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The MOSORIOT medical record system (MMRS) phase I to phase II implementation: an outpatient computer-based medical record system in rural Kenya.

The authors of this paper describe the second phase of the implementation of the Mosoriot Medical Record System (MMRS) in a remote health care facility on the outskirts of Eldoret, Kenya, located in sub-Saharan Africa. We describe of the collaboration between Indiana University (IU) and the Moi University (MU), and the process that led to the development of the computer-based Mosoriot Medical Record System (MMRS) is provided. We then provide the conceptualization and initial implementation of this basic electronic medical record system. We also describe the different processes for assessing the MMRS' effects on health care, including time-motion studies and a strict implementation plan that is necessary for the successful implementation of the system. The MMRS project has many features that make it significant in the domain of CBPR systems. It may serve as a model for establishing similar, basic electronic record systems in the developed and developing world. In developing countries there are few (if any) projects that have attempted to implement such a system. This paper describes the planning, end-user education to new technologies, and time-motion studies necessary for the successful implementation of the MMRS. The system will be used to improve the quality of health data collection and subsequently patient care. It will also be used to link data from ongoing public health surveys and this can be used in public health research programs of the Moi University.

Attitude to Computers↗

Intravenous medication safety system averts high-risk medication errors and provides actionable data.

A major responsibility of nursing leaders is to implement systems and policies to improve patient and staff safety, avoid medication errors, and most importantly safeguard patients against harm. In the medication use process, the nurse at the bedside is the most vulnerable, and intravenous (i.v.) drug administration often results in the most serious medication error outcomes. At a 675-bed, tertiary-care "Magnet Hospital System," nurses played a key role in a multidisciplinary process that led to successful implementation of a computerized i.v. medication safety system. Software customization, staff training and product set-up were completed in approximately 2 months; 685 devices were installed in 3 hospitals within 12 hours. Nursing acceptance is excellent, and implementation of the system is thought to enhance nursing retention and recruitment. Preliminary data indicate an estimated 849 programming changes ("near misses") annually, ie, potential infusion errors averted by the i.v. medication safety system. A chronogram created from safety data demonstrates that most infusion error warnings occurred between 3:00 PM and 9:00 PM, with an unexpected peak at 6:00 PM. Implementation of the i.v. medication safety system has prevented potentially serious infusion errors and has provided previously unavailable, actionable continuous quality improvement data for best practice improvements.

Automation↗

Using OMIM (On-line Mendelian Inheritance in Man) as an expert system in medical genetics.

Expert systems have been used in Medicine for many years, but they are usually highly sophisticated and not well integrated into day-to-day practice. On the other hand, bibliographic databases such as Medline and others are easily accessible and are widely used. We report here the use of OMIM (On-line Mendelian Inheritance in Man), one of these bibliographic databases, as an expert system in Medical Genetics. The description of 93 syndromes was used as search-key and the diagnoses proposed by OMIM were analyzed to determine whether the correct diagnosis was among them. The proposed diagnoses were automatically ranked by OMIM from the most probable (weight = 100) to the least probable (weight = 1). OMIM suggested a total of 1538 +/- 692.2 diagnoses per search. In order to deal with a reasonable number of proposed diagnoses, we only considered the diagnoses with a weight of 50 or more. With this limit, OMIM proposed a mean of 37.0 +/- 24.6 diagnoses per case. The overall accuracy was 76%. A correct answer with a perfect weight of 100 was proposed in 29% of the case. The diagnostic accuracy of OMIM increased linearly when weights lower than 100 were considered. When the rank alone was analyzed, the accuracy of OMIM increased very rapidly from position 1 to 5 with a subsequent almost linear increase. If one only considered the first five proposed diagnoses, the accuracy of OMIM was just above 50%. This study shows that bibliographic databases are not only restricted to the provision of references but could also be used as expert systems and are therefore of great value to medical geneticists.

