M.S. in Engineering Quality
Lawrence Technological University offers an innovative Master of Science (M.S.) in Engi...
M.S. in Biomedical Engineering
Southfield, Michigan
INTAKE: Jan, May & Aug
Program Overview
The Master of Science (M.S.) in Biomedical Engineering program at Lawrence Technological University stands at the forefront of interdisciplinary education, offering students a comprehensive curriculum that blends engineering principles with biomedical applications. STEM-designated, this program focuses on preparing students for impactful careers at the intersection of engineering and healthcare. The curriculum covers a range of cutting-edge topics, including medical device design, biomechanics, tissue engineering, and healthcare systems. Students engage in hands-on projects, collaborative research, and industry partnerships, fostering a deep understanding of the intricate relationship between technology and healthcare. With a commitment to addressing real-world healthcare challenges, this program equips graduates with the skills and knowledge to innovate within the biomedical field, contributing to advancements in medical technologies, patient care, and overall healthcare outcomes.
Curriculum:
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STEM Designation: The M.S. in Biomedical Engineering program holds STEM (Science, Technology, Engineering, and Mathematics) designation, emphasizing its commitment to providing students with a rigorous education grounded in technical expertise and quantitative skills essential for the biomedical engineering domain.
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Interdisciplinary Curriculum: The program's curriculum is carefully crafted to integrate engineering principles with biomedical applications, providing students with a holistic understanding of the field. Courses cover diverse areas such as medical imaging, biomaterials, physiological systems, and regulatory affairs.
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Cutting-Edge Specializations: Students have the opportunity to specialize in cutting-edge areas within biomedical engineering, such as medical device design, biomechanics, tissue engineering, or healthcare systems engineering. Specializations allow for tailored education based on individual interests and industry demands.
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Hands-On Learning and Research: Emphasizing hands-on learning, students engage in practical projects and collaborative research initiatives. This experiential approach not only reinforces theoretical knowledge but also hones problem-solving skills in the context of real-world biomedical challenges.
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Industry Collaboration: The program fosters collaboration with industry partners, ensuring that students gain exposure to current industry practices and challenges. Guest lectures, industry-sponsored projects, and internships provide valuable insights into the practical applications of biomedical engineering.
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State-of-the-Art Facilities: LTU provides state-of-the-art facilities, including well-equipped laboratories and research centers. These facilities support students in conducting experiments, prototyping medical devices, and engaging in advanced research within the biomedical field.
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Faculty Expertise: Students benefit from the expertise of faculty members who are active researchers and practitioners in biomedical engineering. Faculty mentorship, research opportunities, and industry connections contribute to a rich learning experience.
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Regulatory Affairs Emphasis: Recognizing the importance of regulatory compliance in the biomedical industry, the program may offer an emphasis on regulatory affairs. Students gain insights into the legal and ethical considerations surrounding medical device development and healthcare technologies.
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Global Health Perspective: The curriculum may incorporate a global health perspective, preparing graduates to address healthcare challenges on a global scale. This could include considerations for designing technologies that are applicable in diverse healthcare environments.
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Career Development Focus: The program places emphasis on career development, offering workshops, networking events, and connections with industry professionals. This focus enhances students' readiness for careers in biomedical engineering and related fields.
Location
Southfield, Michigan
Score
IELTS: 6.5
Tuition Fee
USD 21500
Postgraduate Entry Requirements:
Application Fee: US $50.
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Academic Qualification: Postgraduate applicants are expected to have a bachelor's degree or its equivalent with a minimum Grade Point Average (GPA) of 2.75 on a 4.0 scale. This ensures that candidates have a solid academic foundation for advanced studies.
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English Proficiency Test Requirements:
- IELTS (International English Language Testing System): Minimum score of 6.5.
- TOEFL iBT (Test of English as a Foreign Language Internet-Based Test): Minimum score of 79.
- DET (Duolingo English Test): Minimum score of 105.
Lawrence Technological University is committed to providing financial assistance and opportunities for academic excellence through its comprehensive scholarship programs. These scholarships aim to attract and support talented and deserving students across various disciplines.
1. Merit-Based Scholarships: LTU offers a range of merit-based scholarships recognizing outstanding academic achievement, leadership, and extracurricular involvement. These scholarships are typically awarded to high-achieving students who demonstrate exceptional potential in their chosen fields of study.
2. Engineering and Technology Scholarships: Given LTU's strong emphasis on engineering and technology, there are specialized scholarships tailored for students pursuing degrees in these disciplines. These scholarships aim to support and encourage students aspiring to make significant contributions to the fields of engineering and technology.
3. Design and Architecture Scholarships: Recognizing the importance of design and architecture, LTU provides scholarships specifically for students pursuing degrees in these creative disciplines. These scholarships may be awarded based on portfolio reviews, design competitions, and academic achievements.
