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Neonatal Peripherally Inserted Central Catheter Practices and Providers: Results From the Neonatal PICC1 Survey

Authors:
  • The VA Ann Arbor Healthcare System and the University of Michigan

Abstract and Figures

Background: Neonatal intensive care units (NICUs) commonly utilize peripherally inserted central catheters (PICCs) to provide nutrition and long-term medications to premature and full-term infants. However, little is known about PICC practices in these settings. Purpose: To assess PICC practices, policies, and providers in NICUs. Methods: The Neonatal PICC1 Survey was conducted through the use of the electronic mailing list of a national neonatal professional organization's electronic membership community. Questions addressed PICC-related policies, monitoring, practices, and providers. Descriptive statistics were used to assess results. Results: Of the 156 respondents accessing the survey, 115 (73.7%) indicated that they placed PICCs as part of their daily occupation. Of these, 110 responded to at least one question (70.5%) and were included in the study. Reported use of evidence-based practices by NICU providers varied. For example, routine use of maximum sterile barriers was reported by 90.4% of respondents; however, the use of chlorhexidine gluconate for skin disinfection was reported only by 49.4% of respondents. A majority of respondents indicated that trained PICC nurses were largely responsible for routine PICC dressing changes (61.0%). Normal saline was reported as the most frequently used flushing solution (46.3%). The most common PICC-related complications in neonates were catheter migration and occlusion. Implications for practice: Variable practices, including the use of chlorhexidine-based solutions for skin disinfection and inconsistent flushing, exist. There is a need for development of consistent monitoring to improve patient outcomes. Implications for research: Future research should include exploration of specific PICC practices, associated conditions, and outcomes.
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Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
209
Advances in Neonatal Care • Vol. 17, No. 3 • pp. 209-221
Original Research Donna Dowling , PhD, RN Section Editor
BACKGROUND AND SIGNIFICANCE
Neonatal intensive care units (NICUs) routinely uti-
lize peripherally inserted central catheters (PICCs) to
provide nutrition and long-term medications to pre-
mature and full-term infants. While there has been
much growth in understanding PICC practices and
outcomes in adults, less has been learned in pediatric
and neonatal populations.
1
,
2 This leaves knowledge
gaps regarding practice for those who are the small-
est and most vulnerable. Trained vascular access
clinicians are most responsible for PICC insertion in
the adult population, yet little is known about
neonatal providers performing this function.
3 More
needs to be learned about PICC practices and those
inserting and caring for PICCs in neonates. A better
understanding of their background and challenges
can identify key areas for quality improvement and
for optimizing outcomes for this special
population.
Literature Review
There is ongoing interest surrounding the domain of
neonatal PICCs. Given challenges of performing
clinical trials in neonates, surveys provide invaluable
information about the state of practice. A number of
surveys have resulted from interest in this specialized
area of neonatal vascular access.
4-6 An early national
survey of nurses focused on common maintenance
practices and catheter-related sepsis criteria found
that the use of barrier precautions varied consider-
ably and povidone–iodine was the most common
agent used for skin preparation.
4 Similarly, a survey
of neonatologists in Japan examined acceptable
catheter tip locations for PICC use, complications,
and informed consent, and reported that acceptable
catheter tip locations varied greatly, pericardial effu-
sion was rare, and most did not obtain informed
Neonatal Peripherally Inserted Central
Catheter Practices and Providers
Results From the Neonatal PICC1 Survey
Elizabeth Sharpe , DNP, APRN, NNP-BC, VA-BC ; Latoya Kuhn , MPH ; David Ratz , MS ; Sarah L. Krein , PhD ;
Vineet Chopra , MD, MSc
ABSTRACT
Background: Neonatal intensive care units (NICUs) commonly utilize peripherally inserted central catheters (PICCs) to
provide nutrition and long-term medications to premature and full-term infants. However, little is known about PICC
practices in these settings.
Purpose: To assess PICC practices, policies, and providers in NICUs.
Methods: The Neonatal PICC1 Survey was conducted through the use of the electronic mailing list of a national neona-
tal professional organization’s electronic membership community. Questions addressed PICC-related policies, monitor-
ing, practices, and providers. Descriptive statistics were used to assess results.
Results: Of the 156 respondents accessing the survey, 115 (73.7%) indicated that they placed PICCs as part of their
daily occupation. Of these, 110 responded to at least one question (70.5%) and were included in the study. Reported use
of evidence-based practices by NICU providers varied. For example, routine use of maximum sterile barriers was reported
by 90.4% of respondents; however, the use of chlorhexidine gluconate for skin disinfection was reported only by 49.4%
of respondents. A majority of respondents indicated that trained PICC nurses were largely responsible for routine PICC
dressing changes (61.0%). Normal saline was reported as the most frequently used flushing solution (46.3%). The most
common PICC-related complications in neonates were catheter migration and occlusion.
Implications for Practice: Variable practices, including the use of chlorhexidine-based solutions for skin disinfection and
inconsistent flushing, exist. There is a need for development of consistent monitoring to improve patient outcomes.
Implications for Research: Future research should include exploration of specific PICC practices, associated conditions,
and outcomes.
Key Words: catheter migration , central venous catheter , flushing , neonate , NICU , peripherally inserted central catheter ,
PICC , team
Author Affiliations: The School of Nursing, University of Alabama at
Birmingham (Dr Sharpe); The Division of General Medicine, University
of Michigan Health System, Ann Arbor (Drs Krein and Chopra); and
Center for Clinical Management Research and Patient Safety
Enhancement Program, VA Ann Arbor Healthcare System, Ann Arbor,
Michigan (Ms Kuhn, Mr Ratz, and Drs Krein and Chopra).
Elizabeth Sharpe is a speaker for Argon Medical Devices and Salveo
Healthcare, has consulted for C. R. Bard, and is on the Advisory Board
for IV Watch. No conflicts of interest are declared for all coauthors.
Correspondence: Elizabeth Sharpe, DNP, APRN, NNP-BC, VA-BC,
University of Alabama at Birmingham School of Nursing, NB406, 1720
2nd Ave South, Birmingham, AL 35294 ( elsharpe@uab.edu ).
Copyright © 2017 by The National Association of Neonatal Nurses
DOI: 10.1097/ANC.0000000000000376
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
www.advancesinneonatalcare.org
210 Sharpe et al
consent.
