Search PubMed⌕ Search

SEARCH · Search PubMed

Results for “Integrated Advanced Information Management Systems”

Search indexed PubMed citations on genomics, clinical trials, systematic reviews and public health. Explore titles, authors and supplied subject terms, then open the PubMed record.

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

At least 397 records · Page 22Linked to original sources

Computer system for equipment management.

A computer system has been developed to meet the requirements of equipment management. The system was originally developed to run on personal computers, but has been upgraded to provide true multiuser facilities and more advanced program capabilities. This has been achieved using improved hardware and a relational database. The manner in which the software operates is described, with some examples examined in more detail. The system provides a wide range of information, including inventory data, repair costs and time as well as service records and worksheets. In addition it meets the other basic requirements of the department, including wordprocessing, budgetary control and stock control. The system also provides an immediate and rapid overview of the repair state of all equipment whilst reducing administration time for many aspects of the service. Emphasis has been placed on the integrity of the data and ease of entry of additional data.

Computer Systems↗

Social science research in malaria prevention, management and control in the last two decades: an overview.

In the recent past, considerable progress has been made in understanding how human behavior and social organization, macro- and micro-level economic processes, and health and political systems affect responses to malaria at global, national, community, household, and individual levels. Advances in malaria-related social, behavioral, economic, evaluation, health systems, and policy (social science) research have resulted in improvements in the design and implementation of malaria prevention, management and control (PMC) strategies. Indeed, the past two decades chronicle dramatic advances in the implementation of evidence-based interventions, drawn not only from biomedical but also from social science research. Malaria awareness-raising, advocacy, case management, and prevention efforts have reaped the benefits of social science research and as a result, many programs are implemented and evaluated in a more effective manner than in the past. However, the pace at which findings from social science research are integrated into program and policy implementation is unsatisfactory. Additionally, examples remain of programs that fail to utilize findings from social science research and as a result, achieve minimal results. Furthermore, there is a sizeable body of knowledge that is underutilized and which, if assimilated into programs and policies, could accelerate progress in malaria PMC. Examples include information on meaningful community participation, gender, socio-economic status, and health systems. Regrettably, although social science input is necessary for almost all interventions for malaria management and control, the numbers of scientists working in this area are dismal in most of the key disciplines-medical anthropology; demography; geography and sociology; health economics and health policy; social psychology; social epidemiology; and behavior-change communication. Further, skills of program workers charged with implementation of interventions and strategies at country level are most often inadequate. The Special Program for Research and training in tropical diseases (TDR) and the multi-lateral initiative on malaria (MIM) have remained in the forefront of capacity building for this area of research, but additional efforts are needed to bring more applied social scientists into the fold. Their skills are necessary to ensure that social science findings get to program planners and implementers in a useful form that allows for more rapid and appropriate integration of the results into malaria PMC programs and policies. A re-thinking of the current focus within capacity building efforts is proposed.

Communication↗

Beyond the clinic: redefining hospital ambulatory care.

Responding to changes in health care financing, government policy, technology, and clinical judgment, and the rise of managed care, hospitals are shifting services from inpatient to outpatient settings and moving them into the community. Institutions are evolving into integrated delivery systems, developing the capacity to provide a continuum of coordinated services in an array of settings and to share financial risk with physicians and managed care organizations. Over the past several years, hospitals in New York City have shifted considerable resources into ambulatory care. In their drive to expand and enhance services, however, they face serious challenges, including a well-established focus on hospitals as inpatient centers of tertiary care and medical education, a heavy reliance upon residents as providers of medical care, limited access to capital, and often inadequate physical plants. In 1995, the United Hospital Fund awarded $600,000 through its Ambulatory Care Services Initiative to support hospitals' efforts to meet the challenges of reorganizing services, compete in a managed care environment, and provide high-quality ambulatory care in more efficient ways. Through the initiative, 12 New York City hospitals started projects to reorganize service delivery and build an infrastructure of systems, technology, and personnel. Among the projects undertaken by the hospitals were:--broad-based reorganization efforts employing primary care models to improve and expand existing ambulatory care services, integrate services, and better coordinate care;--projects to improve information management, planning and testing new systems for scheduling appointments, registering patients, and tracking ambulatory care and its outcomes;--training programs to increase the supply of primary care providers (both nurse practitioners and primary care physicians), train clinical and support staff in the skills needed to deliver more efficient and better ambulatory care, prepare staff for practicing in a managed care environment, and help staff communicate with a culturally diverse patient population and promote the importance of primary care within the community. Significant innovations and improvements were realized through the projects. Several hospitals expanded the availability of primary care services, trained new primary care providers, and helped patients gain access to primary care clinicians for the first time. Better methods for documenting ambulatory care were introduced. To increase efficiency and improve service to patients, some of the hospitals instituted automated appointment systems and improved medical record services. To reduce fragmentation and contain personnel costs, support staff positions were redesigned, and staff were retrained to carry out new multi-tasked responsibilities. Many of the components vital to high-quality ambulatory care can take years to develop, and significant investments of capital. Increased primary care capacity, new specialty group practices, state-of-the-art equipment for diagnosis and treatment, advanced information technology to manage and coordinate care and link services at multiple locations, and highly trained clinical and support staff all require strong commitment and support from a team of senior management executives and medical staff leaders, sufficient staffing resources, and outside expertise. Once the infrastructure is in place, hospitals must continue to reach out to their communities, helping people to understand the health care system and use it effectively.

