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Informatics and medical libraries: changing needs and changing roles.

Medical librarians play a crucial role in the evolution of institutional information policy. As information professionals, they share many similarities with their medical informatics counterparts. Both groups emphasize information delivery to the point of decision making; both groups serve as curators of institutional knowledge bases. If the term "publication" encompasses the delivery of clinical information relevant to individuals or populations, both librarians and medical informaticians have an immediate interest in the nature of biomedical publishing, particularly in areas of intellectual ownership, confidentiality, distribution, and access. Both groups also have been early leaders in applying information technology to solve pressing knowledge-management problems, and both groups have a strong commitment to educating colleagues in the effective use of information. Although the challenges faced by librarians and medical informaticians are sometimes different, the evolution of information technology and new forms of biomedical communication suggest that there is now a greater convergence between the two disciplines.

Artificial Intelligence↗

[Proposal for the teaching and application of informatics at medical schools].

Informatics is the discipline that process efficiently all the necessary data to obtain information. The data acquisition, processing and interpretation is realized through traditional as well as automated means. Medical Informatics is the union of all methods of informatics in medicine including the preparation of medical data required for the application of these methods. Due to the need to keep up with the increasing amount of data that modern medicine is receiving and efficiently process it to obtain meaningful information, we propose the creation of a department of Medical Informatics in our Medical School to: 1) Teach the basic principles of medical informatics to undergraduate and graduate students, including lectures in: Information technics, medical terminology, medical linguistics, international classification of diseases, Hospital informations Systems, practical application of computing in medicine as Oncocyn, Mycin, etc., as well as external data bases. 2) Help the health sciences personnel to obtain and transfer medical information through the National and International Electronic Networks of Medical Information.

Education, Medical↗

IPHIE: an International Partnership in Health Informatics Education.

Medical informatics contributes significantly to high quality and efficient health care and medical research. The need for well educated professionals in the field of medical informatics therefore is now worldwide recognized. Students of medicine, computer science/informatics are educated in the field of medical informatics and dedicated curricula on medical informatics have emerged. To advance and further develop the beneficial role of medical informatics in the medical field, an international orientation of health and medical informatics students seems an indispensable part of their training. An international orientation and education of medical informatics students may help to accelerate the dissemination of acquired knowledge and skills in the field and the promotion of medical informatics research results on a more global level. Some years ago, the departments of medical informatics of the university of Heidelberg/university of applied sciences Heilbronn and the university of Amsterdam decided to co-operate in the field of medical informatics. Now, this co-operation has grown out to an International Partnership of Health Informatics Education (IPHIE) of 5 universities, i.e. the university of Heidelberg, the university of Heilbronn, the university of Minnesota, the university of Utah and the university of Amsterdam. This paper presents the rationale behind this international partnership, the state of the art of the co-operation and our future plans for expanding this international co-operation.

Curriculum↗

Informatics in medical practice: billing systems survey by the Hawaii Medical Association.

The Information Age has arrived! Our offices are quickly integrating information machines for the business part of our profession, just as the stethoscope and scalpel are requisites for the practice of medicine and surgery. The mission of the HMA Computer Committee is to provide guidance in the direction of medical informatics for its members. We hope to assist the membership in the selection, evaluation and use of the products relating to the processing of information in the modern practice of medicine.

Accounting↗

[Electronic data records in primary health care and aspects of their development in Bosnia and Herzegovina].

In Medical Informatics medical documentation and evidention are most probably the key areas. Also, in primary health care it is very important and part of daily activity of medical staff. Bosnia and Herzegovina is trying to be close to developed countries and to modernize and computerize current systems of documentation and to cross over from manual and semi manual methods to computerized medical data analysis. The most of European countries have developed standards and classification systems in primary health care for collecting, examination, analysis and interpretation of medical data assessed. One of possibilities as well as dilemma, which data carrier should be used for storage and manipulation of patient data in primary health care, is use of electronic medical record. Most of the South East European countries use chip or smart card and some of countries in neighborhood (Italy) choose laser card as patient data carrier. Both technologies have the advantages and disadvantages what was comprehensively colaborated by the authors in this paper, with intention to help experts who make decisions in this segment to create and to correctly influence on improvement of quality, correctness and accuracy of medical documentation in primary health care.

Bosnia and Herzegovina↗

A review of medical imaging informatics.

This review of medical imaging informatics is a survey of current developments in an exciting field. The focus is on informatics issues rather than traditional data processing and information systems, such as picture archiving and communications systems (PACS) and image processing and analysis systems. In this review, we address imaging informatics issues within the requirements of an informatics system defined by the American Medical Informatics Association. With these requirements as a framework, we review, in four sections: (1) Methods to present imaging and associated data without causing an overload, including image study summarization, content-based medical image retrieval, and natural language processing of text data. (2) Data modeling techniques to represent clinical data with focus on an image data model, including general-purpose time-based multimedia data models, health-care-specific data models, knowledge models, and problem-centric data models. (3) Methods to integrate medical data information from heterogeneous clinical data sources. Advances in centralized databases and mediated architectures are reviewed along with a discussion on our efforts at data integration based on peer-to-peer networking and shared file systems. (4) Visualization schemas to present imaging and clinical data: the large volume of medical data presents a daunting challenge for an efficient visualization paradigm. In this section we review current multimedia visualization methods including temporal modeling, problem-specific data organization, including our problem-centric, context and user-specific visualization interface.

Databases, Factual↗

The role of biometry in the training of medical informaticians.

Medical informatics and medical biometry, as well as the medical biometrician's and medical informatician's fields of activity, overlap significantly. The affinity between the two disciplines can be illustrated by a comparison of the definitions of both disciplines, by examples of research projects for which the application of methods from both fields is necessary in order to complete the project successfully, and by an analysis of the professional fields of medical informatics graduates working in their occupation. Therefore, a stronger integration of both disciplines is advocated.