6 The most recent national survey of neona-
tal PICC practices exploring multiple aspects of
care, including insertion, maintenance, providers,
training, assessment, and radiographic monitoring,
revealed wide variation in numerous practices.
5
Ongoing dialogue in the electronic community of
myNANN frequently addresses and speaks to con-
cerns regarding PICC use and outcomes. MyNANN
is the community forum for the National Associa-
tion of Neonatal Nurses ( www.nann.org ), which
represents more than 7000 neonatal nurses primar-
ily in the United States and North America. Mem-
bers frequently post questions and responses sur-
rounding PICCs and PICC teams. Although required
for advancing practice, knowledge about how to
appropriately insert, care, and manage PICCs in
neonates is limited. To date, few surveys have exam-
ined practices and use of contemporary technolo-
gies, which continue to evolve, when it comes to
neonates. None have focused on experience or work
setting of providers that place PICCs in neonates. To
bridge these gaps, we conducted the neonatal PICC1
survey aiming to better understand these aspects in
this unique population.
METHODS
Study Setting and Participants
The Neonatal PICC1 survey was administered
through electronic invitation to neonatal nurses or
nurse practitioners who are members of the
National Association of Neonatal Nurses. Respon-
dents who opened the invitation were eligible to
participate if placing PICCs was part of their daily
occupation.
Development and Validation of the Survey
The PICC1 survey instrument was originally admin-
istered to adult vascular access specialists through
the Association for Vascular Access and the Infusion
Nursing Society.
7 To gain insight into the neonatal
setting, the survey instrument was modified to incor-
porate information, evidence, and questions that
pertained to neonatal providers and practices. Mod-
ifications for neonates included substitution of
neonatal-specific terms (eg, the NICU or unit instead
of facility) and, in consultation with a neonatal
practitioner, items relevant to the context of neona-
tal intensive care practice (eg, skin disinfection, neo-
natal techniques). To preserve the integrity of the
original PICC1 instrument and ensure that compari-
sons between providers could be made, extensive
alterations were not possible. However, these were
acknowledged within the study team before admin-
istering the Neonatal PICC1 survey.
Participation for the Neonatal PICC1 survey was
solicited through open invitation through the elec-
tronic mailing list of a national neonatal professional
organization’s online membership community in June
2015. An electronic link was provided for partici-
pants to complete the instrument. Reminders were
posted in the same online community at 2 weeks, 4
weeks, and 5 weeks. The survey link remained active
for 6 weeks, concluding in July 2015.
Statistical Analysis
Descriptive statistics (percentage, proportion) were
used to tabulate the results. Data were assessed and
summarized according to predefined categories,
including demographics, hospital-level characteristics,
and provider practices. Respondents were not required
to answer all questions; therefore, the response rate for
individual questions will vary on the basis of the num-
ber of respondents who answered each question.
Because some questions allowed for multiple responses
(eg, provider categorization or preferences), responses
to some questions total more than 100%. All statistical
analyses were conducted using Stata 13 MP/SE
(StataCorp, College Station, Texas).
Ethical and Regulatory Oversight
Because the PICC1 survey-based study sought to
describe existing practice and did not seek to collect
any individual or unit-specific identifiable informa-
tion, the project received a “Not Regulated” status
by the institution’s institutional review board
(HUM00088351).
RESULTS
Demographics
A total of 156 individuals responded to the survey
invitation. Of these, 115 qualified to participate
because they indicated they placed PICCs as part of
their daily practice. Of the 115 qualifying to partici-
pate, 110 responded to at least 1 question (response
rate: 70.5%) and were included in the study. Respon-
dents represented North American territories, includ-
ing 30 territories from continental United States and
Canada. Experience level among respondents was
variable: approximately 50% reported inserting
PICCs for 10 years or more, 34% reported that they
had placed 100 to 500 PICCs while 22% reported
having placed 500 or more PICCs ( Table 1 ).
What This Study Adds
Catheter migration may be more common than infec-
tion as a PICC-related complication.
Systems need to be developed to gather and produce
meaningful data related to neonatal PICCs and patient
outcomes.
Neonatal providers are using less heparin for flushing
for increased patient safety.
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
Neonatal Peripherally Inserted Central Catheter Practices and Providers 211
Advances in Neonatal Care • Vol. 17, No. 3
PICC Inserter Characteristics
Providers inserting PICCs included vascular access
nurses (53.6%), neonatal hospitalists, neonatal
nurse practitioners or physician’s assistants (63.6%),
and interventional radiologists (14.5%). In addition,
some respondents specifically identified as neonatal
nurse practitioners (14.5%). While the total number
of specially trained PICC nurses in individual units
varied, the majority reported that there were fewer
than 10 such nurses (53.6%) in their unit. The
majority of respondents described themselves as
advanced practice nurses (52.6%) or specially
trained NICU PICC nurses (39.5%). Nearly a quar-
ter (23.7%) of respondents identified as being the
TABLE 1. General Characteristics and Perceived Relationships of Respondents
Which of the following best describes you? N (%) N = 76
Vascular access nurse (or specially trained PICC nurse) 30 (39.5%)
Mid-level provider (eg, physician assistant or advance practice nurse) 40 (52.6%)
Other 6 (7.9%)
How many vascular nurses are on your team? N (%) N = 110
< 10 59 (53.6%)
10 35 (31.8%)
Unknown/not applicable 16 (14.5%)
How many PICCs have you placed in your career? N (%) N = 76
< 500 59 (77.6%)
500 17 (22.4%)
How many years have you been inserting PICCs? N (%) N = 76
10 y 38 (50%)
> 10 y 38 (50%)
Do you currently have VA-BC or CRNI vascular access qualifi cations? N (%) N = 76
Yes 2 (2.6%)
No 74 (97.4%)
Are you the vascular access lead nurse for your facility or organization? N (%) N = 76
Yes 18 (23.7%)
No 58 (76.3%)
How would you rank the overall support (eg, staffi ng, fi nancial, and political) your vascular
access service receives from hospital leadership? N (%)
N = 104
Very good or excellent 50 (48.1%)
Fair or good 48 (46.2%)
Poor 6 (5.8%)
How would you describe your relationship with physicians in your unit when it comes to
communicating recommendations or management of PICCs? N (%)
N = 104
Very good 71 (68.3%)
Good 28 (26.9%)
Fair 5 (4.8%)
How would you describe your relationship with bedside nurses in your unit when it comes to
communicating recommendations or management of PICCs? N (%) N = 104
Very good 67 (64.4%)
Fair or good 36 (34.6%)
Poor 1 (1.0%)
Abbreviations: CRNI, certifi ed registered nurse in infusion; PICC, peripherally inserted central catheter; VA-BC, vascular access-board
certifi ed; y, years.
