Literature DB >> 29938790

Automated monitoring compared to standard care for the early detection of sepsis in critically ill patients.

Sheryl Warttig1, Phil Alderson, David Jw Evans, Sharon R Lewis, Irene S Kourbeti, Andrew F Smith.   

Abstract

BACKGROUND: Sepsis is a life-threatening condition that is usually diagnosed when a patient has a suspected or documented infection, and meets two or more criteria for systemic inflammatory response syndrome (SIRS). The incidence of sepsis is higher among people admitted to critical care settings such as the intensive care unit (ICU) than among people in other settings. If left untreated sepsis can quickly worsen; severe sepsis has a mortality rate of 40% or higher, depending on definition. Recognition of sepsis can be challenging as it usually requires patient data to be combined from multiple unconnected sources, and interpreted correctly, which can be complex and time consuming to do. Electronic systems that are designed to connect information sources together, and automatically collate, analyse, and continuously monitor the information, as well as alerting healthcare staff when pre-determined diagnostic thresholds are met, may offer benefits by facilitating earlier recognition of sepsis and faster initiation of treatment, such as antimicrobial therapy, fluid resuscitation, inotropes, and vasopressors if appropriate. However, there is the possibility that electronic, automated systems do not offer benefits, or even cause harm. This might happen if the systems are unable to correctly detect sepsis (meaning that treatment is not started when it should be, or it is started when it shouldn't be), or healthcare staff may not respond to alerts quickly enough, or get 'alarm fatigue' especially if the alarms go off frequently or give too many false alarms.
OBJECTIVES: To evaluate whether automated systems for the early detection of sepsis can reduce the time to appropriate treatment (such as initiation of antibiotics, fluids, inotropes, and vasopressors) and improve clinical outcomes in critically ill patients in the ICU. SEARCH
METHODS: We searched CENTRAL; MEDLINE; Embase; CINAHL; ISI Web of science; and LILACS, clinicaltrials.gov, and the World Health Organization trials portal. We searched all databases from their date of inception to 18 September 2017, with no restriction on country or language of publication. SELECTION CRITERIA: We included randomized controlled trials (RCTs) that compared automated sepsis-monitoring systems to standard care (such as paper-based systems) in participants of any age admitted to intensive or critical care units for critical illness. We defined an automated system as any process capable of screening patient records or data (one or more systems) automatically at intervals for markers or characteristics that are indicative of sepsis. We defined critical illness as including, but not limited to postsurgery, trauma, stroke, myocardial infarction, arrhythmia, burns, and hypovolaemic or haemorrhagic shock. We excluded non-randomized studies, quasi-randomized studies, and cross-over studies . We also excluded studies including people already diagnosed with sepsis. DATA COLLECTION AND ANALYSIS: We used the standard methodological procedures expected by Cochrane. Our primary outcomes were: time to initiation of antimicrobial therapy; time to initiation of fluid resuscitation; and 30-day mortality. Secondary outcomes included: length of stay in ICU; failed detection of sepsis; and quality of life. We used GRADE to assess the quality of evidence for each outcome. MAIN
RESULTS: We included three RCTs in this review. It was unclear if the RCTs were three separate studies involving 1199 participants in total, or if they were reports from the same study involving fewer participants. We decided to treat the studies separately, as we were unable to make contact with the study authors to clarify.All three RCTs are of very low study quality because of issues with unclear randomization methods, allocation concealment and uncertainty of effect size. Some of the studies were reported as abstracts only and contained limited data, which prevented meaningful analysis and assessment of potential biases.The studies included participants who all received automated electronic monitoring during their hospital stay. Participants were randomized to an intervention group (automated alerts sent from the system) or to usual care (no automated alerts sent from the system).Evidence from all three studies reported 'Time to initiation of antimicrobial therapy'. We were unable to pool the data, but the largest study involving 680 participants reported median time to initiation of antimicrobial therapy in the intervention group of 5.6 hours (interquartile range (IQR) 2.3 to 19.7) in the intervention group (n = not stated) and 7.8 hours (IQR 2.5 to 33.1) in the control group (n = not stated).No studies reported 'Time to initiation of fluid resuscitation' or the adverse event 'Mortality at 30 days'. However very low-quality evidence was available where mortality was reported at other time points. One study involving 77 participants reported 14-day mortality of 20% in the intervention group and 21% in the control group (numerator and denominator not stated). One study involving 442 participants reported mortality at 28 days, or discharge was 14% in the intervention group and 10% in the control group (numerator and denominator not reported). Sample sizes were not reported adequately for these outcomes and so we could not estimate confidence intervals.Very low-quality evidence from one study involving 442 participants reported 'Length of stay in ICU'. Median length of stay was 3.0 days in the intervention group (IQR = 2.0 to 5.0), and 3.0 days (IQR 2.0 to 4.0 in the control).Very low-quality evidence from one study involving at least 442 participants reported the adverse effect 'Failed detection of sepsis'. Data were only reported for failed detection of sepsis in two participants and it wasn't clear which group(s) this outcome occurred in.No studies reported 'Quality of life'. AUTHORS'
CONCLUSIONS: It is unclear what effect automated systems for monitoring sepsis have on any of the outcomes included in this review. Very low-quality evidence is only available on automated alerts, which is only one component of automated monitoring systems. It is uncertain whether such systems can replace regular, careful review of the patient's condition by experienced healthcare staff.