Databases, Bibliographic↗

Representation of clinical laboratory terminology in the Unified Medical Language System.

The Unified Medical Language System (UMLS) was examined to determine its coverage of clinical laboratory terminology in use at the Columbia-Presbyterian Medical Center (CPMC). The Metathesaurus (Meta-1) contains exact matches for 30% of 1460 CPMC laboratory terms and near matches for an additional 42%, with better coverage of atomic-level concepts ("substance" terms) than complex ones (tests and panels). The Semantic Network includes types for representing laboratory procedures (2), measured substances (at least 56) and sampled substances (at least 14), but no type to represent specimens. Few of the UMLS semantic relationships are applicable to the CPMC vocabulary. These results have implications for the utility of the UMLS for linking clinical databases to electronic medical information sources.

Clinical Laboratory Techniques↗

The recent development and evaluation of a medical expert system (ABVAB).

A medical expert system for the diagnosis of abnormal vaginal bleeding named as ABVAB had been reported. This paper will describe the recent development of ABVAB and its clinical evaluation. The overall testing results are quite satisfactory in spite of the limitations of time and small domain. This expert system, by using the fuzzy and certainty factor concepts, is able to handle imprecise and incomplete medical knowledge which has become informative. The paper also analyses the relative degrees of importance of the history and physical examination data in making a medical diagnosis.

Data Interpretation, Statistical↗

[General information system through whole hospital and electronic medical record system].

A new system has been introduced and implemented at the Nagoya City University Hospital since January 2004 in order to improve services for patients and general operation for management of the hospital. General Information System has been consisted with Electronic Medical Record System (EMRS), which is the core of all system and divisional system such as Clinical Laboratory Tests, Images, Medical Accounting and so on. A new system has been built and operated to work with the EMRS at the Department of Central Clinical Laboratory (CCL). To cooperate with the new system, we have constructed and operated directly the EMRS such as automatic registration the latest information on infectious diseases and blood transfusions, clinical reports on laboratory test through the hospital news and/or e-mail, introducing laboratory pre test before the consultation, rapid reports of panic values to the doctor in charge of the patients directly, the new system build up a closer cooperation between division of blood transfusion division and that of immuno-chemistry in CCL through EMRS. The new system has been brought not only efficiency and strengthen of function in CCL but also strengthen the service to patients in the hospital.

Clinical Laboratory Information Systems↗

Primary Care Health Information System: a hybrid electronic-paper medical record system.

In summary, PCHIS is a hybrid electronic-paper medical record system that is clinically useful to health care providers. The paper chart still contains the bulk of information but the key facts about any given patient (diagnoses, surgeries, medications, allergies) and about the process of care (frequency of visits, referral patterns, test ordering, etc.) are readily available in electronic form. These key data are easily coded, are quickly and simultaneously accessible in multiple locations, serve as an excellent chart substitute whenever the paper chart is unavailable, and can be retrieved for in-depth analysis at any time, whether for clinical, administrative, research, or quality assurance purposes. The process of care can be studied and, to some extent, can also be modified by the system, as demonstrated by the physician response to the reminder system within PCHIS. The medical record chart summary, mandated by Joint Commission for ambulatory patient charts, is easily provided in hard copy as well as electronically. Whereas physician compliance in providing data to the system was initially sporadic, physician support has increased tremendously as the system has become more clinically useful to them. It is a system that exists and functions well within a patchwork of multiple different medical information systems. It is a system with sufficient intrinsic flexibility that it can and will continue to evolve in response to the needs of physicians and administrators.

Academic Medical Centers↗

Reaping the benefits of electronic medical record systems.

An electronic medical record system can provide benefits beyond the obvious functions of efficient and less labor-intensive scanning, archiving, retrieving, and printing of patient care information. The less tangible benefit of providing record access to several users simultaneously is difficult to quantify, but can enhance operations and improve the quality of patient care throughout a healthcare facility.