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
www.advancesinneonatalcare.org
212 Sharpe et al
vascular access lead nurse (eg, PICC team leader) for
their unit. Only 2 respondents (2.6%) reported
holding current vascular access certification by the
Vascular Access Certification Corporation (eg,
Vascular Access–Board Certified, VA-BC) or Infu-
sion Nurses Society (eg, certified registered nurse in
infusion) ( Table 1 ).
Hospital/Facility Characteristics
Respondents reported working in not-for-profit hospi-
tals (59.2%), academic medical centers (32.9%), and
for-profit hospitals (7.9%). The majority of respon-
dents (59%) reported working in facilities that had at
least 250 hospital beds and fewer than 40 NICU beds
(58.7%). Facility characteristics varied among those
surveyed: 105 (95.5%) reported having hospitalists in
their facility and 58 and 56 (52.7% and 50.9%)
reported an affiliation with a medical school or nurs-
ing school, respectively. Most reported that their facili-
ties tracked both numbers of PICCs placed (82.7%)
and catheter dwell times (88.2%). The electronic med-
ical record system was most often utilized to perform
these functions (47.8%), followed by user-maintained
documents (42.4%). The majority of respondents esti-
mated the number of PICCs placed monthly in their
units as fewer than 25 (79.8%) ( Table 2 ).
PICC Indications and Insertion Practices
The 2 most commonly reported indications for neo-
nates to receive PICCs were total parenteral nutri-
tion and difficult peripheral venous access. During
insertion, 90.4% of respondents reported the use of
all 5 maximum sterile barrier precautions including
sterile gloves, gown, cap, mask, and full body drapes.
A total of 83.3% of PICC inserters reported rou-
tinely receiving assistance from a vascular access
nurse when placing the PICC. Only 41 (49.4%)
respondents stated that they used chlorhexidine-
containing solutions for skin disinfection prior to
PICC insertion. Similarly, only 2 respondents (2.4%)
stated that they used ultrasound to locate a suitable
vein for PICC insertion. Most (82.9%) reported rou-
tinely trimming PICCs to length prior to insertion
with more than half (52.9%) utilizing a specialized
trimming device for this purpose ( Table 3 ).
PICC Policies and Monitoring Schema
The majority of those surveyed reported that written
policies for PICC insertion (89.4%) and PICC care
and maintenance (97.1%) existed in their units.
Most respondents (81.3%) also reported having a
written process for daily review of PICC necessity.
Of those with written processes, this included a mul-
tidisciplinary review (53.8%) or a physician-driven
review (50.8%). Only 17.7% reported that vascular
access nurses were empowered to discontinue PICCs
that were not in use without physician authorization
( Table 2 ).
Maintenance and Management of PICC
Complications
Dressing changes were reported as being under the
purview of specially trained NICU PICC nurses by
61.0% of respondents. Similarly, 67.1% stated that
they did not use securement devices (eg, Statlock
[Bard Medical, Covington, GA], Grip-Lok [Zefon
International, Inc., Ocala, FL]). The most commonly
reported needleless connector used was a neutral
valve connector (32.5%) or positive displacement
connector (30.0%). Frequency of needleless connec-
tor change varied, but was most commonly reported
as being exchanged either every 72 hours (27.5%) or
every 24 hours (23.8%) ( Table 3 ).
The majority of PICC inserters (85.4%) reported
that bedside nurses were primarily responsible for
adherence to a flushing protocol. Most (48.8%)
described targeted flushing practices (flushing
lumens that were not being actively used or only
used for blood draws) with a slow flushing tech-
nique. The most commonly reported volume of flush
was no more than 2 to 3 mL (92.7%). Normal saline
was most often used as the flushing solution (46.3%).
The reported interval between flushing ranged from
every 8 hours to once every 24 hours, with no single
interval being most prevalent ( Table 3 ; Figure 1 ).
When catheter occlusion was suspected, the
majority (59.5%) reported the use of tissue plasmin-
ogen activator. Although responses were low,
respondents were more inclined to remove the device
and consider replacement at a new site when cathe-
ter migration more than 2 cm was encountered
(8.9%). A third of respondents (32.9%) indicated
that they would discontinue the PICC for any sign of
phlebitis; 27.8% reported that they would also pro-
vide supportive measures such as warm compresses
and analgesics ( Table 4 ).
With respect to complications, respondents indi-
cated that catheter migration was the most com-
monly encountered PICC complication (47.2%),
followed by catheter occlusion (13.9%), coiling/
kinking after insertion (12.5%), phlebitis (9.7%),
and central line–associated bloodstream infection
(CLABSI) (9.7%) ( Table 4 ; Figure 2 ).
Neonatal PICC Inserter Views Regarding
PICC Use
With respect to the appropriateness of PICC place-
ment, the majority of those surveyed (92.1%) stated
that less than 5% of PICCs placed in neonates were,
in their opinion, inappropriate or avoidable ( Table 4 ).
Nearly half of all respondents (48.1%) described
support from hospital leadership as very good or
excellent; however, a small number reported this as
poor (5.8%). Relationships between physicians and
bedside nurses when communicating recommenda-
tions regarding PICCs were most often described as
being very good (68.3% and 64.4%, respectively).