4. Business and Management Scholarships: LTU offers scholarships for students pursuing business and management degrees. These scholarships often consider academic performance, leadership skills, and a demonstrated commitment to excellence in the business and management fields.
5. Need-Based Financial Aid: In addition to merit-based scholarships, LTU is committed to supporting students with financial need. The university provides need-based financial aid packages, including grants, work-study opportunities, and low-interest loans to help make education more accessible.
6. Community Engagement Scholarships: LTU values community involvement and social responsibility. Scholarships recognizing community service, leadership in civic activities, and a commitment to making a positive impact in society are available for students who actively contribute to their communities.
7. Diversity and Inclusion Scholarships: LTU promotes diversity and inclusion on campus. Scholarships are available to students from underrepresented backgrounds, encouraging a diverse and vibrant student body. These scholarships aim to create an inclusive learning environment that celebrates diversity.
8. Athletic Scholarships: LTU supports student-athletes through athletic scholarships. These scholarships are awarded to students who excel in sports and demonstrate a commitment to both their academic and athletic pursuits.
9. Research and Innovation Scholarships: LTU encourages research and innovation. Scholarships may be available for students engaged in groundbreaking research projects, contributing to the university's reputation as a hub for academic exploration and discovery.
10. International Student Scholarships: LTU recognizes the value of international perspectives in the academic community. Scholarships for international students are available to promote cultural diversity and provide financial assistance to those pursuing education at LTU.
Graduates of the Master of Science (M.S.) in Biomedical Engineering program at Lawrence Technological University are equipped with a diverse skill set that positions them for impactful careers at the intersection of engineering and healthcare. The program's focus on cutting-edge technologies, hands-on experience, and industry collaboration prepares professionals for a wide array of rewarding career prospects in the rapidly evolving field of biomedical engineering.The M.S. in Biomedical Engineering program at Lawrence Technological University positions graduates for diverse and impactful careers in the biomedical field. With a focus on practical skills, innovation, and a deep understanding of engineering principles in healthcare, professionals from this program are well-prepared to contribute to the advancement of medical technologies and improve healthcare outcomes worldwide.
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Biomedical Device Engineer: Graduates can pursue roles as biomedical device engineers, contributing to the design, development, and improvement of medical devices. They work on innovations ranging from diagnostic equipment to implantable devices, ensuring compliance with regulatory standards.
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Biomechanics Specialist: Professionals specializing in biomechanics play a vital role in analyzing and optimizing the mechanical aspects of the human body. They may work on developing prosthetics, orthopedic implants, or sports equipment designed to enhance human performance.
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Tissue Engineer: Graduates may choose careers in tissue engineering, focusing on the development of artificial tissues and organs. They contribute to advancements in regenerative medicine, working on solutions for tissue repair and replacement.
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Clinical Engineer: Clinical engineers work within healthcare institutions, ensuring the safe and effective use of medical technology. They manage and maintain medical equipment, provide training to healthcare staff, and contribute to the integration of technology in patient care.
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Healthcare Systems Engineer: Professionals specializing in healthcare systems engineering work on optimizing healthcare delivery. They may be involved in improving hospital operations, enhancing patient care workflows, and implementing information systems for healthcare facilities.
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Regulatory Affairs Specialist: Given the complex regulatory landscape in the biomedical industry, graduates may pursue roles in regulatory affairs. They ensure that biomedical products comply with regulatory standards and navigate the process of gaining regulatory approvals.
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Research and Development Scientist: Graduates can engage in research and development within the biomedical sector. They work on advancing scientific knowledge, exploring new technologies, and contributing to the discovery of innovative solutions for healthcare challenges.
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Medical Imaging Engineer: Professionals in this role focus on developing and maintaining medical imaging systems. They contribute to advancements in technologies such as MRI, CT scans, and ultrasound, ensuring the accuracy and efficiency of diagnostic imaging.
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Rehabilitation Engineer: Graduates may work in rehabilitation engineering, developing assistive technologies for individuals with disabilities. They create solutions to enhance accessibility and improve the quality of life for individuals facing physical challenges.
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Biomedical Data Analyst: Given the increasing importance of data in healthcare, professionals may work as biomedical data analysts. They analyze large datasets, extract meaningful insights, and contribute to data-driven decision-making in healthcare settings.
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Entrepreneur in Biomedical Innovation: Armed with a combination of engineering and business skills, graduates may choose entrepreneurial paths. They can establish startups focused on developing innovative biomedical solutions, from medical devices to healthcare technologies.
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Global Health Consultant: Professionals may engage in global health consulting, addressing healthcare challenges on a global scale. This could involve working with international organizations, NGOs, or contributing to projects that improve healthcare access in underserved communities.
