Breakthroughs in genetics research are changing how we discover, diagnose, and treat disease. Individualized genomics is an emerging field filled with career opportunities in health care, education, biotech, and industry.
Everyone’s DNA is unique, and advancements in medicine are paying more attention to individual genetic make-up that makes us us.
Individualized health care and genomics offer incredible potential for preventative health, making possible more accurate diagnosis and tailored treatment plans for each patient. Understanding a patient’s risks could also help prevent disease, lead to earlier detection, or even slow progression.
Expanding interest in individualized genomics is fueling growth in the healthcare and biotechnology fields. According to the National Institutes of Health report, “The era of personalized medicine has arrived, and with it a need for leaders in this discipline. This generation of trainees requires a cadre of new skill sets to lead the implementation of personalized medicine into mainstream healthcare.”1
The MS in Individualized Genomics and Health program at Johns Hopkins is designed to do just that.
Careers in individualized health care and genomics can take you to many places: innovative biotech start-ups, leading research centers, educational institutions, big data firms, pharmaceutical companies, medical device manufacturers, and healthcare organizations.
This field requires a breadth of talents and specializations, which means you can align your course of study with your interests, past experiences, and future career goals. The master’s degree in individualized genomics and health offers three areas of concentration:
The MS in Individualized Genomics and Health program can serve as a foundation for medical school, nursing school, or advanced studies in the life sciences or public health.
Earning this degree can also benefit your existing career in research, clinical practice, or other related professions.
Designed for both full-time students and working professionals, this master’s degree program offers you the flexibility to take classes online or on-campus in the evenings and on weekends.
Your typical course of study in this field will cover advanced, specialized skills in molecular genetics, gene expression, genomic analysis, and the relationship between genetic variation and human health. Your coursework will also explore how researchers investigate genetic contributions to disease, identify biological mechanisms, and evaluate emerging approaches to diagnosis and treatment.
You’ll also examine the ethical and practical implications of genomic technologies. Genomic information raises questions about privacy, interpretation, access, and the appropriate use of results in healthcare. Depending on your electives, you can focus more closely on genomics, laboratory diagnostics, or regulatory topics. This flexibility helps you connect scientific knowledge with the professional context in which you intend to apply it.
Below are a few examples of individualized genomics and health master’s courses that you can take as part of our program. These courses will help you gain the skills you need to advance in your career and improve your abilities. As part of the program, you will be expected to take required core classes as well as choose from relevant electives to complete your degree.
Biotechnology offers diverse career opportunities ranging from agriculture to healthcare to national security. A master’s in biotechnology can advance your career, allow you to explore new fields, and make a positive impact on the world.
The program covered so many different aspects of genomics. The professors incorporated really current research into their classes, including new FDA approvals and emerging therapies. It made everything feel timely and directly connected to what was happening in the field.
Our expert faculty members are active researchers and practitioners; they make discoveries, publish their findings, and improve lives.
Discover the role that human DNA plays in disease and treatment. Discuss ethical and legal considerations of personalized medicine. Match electives with your interests, whether they may be in lab work or the regulatory aspect of individualized health.
Become part of an international community of biotechnology, research, and medical professionals who work in labs, universities, and companies around the world.
Prepare yourself for a new career on the cutting edge of scientific discovery. A degree focused on genomics and health from JHU opens you up to opportunities in an emerging field with plenty of room for growth.
1 “Training the Future Leaders in Personalized Medicine” Accessed online on December 2, 2021.
Johns Hopkins University’s MS in Individualized Genomics and Health program is a 10-course, 30-credit STEM-certified professional master’s degree program – often completed within 12-24 months, though students have up to seven years for degree completion. Courses are offered online, in-person at the JHU Homewood Campus in Baltimore, Maryland, or through a combination of both modalities.
The admissions criteria for the MS in Intelligence Analysis program includes a bachelor’s degree from a regionally accredited U.S. college or university, or an equivalent international credential, with a minimum grade point average of 3.0 on a 4.0 scale. Additionally, this program requires certain prerequisite courses. The application can be completed online and requires supporting materials, including resume, transcripts, and more.
Tuition and fees for the MS in Individualized Genomics and Health program currently range from $57,400 – $58,400 USD. The cost per course is $5,740. Students may be eligible to access federal loans, employer tuition assistance, military and veterans benefits, or partner-organization benefits to offset the cost of the degree. Learn more about financial aid options.
Students can select from one of three areas of concentration: Genomics, Laboratory Diagnostics, or Regulatory.
Through the MS in Individualized Genomics and Health program, students will explore the molecular and genetic basis for human disease; analyze a human genome to identify possible indicators of health and disease; apply bioinformatics tools to the analysis of human DNA sequences; gain an understanding of the ethical, legal, and regulatory aspects of the field; and learn laboratory methods used for identifying genes responsible for disease.
Career opportunities in this field will depend on previous education, laboratory experience, and chosen area of concentration. Potential roles include:
Some graduates apply their knowledge in research or laboratory settings. Others contribute to diagnostic development, clinical research, or projects involving genomic data. Roles that involve clinical diagnosis, patient care, or licensed laboratory practice have additional credentialing requirements. The degree strengthens scientific preparation but does not itself confer a clinical license.
For reference, the U.S. Bureau of Labor Statistics reports a 2025 median annual wage of $103,410 for medical scientists, who conduct research aimed at improving human health. However, medical scientists typically need a doctoral or professional degree, so this figure reflects a more advanced career stage than many master’s-level roles.
Genomics is relevant to:
Opportunities also exist in public health research and organizations studying the genetic basis of disease.
In drug development, genomic analysis can help researchers investigate disease mechanisms or understand why patients respond differently to a treatment. In diagnostics, molecular methods support the detection and characterization of genetic conditions. In research laboratories, genomics professionals work with scientists to analyze genetic variation and gene expression. Each application requires careful interpretation of evidence and an understanding of the limitations of genomic testing.