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
Neonatal Peripherally Inserted Central Catheter Practices and Providers 213
Advances in Neonatal Care • Vol. 17, No. 3
TABLE 2. Facility Characteristics
Which of the following best describes your primary work location? N (%) N 76
Academic medical center 25 (32.9%)
For-profi t community-based hospital 6 (7.9%)
Not-for-profi t community-based hospital 45 (59.2%)
Number of hospital beds in your primary work location N (%) N 78
< 250 32 (41.0%)
250 46 (59.0%)
Number of neonatal intensive care unit beds in your primary work location N (%) N 109
< 40 64 (58.7%)
40 45 (41.3%)
Does your facility have hospitalists? N (%) N 110
Yes 105 (95.5%)
No 3 (2.7%)
Unknown/not applicable 2 (1.8%)
Is your facility affi liated with a medical school? N (%) N = 110
Yes 58 (52.7%)
No 51 (46.4%)
Unknown/not applicable 1 (0.9%)
Is your facility affi liated with a nursing school? N (%) N 110
Yes 56 (50.9%)
No 49 (44.5%)
Unknown/not applicable 5 (4.5%)
Does your facility track the number of PICCs placed each month? N (%) N 110
Yes 91 (82.7%)
No 10 (9.1%)
Unknown 9 (8.2%)
How many PICCs do you think your unit inserts each month? N (%) N 104
< 25 83 (79.8%)
25-49 18 (17.3%)
50-100 1 (1.0%)
> 100 2 (1.9%)
Does your facility track the duration or dwell time of PICCs (number of days)? N (%) N 110
Yes 97 (88.2%)
No 7 (6.4%)
Unknown 6 (5.4%)
How does your unit track the duration of PICCs? N (%) N 92
Through the electronic medical record system 44 (47.8%)
Manually through user-maintained documents (eg, excel spreadsheets) 39 (42.4%)
Through a module outside the electronic medical record system (eg, billing data) 2 (2.2%)
Unknown/other 7 (7.6%)
( continues)
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www.advancesinneonatalcare.org
214 Sharpe et al
DISCUSSION
This study is the latest to examine neonatal PICC
practices in the United States and the first to view the
environment of care by exploring policies and pro-
viders’ perceptions surrounding organizational sup-
port. We found that certain evidence-based practices
have gained traction. For instance, the use of maxi-
mal sterile barriers when inserting PICCs in neonates
as a CLABSI-preventive strategy appears common.
Similarly, the use of normal saline rather than hepa-
rin to maintain PICCs is common. However, we also
found that some evidence-recommended practices
are lacking. For instance, the use of chlorhexidine
for skin antisepsis was reported as low despite evi-
dence of benefit. Similarly, there was little use of
ultrasound despite recommendations for its use as a
standard of care in adult and pediatric populations.
8
These data suggest improvement in practices that
might be important in enhancing patient safety.
In addition, we found that catheter migration was
reported as the most common PICC-related
complication—trumping infectious causes, occlu-
sion, and other mechanical issues. This finding is
important as it suggests enhanced focus on training
and securement for neonates and infants is impor-
tant. Catheter migration internally or externally can
create treacherous conditions imperiling the small
baby. That mechanical complications have come to
the forefront in this study suggests that with effec-
tively implemented infection preventive strategies in
place, other complications are receiving greater cog-
nizance. Noteworthy is that most did not utilize a
securement device. This could be due to the non-
availability of an engineered stabilization device spe-
cific for each PICC, and the challenge of achieving
adequate contact area on the small baby’s limited
and fragile skin surface. Alternatively, catheter
migration may have been previously overlooked or
underrecognized as a complication.
9 Evaluation
TABLE 2. Facility Characteristics, Continued
Does your unit have a written policy regarding standard PICC insertion practices? N (%) N 104
Yes 93 (89.4%)
No 9 (8.7%)
Unknown 2 (1.9%)
Does your unit have a written policy regarding standard PICC care and maintenance? N (%) N 104
Yes 101 (97.1%)
No 3 (2.9%)
Does your unit have a written medical or nursing process to review the necessity of
PICCs on a daily basis? N (%)
N 80
Yes 65 (81.3%)
No 12 (15.0%)
Unknown 3 (3.8%)
Which of the following best describes this written medical or nursing process (select all
that apply)? N (%)
N 65
Daily multidisciplinary review 35 (53.8%)
Daily physician review 33 (50.8%)
Daily bedside nurse review 21 (32.3%)
Daily vascular access nursing review 9 (13.8%)
Automated electronic systems to review 6 (9.2%)
Daily infectious diseases or infection preventionist review 4 (6.2%)
Daily pharmacist review 3 (4.6%)
Other 1 (1.5%)
Are vascular access nurses empowered to remove PICCs that are idle or clinically
unnecessary without physician authorization? N (%)
N 79
Yes 14 (17.7%)
No 65 (82.3%)
Abbreviation: PICC, peripherally inserted central catheter.
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
Neonatal Peripherally Inserted Central Catheter Practices and Providers 215
Advances in Neonatal Care • Vol. 17, No. 3
TABLE 3. Reported Practices of Respondents
Routinely uses all fi ve sterile barriers when placing a PICC (sterile gloves, gown, cap, mask, and
full-body drapes), N (%)
N = 83
Yes 75 (90.4%)
No 8 (9.6%)
Do other vascular access nurses routinely assist you when you insert a PICC? N (%) N = 84
Yes 70 (83.3%)
No 14 (16.7%)
Which of the following products do you routinely use to disinfect the patients skin prior to PICC
insertion? N (%) N = 83
Chlorhexidine gluconate with or without alcohol 41 (49.4%)
Other 42 (50.6%)
Do you use ultrasound to fi nd a suitable vein prior to PICC insertion? N (%) N = 83
Yes 2 (2.4%)
No 81 (97.6%)
Do you routinely trim the PICC to length? N (%) N = 82
Yes 68 (82.9%)
No 14 (17.1%)
What instrument do you use to trim the PICC? N (%) N = 68
Specialized trimming tool 36 (52.9%)
Scissors 32 (47.1%)
Who is primarily responsible for administering and adhering to a fl ushing protocol at your
facility? N (%)
N = 82
Bedside nurses 70 (85.4%)
Vascular access nurses (or specially trained PICC nurses) 4 (4.9%)
Other 8 (9.8%)
Which of the following best describes your recommended PICC fl ushing protocol? N (%) N = 82
Nontargeted fl ushing (fl ush all lumens daily, irrespective of use) 9 (11.0%)
Targeted fl ushing (fl ush lumens based on use or nonuse) 40 (48.8%)
Other 33 (40.2%)
Which of the following best describes your fl ushing technique? N (%) N = 82
Slow fl ushes 40 (48.8%)
Pulsatile (stop and go) fl ushing 32 (39%)
Rapid push fl ushes 1 (1.2%)
Other
How many mL’s do you typically use when you fl ush each lumen of a PICC? N (%) N = 82
No more than 2-3 mL 76 (92.7%)
More than 3 but less than 5 mL 4 (4.9%)
At least 5-10 mL 1 (1.2%)
More than 10 mL 1 (1.2%)
( continues )
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www.advancesinneonatalcare.org
216 Sharpe et al
TABLE 3. Reported Practices of Respondents, Continued
Which of the following best describes the frequency at which you recommend fl ushes of the
PICC? N (%) N = 82
Before and after each use of the PICC 18 (22.0%)
Daily 2 (2.4%)
Every 12 h 11 (13.4%)
Every 8 h 16 (19.5%)
Other/unknown 35 (42.7%)
Which of the following agents are most often used for fl ushing PICCs at your facility? N (%) N = 82
Normal-saline only 38 (46.3%)
Heparin only 16 (19.5%)
Both heparin and normal saline fl ushes (based on device or patient characteristics) 23 (28.0%)
Other 5 (6.1%)
Who is most responsible for performing dressing changes for PICCs? N (%) N = 82
Vascular access nurses (or specially trained PICC nurse) 50 (61.0%)
Bedside nurses 11 (13.4%)
Other 21 (25.6%)
Does your facility use a securement device to prevent PICC migration? N (%) N = 82
Yes 27 (32.9%)
No 55 (67.1%)
Which of the following securement devices does your facility use? N (%) N = 80
Neutral valve connectors 26 (32.5%)
Positive displacement connectors 24 (30.0%)
Negative displacement connectors 11 (13.8%)
Split septum connectors 8 (10.0%)
Other 11 (13.8%)
How often are needleless connectors typically changed in your unit? N (%) N = 80
Every 24 h 19 (23.8%)
Every 48 h 2 (2.5%)
Every 7 d 8 (10.0%)
Every 72 h 22 (27.5%)
Every 96 h 13 (16.2%)
Other 16 (20.0%)
Abbreviations: d, days; h, hours; PICC, peripherally inserted central catheter.