Ambulatory Care↗

Telemedicine in neurology: underutilized potential.

Advances in telecommunication which started with telephone lines, FAX, integrated service digital network (ISDN) lines and now internet have provided an unprecedented opportunity for transfer of knowledge and sharing of information. The information can be used for overlapping applications in patient care, teaching and research. In medicine there is increasing utilization of telemedicine; radiology and pathology being regarded as mature specialties and emergency medicine as maturing specialties compared to other evolving specialties which include psychiatry, dermatology, cardiology and ophthalmology. Of the emergencies, status epilepticus and stroke have high potential for improving patient management. Administration of tPA was more frequent when carried out under telemedicine guidance. Telemedicine has great potential for medical education. The principles of education are in congruence with those of telemedicine and can be closely integrated in the existing medical education system. Our experience of telemedicine as a medical education tool is based on video conferencing with SCB Medical College, Cuttack. We had 30 sessions during 2001 to 2004 in which 2-3 cases were discussed in each session. The patients' details, radiological and neurophysiological findings could be successfully transmitted. These conferences improved the knowledge of participants, provided an opportunity for a second opinion as well as modified the treatment decisions in some cases. The advances in telemedicine should be utilized more extensively in neurology, especially in emergency management, epilepsy and stroke patients as well, as it may have a role in neurophysiology and movement disorders.

Education, Medical↗

New frontiers in design synthesis.

The Intelligent Synthesis Environment (ISE), which is one of the major strategic technologies under development at NASA centers and the University of Virginia, is described. One of the major objectives of ISE is to significantly enhance the rapid creation of innovative affordable products and missions. ISE uses a synergistic combination of leading-edge technologies, including high performance computing, high capacity communications and networking, human-centered computing, knowledge-based engineering, computational intelligence, virtual product development, and product information management. The environment will link scientists, design teams, manufacturers, suppliers, and consultants who participate in the mission synthesis as well as in the creation and operation of the aerospace system. It will radically advance the process by which complex science missions are synthesized, and high-tech engineering Systems are designed, manufactured and operated. The five major components critical to ISE are human-centered computing, infrastructure for distributed collaboration, rapid synthesis and simulation tools, life cycle integration and validation, and cultural change in both the engineering and science creative process. The five components and their subelements are described. Related U.S. government programs are outlined and the future impact of ISE on engineering research and education is discussed.

Astronauts↗

Montefiore Medical Center in The Bronx, New York: improving health in an urban community.

The author calls on academic medical centers that serve urban communities to go beyond the traditional mission of patient care, teaching, and research by accepting responsibility to build community-based care systems that are capable of improving the health of underserved populations within their reach. The experience of Montefiore Medical Center in the Bronx, New York, is presented to illustrate the nature, scope, and complexity of the undertaking that is required. Eight initiatives are described: expanding the primary care network, creating The Children's Hospital at Montefiore and the Child Health Network, responding to the needs of other high-risk populations, integrating the network with health information technology, using care-management systems to improve quality, reinforcing ethical allocation of resources, building teaching and research into the network, and preserving community vitality. The author believes that the current health care environment offers opportunities that may help to stimulate change in the direction of community-based systems. Managed care provides financial incentives to academic centers that are willing to accept risk and responsibly manage the care of a defined community, and advanced information technologies can support them in that endeavor. The author concludes that for academic medical centers with the proper systems in place, accepting responsibility for the community is not only the right thing to do, it is the strategic thing to do.

