Fast Facts

Our program was among the first to partner with the American Medical Informatics Association (AMIA) to provide their 10x10 certification.

MSBI Program graduates were among the first group of physicians in the nation to become board certified in clinical informatics.

MSBI Program students have completed internship and practicum experiences at many sites including Cleveland Clinic Florida, Palmetto General Hospital, National Institutes of Health, and Mayo Clinic.

The Biomedical Informatics Program is growing with faculty positions currently available.

Our students have won the South Florida Chapter Health Information Management Systems Society (HIMSS) Scholarship three times.

As a part of the Biomedical Informatics Program’s Academic Organizational Affiliate status with the Health Information Management Systems Society (HIMSS), all full time students are entitled to a free HIMSS membership!

The Biomedical Informatics Program was ranked No. 6 out of 25 on’s 2015 list of Best Value Online Master’s in Health Informatics and Health Information Management.


"NSU's M.S.B.I. program gave me the tools and knowledge to navigate the health informatics industry with confidence. It prepared me to provide meaningful contributions to seasoned professionals and organizations. Two years after graduation my relationship with the program is still going strong."

Teresa Blanco, M.S.B.I., (’12), Charge Services Support Analyst at Cerner Corporation

"Tons of work to get reach this simple goal: 'The right information, to the right person, at the right time.' The healthcare industry is not there yet, but with programs such as NSU’s Biomedical Informatics program, it will be soon."

April M. Green, M.S.B.I., ('13), Clinical Integration Specialist at Holy Cross Hospital

"This program allowed me to gain the experience that I needed in order to follow the career path that I wanted to take."

Anthony Meglino, N.C.P., M.S.B.I.,(’14), NextGen EHR Template Developer Consultant at Dell

"The program helped me turn an adversary into an opportunity. Tenacity and a strong drive led to my success in M.S.B.I. program and in my world."

Stephen Amoah, M.S.B.I. (’14), Ph.D. Student

"The faculty and staff of the NSU MS in Biomedical Informatics program are amazing! I was nervous to enroll in this program because I had little knowledge of the healthcare industry. With preparation from the pre-requisite courses, I was able to obtain an entry level position in healthcare. Approaching the end of the program, I was able to obtain a promising healthcare IT position, where I could effectively contribute my knowledge and skills at a large healthcare organization."

Kenneth Simpson, Current Student, Application System Analyst II at University of Maryland Medical System

"Certainly, I had such an amazing experience[with my practicum],where I could put what I've learned into practice and also I've explored other learning possibilities and gained some new skills. "

Eswald Fertil, Current Student

Evolution of Medical Informatics

Much of the technological development leading to computers as we know them today has occurred in just over the last 50 years. The resulting advances in information storage, retrieval, and processing would seem a natural fit for healthcare, but as Shortliffe and Blois (2006, p.4) point out, "[m]any observers cite the health care system as being slow to understand information technology, to exploit it for its unique practical and strategic functionalities, and to incorporate it effectively into the work environment." Substantial increases in the amount of clinical data, now unmanageable by traditional paper-based methods, have created an inefficient, repetitive, and costly healthcare system. The growing realization that knowledge retrieval and clinical decision making are critical to both the function and advance of modern medicine, along with health information technology (HIT)'s ability to exponentially improve these processes, has led to major technological advances and drastic changes in national health policy. These developments have fueled the evolution of the field of biomedical informatics.

Biomedical informatics is an interdisciplinary field encompassing computer and information sciences, cognitive and decision making sciences, medicine and epidemiology, telecommunications, business management, education sciences, and a collaboration of a number of other fields. In short, biomedical informatics is the intersection of healthcare, technology, and people, with the implicit goals of improving the quality and safety of the world's healthcare systems while reducing cost.

As terminology continues to evolve along with the field itself, the more broadly encompassing term "biomedical informatics" can generally be broken down into three more distinct levels; bioinformatics, medical informatics, and public health informatics.

