Meet the 2007 Fellows of the American College of Medical Informatics
Imagine a hospital emergency department where an electronic "whiteboard" tracks every patient's status in real time, guiding medical teams to those who need immediate attention. Picture a research database that organizes millions of patient records to help scientists uncover new treatments for devastating diseases. Consider the standards that allow your medical information to move safely with you between doctors, hospitals, and pharmacies.
These are not futuristic dreams—they are real-world innovations created by the fellows of the American College of Medical Informatics. In 2007, this distinguished group welcomed fourteen new members whose collective work has fundamentally reshaped how healthcare uses information technology to save lives, reduce errors, and accelerate medical discovery.
Before meeting the class of 2007, it helps to understand the honor society they joined. The American College of Medical Informatics (ACMI) is an elite group of scholars and practitioners elected by their peers for making "significant and sustained contributions to the field of medical informatics." Founded in 1984, ACMI later became the academic core of the American Medical Informatics Association (AMIA). Think of it as the informatics equivalent of a National Academy—a recognition of those who have shaped how we manage and use health information 3 .
Becoming a fellow doesn't just mean adding "FACMI" after your name—it signifies joining a community dedicated to advancing healthcare through information science. The election process is rigorous, with only about 15-20 new fellows and international associates elected annually from countries around the world 3 . By 2007, the college had grown to nearly 300 members, each selected for their sustained impact on the field 3 .
ACMI founded as an honorific society for medical informatics
International Associates program established to recognize global contributions
14 new fellows and 2 international associates elected
Nearly 300 members advancing healthcare through information science
The class of 2007 represented the remarkable breadth of modern informatics, from emergency room tracking systems to cancer diagnosis algorithms. What follows are profiles of some standout fellows whose work demonstrates the field's transformative potential.
Dr. Aliferis brought an unconventional background—medicine from Athens University combined with a PhD in Intelligent Systems from the University of Pittsburgh—to the challenge of teaching computers to diagnose disease.
At Vanderbilt University, he directed the Discovery Systems Laboratory, where he developed sophisticated machine learning methods that could analyze complex biological data to predict cancer with remarkable accuracy.
When Dr. Aronsky moved from clinical practice in Switzerland to medical informatics research at the University of Utah and later Vanderbilt, he noticed a critical problem: emergency departments struggled to track patients and coordinate care efficiently.
His solution? An electronic whiteboard system that gave medical teams real-time visibility into patient status, location, and care needs. This innovation became the central nervous system for emergency departments, enabling measurable improvements in care consistency and quality 1 .
As a neurologist and neurobiologist with computer science training, Dr. Murphy recognized that the vast amounts of data in electronic health records were largely untapped for research. He envisioned a system that could organize this unstructured information into formats usable for scientific discovery.
The result was the Partners Research Patient Data Registry, which he directed at Massachusetts General Hospital. First operational in 2002, this registry had supported over 500 research projects by 2007 1 .
While many informaticians focus on hospital or clinic settings, Dr. Loonsk dedicated his career to building information systems that protect population health.
His work took him from academic computing at SUNY Buffalo to leadership roles at the Centers for Disease Control and Prevention and eventually the Office of the National Coordinator for Health Information Technology. At these institutions, he spearheaded critical initiatives including the Public Health Information Network and Biosense biosurveillance program, which enabled earlier detection of disease outbreaks 1 .
Since 1995, ACMI has recognized that medical informatics advances through global collaboration by electing "International Associates"—distinguished professionals from outside North America whose work has had international impact. The 2007 class included two remarkable global leaders.
Professor Prokosch of Germany's Friedrich-Alexander University of Erlangen-Nuremberg exemplified the international scope of informatics excellence. As Chief Information Officer of Erlangen University Hospital, he bridged the gap between theoretical research and practical system implementation.
His work on patient-specific clinical decision support helped create systems that provide tailored guidance to clinicians at the point of care. He was also one of the original contributors to the Arden Syntax, a standard for encoding medical knowledge that remains influential decades later 1 .
Dr. Ruland, Director of the Rikshospitalet-Radiumhospitalet Medical Center in Oslo, Norway, brought a nursing perspective to the challenge of making healthcare more patient-centered.
Her research focused on eliciting and incorporating patient preferences into clinical decision making, often using hand-held technologies to capture what matters most to patients. Unlike many system designers who assume technology speaks for itself, Ruland methodically evaluated her innovations through prospective randomized clinical trials—the gold standard of medical evidence 1 .
Europe and North America represented
Knowledge exchange across borders
Humanizing healthcare technology
The 2007 ACMI fellows worked with a diverse set of tools and methodologies that represented the state of the art in health informatics. The table below captures the essential "research reagents" these innovators used to build the future of healthcare.
| Tool Category | Representative Examples | Primary Functions |
|---|---|---|
| Data Mining & Machine Learning | Gene expression algorithms, proteomic analysis, quackery detection systems | Pattern recognition in complex datasets, prediction of disease outcomes, quality assessment |
| Clinical Information Systems | Electronic whiteboards, computerized physician order entry, structured reporting | Real-time patient tracking, error reduction, standardized documentation |
| Interoperability Standards | HL7 protocols, Arden Syntax, LOINC document nomenclature, SNOMED-CT | System communication, medical knowledge encoding, terminology standardization |
| Research Platforms | Patient data registries, clinical trial banks, biosurveillance networks | Data aggregation for studies, trial design and results sharing, public health monitoring |
| Decision Support Tools | Medical logic modules, guideline implementation systems, preference assessment | Evidence-based care guidance, personalized treatment recommendations |
"The power of these tools becomes clear when we see them work together in clinical settings. In Dominik Aronsky's emergency department system, the electronic whiteboard provided the visual interface for staff, while natural language processing scanned physician notes to identify patients needing specific care."
Electronic health records, order entry systems, and clinical documentation tools that streamline healthcare delivery.
Advanced algorithms for pattern recognition, predictive modeling, and extracting insights from complex health data.
Standards and protocols enabling different systems to communicate and share health information securely.
The election of these fourteen professionals in 2007 represented more than individual achievement—it marked the maturation of medical informatics as a discipline essential to healthcare's future. Their collective work established foundations we now take for granted: that clinical decision support should be patient-specific, that research data should be computable, that patient preferences belong in care planning, and that information systems must connect across traditional boundaries.
Fifteen years later, their legacy persists in every electronic health record that suggests a medication adjustment, every public health system that detects outbreaks earlier, every research database that accelerates discovery, and every emergency department that coordinates care more effectively.
| System/Innovation | Primary Developer | Measured Outcomes |
|---|---|---|
| Computerized Physician Order Entry | David Bates | 55% reduction in serious medication errors 7 |
| Emergency Department Whiteboard | Dominik Aronsky | Improved care consistency and quality 1 |
| Research Patient Data Registry | Shawn Murphy | Support for 500+ research projects 1 |
| Structured Radiology Reporting | Curtis Langlotz | Development of RadLex lexicon (10,000+ terms) 4 |
"The 2007 ACMI fellows demonstrated that technology alone doesn't transform healthcare—it takes the human insight to design systems that amplify clinical expertise, respect patient values, and connect knowledge across the healthcare ecosystem."
As we stand at the threshold of artificial intelligence, precision medicine, and fully connected health information networks, we build upon the foundations laid by these pioneers. Their work reminds us that behind every transformative technology are thoughtful innovators who understand both the possibilities of computation and the irreplaceable human elements of healing.