revealing distal displacement of a PICC could also
have been an accepted prerequisite to premature dis-
continuation. Thus, accurate data collection demon-
strating the full scale of this problem may not be
available. Consistent definitions and documentation
of catheter migration and other complications are
needed in determining relevant targets for quality
improvement. As has been demonstrated, data col-
lection and reporting have impacted CLABSI reduc-
tion.
10
,
11 More needs to be learned about the nature,
timing, and direction of catheter migration to design
strategies such as consistent training in securement
techniques or awareness of current guidelines for
best practice recommendations.
12
With catheter migration, a serious consequence to
be feared, trimming is critical as its omission enables
excess external catheter length, which can poten-
tially migrate inward with potentially fatal compli-
cations.
13 Trimming practices appeared largely
unchanged from earlier findings with a small increase
in the use of specialized trimming devices.
5
In addition, we observed that providers report
overall positive perceptions of organizational sup-
port and teamwork from leadership, physicians, and
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
Neonatal Peripherally Inserted Central Catheter Practices and Providers 217
Advances in Neonatal Care • Vol. 17, No. 3
nurses. This is in contrast to adults where studies
suggest that these ties are more variable and subop-
timal.
7 Finally, CLABSI-prevention bundles have
evolved into distinct written policies for insertion
and care and maintenance. Processes for daily review
of PICC necessity are now the norm in the NICU, in
contrast with earlier reports where less than 10% of
units conducted this type of monitoring.
5
,
14 Neona-
tal providers appear to be judicious in considering
the intended therapy’s duration, and well in com-
mand of appropriate PICC utilization, in contrast to
what has been found with adult populations.
3 These
data advance the science of PICC practice in this spe-
cial population in new and important ways.
Chlorhexidine gluconate adoption for PICC inser-
tion was lower than in an earlier study (52.9%),
which was surprising considering the benefits in
CLABSI reduction and liberalization of the package
labeling.
5 This may be due to the small sample size
of this study. In contrast, more recent work demon-
strates a dramatic increase in use of chlorhexidine
gluconate for disinfection (86%) for multiple proce-
dures in the NICU.
15
The diversity of flushing practices was notewor-
thy; however, the majority reporting normal saline
as the flushing solution demonstrates a shift from an
earlier survey where neonatal PICCs were seldom
locked and heparin amounts varied.
5 This may rep-
resent adoption of emerging findings describing suc-
cess with solely normal saline in peripheral intrave-
nous devices, guiding limiting heparin use.
16 A recent
systematic review failed to conclude superiority of
normal saline or heparin in flushing central venous
catheters in infants and the risk of heparin-induced
thrombocytopenia bears consideration.
17-19
We were surprised by the wide variation in flush-
ing frequency intervals considering the availability
of published flushing protocols.
20 Lack of consis-
tency in flushing protocols can be attributed to neo-
natal PICCs primarily being used for continuous
infusion, and with less prevalent need to lock, or
that neonatal providers may be unaware of the exis-
tence of a flushing protocol. In addition, daily review
of line necessity prompting catheter removal as soon
as no longer needed may obviate the need to lock the
device.
The need for outcomes data related to PICC prac-
tices either exceeds the current functionality of elec-
tronic medical record systems or has not yet been
effectively addressed and incorporated. The conduct
of randomized controlled trials in our population
remains challenging, though they may yield valuable
information regarding optimal complications-
prevention strategies. Practitioners report efforts to
utilize other manual strategies to collect data points
to construct big data. With less than half of respon-
dents tracking PICC data and duration through the
electronic medical record system, a need to develop
systems, add functionality to existing systems, or
train users to track these data is needed. The fact
that some respondents track NICU’s duration and
volume of PICCs manually through user-maintained
documents (electronic spreadsheets or databases)
illustrates the need for consistent approaches to col-
lecting data in an era driving toward standardization
for enhanced patient safety. Our work identifying
this gap is a critical first step in addressing this need.
Providers and infection preventionists will need
these capabilities and resources to guide the develop-
ment and monitoring of new evidence-based initia-
tives to support future quality improvement work.
There was little use of ultrasound reported in this
study. However, ultrasound is the standard of care in
adults and pediatric patients, not in neonates. Find-
ings related to limited ultrasound use are consistent
with previously reported data, though as capabilities
of newer technology evolve, this may shift.
5 Addi-
tional barriers to NICU adoption of ultrasound,
such as capital equipment expense, training, height-
ened skill required, and maintaining proficiency
once acquired, also exist. Although there are bene-
fits of ultrasound beyond vessel location, this tech-
nology has yet to be fully embraced by neonatal pro-
viders and more research is needed to realize this
possibility.
21
That respondents reported specially trained PICC
teams assume the responsibility for a critically impor-
tant procedure such as PICC dressing change demon-
strates alignment with recognition of teams effec-
tively reducing mistakes to support patient safety.