Academic Medical Centers↗

PET and PET/CT using 18F-FDG in the diagnosis and management of cancer patients.

Positron emission tomography (PET) using 2-(18)F-fluoro-2-deoxy-D-glucose (FDG), a radioactive derivative of glucose, is an advanced imaging tool, based on the increased glucose consumption of cancer cells. FDG-PET provides information that is not obtainable with other imaging modalities, and is very effective in the diagnosis and management of patients with various types of cancers. However, there are some limitations, such as low FDG uptake in some cancers, substantial FDG uptake in inflammatory cells, and the lack of anatomical information and poor imaging quality of PET. A recently developed integrated PET/computed tomography (CT) system, which combines a PET camera and CT scanner in a single session, has overcome these drawbacks by providing both anatomical and functional imaging at the same position. PET and/or PET/CT using FDG is clinically useful in the detection of cancer, the differentiation of malignant and benign lesions, the staging of cancer before therapy, and the assessment of cancer therapy, as well as for determining the recurrence after therapy of most cancers, including lung cancer, gastrointestinal cancer, breast cancer, and malignant lymphoma. PET/CT has become the new standard approach to imaging in the diagnosis and management of many cancer patients.

Breast Neoplasms↗

Integrated multimedia timeline of medical images and data for thoracic oncology patients.

A prototype multimedia medical database has been developed to provide image and textual data for thoracic oncology patients undergoing treatment of advanced malignancies. The database integrates image data from the hospital picture archiving and communication system with textual reports from the radiology information system, alphanumeric data contained in the hospital information system, and other electronic medical data. The database presents information in a timeline format and also contains visualization programs that permit the user to view and annotate radiographic measurements in tabular or graphic form. The database provides an efficient and intuitive display of the changing status of oncology patients. The ability to integrate, manage, and access relevant multimedia information may substantially enhance communication among distributed multidisciplinary health care providers and may ensure greater consistency and completeness of patient-related data.

Databases, Factual↗

Advanced and secure architectural EHR approaches.

OBJECTIVES: Electronic Health Records (EHRs) provided as a lifelong patient record advance towards core applications of distributed and co-operating health information systems and health networks. For meeting the challenge of scalable, flexible, portable, secure EHR systems, the underlying EHR architecture must be based on the component paradigm and model driven, separating platform-independent and platform-specific models. METHODS: Allowing manageable models, real systems must be decomposed and simplified. The resulting modelling approach has to follow the ISO Reference Model - Open Distributing Processing (RM-ODP). The ISO RM-ODP describes any system component from different perspectives. Platform-independent perspectives contain the enterprise view (business process, policies, scenarios, use cases), the information view (classes and associations) and the computational view (composition and decomposition), whereas platform-specific perspectives concern the engineering view (physical distribution and realisation) and the technology view (implementation details from protocols up to education and training) on system components. Those views have to be established for components reflecting aspects of all domains involved in healthcare environments including administrative, legal, medical, technical, etc. Thus, security-related component models reflecting all view mentioned have to be established for enabling both application and communication security services as integral part of the system's architecture. Beside decomposition and simplification of system regarding the different viewpoint on their components, different levels of systems' granularity can be defined hiding internals or focusing on properties of basic components to form a more complex structure. The resulting models describe both structure and behaviour of component-based systems. RESULTS: The described approach has been deployed in different projects defining EHR systems and their underlying architectural principles. In that context, the Australian GEHR project, the openEHR initiative, the revision of CEN ENV 13606 "Electronic Health Record communication", all based on Archetypes, but also the HL7 version 3 activities are discussed in some detail. The latter include the HL7 RIM, the HL7 Development Framework, the HL7's clinical document architecture (CDA) as well as the set of models from use cases, activity diagrams, sequence diagrams up to Domain Information Models (DMIMs) and their building blocks Common Message Element Types (CMET) Constraining Models to their underlying concepts. CONCLUSION: The future-proof EHR architecture as open, user-centric, user-friendly, flexible, scalable, portable core application in health information systems and health networks has to follow advanced architectural paradigms.

