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Addressing information security training and awareness within the European healthcare community.

This paper discusses the need to promote information security issues within modern healthcare establishments and the consequent need for appropriate training and awareness initiatives. Security is an area of extreme significance in healthcare information systems but, whilst the need is generally recognised, many personnel are not familiar with even basic concepts and procedures. As such, adequate promotion of security through training and awareness initiatives is viewed as a vital first step. The paper highlights a series of basic factors that healthcare establishments (HCEs) should consider in setting up a training and awareness framework. The discussion then examines a number of ways in which relevant information may be disseminated to staff, including security guidelines, training seminars and world-wide web based services. The paper is largely based upon work that is currently being conducted as part of the Health Telematics ISHTAR (Implementing Secure Healthcare Telematics Applications in euRope) project.

Awareness↗

e-health in eating disorders: Virtual Reality and telemedicine in assessment and treatment.

e-health, the integration of telehealth technologies with the Internet and shared virtual reality could become a significant enabler of consumer health initiatives. In fact, they provide an increasingly accessible communication channel for a growing part of the population. In the past decade medical applications of virtual reality (VR) and telemedicine have been rapidly developing, and the technology has changed from a research curiosity to a commercially and clinically important area of medical informatics technology. The chapter details the characteristics of the Experiential Cognitive Therapy (ECT), an integrated inpatient/outpatient (4 weeks) and telemedicine approach (24 weeks) that tries to enhance the classical cognitive-behavioral method used in the treatment of eating disorders, through VR sessions and telemedicine support in the follow-up stage. Particularly, using VR and telemedicine, ECT is able to address body experience disturbances, interpersonal relationships, self efficacy and motivation to change, key issues for the development and maintenance of eating disorders that are somehow neglected by actual clinical guidelines.

Cognitive Behavioral Therapy↗

Rapid application design of an electronic clinical skills portfolio for undergraduate medical students.

The aim was to find how to use information and communication technology to present the clinical skills content of an undergraduate medical curriculum. Rapid application design was used to develop the product, and technical action research was used to evaluate the development process. A clinician-educator, two medical students, two computing science masters students, two other project workers, and a hospital education informatics lead, formed a design team. A sample of stakeholders took part in requirements planning workshops and continued to advise the team throughout the project. A university hospital had many features that favoured fast, inexpensive, and successful system development: a clearly defined and readily accessible user group; location of the development process close to end-users; fast, informal communication; leadership by highly motivated and senior end-users; devolved authority and lack of any rigidly imposed management structure; cooperation of clinicians because the project drew on their clinical expertise to achieve scholastic goals; a culture of learning and involvement of highly motivated students. A detailed specification was developed through storyboarding, use case diagramming, and evolutionary prototyping. A very usable working product was developed within weeks. "SkillsBase" is a database web application using Microsoft Active Server Pages, served from a Microsoft Windows 2000 Server operating system running Internet Information Server 5.0. Graphing functionality is provided by the KavaChart applet. It presents the skills curriculum, provides a password-protected portfolio function, and offers training materials. The curriculum can be presented in several different ways to help students reflect on their objectives and progress towards achieving them. The reflective portfolio function is entirely private to each student user and allows them to document their progress in attaining skills, as judged by self, peer and tutor assessment, and examinations. Training materials include web links and materials developed locally using pedagogic principles developed by the SkillsBase team. Although the usability of SkillsBase has been proven, uptake of software that has arisen 'bottom-up' from within the curriculum has proved slow. We plan to incorporate the SkillsBase services into a more comprehensive virtual managed learning environment, anticipating that presenting the functionality in an environment that is routinely used by students and teachers will increase uptake and use.

Clinical Competence↗

Evidence-based critical care medicine: a potential tool for change.

This issue of New Horizons is about change. While our traditional apprenticeship model of physician training has served us well, adaptation is required for the new millennium. Among several sectoral trends in medicine, two are particularly relevant for intensivists: a) the information explosion and b) increased accountability to society regarding effective, efficient, compassionate, and culturally sensitive care. Evidence-based medicine (EBM) (or any other single initiative, for that matter) is not going to address all of tomorrow's challenges. However, EBM does help by enhancing clinical informatics and critical appraisal skills so that clinicians are better able to keep up with the growing literature, and decide whether, and if so, this literature applies to individual patients. In addition, EBM can help to highlight the determinants of clinical decisions, which may include contributions of caregiver knowledge, patient pathophysiology, research evidence, patient and societal values, and increasingly, costs. While EBM is best practiced at the individual level, its application to other aspects of health care is growing.

Critical Care↗

Evidence-based medicine: applications in dietetic practice.