Entities:  

Mesh:

Substances:

Year:  2018        PMID: 29938790      PMCID: PMC6353245          DOI: 10.1002/14651858.CD012404.pub2

Source DB:  PubMed          Journal:  Cochrane Database Syst Rev        ISSN: 1361-6137


  36 in total

1.  Duration of hypotension before initiation of effective antimicrobial therapy is the critical determinant of survival in human septic shock.

Authors:  Anand Kumar; Daniel Roberts; Kenneth E Wood; Bruce Light; Joseph E Parrillo; Satendra Sharma; Robert Suppes; Daniel Feinstein; Sergio Zanotti; Leo Taiberg; David Gurka; Aseem Kumar; Mary Cheang
Journal:  Crit Care Med       Date:  2006-06       Impact factor: 7.598

Review 2.  American College of Chest Physicians/Society of Critical Care Medicine Consensus Conference: definitions for sepsis and organ failure and guidelines for the use of innovative therapies in sepsis.

Authors: 
Journal:  Crit Care Med       Date:  1992-06       Impact factor: 7.598

3.  A randomized trial of protocol-based care for early septic shock.

Authors:  Donald M Yealy; John A Kellum; David T Huang; Amber E Barnato; Lisa A Weissfeld; Francis Pike; Thomas Terndrup; Henry E Wang; Peter C Hou; Frank LoVecchio; Michael R Filbin; Nathan I Shapiro; Derek C Angus
Journal:  N Engl J Med       Date:  2014-03-18       Impact factor: 91.245

Review 4.  2001 SCCM/ESICM/ACCP/ATS/SIS International Sepsis Definitions Conference.

Authors:  Mitchell M Levy; Mitchell P Fink; John C Marshall; Edward Abraham; Derek Angus; Deborah Cook; Jonathan Cohen; Steven M Opal; Jean-Louis Vincent; Graham Ramsay
Journal:  Crit Care Med       Date:  2003-04       Impact factor: 7.598

Review 5.  Effectiveness and safety of procalcitonin evaluation for reducing mortality in adults with sepsis, severe sepsis or septic shock.

Authors:  Brenda Ng Andriolo; Regis B Andriolo; Reinaldo Salomão; Álvaro N Atallah
Journal:  Cochrane Database Syst Rev       Date:  2017-01-18

6.  An Electronic Tool for the Evaluation and Treatment of Sepsis in the ICU: A Randomized Controlled Trial.

Authors:  Matthew W Semler; Liza Weavind; Michael H Hooper; Todd W Rice; Supriya Srinivasa Gowda; Andras Nadas; Yanna Song; Jason B Martin; Gordon R Bernard; Arthur P Wheeler
Journal:  Crit Care Med       Date:  2015-08       Impact factor: 7.598

7.  Sepsis in European intensive care units: results of the SOAP study.

Authors:  Jean-Louis Vincent; Yasser Sakr; Charles L Sprung; V Marco Ranieri; Konrad Reinhart; Herwig Gerlach; Rui Moreno; Jean Carlet; Jean-Roger Le Gall; Didier Payen
Journal:  Crit Care Med       Date:  2006-02       Impact factor: 7.598

8.  Performance of an automated electronic acute lung injury screening system in intensive care unit patients.

Authors:  Helen C Koenig; Barbara B Finkel; Satjeet S Khalsa; Paul N Lanken; Meeta Prasad; Richard Urbani; Barry D Fuchs
Journal:  Crit Care Med       Date:  2011-01       Impact factor: 7.598

9.  GRADE guidelines: 7. Rating the quality of evidence--inconsistency.

Authors:  Gordon H Guyatt; Andrew D Oxman; Regina Kunz; James Woodcock; Jan Brozek; Mark Helfand; Pablo Alonso-Coello; Paul Glasziou; Roman Jaeschke; Elie A Akl; Susan Norris; Gunn Vist; Philipp Dahm; Vijay K Shukla; Julian Higgins; Yngve Falck-Ytter; Holger J Schünemann
Journal:  J Clin Epidemiol       Date:  2011-07-31       Impact factor: 6.437

10.  Early detection of sepsis in the emergency department using Dynamic Bayesian Networks.

Authors:  Senthil K Nachimuthu; Peter J Haug
Journal:  AMIA Annu Symp Proc       Date:  2012-11-03
View more
  12 in total

