Biomedical Engineering (BSBE)

4 Years On Campus Bachelors Program

Louisiana Tech University

Program Overview

Louisiana Tech University’s Bachelor of Science in Biomedical Engineering (BSBE) combines engineering, science and medicine to prepare students to develop innovative healthcare technologies and solve complex biomedical problems. The program is ideal for students interested in areas such as medical devices, rehabilitation, neural engineering, tissue engineering, biomaterials, drug delivery and biomedical research, while also preparing them for professional employment or advanced study.

Curriculum Structure

Year 1: Students establish a strong foundation in mathematics, natural sciences, engineering and introductory biomedical engineering concepts. They begin developing the analytical and problem-solving skills needed to understand how engineering principles can be applied to biological and medical challenges.

Year 2: Students progress into core biomedical engineering concepts and begin connecting engineering analysis with biological systems. Courses such as BME Principles I (BIEN 202) and BME Principles II (BIEN 203) introduce biomedical engineering principles, modeling and computer-based approaches to biomedical problems.

Year 3: Students move into more specialized biomedical engineering applications involving physiological systems, materials and instrumentation. Courses such as Biomedical Systems (BIEN 225), Biomaterials (BIEN 230) and Bioinstrumentation (BIEN 325) develop knowledge of biological systems, biomedical materials, sensors, transducers and biomedical measurement technologies.

Year 4: Students apply their technical knowledge to advanced biomedical engineering problems through specialized coursework, laboratory experiences and design or research activities. Courses such as Biomedical Mass Transport (BIEN 401), Biomechanics (BIEN 430) and Senior Biomedical Engineering Laboratory (BIEN 435) help students integrate engineering principles with real biomedical applications and prepare for professional practice or further study.

Focus Areas

Nanoscience, neural engineering and neuroscience, BioMEMS and nanobiotechnology, cellular modeling, biosignal and bioimage acquisition and processing, biosensors, drug delivery, biomaterials, tissue engineering, rehabilitation engineering, biomedical devices and healthcare technologies.

Learning Outcomes

Graduates are expected to identify, formulate and solve complex engineering problems; design solutions that consider public health, safety and welfare; communicate effectively; work successfully in multidisciplinary teams; conduct experiments and interpret data; recognize ethical and professional responsibilities; and acquire new knowledge throughout their careers.

Professional Alignment (Accreditation)

The Biomedical Engineering BSBE program is accredited by the Engineering Accreditation Commission of ABET under the General Criteria and the Program Criteria for Bioengineering and Biomedical and Similarly Named Engineering Programs.

Reputation (Employability)

Louisiana Tech’s Biomedical Engineering program identifies career opportunities including Biomedical Engineer, Medical Device Designer, Rehabilitation Engineer, Neural Engineer, Tissue Engineering Specialist, Biomaterials Engineer, Drug Delivery Researcher, Nanotechnology Researcher, Biomedical Systems Analyst, Clinical Engineering Specialist, Research Scientist and Healthcare Technology Manager.

Experiential Learning (Research, Projects, Internships etc.)

Louisiana Tech gives Biomedical Engineering students direct exposure to biomedical research, laboratory work, engineering design and prototype development. Students can work within the university’s biomedical research ecosystem, including the Center for Biomedical Engineering Research and Rehabilitation Science (CBERS), the Biomedical Engineering Center and the Institute for Micromanufacturing, where research spans neural engineering, BioMEMS, biosensors, drug delivery, tissue engineering and biomedical imaging. The program also connects students with faculty-led research and hands-on senior design projects, while the Biomedical Engineering Society provides professional activities and field-trip opportunities.

Students can build practical experience through these program-specific opportunities:

  • Biomedical Engineering research: CBERS supports research in biosignal and bioimage acquisition and processing, computer modeling and neural networks, biosensors, drug delivery, cell culture, tissue engineering, cancer detection, stem cells and gene technology.

  • Neural Technologies Laboratory: Undergraduate students have participated in research involving flexible neural devices, implantable microelectrode arrays and neurochemical sensing, with opportunities to present research at biomedical engineering conferences.

