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The “WHY” Behind Infusion Pump Alarms

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Presentation on theme: "The “WHY” Behind Infusion Pump Alarms"— Presentation transcript:

1 The “WHY” Behind Infusion Pump Alarms
Rob Regedanz Product / Market Manager Alaris Medley Platform Medication Management Solutions (MMS) Tim Vanderveen, PharmD, MS Med Safe Practices LLC San Diego, CA April, 2017

2 Pump Alarm and Alert Definitions
For this presentation: A pump “alarm” is defined as an unanticipated event Occlusion Air in line Free Flow condition Pump “alert” is an anticipated notification Infusion completed Reminder to visit patient Secondary to primary transition Bolus to continuous transition Walk-away alert – programming not completed Alarms and Alerts further differentiated Require bedside visit or Occur when caregiver at the pump Retrospective Data – Not real time distribution

3 Alarms and Alert Data for the Alaris® System (does not include Et/CO2 and Pulse Oximetry modules)

4 Issues with Infusion Pump Alarms and Alerts
Alarm and alert “fatigue” poster child Pumps rarely have “false” alarms Pumps are not associated with the patient Audible alarms and alerts typically sound the same Unlike monitors, alarms cannot be configured “off” Where are they coming from and why? Current system of bedside (only) infusion alarms and alerts require multiple visits to the bedside Pump alarms are actionable ( vs monitors)

5 Issues with Infusion Pump Alarms and Alerts
Multiple configurable pump settings impact frequency of alarms Pressure settings Air bubble size Near end of infusion Significant source of patient and family dissatisfaction – theirs and other patients Historically there has been no data on true frequency of pump alarms and alerts and limited focus on alarms reduction Wireless connectivity and all infusion data transfer now provide a window to infusion pump alarms and alerts

6 One patient’s “epiphany” with device alarms and alerts
Recounted by a Senior Monitoring Device Engineer Hospitalized for 10 overnight treatments Included an infusion pump and a multi-parameter monitor Monitor was a personal request – not typically indicated for this type of treatment. 10 pump alerts for infusion completed 1 air alarm, 3 consecutive patient side occlusion alarms (catheter was occluded) 1 alert that prevented a concentration programming error/potential adverse event Frequent monitoring alarms interfered with sleeping

7 Alarms During One Patient’s Admission
Estimated greater than 50 IV pump alarms and alerts daily emergent antecubital IV insertion site in the ED IV placement not changed to a more appropriate site on patient care unit no arm board provided personally reset occlusion alarms triple antibiotics IV timing = 9 infusion completion alarms Did not use the secondary piggyback function completion of the antibiotic fluid triggered an alarm I turned off the alarm and used the call bell when no response in 5 minutes Alarms during transport went unanswered low battery alarms had BR privileges, however unable to bend over to plug in the IV pump

8 Enhanced Retrospective Data Alarms Management
Alarm data By type By drug/fluid Care Area Time Risk mitigation Contributors to the noise Workflow changes Dataset configuration TJC Compliance

9 © 2017 BD Corporation or one of its subsidiaries. All rights reserved.
Analysis Overview An analysis of alarms and alerts received during the drug or fluid infusion was completed 130 hospitals’ data with 8,089,207 Infusions from 12/15/2016 to 03/15/2017 were analyzed. An Infusion consists of a start and end of an administered dose of a specific drug/fluid (could be 30 minute or 30 hour infusion) 95,376 Total Infusion Systems (PCU and 1-4 pumps) 61,070 pump modules were used (LVP, Syringe, and PCA) 6,741,005 Alarms recorded 1,026,164 Alerts recorded Bullet points are gray instead of orange. co_Hospitals: 130 = Total number of hospitals captured (Time Period: 12/15/2016 to 03/15/2017) co_Infusions: = Total Infusion co_System: = Total Infusion Systems co_Module : = pump modules co_Alarms : = Total Alarms co_Alerts : = Total Alerts © 2017 BD Corporation or one of its subsidiaries. All rights reserved.

10 Percentage of Infusions with Alarms
© 2017 BD Corporation or one of its subsidiaries. All rights reserved.

11 Number of Alarms Received During Infusions
Key observations: 81% of infusions had no alarms 6% had one alarm 13% had from 2 to 50 alarms I need to get the query to run so I can populate this slide with the correct data. © 2017 BD Corporation or one of its subsidiaries. All rights reserved.

12 All Alarms Received During Infusions Includes LVP, Syringe and PCA Pumps
Key observations: 43% were below the pump occlusions 50% of all alarms were occlusions 30% of alarms occurred with caregiver at bedside

13 Patient Side Occlusion Alarms by Care Area Profiles
Alarms before the first secondary infusion. Other than possible set mis-loading at initial start, this seems to show air alarms can occur about any time Answer: It may be worthy to note that alarms tend to go up right after infusion start and then at 30 minutes interval. © 2017 BD Corporation or one of its subsidiaries. All rights reserved.

14 Hospital 1-Top 25 Drugs With Alarms

15 IDN 1 Adult Critical Care Top 10 Drugs/Fluids with AIR alarms
Key Observations: Amiodarone had 28% of all AIR alarms 4 drugs contributed 63% of AIR alarms

16 IDN 2 Adult Critical Care
Top 10 Drugs/Fluids with AIR alarms Key Observations: Amiodarone was 6th in frequency IDN 1 – Outsourced drug, long shelf life IDN 2 – Drug prepared when ordered

17 Palomar Health Public health care district in North San Diego County
3 acute care facilities and 1 skilled nursing facility Palomar Medical Center, Pomerado Hospital, Palomar Health Downtown Campus and Villa Pomerado

18 Project Purpose: Reduction of infusion pump alarms
SEA #50 & Joint Commission National Patient Safety Goal on Alarms Management Clinical Excellence Grant CareFusion® Foundation

19 Which Medications Cause Alarms?

20 Survey estimate of average number of pump alarms per shift
% of respondents Number of alarms per shift

21 Likelihood of Causing Alarms
Least Likely Most Likely

22 Number of AIL Alarms and Infusions 75mcL AIL Dataset

23 Improve Implementation of Anti-Siphon Valve Amiodarone Albumin TPN
Lipids Etoposide Crofab IVIG Implementation of Anti-Siphon Valve

24 Desired improvements for clinical alarms
Respondents were asked to comment on desired improvements that would increase alarm recognition and response (free text format)

25 Thank You


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