotechnology professions through creative education, interdisciplinary research and need based design pertaining to biomedical engineering. The program offers innovative educational strategy that integrates biological sciences and engineering, and applies engineering tools, methods and practices to solve problems in biology and medicine. Graduates of our programs are highly-skilled biomedical engineers, and scientists who understand the ethical, social and economic implications of their work.

03/01/2016

Welcome to the Biomedical Engineering at the University of Bridgeport (Bridgeport, Connecticut). Our BME program offers a curriculum leading to a Master of Science degree in Biomedical Engineering. The curriculum includes engineering fundamentals and advanced courses in engineering and the life sciences. All students must participate in a publishable research project during their final year.

The Biomedical Engineering program is ideal for those students wishing to enter industry upon completion. However, the curriculum has flexibility and lends itself well for those students wishing to work in health professions (i.e. Physical Therapy, medical instrumentation, Medical Doctorate, etc.) and/or graduate schools.

03/11/2015

ME/ BME 560 Advanced Tissue Engineering
Graduate level course that deals with specific elements of tissue engineering design and analysis.
Approaches to the regeneration of three tissue systems will be analyzed utilizing engineering design.
Concepts ranging from tissue development and dynamic growth conditions to ultimate tissue properties
will be addressed. Students will be required to acquire understanding and expertise from analysis of
primary literature and will complete group presentations on directed approaches to tissue design and
engineering in three tissue systems. To ensure in-depth understanding of different aspects of tissue
engineering the groups will be required to focus on one or two key aspects in each mini design module;
for example, use of stems cells, mechanical influence of the materials or dynamic growth conditions may
be chosen as a focal point of the design process.
ME/BME 569 Advanced Biomedical Materials and Engineering
This course will cover the advanced level understanding on the different types of biomaterials using in
medical purposes and their design. Examples include implants, stents, catheters, smart polymer gels,
bone grafts, tissue scaffold and so on. Modern biology in biomedical engineering such as but not limited
to protein absorption, immuno isolation, regenerative medicine etc will be covered. Ethical issues in
biomedical engineering will be discussed. Current cutting edge research on nanobiotechnology that
extends to biosensors, 3D biomatrix, advanced diagnostics, dental composites, sealants, adhesives will be
covered. Device fabrication aspect of biomedical engineering especially that are at the interface of
nanotechnology and biomaterials will be thoroughly discussed
BME 571 Ethical Issues in Biomedical Research
This course will be offered as one hour discussion with the group of students in instructor’s office keeping
in mind the ethical issues dealing with Biomedical Engineering. Health concern on handling
nanobiomaterials, laws and bylaws associated with human subjects. Food and Drug administration’s
requirement and hence creating ethical awareness associated with Biomedical Engineering study will be
covered.
ME/BME 511 Designs and Development of Biomedical Instrument
This course offers the information to understand and design biomedical instruments. Biomedical
Instruments contains imaging & monitoring the environment, simulation & modeling, instrument testing,
bio-sensors & diagnostics, instrument design & development, therapeutic devices, next generation
instrument technology, clinical & regulatory, and etc. The in-depth descriptions of design methods for
biomedical instrument will be included in this course.
ME/BME 508 Biomechanics
Biomechanics is the application of mechanical principles to living organisms that includes bioengineering,
research and analysis of mechanism in living organisms, and application of engineering principles to and
from biological systems. This course can be carried forth on from the molecular level including collagen
and elastin, all the way up to the tissue and organ level. Some simple applications of Newtonian
mechanics can supply approximations on each level, but precise details demand the use of continuum
mechanics.
3 | P a g e
ME/BME 506 Transport Phenomena in Biological Systems
This course provides understanding of the physical, chemical and biological processes governing the
movement of mass and transmission of forces throughout an organism, which are important to
biomedical engineers in the design and operation of biomedical devices. Engineering fundamentals of
transport phenomena (fluid flow, heat transfer, and mass transfer) will be discussed in biological
applications. Mathematical modeling will be used to analyze the biological transport and biochemical
interactions in physiological systems, such as cardiovascular and respiratory systems. Numerical modeling
will also be introduced to simulate some biological processes to enhance mathematical understanding
EE/BME 546 – Bio-Signal Processing
This is an introductory course in Bio-Signal Processing (DSP) for graduate Electrical and Computer
Engineering students. Sometime will be spent initially reviewing major concepts in signals and systems.
Major topics to be covered in ELEG 546 include: Concepts of signal and image processing, wavelets,
classification and clustering, and applications of these concepts to EEG, ECG, EMG, MRI and CT Scans.
BME 507 Algorithms in Bioinformatics
This course is tailored for students both in biomedical engineering dept. and computer science and
engineering dept desiring to understand the issues concerning representing and analyzing genomes,
sequence of proteins etc. The course is about applying the techniques (computational methods and
systems) developed in computer science to solve problems in molecular biology such as DNA or protein
sequences alignment problem, genome rearrangement problem, protein folding problems and so on. The
problems in molecular biology may be solved by trivial algorithm - “given a string of letters, return a copy”
for DNA replication or may be complex if intelligence has to be introduced into the algorithm to match the
complicated behavior such as “material foraging before DNA replication” displayed by even a single celled
organism. Hidden Markov Models (HMM), Bayesian Model, clustering, decision trees are some of the
examples of machine learning methods that will be covered in the course.
BME-451: Introduction to BioMEMS
This course will introduce to students the fundamentals of BioMEMS, the application of MEMS
(Microelectromechanical Systems) for biological applications. The topics include microfabrication,
microfluidics, bio-sensors, actuators, micro/nano drug delivery systems, micro total analysis systems and
lab-on-a-chip devices, and detection and measurement systems. The main focus is to understand the
fundamental challenges and limitations involved in designing and fabricating various BioMEMS and
BioNEMS devices.
BME/ME 440 Ergonomic Factors in Design
This course introduces the student to the concepts of ergonomics. Ergonomics is the study of fitting the
workplace and devices to the capabilities of the human worker. Students will have an understanding of
the beginnings and evolution of the field of ergonomics. They will learn to recognize risk factors
associated with repetitive stress disorders (e.g., carpal tunnel syndrome) and potential sprain/strain
injuries as well as be familiar with the body areas affected. This course covers principles of physiology
and biomechanics and how they apply to workstation and tool design.
4 | P a g e
TCMG/BME 541: Foundations of Biotechnology and Bioentrepreneurship
This course defines biotechnology as the application of molecular biology for useful purposes. The
biotechnology industry is shaped by scientific, legal, regulatory, social, economic, technological, political,
financial and commercial factors. Understanding the dynamics and linked contributions of the
interdisciplinary array of factors affecting the commercialization of biotechnology is essential to operate
in the biotechnology industry. In this course we are dissecting the biotechnology industry to isolate the
key drivers and study their interactions. Discoveries in science and fast developments in technology
combined with financial availabilities offer many entrepreneurial opportunities. Bioentrepreneurship is a
dynamic and social process, where researchers, physicians, computer scientists, business scholars and
practitioners, financers, attorneys, and other contributors individually or in interdisciplinary collaboration,
identify or create opportunities and make something out of them to realize ideas of practical value. The
ability to manipulate the genetic codes of organisms has set off an industrial convergence: farmers,
physicians, drug makers, chemical processors, computer and communications companies, energy
companies and many other commercial enterprises will converge into the largest global integrated and
interdependent industry. Knowledge, its elucidation, creation, transformation, dissemination and
utilization is the unlimited key resource that drives and permanently sustains the