Computer Security↗

Whole-genome surveillance supports hazard profiling of Escherichia coli lineages in recycled water treatment systems.

UNLABELLED: The use of treated wastewater is increasingly important for sustainable water management under a changing climate, yet conventional monitoring based on Escherichia coli enumeration provides limited insight into strain diversity and associated public health hazards. Here, we applied longitudinal whole-genome sequencing (WGS) to 180 E. coli isolates collected across the treatment continuum of a recycled water facility, from influent to final effluent. Genomic analysis revealed extensive strain-level heterogeneity, comprising 88 sequence types across eight phylogroups, with greater diversity in influent than in treated effluent. Phylogenetic comparisons with contextual Australian genomes indicated clustering with strains associated with companion animals, wild birds, humans, and livestock, suggesting multiple potential source reservoirs rather than a single dominant origin, although source contributions were not definitive. Despite a >90% reduction in total E. coli loads, isolates recovered from upstream and downstream stages exhibited broadly comparable virulence factor and antimicrobial resistance gene (ARG) profiles, suggesting that, within the cultured isolate collection, reductions in abundance exceeded shifts in genomic composition. To assess operational relevance, we prototyped a genomics-informed hazard framework integrating virulence determinants, ARGs, plasmid-associated mobility, and reuse-specific exposure context. Using this framework, 92.8% of isolates were classified as low hazard, and 7.2% as moderate hazard, with no isolates meeting criteria for high or critical hazard classifications. These findings demonstrate that genomic profiling of indicator organisms can reveal population structure and hazard heterogeneity not captured by conventional enumeration alone, and can provide a practical basis for incorporating genomic information into hazard-informed monitoring of recycled water systems. IMPORTANCE: Routine recycled water monitoring relies largely on culture-based E. coli counts, which indicate regulatory compliance but provide limited insight into strain diversity, persistence, and genomic characteristics relevant to public health. Using longitudinal whole-genome sequencing, we show that genetically distinct E. coli lineages, including isolates carrying combinations of virulence and antimicrobial resistance determinants, can persist through advanced treatment despite substantial reductions in overall E. coli loads. While most isolates were classified as low genomic hazard and no high- or critical-hazard isolates were detected, these findings demonstrate that conventional enumeration alone cannot distinguish between genetically diverse lineages with differing hazard potential in highly treated systems. By integrating genomic data into a hazard classification framework, this study demonstrates an applied approach to contextualize E. coli detections and distinguish low-risk background populations from isolates with elevated genomic hazard profiles. This work supports the use of genomic profiling of indicator organisms to improve surveillance, inform treatment performance assessment, and enable more risk-based management of recycled water systems.

Escherichia coli↗

Using hospital data systems to find target populations: new tools for clinical nurse specialists.

A newly appointed diabetes clinical nurse specialist/nurse practitioner at Yale-New Haven Hospital was charged with redesigning the diabetes nursing role. For help, she turned to a special information management service within the Nursing and Operational Finance departments. This article describes the project that used an integrated financial and clinical information system to locate and characterize adult patients with diabetes mellitus. Patients with principal and secondary diagnoses of diabetes were identified by ICD-9-CM codes and tracked across inpatient and outpatient services. These data were used to identify opportunities for case management and for managing the costs related to diabetes care. The data also supported proposals made by the clinical nurse specialist/nurse practitioner to management to allocate clinical resources for the care of patients with diabetes. When the clinical wisdom of advanced practice nurses is joined with nursing information management expertise and technology, opportunities for understanding and advancing nursing's work are revealed.

Adult↗

Using evidence-based knowledge in a nursing documentation system.

Just as Florence Nightingale based her care delivery decisions on the analysis of outcome results, clinical information systems can support evidence-based nursing content and analysis tools to promote the practice of knowledge-driven nursing. This system demonstration will depict how nursing evidence is embedded into an automated assessment and documentation process to achieve immediate results in such areas as:* Compliance with core quality and clinical performance metrics--including skin integrity, nutritional deficits, IV site care and falls risks. * Integration of patient safety measures such as allergy documentation and medication reconciliation. * Reminders about care management initiatives such as completion of advanced directives and promotion of preventive health measures.