1.  To catch a killer: electronic sepsis alert tools reaching a fever pitch?

Authors:  Halley Ruppel; Vincent Liu
Journal:  BMJ Qual Saf       Date:  2019-04-23       Impact factor: 7.035

2.  Prediction of Resuscitation for Pediatric Sepsis from Data Available at Triage.

Authors:  Peter Stella; Elizabeth Haines; Yindalon Aphinyanaphongs
Journal:  AMIA Annu Symp Proc       Date:  2022-02-21

3.  Surviving sepsis campaign: international guidelines for management of sepsis and septic shock 2021.

Authors:  Laura Evans; Andrew Rhodes; Waleed Alhazzani; Massimo Antonelli; Craig M Coopersmith; Craig French; Flávia R Machado; Lauralyn Mcintyre; Marlies Ostermann; Hallie C Prescott; Christa Schorr; Steven Simpson; W Joost Wiersinga; Fayez Alshamsi; Derek C Angus; Yaseen Arabi; Luciano Azevedo; Richard Beale; Gregory Beilman; Emilie Belley-Cote; Lisa Burry; Maurizio Cecconi; John Centofanti; Angel Coz Yataco; Jan De Waele; R Phillip Dellinger; Kent Doi; Bin Du; Elisa Estenssoro; Ricard Ferrer; Charles Gomersall; Carol Hodgson; Morten Hylander Møller; Theodore Iwashyna; Shevin Jacob; Ruth Kleinpell; Michael Klompas; Younsuck Koh; Anand Kumar; Arthur Kwizera; Suzana Lobo; Henry Masur; Steven McGloughlin; Sangeeta Mehta; Yatin Mehta; Mervyn Mer; Mark Nunnally; Simon Oczkowski; Tiffany Osborn; Elizabeth Papathanassoglou; Anders Perner; Michael Puskarich; Jason Roberts; William Schweickert; Maureen Seckel; Jonathan Sevransky; Charles L Sprung; Tobias Welte; Janice Zimmerman; Mitchell Levy
Journal:  Intensive Care Med       Date:  2021-10-02       Impact factor: 17.440

4.  Effectiveness of automated alerting system compared to usual care for the management of sepsis.

Authors:  Zhongheng Zhang; Lin Chen; Ping Xu; Qing Wang; Jianjun Zhang; Kun Chen; Casey M Clements; Leo Anthony Celi; Vitaly Herasevich; Yucai Hong
Journal:  NPJ Digit Med       Date:  2022-07-19

5.  Electronic nudge tool technology used in the critical care and peri-anaesthetic setting: a scoping review protocol.

Authors:  Lisa McIlmurray; Bronagh Blackwood; Martin Dempster; Frank Kee; Charles Gillan; Rachael Hagan; Lynne Lohfeld; Murali Shyamsundar
Journal:  BMJ Open       Date:  2022-07-12       Impact factor: 3.006

6.  Design, Implementation, and Validation of a Pediatric ICU Sepsis Prediction Tool as Clinical Decision Support.

Authors:  Maya Dewan; Rhea Vidrine; Matthew Zackoff; Zachary Paff; Brandy Seger; Stephen Pfeiffer; Philip Hagedorn; Erika L Stalets
Journal:  Appl Clin Inform       Date:  2020-03-25       Impact factor: 2.342

7.  The Modified Early Warning Score: A Useful Marker of Neurological Worsening but Unreliable Predictor of Sepsis in the Neurocritically Ill-A Retrospective Cohort Study.

Authors:  Jeannette Hester; Teddy S Youn; Erin Trifilio; Christopher P Robinson; Marc-Alain Babi; Pouya Ameli; William Roth; Sebastian Gatica; Michael A Pizzi; Aimee Gennaro; Charles Crescioni; Carolina B Maciel; Katharina M Busl
Journal:  Crit Care Explor       Date:  2021-05-18

8.  Nursing and precision predictive analytics monitoring in the acute and intensive care setting: An emerging role for responding to COVID-19 and beyond.

Authors:  Jessica Keim-Malpass; Liza P Moorman
Journal:  Int J Nurs Stud Adv       Date:  2021-01-05

Review 9.  Automated monitoring compared to standard care for the early detection of sepsis in critically ill patients.

Authors:  Sheryl Warttig; Phil Alderson; David Jw Evans; Sharon R Lewis; Irene S Kourbeti; Andrew F Smith
Journal:  Cochrane Database Syst Rev       Date:  2018-06-25

10.  The Use of Patient Monitoring Systems to Improve Sepsis Recognition and Outcomes: A Systematic Review.

Authors:  Bryan M Gale; Kendall K Hall
Journal:  J Patient Saf       Date:  2020-09       Impact factor: 2.243

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.