  • Biomedical Engineering Center: The center contains teaching laboratories and faculty research laboratories equipped for biomedical research and education.

  • Institute for Micromanufacturing: The Biomedical Engineering Center is connected to the Institute for Micromanufacturing, supporting work involving micro/nanofabrication and biomedical technologies.

  • Senior Design: Final-year engineering students work individually or in teams on complex real-world problems, often collaborating with faculty mentors, industry partners or community stakeholders and producing, testing and evaluating functional prototypes or research-driven solutions.

  • Biomedical Engineering Society: The Louisiana Tech BMES chapter supports professional development through speakers, activities and field trips connected with biomedical engineering.

  • Clinical and biomedical exposure: The program's official course history includes clinical engineering study and biomedical engineering laboratory work, giving students experience connecting engineering principles with healthcare applications.

  • Professional software and digital research tools: Biomedical research at Louisiana Tech includes computer-based biomedical imaging, signal processing, modeling and neural-network work; official research documentation also identifies PC/Mac imaging workstations and MATLAB-based analysis in biomedical research.

Progression & Future Opportunities

Graduates of Louisiana Tech’s Biomedical Engineering program can move into engineering, medical-device, biotechnology, pharmaceutical, healthcare technology and research careers, or continue into graduate and professional education. The university specifically identifies opportunities ranging from biomedical engineering and medical-device design to rehabilitation engineering, neural engineering, tissue engineering, biomaterials, drug delivery, nanotechnology, clinical engineering and healthcare technology management.

Typical career roles include Biomedical Engineer, Medical Device Designer, Rehabilitation Engineer, Neural Engineer.

These opportunities are supported by several university and program resources:

  • Career Center: Louisiana Tech’s Career Center provides career coaching, resume support, interview preparation, employer engagement, career fairs and assistance with internships and employment.

  • Handshake: Students can use Louisiana Tech’s Handshake system to find jobs and internships, connect with employers and participate in recruiting opportunities.

  • Employment outcomes: The College of Engineering & Science reports nearly 90% placement in relevant industrial positions or graduate schools within nine months of graduation across the college. This is a college-wide statistic rather than a BME-only placement rate.

  • Salary information: A current BME-specific starting salary figure is not published on the official Louisiana Tech program pages reviewed, so no university salary statistic is presented as a BME-specific outcome.

  • Industry connections: The College of Engineering & Science operates an Industry Partner Program that connects companies with students and faculty through recruiting, industry talks, engineering expeditions, interviews, job opportunities and professional-development activities.

  • Biomedical industry and research links: CBERS maintains ties with biotechnology and the medical industry and pursues partnerships with academic institutions, medical centers and industry at regional, national and international levels.

  • Professional preparation: The Biomedical Engineering Advisory Board includes alumni and professionals from industry, academia and medical school and contributes to curriculum development, laboratory equipment, program enhancement, student placement, mock interviews and senior-design feedback.

  • Accreditation value: ABET accreditation provides a recognized engineering-quality framework and supports preparation for professional engineering practice and continued study.

  • Graduation outcomes: The program's educational objectives specifically expect graduates to become professionally employed or continue study in engineering, science, business, medicine or other professional programs and to contribute effectively to multidisciplinary teams.

Further Academic Progression: After completing the BSBE, students can continue into advanced study in biomedical engineering. Louisiana Tech itself offers a PhD in Biomedical Engineering, designed around advanced biomedical engineering specialization, statistics and electives, with opportunities to pursue medical-device development, diagnostic technologies and healthcare research; the BSBE also supports progression into medical and other professional schools.

Program Key Stats

$10125
$23418
$23418
$50
Rolling


63%

Eligibility Criteria

BCC - BBC
2.8 - 4
20 - 24
60 - 65

1150 - 1350
31 - 32
6.5
90
Optional
Yes

Additional Information & Requirements

How US Universities Assess Applicants

Career Options

  • Biomedical Engineer
  • Medical Device Designer
  • Rehabilitation Engineer
  • Neural Engineer
  • Tissue Engineering Specialist
  • Biomaterials Engineer
  • Drug Delivery Researcher
  • Nanotechnology Researcher
  • Biomedical Systems Analyst

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