Documentation↗

Using PC-based decision-support technology to improve efficiency.

Healthcare organizations do not need advanced information technology systems to take advantage of the information they gather regarding clinical and operational efficiency. PC-based decision support technology is available to analyze an integrated delivery system's (IDS) existing data and integrate it with competitive healthcare industry data from public and proprietary sources. Many system executives have purchased such technology for their IDSs, but few use the data they generated properly or successfully.

Decision Support Systems, Management↗

PATIKA: an integrated visual environment for collaborative construction and analysis of cellular pathways.

MOTIVATION: Availability of the sequences of entire genomes shifts the scientific curiosity towards the identification of function of the genomes in large scale as in genome studies. In the near future, data produced about cellular processes at molecular level will accumulate with an accelerating rate as a result of proteomics studies. In this regard, it is essential to develop tools for storing, integrating, accessing, and analyzing this data effectively. RESULTS: We define an ontology for a comprehensive representation of cellular events. The ontology presented here enables integration of fragmented or incomplete pathway information and supports manipulation and incorporation of the stored data, as well as multiple levels of abstraction. Based on this ontology, we present the architecture of an integrated environment named Patika (Pathway Analysis Tool for Integration and Knowledge Acquisition). Patika is composed of a server-side, scalable, object-oriented database and client-side editors to provide an integrated, multi-user environment for visualizing and manipulating network of cellular events. This tool features automated pathway layout, functional computation support, advanced querying and a user-friendly graphical interface. We expect that Patika will be a valuable tool for rapid knowledge acquisition, microarray generated large-scale data interpretation, disease gene identification, and drug development. AVAILABILITY: A prototype of Patika is available upon request from the authors.

Cell Physiological Phenomena↗

A case for system security.

Mainframe security measures provided by the manufacturer, are adequate for normal security needs. However, a truly competent MIS security and/or hospital administration strategy must try to take advantage of the latest technological advancements as they become available. The integration of intelligent "dial-back" modems that "hang up" and then re-establish their communications link with a CRT terminal is now a requirement. However, finding a terminal with adequate stand-alone security devices is a different matter.

Computers↗

Potential impact of advanced clinical information technology on healthcare in 2015.

Clinical information technologies now sporadically available will soon be in routine clinical use, bringing many changes to healthcare. For example, 1) The next generation Internet; 2) Real-time clinical decision support systems; 3) Off-line, population-based systems; 4) Large, integrated, individual patient-level phenotypic and genotypic databases with intelligent data mining capabilities; 5) Wireless, invasive and non-invasive physiologic monitoring devices; 6) Natural Language Processing (NLP) systems; and 7) Mathematical models of complex biological systems have the potential to impact significantly the future healthcare delivery system. While new information management and communication techniques and technologies will reduce many of the inefficiencies and inaccuracies of our present systems, there will be an equal, and potentially far more dangerous, set of unintended consequences. Informatics investigators and health system administrators must focus on the study of what is working and what is not, as well as, on development and testing of the new clinical information management and communication technologies, if we are to be ready for the future.

Databases as Topic↗

Online informatics education: Challenges and lessons learned.

Current advances in knowledge and technology have resulted in profound implications on the methodology of teaching. Faculty involved with Informatics Nursing curriculum face particular challenges because the foundational concepts of Informatics must often be integrated with the software commonly used in information management systems.This demonstration includes an overview of the informatics curriculum and explores the issues related to providing a nursing informatics curriculum at a distance. An in-depth review of an actual course that combines the foundational concepts of informatics with software technology used in informatics management systems will be provided. The end-of-course assessments and lessons learned from integration of software technology within the curriculum will be discussed.

Education, Nursing↗

Transition strategies: moving systems from old to new.

Healthcare institutions today are finding their information systems inadequate. Providers want systems that integrate clinical and financial information as well as support strategic decision making. To support these needs and wants, more organizations are investing in new and more technologically advanced information systems. By looking at three separate scenarios that present circumstances which are common to healthcare organizations, this article presents guidelines that enable an institution to assess its current information systems and discusses options available to help organizations make the transition from old systems to new.

Decision Making↗