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M.Eng. in Biomedical Engineering

The Meinig School’s Master of Engineering (M.Eng.) program in Biomedical Engineering equips students with a comprehensive, industry-focused education, blending engineering and science expertise with leadership development. Graduates gain hands-on experience in designing biomedical devices, developing innovative therapies, and navigating the complexities of healthcare economics, regulations, and ethical considerations—preparing them to drive impactful advancements in medicine and technology.

Important information

Format

In-Person

Page Contents

Note: This page provides a general overview. For complete and accurate information, please consult the M.Eng. Student Services Coordinator. For current course offerings and information, refer to the Cornell University Registrar: Courses of Study.

Degree Requirements

The Cornell Master of Engineering in Biomedical Engineering curriculum is structured around three integrated pillars that support individualized academic pathways while maintaining a coherent professional foundation.

Graduate-Level Professional Development (PD) (9 credits):

This pillar prepares students for professional engineering practice in healthcare-related sectors. Coursework emphasizes communication, leadership, ethics, regulatory awareness, clinical exposure, and business fundamentals.

Students complete 9 credits, including BME 5010 – Biomedical Engineering Professional Development Seminar (2 required credits) and 7 credits of approved electives. Electives may include Clinical Preceptorship, Regulatory Affairs, Engineering Management, Business, or other graduate-level offerings aligned with the student’s background and career objectives, subject to advisor approval.

Graduate-Level STEM (ST) (12 credits):

This pillar provides technical depth and analytical rigor. Students complete 12 credits of graduate-level STEM coursework selected in consultation with an academic advisor.

Courses may be drawn from biomedical engineering or other Cornell graduate programs, provided they meet graduate-level standards and align with the students’ intended technical trajectory.

Experiential Learning (ExL – Design/Research)(9 credits):

Experiential learning anchors the curriculum in real-world application. Students engage in sponsored design projects drawn from clinical, industrial, and translational contexts, emphasizing systems thinking, stakeholder engagement, and execution within realistic constraints.

The required sequence includes BME 5500 – Innovative Design of Medical Technologies (3 credits), BME 5911 – Design Project Phase I (2 credits), and BME 5921 – Design Project Phase II (4 credits). A small subset of students elects an individual research-based project (BME 5910 / BME 5920 – 6 credits), typically conducted under the supervision of a faculty principal investigator.

  • All courses must be 5000 level or higher
  • Only 2 S/U credits are allowed
  • Students are allowed to take up to 8 credits in Experiential Learning by adding 2 credits of BME 5930 under the STEM pilar
  • Students are allowed to take elective courses that are not included in this list.
  • Electives selection and segment (pillar) classification should be done and approved by advisor.

Required Courses

  • BME 5010

    BME M.Eng. Professional Engagement Seminar required both Fall and Spring semesters – 1 credit per semester for a total of 2 credits

  • BME 5500

    BME 5500 Innovation and Design of Biomedical Technologies (3 credits)

  • BME 5911 or BME 5910

    BME MEng Design Project Phase I & BME 5921Master of Engineering Design Project – Phase II (6 credits)

    or

    Master of Engineering Research Project – Phase I & BME 5920: Master of Engineering Research Project – Phase II (6 credits)

Professional Development Electives

Select up to 7 credits from this list. Additional courses may be approved to fulfill this requirement through consultation with academic advisor.

  • BME 5100

    Clinical Preceptorship for Biomedical Engineers

  • BME 5510

    Medical Device Regulatory Affairs for Biomedical Engineers

    (note: This course may be selected for either the Graduate level Professional Development pillar (PD) OR the Graduate-Level STEM pillar (ST) but not both.)