03/11/2015

DEGREE REQUIREMENTS
To receive the MS in BME every student must earn 33 credits. Six credits are earned by completing a team
based publishable graduate level research project. That means minimum 27 credits are earned by taking
classes. Students will be advised for their classes from the broad range of course available as shown
below.
The first six classes you should concentrate on taking BME 412 Intro to Biomedical Engineering and
Biotechnology, BME 520 Physiology, BME 530 Instrumentation and Laboratory Experience, BME 540
Advanced Cellular and Molecular Biology, BME 560 Advanced Tissue Engineering BME 571 Advanced
Biomedical Materials and Engineering
COURSE DESCRIPTIONS
BME/EE 412 Introduction to Biomedical Engineering
This course will be offered by the EE department in the fall 2009. This course is designed to introduce
engineers to life science applications of traditional engineering and to introduce life scientists to
engineering theory. BME 412 is a course providing a broad overview of the field.
BME/BIO 520 Physiology
The Physiological and Biochemical principles that control the function of the human body will be
covered. Laboratory work will introduce the student to basic physiologic experimentation, interpretation
and presentation of results.
BME 530 Instrumentation and Laboratory Experience
This course can be taken in any semester. The student who wishes to take the course should fill out the
sheet included with this packet. On that sheet the student will identify laboratory techniques he/she is
interested in learning, and the lab or labs on campus where he/she can get that experience. Working with
the program director, engineering or life science, the students will get permission to enter the relevant
lab and formulate an experimental plan with the faculty supervisor of that lab. At the end of the lab
experience the student will present their lab notebook for inspection to the lab supervisors and the
program director. Grades will be issued by the program director in consultation with the lab supervisors.
BME/BIO 540 Advanced Cell and Molecular Biology
The general biological principles that govern all living organisms will be discussed. The structure and
function of cells with emphasis on gene activity at the molecular level, DNA replication and repair,
transcription, translation, recombination, translocation and mutations. Techniques and experiments
leading to important discoveries on DNA will be covered.

03/11/2015

The Biomedical Engineering program takes an integrated and interdisciplinary approach to advance the knowledge of its graduates toward developing an understanding of fundamental issues at the interface of engineering, biology, and medicine.

Students will learn about the evolutionary process, focusing on how living things function and how several branches of engineering and science are interconnected in these processes. Biomedical Engineering has the potential to improve human health through cross-disciplinary research and application that integrate the engineering sciences with the biomedical sciences and clinical practice.

Address

Bridgeport, CT
06604

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