Advanced Technology in Pediatric Intensive Care Units




In medicine, providers strive to produce quality outcomes and work to continually improve those outcomes. Whether it is reducing cost, decreasing length of stay, mitigating nosocomial infections, or improving survival, there are a myriad of complex factors that contribute to each outcome. One of the greatest challenges to outcome improvement is in pediatric intensive care units, which tend to host the sickest, most complex, smallest, and frailest of pediatric patients. This article highlights some studies and advances in informatics that have influenced intensive care unit outcomes.


Key points








  • In medicine, providers strive to produce quality outcomes and work to continually improve those outcomes.



  • Whether it is reducing cost, decreasing length of stay, mitigating nosocomial infections, or improving survival, there are a myriad of complex factors that contribute to each outcome.



  • One of the greatest challenges to outcome improvement is in pediatric intensive care units, which tend to host the sickest, most complex, smallest, and frailest of pediatric patients.






Introduction


An outcome is something that follows as a result of an act or an intervention; the outcome may either be positive or negative. In medicine, providers strive to produce quality outcomes and work to continually improve those outcomes. Whether it is reducing cost, decreasing length of stay, mitigating nosocomial infections, or improving survival, there are a myriad of complex factors that contribute to each outcome. One of the greatest challenges to outcome improvement is in pediatric intensive care units (ICUs), which tend to host the sickest, most complex, smallest, and frailest pediatric patients.


Compared with medicine, the advent of the various subspecialists in pediatric intensive care is recent. For example, The Society of Critical Care Medicine (SCCM), representing the adult intensive care community, recognized pediatric critical care as a discrete field, and created the section of pediatric critical care within the SCCM in 1981. A sub-board in critical care medicine was established by the American Board of Pediatrics and the first certifying examination was offered in 1987. Neonatology has been present slightly longer, with the terms neonatology and neonatologist first introduced in 1960. In 1975, the first examination of the Sub-Board of Neonatal-Perinatal Medicine of the American Board of Pediatrics and the first meeting of the Perinatal Section of the American Academy of Pediatrics were held.


Despite being young, these fields have benefited tremendously from advances in medical knowledge and technologies to not only help improve day-to-day patient care but to improve outcomes as well. One of the greatest nonmedical advances in the past several decades that has changed daily patient care practices has been the introduction of the electronic medical record (EMR) and with it medical informatics. This change that has occurred in the medical work environment has the potential to facilitate communication and enforce adherence of global best practices.


Computerization has been a hallmark of the twenty-first century, with every major industry investing heavily in these technologies to reduce cost, increase efficiencies, and improve outcomes; health care is no exception to this growing trend. After decades of technological laggard, medicine has begun to acclimatize to the digital data age. The Health Information Technology for Economic and Clinical Health (HITECH) Act of 2009, which was signed into law, represents the largest US initiative to date that is designed to encourage widespread use of electronic health records. EMR systems can include many potential capabilities, but 3 particular functionalities hold great promise in improving the quality of care and reducing costs at the health care system level: clinical decision support (CDS) tools, computerized physician order entry (CPOE) systems, and health information exchange (HIE). In the ever-changing world of health care delivery these basic EMR functionalities form the basis for improving quality of care and reducing costs; two key health care–related outcomes that are being benchmarked against respective peer groups.


Also, a technology that is increasingly being adopted is telemedicine service. Many institutions are using ICU-based telemedicine services for remote monitoring, staffing, and/or consultation to aid in outcome improvements. Simply stated, ICU telemedicine uses audiovisual technology to provide critical care services from a remote location. In its most common form, ICU telemedicine consists of remote monitoring of ICU patients using fixed installations, either continuously or during nighttime hours. Telemedicine can potentially improve ICU outcomes by increasing access to the expertise of dedicated intensivist physicians, facilitating early recognition of physiologic deterioration, and prompting bedside providers to implement routine evidence-based practices.




Introduction


An outcome is something that follows as a result of an act or an intervention; the outcome may either be positive or negative. In medicine, providers strive to produce quality outcomes and work to continually improve those outcomes. Whether it is reducing cost, decreasing length of stay, mitigating nosocomial infections, or improving survival, there are a myriad of complex factors that contribute to each outcome. One of the greatest challenges to outcome improvement is in pediatric intensive care units (ICUs), which tend to host the sickest, most complex, smallest, and frailest pediatric patients.


Compared with medicine, the advent of the various subspecialists in pediatric intensive care is recent. For example, The Society of Critical Care Medicine (SCCM), representing the adult intensive care community, recognized pediatric critical care as a discrete field, and created the section of pediatric critical care within the SCCM in 1981. A sub-board in critical care medicine was established by the American Board of Pediatrics and the first certifying examination was offered in 1987. Neonatology has been present slightly longer, with the terms neonatology and neonatologist first introduced in 1960. In 1975, the first examination of the Sub-Board of Neonatal-Perinatal Medicine of the American Board of Pediatrics and the first meeting of the Perinatal Section of the American Academy of Pediatrics were held.


Despite being young, these fields have benefited tremendously from advances in medical knowledge and technologies to not only help improve day-to-day patient care but to improve outcomes as well. One of the greatest nonmedical advances in the past several decades that has changed daily patient care practices has been the introduction of the electronic medical record (EMR) and with it medical informatics. This change that has occurred in the medical work environment has the potential to facilitate communication and enforce adherence of global best practices.


