PubMed Health⌕ Search

SEARCH · PubMed Health

Results for “Integrated Advanced Information Management Systems”

Explore indexed PubMed citations for clinical trials, systematic reviews and public health research. Read source abstracts and follow each citation to its original PubMed record.

Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.

At least 37 records · Page 2Linked to original sources

Creating an infrastructure for training in the responsible conduct of research: the University of Pittsburgh's experience.

In response to public concerns about the consequences of research misconduct, academic institutions have become increasingly cognizant of the need to implement comprehensive, effective training in the responsible conduct of research (RCR) for faculty, staff, students, and external collaborators. The ability to meet this imperative is challenging as universities confront declining financial resources and increasing complexity of the research enterprise. The authors describe the University of Pittsburgh's design, implementation, and evaluation of a Web-based, institution-wide RCR training program called Research and Practice Fundamentals (RPF). This project, established in 2000, was embedded in the philosophy, organizational structure, and technology developed through the Integrated Advanced Information Management Systems grant from the National Library of Medicine. Utilizing a centralized, comprehensive approach, the RPF system provides an efficient mechanism for deploying content to a large, diverse cohort of learners and supports the needs of research administrators by providing access to information about who has successfully completed the training. During its first 3 years of operation, the RPF served over 17,000 users and issued more than 38,000 training certificates. The 18 modules that are currently available address issues required by regulatory mandates and other content areas important to the research community. RPF users report high levels of satisfaction with content and ease of using the system. Future efforts must explore methods to integrate non-RCR education and training into a centralized, cohesive structure. The University of Pittsburgh's experience with the RPF demonstrates the importance of developing an infrastructure for training that is comprehensive, scalable, reliable, centralized, affordable, and sustainable.

Academic Medical Centers↗

Addressing the health information needs of rural Missouri health care providers: an IAIMS assistant experience.

A one-year internship at the University of Missouri-Columbia offered an opportunity for a health sciences librarian to contribute to Integrated Advanced Information Management Systems (IAIMS) activities and take information management ideas back home. The IAIMS Assistant addressed information access issues. The Assistant helped to develop and administer a "Rural Provider Questionnaire" to assess the information needs of rural Missouri health care providers. The Health Sciences Library developed a Web page to bring together services and information resources in response to the perceived needs of health care providers associated with the Health Sciences Center. The article discusses the librarians' role in IAIMS initiatives.

Community Networks↗

The Vanderbilt University fast track to IAIMS: transition from planning to implementation.

Vanderbilt University Medical Center is implementing an Integrated Advanced Information Management System (IAIMS) using a fast-track approach. The elapsed time between start-up and completion of implementation will be 7.5 years. The Start-Up and Planning phases of the project are complete. The Implementation phase asks one question: How does an organization create an environment that redirects and coordinates a variety of individual activities so that they come together to provide an IAIMS? Four answers to this question are being tested. First, design resources to be "scalable"--i.e., capable of supporting enterprise-wide use. Second, provide information technology planning activities as ongoing core functions that direct local efforts. Third, design core infrastructure resources to be both reusable and expandable at the local level. Fourth, use milestones to measure progress toward selected endpoints to permit early refinement of plans and strategies.

Academic Medical Centers↗

The standard 'Healthcare Information Systems Architecture' and the DHE middleware.

The integration and evolution of existing systems represents one of the most urgent priorities of health care information systems in order to allow the whole organisation to meet the increasing clinical organisational and managerial needs. This paper discusses how an open architecture, based on the introduction of a middleware of common health care-specific services not only reduces the effort necessary for allowing existing systems to interwork, but also automatically establishes a functional and information basis common to the whole organisation, on top of which also new applications can be rapidly developed, natively integrated with the rest of the system. Such architecture has been already formalised through the European standard, defined by the CEN/TC251 prENV 12967-1 'Architecture for Health care Information Systems' (CEN prENV 12967-1 'Health care Information Systems Architecture'). Thanks to the availability of industrial products conforming to the standard, the effectiveness and the validity of this approach has been already demonstrated in practice. For example, through the Hansa collaboration hospitals and industries from countries of the Western and Eastern Europe, as well as of the Middle East use the same industrial middleware (i.e. 'The DHE middleware-Information view'-SPRI, 1998, 'The DHE middleware-Functional view'-SPRI, 1998) for integrating existing systems as well as for developing new applications.