22 A
significant number of respondents indicated that they
were specially trained NICU PICC nurses working in
a team. This area targeting vascular access presents a
ripe opportunity for formalization as an entity for
recognition both within and external to the institu-
tion. NICU-based providers (specially trained nurses,
nurse practitioners, and physicians) dominated PICC
insertion in neonates and seldom ventured beyond
this population. Defining which of these core
FIGURE 1
Reported flushing frequency (n = 82).
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
www.advancesinneonatalcare.org
218 Sharpe et al
TABLE 4. Reported Approach to Complications and Views Regarding PICC Practice
Most commonly encountered PICC-related complication N = 72
Catheter migration 34 (47.2%)
Catheter occlusion 10 (13.9%)
Coiling or kinking after insertion 9 (12.5%)
Phlebitis over insertion site 7 (9.7%)
Central line–associated bloodstream infection 7 (9.7%)
DVT 4 (5.6%)
Catheter fracture or embolization 1 (1.4%)
What is your preferred approach to treating catheter occlusion? N (%) N = 79
Use a tissue plasminogen activator product 47 (59.5%)
Other 32 (40.5%)
What is your preferred approach to treating a PICC that has migrated out < 2 cm? N (%) N = 79
Obtain a chest x-ray fi lm to verify tip position 72 (91.1%)
Remove device and consider replacement at a new site 3 (3.8%)
Perform a complete catheter exchange over a guide-wire if possible 2 (2.5%)
Advance device back into vein 1 (1.3%)
Other 1 (1.3%)
What is your preferred approach to treating a PICC that has migrated out > 2 cm? N (%) N = 79
Obtain a chest x-ray fi lm to verify tip position 63 (79.7%)
Remove device and consider replacement at a new site 7 (8.9%)
Perform a catheter exchange over a guide wire if possible 5 (6.3%)
Advance device back into vein after cleaning with alcohol or chlorhexidine 1 (1.3%)
Other 3 (3.8%)
What is your preferred approach when you suspect a patient has PICC-associated phlebitis? N (%) N = 79
Supportive measures 22 (27.8%)
Discuss physician 28 (35.4%)
Discuss nurse 1 (1.3%)
Remove PICC 26 (32.9%)
Other 2 (2.5%)
What is your preferred approach when you suspect a patient has a PICC-related DVT? N (%) N = 79
Notify all caregivers (eg, physician, bedside nurse, resident, or student) 13 (16.5%)
Notify bedside nurse and physician-in-charge 45 (57.0%)
Other 21 (26.6%)
Reports suggest that PICCs are unnecessarily removed when a patient develops a fever. In
your experience, what percentage of PICCs may have been removed in this manner? N (%) N = 76
< 10% 10 (13.2%)
10% 66 (86.8%)
Reports suggest that PICCs are sometimes placed for inappropriate reasons and could be
avoided. In your experience, what percentage of PICCs are inappropriate or could have been
avoided? N (%)
N = 76
< 5% 70 (92.1%)
5%-9% 6 (7.9%)
Abbreviations: DVT, deep vein thrombosis; PICC, peripherally inserted central catheter.
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
Neonatal Peripherally Inserted Central Catheter Practices and Providers 219
Advances in Neonatal Care • Vol. 17, No. 3
personnel comprise a team will be important in pro-
ducing meaningful outcomes-related data. Dedicated
teams providing advanced knowledge have been rec-
ognized as key in preventing complications, have
been demonstrated to be beneficial in the NICU, and
are recommended to enhance patient safety in health-
care.
8
,
23
,
24 Respondents reported variable amounts of
experience and this is interpreted as an advantage in
developing the succession plan for a team. Although
few providers reported holding certification in vascu-
lar access, this finding was not unexpected consider-
ing most NICU nurses who pursue certification
choose a recommended comprehensive credential
such as neonatal intensive care nursing or critical care
nursing certification.
25
Limitations
The target population was members of a national
organization who elected to participate in an elec-
tronic mailing list online community. Although the
overwhelming majority of the membership joins the
electronic community, this subset resulted in a
smaller than desired sample size. It is difficult to
quantify the subset population of members whose
duties and interests comprise or include PICC inser-
tion. While the results may not be fully representa-
tive of the overall membership, those who were
motivated to participate represented their own prac-
tices and opinions. Voluntary self-selection may
have elevated expression of certain practices accord-
ing to participants’ biases. The length of the survey
may have contributed to premature terminal fatigue
as completion required stamina and commitment
without interruption. Movement to exit the survey
was noted particularly at a question about fever,
which is uncommon in neonates. The electronic
method of administration may have eliminated par-
ticipants who may have preferred to complete the
survey in more traditional paper-based format.
Considering the short term of activation, this survey
yielded robust state representation (30 states) com-
pared with a previous national survey administered
over a longer period (43 states; raw unpublished
data, Sharpe, 2013).
Strengths
The Neonatal PICC1 survey assessed the practices
and perceptions of neonatal nurses who place PICCs,
and is the first to be successfully conducted entirely
within an electronic community framework of neona-
tal providers in the United States. This study provides
valuable insight into the current state of PICC prac-
tices in neonates and demonstrates the power of utiliz-
ing current electronic technology to capture a dynamic
snapshot. This study is also among the first to identify
catheter migration as the most common PICC-related
complication in neonates, suggesting that there is a
need for improved strategies for catheter securement
and consistent training. Another key finding was that
data collection for PICC duration is being accom-
plished through multiple modalities. This highlights
the need for either more user-friendly functionality in
existing systems or the development of new systems.
The heterogeneity of providers’ backgrounds can pro-
vide a strong foundation for future collaborative care.
Positive perceptions of organizational support are
encouraging moving forward in the current complex
landscape of healthcare as leadership support is asso-
ciated with patient safety climates with decreased risk
of hospital-acquired harm.
26
The results highlighted key differences in the
approach to vascular access between the neonatal
and adult populations. The use of both ultrasound
and chlorhexidine gluconate is universally accepted
in the adult population. Neonatal providers deemed
PICC utilization overwhelmingly appropriate for
patient needs in contrast to adult providers (92.1%
vs 36.4%). Neonatal providers came from more
FIGURE 2
Most commonly reported PICC-related complications (n = 72). DVT indicates
deep vein thrombosis; PICC, peripherally inserted central catheter.
Copyright © 2017 National Association of Neonatal Nurses. Unauthorized reproduction of this article is prohibited.
www.advancesinneonatalcare.org
220 Sharpe et al
heterogeneous backgrounds than adult providers.
There were higher reports of using only heparin
flushes in the more-at-risk neonatal population
(19.5% vs 2.1%, adults).