Computerization has been a hallmark of the twenty-first century, with every major industry investing heavily in these technologies to reduce cost, increase efficiencies, and improve outcomes; health care is no exception to this growing trend. After decades of technological laggard, medicine has begun to acclimatize to the digital data age. The Health Information Technology for Economic and Clinical Health (HITECH) Act of 2009, which was signed into law, represents the largest US initiative to date that is designed to encourage widespread use of electronic health records. EMR systems can include many potential capabilities, but 3 particular functionalities hold great promise in improving the quality of care and reducing costs at the health care system level: clinical decision support (CDS) tools, computerized physician order entry (CPOE) systems, and health information exchange (HIE). In the ever-changing world of health care delivery these basic EMR functionalities form the basis for improving quality of care and reducing costs; two key health care–related outcomes that are being benchmarked against respective peer groups.


Also, a technology that is increasingly being adopted is telemedicine service. Many institutions are using ICU-based telemedicine services for remote monitoring, staffing, and/or consultation to aid in outcome improvements. Simply stated, ICU telemedicine uses audiovisual technology to provide critical care services from a remote location. In its most common form, ICU telemedicine consists of remote monitoring of ICU patients using fixed installations, either continuously or during nighttime hours. Telemedicine can potentially improve ICU outcomes by increasing access to the expertise of dedicated intensivist physicians, facilitating early recognition of physiologic deterioration, and prompting bedside providers to implement routine evidence-based practices.




Electronic medical records


EMRs have become central to modern medicine. The HITECH Act of 2009 has thrust EMRs into the forefront of every health care organization’s agenda. In addition to the federal mandates associated with the HITECH Act, several factors have influenced the adoption of EMRs; these factors include, but are not limited to, supporting patient care activities, cost cutting and operational efficiencies, big-data analysis of patient health records, and incentive dollars associated with meaningful use. The power of EMRs is only matched by their complexities. EMRs vary from home-grown systems in single organizations with the necessary technical and managerial capacity; to interoperability standards for linking multiple information technology systems; to top-down, government-driven, national implementations of standardized, commercial software applications. However varied the systems remain, they share a common goal: to create a single longitudinal record for each patient that can be digitally shared and accessed by different health care providers to create a cohesive and safer patient care experience.




Computerized provider order entry and clinical decision support


Implementation of an EMR system with CPOE and/or CDS can provide an important foundation for decreasing medication errors and harm.


Computerized Provider Order Entry


CPOE systems provide the ability to enter orders for patients into a computer, allowing electronic transmission of the orders to the appropriate department (eg, pharmacy, radiology, and laboratory). CPOE is the feature of EMR implementation that arguably offers the greatest quality and patient safety benefits. However, CPOE adoption, success, and outcome improvement are often heavily influenced by local factors.


Studies have shown both positive and negative outcomes associated with the introduction of EMR CPOE systems. Longhurst and colleagues showed a decrease in hospital-wide mortality following CPOE implementation at Lucile Packard Children’s Hospital at Stanford, contrasting an earlier study published in 2006 by Han and colleagues, which observed an unexpected increase in mortality coincident with CPOE implementation in a pediatric ICU. The hospitals in these two contrasting studies used the same EMR software vendor, suggesting that local implementation decisions are a critical factor in determining the safety performance of CPOE systems.


Clinical Decision Support


Decision support tools have been used by the medical profession for decades and evolved with technology to become largely computer based and widely accessible to all clinicians. CDS often refers to electronic suggestions or reminders linked to a patient’s electronic data and integrated within a clinician’s workflow, and provides much of the value in implementing CPOE systems. CDS tools can be implemented to influence a variety of factors that directly affect patient care outcomes. Among the most important CDS tools used in pediatrics are those centered around medication ordering and administration, such as drug-drug interactions; allergy alerts; clinical condition correlation (eg, medications that need to have altered doses related to clinical conditions); and, key in pediatrics, dose range checking. Accurate and informed prescribing is essential to ensure the safe and effective use of medications in pediatric patients.


In addition to medication ordering and administration, CDS tools have evolved to include antibiotic stewardship, vaccination administrations and reminders, prediction tools, and suggestions for therapeutic interventions, but these are just a few of the possibilities; however, because comprehensive CDS tools are not standard in EMR systems, their implementation is often limited by local factors, such as cost, time, and resource allocation.




Telemedicine and remote intensive care unit monitoring


ICU service is an important and often expensive competent of hospital care. ICUs are responsible for caring for the sickest patients in the hospital on any given day and are staffed by highly specialized and well-trained individuals. However, because of various constraints it is not always possible to staff ICUs around the clock, 7 days a week, 365 days a year. It has been estimated that approximately 1% of the US gross domestic product is consumed in the care of ICU patients. Despite this considerable investment of resources, there is wide variation in ICU organization and studies have suggested that differences in ICU organization may affect patient outcome. Given the complexity associated with adequately staffing ICUs, technology has become an increasing focus to provide adequate staffing power, knowledge base, and monitoring of patient care. ICU telemedicine is a novel approach for providing critical care services from a distance.


Comprehensive ICU telemedicine programs that provide continuous patient monitoring by an off-site team of critical care professionals have the ability to recognize physiologic instability and to render care that is timely and triggered by patient factors. Telemedicine can potentially improve ICU outcomes by increasing access to the expertise of dedicated intensivist physicians. This approach may be preferable where staffing is inadequate because of various constraints. In addition, institutions with less case/clinical experience may rely on centers of excellence in facilitating care, allowing patients to stay regionally when feasible, while still providing the highest level of care and monitoring. These benefits are often stated, but literature is scant on reporting and showing clear benefit. Studies of the practice of ICU telemedicine are limited in part by the lack of reliable and practical methods for measurement of ICU and ICU telemedicine program structural and process elements ; however, there is some accumulating evidence that ICU telemedicine may be associated with decreases in mortality and hospital length of stay, as well as improved adherence to consequential best practices and lower rates of preventable complications.

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Oct 2, 2017 | Posted by in PEDIATRICS | Comments Off on Advanced Technology in Pediatric Intensive Care Units

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