  • CEE 5900

    Project Management

  • CHEME 5660

    Financial Data, Markets, and Mayhem for Scientists and Engineers

  • ENGRG 5350

    Career Search and Exploration for Engineers

  • ENGRG 5351

    Professional Development for Engineers

  • ENMGT 5900

    Project Management

  • ENMGT 5920

    Product Management

  • ENMGT 5960

    Negotiations and Contracts for Engineering Managers

  • ENMGT 6020

    Managing a Culture of Innovation

  • NBA 5070

    Entrepreneurship for Scientists and Engineers

  • NBA 5150

    Leadership Theory and Practice

  • NBA 5380

    The Business Idea Factory

  • NBA 5410

    Project Management

  • NBA 5690

    Management Consulting Essentials

  • NBA 6820 Negotiation I

    Negotiation Essentials

  • SYSEN 5300

    Systems Engineering and Six Sigma for the Design and Operation of Reliable Systems

    (note: This course may be selected for either the Graduate level Professional Development pillar (PD) OR the Graduate-Level STEM pillar (ST) but not both.)

Graduate-Level STEM Electives

Select up to 12 credits from this list. Additional courses may be approved to fulfill this requirement through consultation with academic advisor.

  • BME 5110/6110

    Stem Cell Bioengineering

  • BME 5320

    Principles of Neurophysiology

  • BME 5390

    Circuits, Signals and Sensors: Instrumentation Laboratory

  • BME 5410

    Biofluid Mechanics

  • BME 5510

    Medical Device Regulatory Affairs for Biomedical Engineers

    (note: This course may be selected for either the Graduate level Professional Development pillar (PD) OR the Graduate-Level STEM pillar (ST) but not both.)

  • BME 5750

    Biomaterials and Drug Delivery in the Immune System

  • BME 5760

    Engineering the Human Body: From Artificial Joints to Living Organs

  • BME 5780

    Computer Analysis of Biomed Images

  • BME 5830

    Cell-Biomaterials Interactions

  • BME 5850

    Current Practice in Tissue Engineering

  • BME 5930

    Independent Design Project

  • BME 5950

    Special Topics in Biomedical Engineering

  • BME 6120

    Precision and Genomic Medicine

  • BME 6130

    Advanced Microbiome Engineering

  • BME 6210

    Engineering Principles for Drug Delivery

  • BME 6230

    Cancer and Immuno-Engineering

  • BME 6320

    Modern Biomedical Microscopy

  • BME 6330

    Optical Tools for Studying Living Systems

  • BME 6350

    Introduction to Neurotechnology

  • BME 6501

    Natural Engineering: Developmental Biology Paradigms for Regenerative Medicine

  • BME 6650

    Principles of Tissue Engineering

  • BME 6680

    Cancer for Engineers and Physicists

  • CHEME 5430

    Bioprocess Engineering

  • ECE 5470

    Computer Vision

  • ENMGT 5101

    Introduction to Python for Engineering

    (note: This course may be selected for either the Graduate level Professional Development pillar (PD) OR the Graduate-Level STEM pillar (ST) but not both.)

  • MAE 6630

    Immuno-engineering

  • SYSEN 5300

    Systems Engineering and Six Sigma for the Design and Operation of Reliable Systems

    (note: This course may be selected for either the Graduate level Professional Development pillar (PD) OR the Graduate-Level STEM pillar (ST) but not both.)

Preceptorship

The M.Eng. preceptorship offers select Biomedical Engineering M.Eng. students firsthand exposure to clinical environments at Guthrie Hospital in Sayre, PA. This intensive experience includes clinician engagements, pre-hospital orientation, and weekly interactions throughout fall and spring semesters. It aims to familiarize students with healthcare practices and foster a short-term mentor-student relationship for tailored learning in clinical settings.

Students in BME 5100 utilize this approach to observe clinical routines, identify potential needs, and propose solutions through engineering principles. The instructor guides students on hospital protocols, professional conduct, and patient interactions, while managing student-preceptor teams. Faculty oversee student progress, assisting with assignments and reviewing experiences.

Preceptors provide deep insights into anatomy, physiology, and pathology specific to their specialty, allowing students to participate, observe, and complete weekly assignments. The institution values student-generated ideas and feedback, culminating in final reports and on-site poster presentations. Promising ideas may progress to sponsored design projects, reflecting the program’s integration of engineering expertise with healthcare challenges.