7
CONCLUSIONS
The Neonatal PICC1 survey provides important
information that reiterates diversity in practice but
also new areas for practice improvement, such as
team formalization, refinement of flushing proce-
dures, minimizing the risk for catheter migration,
and accurate data reporting. While the primary
focus of the original PICC1 survey was not directed
at capturing neonatal data, neonatal-specific modi-
fications achieved unique data. Future iterations of
this instrument have the potential to capture more
meaningful neonatal practice and outcomes infor-
mation not only in the United States but globally.
The decision to utilize a PICC is not without risk.
1
The continued variability in PICC practices suggests
a need for:
Development of systems or additional func-
tionality for systems to monitor PICCs and
associated complications with outcomes data
reporting capability.
Formalization in definition, education, training,
and functions of specially trained PICC teams.
Collaborative approaches to preventing cathe-
ter migration and other complications includ-
ing administrative institutional support.
Healthcare providers develop, inform, and enact
their practices based on evidence, rationale (scien-
tific or personal), and common practices in the
community. Our survey results provide foundational
insight about contemporary PICC practices and pro-
viders’ perspectives in our national neonatal com-
munity. Essential to progress is the need for effective
data management platforms to identify and guide
the next generation of strategies for improvement.
There is a compelling need to generate evidence that
demonstrates the superiority of a unified workforce
in implementing best practices. With the dearth of
evidence in this population, our results can inform
the development of future research on which to build
a community of best practice for our tiny patients.
Acknowledgments
This project was funded by an Investigator Initiated
Research Grant from the Blue Cross Blue Shield of Mich-
igan Foundation (Grant Number 2140.II, principal
investigator: Dr Chopra). The funding source played no
role in study design, data acquisition, analysis, or deci-
sion to report these data. Dr Chopra is supported by a
career development award from the Agency of Health-
care Research and Quality. This work was also sup-
ported by the Department of Veterans Affairs, Health
Services Research and Development Service, and
National Center for Patient Safety. Dr. Krein is supported
by a VA Health Services Research and Development
Research Career Scientist Award (RCS 11-222). The
views expressed in this article are those of the authors
and do not necessarily reflect the position or policy of the
Department of Veterans Affairs or the US government.
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What We Know A collaborative team approach to infusion therapy has been recognized as inte-
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Provision of vascular access for neonates has traditionally been performed by
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Neonatal Peripherally Inserted Central Catheter Practices and Providers 221
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... 4 Ultrasound-guided vascular access has been shown to decrease the number of needle puncture attempts, leading to less pain, enhanced vessel preservation, and a lower risk of infection. 4,7,8,10,14,15 Ultrasound guidance has also demonstrated a reduction in procedure time, therefore increasing patient comfort and minimizing costs. 4,8 Despite recommendations from a range of professional organizations, the use of US technology to guide central line placement remains underutilized in the neonatal population (Table 1). ...
... 4,8 Despite recommendations from a range of professional organizations, the use of US technology to guide central line placement remains underutilized in the neonatal population (Table 1). [1][2][3]5,12,[14][15][16][17][18] A recent survey of neonatal nurses and nurse practitioners who insert PICCs on a daily basis found that less than 3 percent used US to locate a suitable vein prior to PICC insertion . 15 It was not reported whether clinicians used the static technique solely to evaluate the site, or the much-preferred dynamic technique, using real-time US imaging to visualize the vein and needle at all times while placing the catheter . ...
... [1][2][3]5,12,[14][15][16][17][18] A recent survey of neonatal nurses and nurse practitioners who insert PICCs on a daily basis found that less than 3 percent used US to locate a suitable vein prior to PICC insertion . 15 It was not reported whether clinicians used the static technique solely to evaluate the site, or the much-preferred dynamic technique, using real-time US imaging to visualize the vein and needle at all times while placing the catheter . ...
Article
Extremely low birth weight (ELBW), <1,000 g, neonates require central venous access for their growth, development, and survival. Peripherally inserted central catheters (PICCs) provide such access and reduce the risks associated with other types of central venous catheters. While the use of ultrasound (US) to guide PICC placement further reduces these risks, this technology has not been integrated into neonatal practice. The purpose of this case study is to describe US-guided PICC placement in 2 ELBW neonates. PICCs were placed in 2 patients weighing 505 g and 800 g, respectively, utilizing US guidance where the practitioner was unable to identify veins using traditional methods (e.g., palpation, landmarks, transillumination, or infrared device). PICC placement utilizing US guidance in ELBW neonates is a safe and effective technique that improves outcomes, prevents complications, and promotes vessel preservation in this vulnerable population. It is essential that this technique is integrated into neonatal practice.
... PICC migration has been reported to occur in the first 24-72 h after insertion [4,9,10,22]. Therefore, some researchers have suggested performing a repeat radiograph 24 h after inserting a PICC to identify migration, while others have suggested performing imaging surveillance up to 72 h after PICC insertion [4,8]. ...
... Therefore, some researchers have suggested performing a repeat radiograph 24 h after inserting a PICC to identify migration, while others have suggested performing imaging surveillance up to 72 h after PICC insertion [4,8]. Although the practice of performing surveillance radiographs has been reported by some, the quality of evidence to support this practice is lacking [22]. To the best of our knowledge, there is no evidence in the literature on the utility of regular surveillance of PICC to identify migration in newborn infants. ...
Article
Full-text available
Background Controversy exists regarding the use of a radiopaque agent to identify peripherally inserted central catheter (PICC) tip positions in newborn infants and of serial radiography to monitor PICC tip migration. Objective To investigate the roles of (1) the injection of a radiopaque agent to identify PICC tip position and (2) the performance of weekly radiography to monitor PICC migration. Materials and methods This retrospective single-centre cohort study included newborn infants who received a PICC between 1 January 2016 and 31 December 2020. A radiopaque agent was injected to identify PICC tip position and radiographs were performed weekly to detect PICC migration. Results We identified 676 PICC episodes in 601 infants. A radiopaque agent was used for 590 of these episodes. There was no difference in the proportion of central PICC tip positions based on radiopaque agent use status (490/590, 83% for the radiopaque agent used group versus 73/85, 85.8% for the radiopaque agent not used group, P=0.51). Irrespective of the site of PICC insertion, outward migration was observed for most centrally placed PICCs over their entire in situ duration. Inward migration was identified in 23 out of 643 PICC episodes (3.6%) only on radiographs obtained on or before day 7. Based on serial radiographs, the odds for PICC tips remaining in a central position were lower the longer the PICC remained in situ (adjusted odds ratio-OR 0.93; 95% confidence interval 0.92–0.95). There was no difference in PICC migration between side and limb of insertion. Conclusion PICC tips can be identified without injection of a radiopaque agent. Serial radiographs identified PICC migration over the in situ duration. This study has implications for reducing exposure to a radiopaque agent and ongoing migration surveillance practices. Graphical abstract
... 1,[7][8][9][10][11] Anatomical abnormalities such as stenosis, thrombosis or lesions that compress the vein hinder the proper positioning of the PICC. 12 Catheter migration is the most common complication among neonates, 13 caused mainly by the action of physical and hemodynamic forces, position of the patient and use of mechanical ventilation. 14 It should be noted that, eventually, there is movement of the tip of the catheter after its insertion. ...