Computer Communication Networks↗

Defining clinical 'workstation'.

Interest in the physician's workstation has increased, yet often seems to focus on technological issues. At Boston's Beth Israel Hospital, the Center for Clinical Computing includes heavily used clinical workstations. Their evolution over the past 20 years suggests design criteria: the workstation must be patient-centered, the interface must be uniform, and data acquisition must be addressed at a system level. However, it is clinical function that really defines a workstation. The workstation should do the following: display patient information rapidly and flexibly; assist with administrative tasks; facilitate communication; and provide four important types of decision support: access to literature, access to databases, clinical calculation, and 'synthetic vision,' or different views of patient data. The solutions to our healthcare problems are not in 'workboxes' we can buy, but in creative approaches we can imagine. We need a patient-centered infrastructure and a reduced workload for the clinician-perhaps a 'worklesstation'.

Computer Communication Networks↗

CPMCnet: an integrated information and internet resource.

The Network and Computer Systems department of the Health Sciences Library developed CPMCnet, an UNIX-based information and Internet server at Columbia-Presbyterian Medical Center. The project linked Gopher and World-Wide Web protocols as well as clients into an integrated application, providing the advantages of both. Development and use of CPMCnet has opened new channels of communication among information providers and end-users.

Academic Medical Centers↗

The role of standards in creating a health information infrastructure.

In the belief that the existence of a variety of standards is an absolute necessity for health care professional workstations to work, this paper provides a detailed overview of the standards efforts of a number of groups. According to the International Standards Organization (ISO) Reference Model, workstations require a full level of standards from the physical level through and beyond the applications level. Rapidly changing technology challenges acceptance of standards at the lower levels. Current recommendations include fiberoptic media using certain protocols. Other standards in these lower levels also have support. At the applications level, data messaging standards are being developed by six groups. The consensus standards body for the United States is coordinating the efforts of these groups in order to produce a harmonized effort, and is coordinating the effort with Europe for an international effort. Work on the development of the full set of standards necessary for workstation implementations is lagging. Accelerating the process is mandatory if we are to achieve the necessary seamless interoperability required by workstations for ubiquitous intelligent communications between the workstations and the sources of data.

Database Management Systems↗

Functional requirements as an integral part of the design and development process: summary and recommendations.

The Health Care Professional Workstation (HCPW) provides a portal to the health care system as a whole. Through this portal the health care professional must be able to carry out a wide variety of tasks in an integrated fashion. Traditional health care information systems have not been designed to support this kind of use, so the functional requirements development process must be capable of leading to an architecture and components for a system that will support such use. A variety of approaches may be employed to develop functional requirements, which may be used singly or in combination. Recommendations for this activity center on domain delineation, evaluation efforts to establish the most effective approaches, detailed functional requirement development, evaluation of the developed functional requirements, creation of shared resources, and education and training in the use of the tools and methodologies.

Database Management Systems↗

Sharing and communicating health care information: summary and recommendations.

Sharing and communicating information is a fundamental task in modern medicine. The health care system of the western world is based on teamwork of professionals who participate in the care of patients. Exchange of information (not just data) requires the communicating parties to agree on a communication channel, an exchange protocol, and a common language. The language includes an alphabet, words, phrases, and symbols that express and assign meaning, understood by all. The most common forms of communication are the spoken word and the paper-based patient record. Computers and communication systems improve the sharing of health care information by overcoming the limitations imposed by the dimensions of time and location. However, natural language is still too complex and too ambiguous for current computing devices to handle the complex interactions between health care professional and patients. A simpler 'language' is needed that uses domain specific vocabularies (and/or codes), well-defined exchange protocols for data, information, knowledge, and, in the future, perhaps even wisdom. This simpler 'language' is expected to handle most of the routine information exchange but not eliminate natural language. It is essential that health care information systems preserve and incorporate natural language expressions and integrate them with structured vocabularies. Today, agreeing on standard data exchange protocols and domain specific vocabularies and codes is our greatest challenge. However, standards alone are not sufficient. Acceptance of the standards by the health care professionals, verifications in clinical environments, and implementation agreements by the medical informatics industry are essential. The group on 'Sharing and Communication of Health Care Information' addressed the issues raised above and unanimously recommends a number of steps that will improve the sharing of information. In addition, specific recommendations are offered to governments, health care institutions, and to developers of health care information systems.