Breakdown of Biomedical Informatics term diagram

At the molecular level, incorporating things such as gene sequencing research and pharmaceutical development, bioinformatics looks to change the way biological data is stored, retrieved, organized, and analyzed, ultimately producing new tools/methods for generating valuable biological knowledge.

Medical informatics, at an individual patient level, can further be divied into a number of more specific areas including nursing informatics, imaging informatics, pharmacy informatics, dental informatics, and consumer health informatics.

Medical informatics aims to manage an individual's health data, their storage, retrieval, sharing, and optimal use, with the goals of providing safer, more efficient, and more affordable healthcare. Integration of advanced clinical information systems into the health care decision making process allows health care professional to accomplish tasks in a more competent and effective manner. Furthermore, it also affords development of novel tasks producing new knowledge and allowing providers to begin thinking like epidemiologists in addition to providing patient care.

At a population level, public health informatics aims to apply information technology advances to traditional public health research and practice. Detection, management, and prevention of disease across populations, through the collection and analysis of vital statistics and health data, have the potential to be significantly influenced and advanced through the auspices of evolving information technology.

Breakdown of Medical Informatics diagram

In the U.S., the 2004 creation of the Office of the National Coordinator for Health Information Technology (ONC), described as "the principal federal entity charged with coordination of nationwide efforts to implement and use the most advanced health information technology and the electronic exchange of health information," began to provide a nationwide focus for medical informatics (The Office of the National Coordinator for Health Information Technology, n.d.a). That focus was further refined in 2009 when the goals of the ONC were legislatively mandated through the Health Information Technology for Economic and Clinical Health (HITECH) Act. "The provisions of the HITECH Act are specifically designed to work together to provide the necessary assistance and technical support to [healthcare] providers, enable coordination and alignment within and among states, establish connectivity to the public health community in case of emergencies, and assure the workforce is properly trained and equipped to be meaningful users of certified Electronic Health Records (EHRs)" (The Office of the National Coordinator for Health Information Technology, n.d.d). More specifically, HITECH provides funding for:

In addition to funding these programs, HITECH provides the Department of Health & Human Services (HHS) "with the authority to establish programs to improve health care quality, safety, and efficiency through the promotion of health IT, including electronic health records and private and secure electronic health information exchange" (The Office of the National Coordinator for Health Information Technology, n.d.e). This authority has led to the establishment of a system of Medicare and Medicaid financial incentives to providers for adoption of EHR technology and its "meaningful use." Specific objectives defining what constitutes meaningful use have been developed along with certification criteria for EHR systems that identify them as having the capability to meet these objectives. Meaningful use objectives are to be met in three stages outlined as:

Chart: Three stages where objectives are to be met.

As the timeline for stage 1 comes to a close and we near the start of stage 2, the focus of meaningful use moves from basic implementation and refinement of systems able to capture and store electronic health data, towards more sophisticated and effective exchange and use of this data to create advanced knowledge, improve medical practice, and redefine the role of healthcare systems worldwide. This forward progress along with the inevitable advances made through ongoing research in biomedical informatics ensure that the evolution of this field will continue to provide infinite possibilities to the future of HIT.


Shortliffe, E. H., & Cimino, J. J. (2006). Biomedical informatics: Computer applications in health care and biomedicine. New York, NY: Springer Science + Business Media, LLC.

The Office of the National Coordinator for Health Information Technology (n.d.a). About ONC. Retrieved from

The Office of the National Coordinator for Health Information Technology (n.d.b). Exemplar HIE governance entities program. Retrieved from

The Office of the National Coordinator for Health Information Technology (n.d.c). Federal advisory committees (FACAS). Retrieved from

The Office of the National Coordinator for Health Information Technology (n.d.d). HITECH act. Retrieved from

The Office of the National Coordinator for Health Information Technology (n.d.e). Meaningful use. Retrieved from

The Office of the National Coordinator for Health Information Technology (n.d.f). State Health Information Exchange. Retrieved from