Biometry↗

Multi media and broadband communication services: a new paradigm for medical imaging.

This paper is attempting given a summery of the major building blocks and driving forces in the developments of medical informatics and medical imaging in special. The role of multi-media and broadband communication will be described. The paper should give an indication where the author sees medical imaging in the world of informatics, focusing from R&D to product developments, with emphases on standards and prototyping. The author will also define the molecule and atoms of medical informatics and medical imaging. The architecture of the CEN TC 251/4 draft standard will be described in relation to the general objectives of CEN TC 251.

Computer Communication Networks↗

Requirements for medical modeling languages.

OBJECTIVE: The development of tailor-made domain-specific modeling languages is sometimes desirable in medical informatics. Naturally, the development of such languages should be guided. The purpose of this article is to introduce a set of requirements for such languages and show their application in analyzing and comparing existing modeling languages. DESIGN: The requirements arise from the practical experience of the authors and others in the development of modeling languages in both general informatics and medical informatics. The requirements initially emerged from the analysis of information modeling techniques. The requirements are designed to be orthogonal, i.e., one requirement can be violated without violation of the others. RESULTS: The proposed requirements for any modeling language are that it be "formal" with regard to syntax and semantics, "conceptual," "expressive," "comprehensible," "suitable," and "executable." The requirements are illustrated using both the medical logic modules of the Arden Syntax as a running example and selected examples from other modeling languages. CONCLUSION: Activity diagrams of the Unified Modeling Language, task structures for work flows, and Petri nets are discussed with regard to the list of requirements, and various tradeoffs are thus made explicit. It is concluded that this set of requirements has the potential to play a vital role in both the evaluation of existing domain-specific languages and the development of new ones.

Medical Informatics↗

Consumer health informatics: the medical librarian's role.

Growing consumer interest in health-related information has created a need for professionals to manage, provide, and interpret such material. In preparing for the new demands of the market, HIM professionals can learn from the example of medical librarians, who are already working to meet those needs.

Computer Communication Networks↗

Introducing information technologies into medical education: activities of the AAMC.

Previous articles in this column have discussed how new information technologies are revolutionizing medical education. In this article, two staff members from the Association of American Medical College's Division of Medical Education discuss how the Association (the AAMC) is working both to support the introduction of new technologies into medical education and to facilitate dialogue on information technology and curriculum issues among AAMC constituents and staff. The authors describe six AAMC initiatives related to computing in medical education: the Medical School Objectives Project, the National Curriculum Database Project, the Information Technology and Medical Education Project, a professional development program for chief information officers, the AAMC ACCESS Data Collection and Dissemination System, and the internal Staff Interest Group on Medical Informatics and Medical Education.

Curriculum↗

The Informatics Institute: why do we need it?

Why should physician executives care about medical informatics? For that matter, what is medical informatics anyway? Broadly defined, medical informatics is the study of the collection, storage, retrieval, and analysis of data and information in health care to support clinical and administrative decision making. Informatics is important because, in the past 10 years, powerful computer, software, and information technologies have been developed to enable health care organizations to automate some of the work of decision making, for improved quality of care and cost control, and for successful managed care contracting. This new emphasis on informatics in health care was the impetus for the founding by ACPE earlier this year of The Informatics Institute, which will be involved in educational and research activities in the growing area of medical informatics. In this new column in Physician Executive, Dr. Marshall Ruffin, President and CEO of the Institute, will discuss the role of medical informatics in health care delivery and financing and its relation to physician executives.

Academies and Institutes↗

Biomedical and health informatics education at UMIT-approaches and strategies at a newly founded university.

Based on the recommendations of the International Medical Informatics Association (IMIA, ) on education in health and medical informatics and on experiences in founding a new school, the University for Health Informatics and Technology Tyrol (UMIT, ), at Innsbruck, Austria, questions on education in health informatics, medical informatics, and biomedical informatics are discussed. Suggestions are made on (1). appropriate approaches for specialized educational programs in biomedical and health informatics at the university level, on (2). resources and infrastructures needed for running such programs at a high-quality level, and on (3). strategies to be considered for the future development of such educational programs. UMIT strives for an international top position in education and research. It entirely concentrates on areas in research and education in biomedicine and the health sciences. UMIT started in the academic year 2001/2002 with two educational programs. They lead to a B.Sc. degree (3 years) and a M.Sc. degree (1.5-2 years) in medical informatics. In parallel Ph.D. students work in research projects.

Austria↗

Informatics in the care of patients: ten notable challenges.

What is medical informatics, and why should practicing physicians care about it? Medical informatics is the study of the concepts and conceptual relationships within biomedical information and how they can be harnessed for practical applications. In the past decade, the field has exploded as health professionals recognize the importance of strategic information management and the inadequacies of traditional tools for information storage, retrieval, and analysis. At the same time that medical informatics has established a presence within many academic and industrial research facilities, its goals and methods have become less clear to practicing physicians. In this article, I outline 10 challenges in medical informatics that provide a framework for understanding developments in the field. These challenges have been divided into those relating to infrastructure, specific performance, and evaluation. The primary goals of medical informatics, as for any other branch of biomedical research, are to improve the overall health of patients by combining basic scientific and engineering insights with the useful application of these insights to important problems.

California↗

Health informatics world wide--a WWW service for the health informatics community.

Health Informatics World Wide, a Web index of research and educational institutions in the fields of Health Informatics and Medical Informatics has been available to WWW users since 1995. In this paper we report on the original conception of this service, its subsequent modifications and address its maintenance and related problems. Access statistics are presented which demonstrate its relevance as well as the geographical focus of Health Informatics research and development.

Abstracting and Indexing↗