Communication↗

Reorganization of the information technology program at a United States medical school: is there a lesson for academic medical informatics in Japan?

Reorganization of the information technology program at Baylor College of Medicine commenced with the goal of obtaining a client-focused organization instead of a classically departmental structure. Legacy organizations independently established by request or serendipity had gaps and overlaps in services and could no longer respond to new issues, such as integration of several hospitals, resource sharing of health care delivery, administration of a shared library, and an academic informatics program. The renewal of the information technology program has led to departments of Telecommunications, Enterprise Services, Client Services, and Medical Informatics, and has also allowed cross-departmental projects led by a technology architect. In contrast with that of Baylor, the approach of the Yamaguchi University School of Medicine in Japan may be construed as economic efficiency at the cost of client services. Effective client services by friendly and efficient staff groups is the most important factor for an academic information technology program, if the goal is to reorganize in anticipation of future challenges to the medical center.

Computer Systems↗

Integrating non-proprietary workstations into proprietary systems.

'Clinical workstations', increasingly described as pivotal components of information systems for patient care, can be characterized as providing several major functions: access to data, presentation of data, computation (including medical decision logic), entry of data, and combinations of the above, integrated appropriately for various clinical situations. Because workstation technology is developing rapidly on many fronts and the demands on health-care organizations are growing, it is increasingly unlikely that any single total-system solution can effectively meet the needs. This paper discusses some of the issues pertinent to the integration of non-proprietary workstations with proprietary hospital systems. The approach of a particular vendor, the role of a meta-database, user interface design standards, and some problems consequent to the new technologies are discussed.

Computer Security↗

From multimodality digital imaging to multimedia patient record.

The constant improvement in computer power and performance nowadays offers convenient and efficient means of manipulating images, graphics, and movies on off-the-shelf workstations. With this improvement the trend toward integration of multimodality clinical documents from patient records comes naturally. Images and graphs are certainly the most important part of the complementary information that must accompany the text and numerical data. It is, however, possible to include sounds and voice messages together with all the other modalities. In medicine that could certainly help conveying hart murmur or sounds, but could also offer a convenient way of including vocal messages and comments. These new possibilities will certainly change the way physicians use workstations for direct communication. The computer industry will soon offer means of interactive communication between remote users through computer workstations. That alone will open a completely new era in cooperative computing and remote consultation scenarios in medicine. More than the technology itself, a complete change in behavior and work habits can be expected in the medical community.

Computer Communication Networks↗

Administrators' and health services researchers' requirements for workstations.

This paper offers a view of requirements for workstations, based on work currently going forward in the UK, some of which involves collaboration with partners in other European countries. In the UK, as elsewhere, interest in this subject has been lively for many years. The paper draws only on current and planned work, and does not attempt an historical resume. The status of the centrally-funded programme of work under the heading 'Integrated Clinical Workstation' (ICWS) is described. The project has put together a statement of user requirements. A Consensus Conference was held on 9 November 1992 at which an invited panel of clinicians, informaticians and suppliers met to discuss the way forward. A number of key areas and concerns were highlighted at this conference, of which the first was that the whole exercise needs to be clinically driven. The paper gives a brief account of projects in the UK and Europe which are beginning to address some of the requirements outlined above. The common thread through all these projects is a recognition that clinical workstation requirements have to be met by methods which cater to a wide variety of changing needs and approaches. No single static design will be sufficient.

Administrative Personnel↗

Design of a clinical event monitor.

The issues and implementation of a clinical event monitor are described. An event monitor generates messages for providers, patients, and organizations based on clinical events and patient data. For example, an order for a medication might trigger the generation of a warning about a drug interaction. A model based on the active database literature has as its main components an event (which triggers a rule to fire), a condition (which tests whether an action ought to be performed), and an action (often the generation of a message). The details of implementing such a monitor are described, using as an example the Columbia-Presbyterian Medical Center clinical event monitor, which is based on the Arden Syntax for Medical Logic Modules.

Artificial Intelligence↗