Evidence-based medicine has been defined as "the conscientious, explicit, and judicious use of current best evidence in making decisions about the care of individual patients." Evidence-based practice requires the ability to apply knowledge of medical informatics (eg, efficiently searching the medical literature) and clinical epidemiology (eg, being able to critically appraise the literature) to the treatment of individual patients. Being able to apply the principles of evidence-based medicine in the dietetic practice adds to the credibility and value of dietetics professionals, is consistent with the dietetic code of ethics, and is empowering. This article provides an introduction to the history, philosophy, and methods of evidence-based medicine as applied to the dietetic practice. This article focuses on a 5-step process to finding the best evidence to answer clinical questions: (a) formulate the question, (b) search for answers, (c) appraise the evidence, (d) apply the results, and (e) assess the outcome. We describe the 4S methodology-a systematic approach to efficiently finding the best evidence to answer clinical questions involving the use of systems (comprehensive, evidence-based resources), synopses (compilations of structured abstracts of high-quality studies), syntheses (systematic reviews), and studies (original research articles). Particular emphasis is given to a method for critically appraising papers that emphasizes validity, importance, and clinical applicability. Resources (including Web sites) for further learning are provided. J Am Diet Assoc. 2002;102:1263-1272.

Data Interpretation, Statistical↗

Setting a national research agenda in nursing informatics.

An active program of research assures the development and evaluation of nursing informatics solutions to the challenges of contemporary patient care. Experts in nursing informatics research participated in a two-part electronic mail survey of research priorities. Priorities identified included formalization of nursing vocabularies, design and management of databases for nursing information, development of technologies to support nursing practice, use of telecommunications technology in nursing, patient use of information technology, identification of nurses' information needs, and systems modeling and evaluation. Many of these priorities are similar to those advanced in the 1993 US PHS NINR PEP Report on Nursing Informatics. Additionally, the findings suggest the need for greater emphasis on the application of emerging technology to nursing practice problems, and the expansion to consider patients as direct users of information systems.

Data Collection↗

An evaluation of internet sites for burn scar management.

Patients rely on the Internet for medical information. It is difficult to discern which resources are accurate or appropriate for patients. The purpose of this study was to develop a quality-assessment tool for health Internet Web sites and to apply this tool to assess the quality of burn scar management information on the Internet. Between September and December 2001, we prospectively evaluated all Web sites on the Internet search engine Yahoo! containing the headings "burn scar management," "burn scar healing," "burn scar treatment," and "burn scar therapy." The quality of each Web site's medical information was evaluated using our scoring system consisting of the following two components: quality and technical characteristics. The total score for each Web site was converted to a percent grade (eg, > or =80% = excellent, 70 to 79% = very good, 60 to 69% = good, 50 to 59% = fair, and <50% = poor). The Web sites were grouped into three categories: commercial (for profit), academic (university, hospital), and organizational (nonprofit). Of 88 Web sites evaluated, the majority 68 (77%) were commercial, 7 (8%) academic, and 13 (15%) organizational. Burn scar management information on the Internet was poor in the majority (79%) of commercial Web sites and was excellent, very good, or good in the majority of academic (86%) and organizational (77%) Web sites. Using our health information evaluation, we found that the majority of burn scar management information on the internet (77%) was of fair or poor quality. Academic and organizational Web sites had the best quality of burn scar management information. Additional testing of the developed tool will be needed to analyze the reproducibility of the results and their applicability in other medical domains.

Burns↗

Establishing an agenda for biomedical informatics.

OBJECTIVE: To describe potential areas of collaboration between Medical Informatics (BI) and Bioinformatics (BI) and their effects on planning future work in both disciplines. METHODS: Some reflections on the objectives and rationale underpinning MI and BI are given, and preliminary results from the BIOINFOMED workgroup, supported by the European Commission, are introduced. RESULTS: Applications from both subfields suggest topics for sharing and exchange between the subfields within the emerging field of Biomedical Informatics. CONCLUSIONS: We suggest how the nature and degree of collaboration between the sub-disciplines can impact future work in molecular medicine.

Biomedical Research↗

Practical Approaches to the Development of Biomedical Informatics: the INFOBIOMED Network of Excellence.

Biomedical Informatics (BMI) is the emerging discipline that aims to facilitate integration of Bioinformatics and Medical Informatics for the purpose of accelerating discovery and the generation of novel diagnostic and therapeutic modalities. Building on the success of the European Commission-funded BIOINFOMED Study, an INFOBIOMED Network of Excellence has been constituted with the main objective of setting a structure for a collaborative approach at a European level. Initially formed by fifteen European organizations, the main objective of the INFOBIOMED network is therefore to enable the reinforcement of European BMI at the forefront of these emergent interdisciplinary fields. The paper describes the structure of the network, the integration approaches regarding databases and four pilot applications.