Abstracting and Indexing↗

The use of information technology in improving medical performance. Part I. Information systems for medical transactions.

Investment in medical information technologies reached $15 billion in 1996. However, these technologies have not had the wide impact predicted in streamlining bureaucracy, improving communications, and raising the effectiveness of care. In this series, we identify how such technologies are being used to improve quality and performance, the future directions for advancement, and the policy and research developments required to maximize public benefit from these technologies. Each of these articles focuses on a different type of information technology: (1) information systems to manage medical transactions; (2) physician-support technologies to improve medical practice; and (3) patient-focused technologies designed to change how people manage their own care. This first article of a 3-part series examines the successes of and opportunities for using advanced information systems that track and manage medical transactions for large populations to improve performance. Examples of such systems include: HEDIS, which gathers standardized data from health plans on quality of care; the USQA Health Services Research Program, which tracks treatment patterns and outcomes for 14 million insurance members; Ford's program to collect medical data for over 600,000 employees; and Harvard Pilgrim Health Care's system of computerized laboratory, pharmacy, ambulatory, and hospital admission records for its 1.5 million members. Data from these systems have led to modest improvements in knowledge and practice patterns for some diseases. Significant barriers are slowing efforts to add outcomes data to these databases and broaden the databases to cover larger populations. Nonetheless, existing data in currently evolving systems could be used to greater benefit in tracking public health and in identifying more effective treatments and causes of diseases.

Biomedical Technology↗

[The Vienna General Medical Information System (WAMIS)].

The Vienna General Medical Information System is applied at the university clinics of the medical faculty of Vienna. The system consists of several components: 1. Program complex for the support of daily routine work, 2. documentation system, 3. Vienna laboratory system, 4. differential diagnosis and screening system, 5. medical information system, 6. medical evaluation system. The central part of the system is the patient-orientated data bank.

Austria↗

Making medical education relevant to health care systems.

Medical education must be made relevant, and this implies that it must train its students towards the local health care system. If behavioural objectives are defined which must be attained before a student graduates, and before he can function effectively in a health unit, areas which need emphasis are revealed. Communication is a skill which can be left to clinical training: but it is best learned very early in the community, where the student is the supplicant, and not in the hospital where he is dominant. Early community experience can mould a student's attitudes fundamentally and can make him realise the need for work with members of a health team within a health care unit. If education is dogma-centred, and the student is not trained to ask questions early he will not be able to function effectively in any community: modern medical education should be problem-dominated, community-directed and learner-centered. If it is centred on the learner he will become equipped with the ability for independent study and a desire to learn, to improve himself and help other members of the health team throughout his professional career.

Delivery of Health Care↗

Health care system and medical education in Canada. 2. Impact of changes in the health care system on medical education.

Over the past three decades Canada has developed an exemplary system of universal health care. However, current financial constraints threaten to undermine the very foundation of the system that represents Canada's respect for social justice. The first of these two articles (Part 1) discusses the unique characteristics of the system, a comparative view of universal health care systems, the reaction of the medical profession to governmental control, and finally the funding and manpower shortages that are compelling a review of the values and organization that have sustained the system thus far. The second article (Part 2) reviews the organization and funding of medical education and the impact of some critical changes in the health care system on postgraduate medical education. Issues related to new licensure and certification requirements, changing population demographics and approaches to health care delivery, manpower needs, and the attitude and expectations of the public are discussed.

Canada↗

An efficient medical database system implementation with its tool and data structure consideration.

The development of a new system for medical database application running on minicomputer under MUMPS system is described. Two kinds of data representation in global structure are briefly reviewed. The use of a subject oriented multi-dimensional data structure greatly simplifies database design and facilitates data manipulation, organization, selective retrieval and software development. It is concluded that the program generator approach can provide the flexibility necessary for various applications and future growth of computerized medical record system. The final system has been proven effective in practical operation. The future extension concerns the introduction of multi-microprocessor structure and logic representation is presented.

Computers↗