Biomedical Research↗

Comparison of mailed vs. Internet applications of the Delphi technique in clinical informatics research.

The Delphi technique provides a means of assessing the judgments of groups of experts without the necessity of having these experts meet together. The technique has been used in health care since the mid-1970s, and has just recently become more common in clinical informatics research. As informatics develops as a specialty, it is logical to consider information technology solutions to research as well as clinical practice problems. The overall purpose of this methodology presentation is to compare a mailed vs. Internet application of the Delphi technique for clinical informatics research. Specifically, this presentation will provide: 1) an overview of the Delphi technique, and 2) a methodological comparison of two research applications of the Delphi technique. Results of the studies will be presented elsewhere.

Computer Communication Networks↗

Performance support concepts for Web-based informatics instruction.

Duke University first offered World Wide Web (WWW) based courses in Nursing Informatics in January of 1997. The first class enrolled 18 nurses who were completing either a Post-Master's Certificate Program or were near completion of their Master's degree. Courses were designed around principles of advanced nursing practice, performance support, mastery learning, and virtual learning communities. Extensive learning assessment included traditional papers, real-world application projects, and a variety of pre and post-test measurements.

Computer Communication Networks↗

Medical student database development: a model for record management in a multi-departmental setting.

Student records flow through medical school offices at a rapid rate. Much of this data is often tracked on paper, spread across multiple departments. The Medical Student Informatics Group at the University of Utah School of Medicine identified offices and organizations documenting student information. We assessed departmental needs, identified records, and researched database software available within the private sector and academic community. Although a host of database applications exist, few publications discuss database models for storage and retrieval of student records. We developed and deployed an Internet based application to meet current requirements, and allow for future expandability. During a test period, users were polled regarding utility, security, stability, ease of use, data accuracy, and potential project expansion. Feedback demonstrated widespread approval, and considerable interest in additional feature development. This experience suggests that many medical schools would benefit from centralized database management of student records.

Consumer Behavior↗

The future of MEBC: panel discussion.

The expected developments in the not too distant future (5-10 years) of molecular electronics and biocomputing (MEBC) are discussed. In the short-term, the study of very specific basic phenomena is expected (e.g. conducting polymers, strange electronic states of insulating polymers, bacteriorhodopsin (BR), arrays of molecules, self-organization of biomaterials, very specific biological systems, quantum coherence in cytoskeletal microtubules, optoelectronic information storage, associative memories, pattern recognition, hierarchical nature of biological information). New application fields outside the range of conventional technology (e.g. randomized algorithms, optoelectronic devices, chemical and biosensors, as well as a certain extent of commercialisation) have also been predicted. In the long-term, the study and solution of much deeper (sometimes scientific fiction-like) problems were foreseen, such as the self-organization of biomaterials, artificial self-reproduction, implementation of artificial cell dynamic control structures based on molecular devices for medical and environmental applications and the construction of neuronal computers as aids to the human brain.

Electronics, Medical↗

[Electronic communication in medicine].

Rapid developments in information and communication technology allow a fast transfer of extensive data. Geographical distances do not longer hinder an intense cooperation in diagnostics. The review shows the variety of possibilities for medical applications. Technique, routine application, experiences and the legal conditions are presented for telepathology as an example.

Humans↗

A national agenda for public health informatics.

The American Medical Informatics Association 2001 Spring Congress brought together the public health and informatics communities to develop a national agenda for public health informatics. Discussions on funding and governance; architecture and infrastructure; standards and vocabulary; research, evaluation, and best practices; privacy, confidentiality, and security; and training and workforce resulted in 74 recommendations with two key themes: (1) all stakeholders need to be engaged in coordinated activities related to public health information architecture, standards, confidentiality, best practices, and research and (2) informatics training is needed throughout the public health workforce. Implementation of this consensus agenda will help promote progress in the application of information technology to improve public health.

Congresses as Topic↗

Nursing informatics. Applications for long-term care.

Long-term care (LTC) settings, specifically nursing homes, have found it difficult to manage the regulatory process and provide quality resident care without computerization. Clinical information systems in the current health care environment, including LTC, need to provide five functions. These five functions are providing the legal record of care; supporting clinical decision-making; capturing costs for financial purposes; accumulating a database for administrative queries, quality assurance, and research; and supporting data exchange between systems. While computerization may have occurred in LTC, the application of the informatics concepts with nursing standardized languages and financial and database usage may not have occurred. To succeed in the current health care environment, nursing informatics concepts need to be implemented in LTC. As a result, the quality of care for older adults in nursing homes will be improved. The purpose of this article is to identify application for nursing informatics use in the LTC setting.

Databases, Factual↗