Article
Full-text available
Objective: to analyze the scientific literature on technologies and care for positioning and repositioning of the peripherally inserted central catheter (PICC) in neonates. Method: integrative review, with search conducted in February 2022 in four databases. Results: 32 studies were included that address the use of technologies to verify the location of the PICC, procedures for its positioning and maneuvers for repositioning. For proper positioning should pay attention to the selection of the vessel, correct measurement of the device and maintenance of the well-being of the newborn. In the face of poor positioning, it is suggested limb movement, flush, catheter traction, and expectant management. The verification of the tip location is routine, by radiography, ultrasonography or electrocardiogram. Conclusion: the adoption of non-invasive technologies for the positioning and repositioning of PICC in neonates is recommended. The evidence points to professional competence in decision making for safe and quality care and prevention of adverse events.
... The second issue is related to the decision of who should be in charge of PICC lines' insertions, and actually all PIVs. Should it be a designated very experienced skillful IV team [23,24], or should we encourage most physicians, nurse practitioners, and nurses working in the NICU to acquire these skills at the price of less experience and worse outcomes, i.e., more painful trials, as seen in the results from our NICU [25,26]. In the analysis of our results, we could not find differences in the number of attempts of insertion of IV lines between more junior or more experienced medical personnel (physicians or nurses), but our data in this regard were not full, and was thus not presented in the results section or in the tables. ...
Article
Full-text available
Background and objectives: There is a debate regarding the preferred intravenous (IV) access for newborns. Our aim was to study practices regarding the choice of vascular access and outcomes. Methods: A seven-month prospective observational study on IV lines used in all newborns admitted to Bnai Zion Medical Center's neonatal intensive care unit (NICU). Results: Of 120 infants followed, 94 required IV lines. Infants born at ≤32 weeks gestation, or with a head circumference ≤29 cm were more likely to require two or more IV lines or a central line for the administration of parenteral nutrition or medications for longer periods. However, central lines (umbilical or peripherally inserted central catheters (PICC)) were not associated with better nutritional status at discharge based on weight z-scores. Only one complication was noted-a central line-associated bloodstream infection in a PICC. Conclusions: Our data suggest preferring central IV access for preterm infants born at ≤32 weeks or with a head circumference ≤29 cm. We encourage other NICUs to study their own data and draw their practice guidelines for preferred IV access (central vs. peripheral) upon admission to the NICU.
... Many of the practices in the neonatal intensive care are unit specific and hence lack uniformity across the globe [2,4]. One such practice is initial respiratory support [5,6]. Escalation and de-escalation of the N-CPAP support to the babies with changing severity of the disease in terms of the sequence of altering the FiO2 and pressure vary among the units and individuals. ...
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Respiratory illnesses are common indications for mechanical ventilation in children. The adequacy of ventilatory support for oxygenation is measured using arterial blood gas analysis and calculation of oxygenation index (OI). Due to invasive nature of arterial blood sampling needed to calculate OI, several researchers have replaced blood gas-derived partial pressure of oxygen values with oxygen saturation (SpO2) obtained from pulse oximetry. This noninvasive index called oxygen saturation index (OSI) is found to be useful in neonates. Studies in pediatric population is lacking. In this prospective study on mechanically ventilated children, both OI and OSI were determined and compared against alveolar–arterial oxygen difference (AaDO2). A total of 29 children were studied. Both OSI and OI had good correlation of 0.787 and 0.792 with AaDO2, respectively. OSI of 7.3 and 9.4 had good sensitivity and specificity for AaDO2 cutoffs of 344 and 498, which represents moderate and severe respiratory illness, respectively. The correlation coefficients of both OSI and OI are similar against AaDO2. OSI can be used instead of OI for constant monitoring of children on mechanical ventilation. Arterial blood gas analysis and calculation of OI can be reserved for situations where SpO2 measurement is unreliable.
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Our purpose of this study was to analyze the application value of the information-based nursing quality evaluation model in improving the daily work quality of the PICC room in the outpatient department. From January 2020 to December 2020, 465 patients who received PICC treatment were selected as the research objects and divided into the observation group (265 cases, July 2020–December 2020, information-based nursing quality evaluation model after implementation) and the control group (200 cases, January 2020–June 2020, before the implementation of the information-based nursing quality assessment model). Compared with the control group, the children and their families in the observation group had higher PICC health knowledge and compliance scores, longer mean time for catheter placement, lower overall complication rate, and higher overall satisfaction rate after the intervention. The information-based nursing quality evaluation model can improve the daily work quality of the PICC room in the outpatient clinic, improve the clinical efficacy of PICC in patients, and reduce the incidence of complications such as catheter shedding. It is worthy of clinical application.
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Background: Within every neonatal clinical setting, vascular access devices are considered essential for administration of fluids, nutrition, and medications. However, use of vascular access devices is not without danger of failure. Catheter securement adhesives are being evaluated among adult populations, but to date, studies in neonatal settings are scant. Purpose: This research describes the prevalence of peripherally inserted central catheter failure related to catheter securement before and after the introduction of tissue adhesive for catheter securement. The identified modifiable risks might be used to evaluate efficacy, to innovate neonatal practice and support future policy developments. Method and Setting: This was a retrospective observational analysis of routinely collected anonymized intravenous therapy-related data. The study was carried out at the tertiary neonatal intensive care unit (112 beds) of the Women's Wellness and Research Center of Hamad Medical Corporation, Doha, Qatar. Results: The results showed that the use of an approved medical grade adhesive for catheter securement resulted in significantly less therapy failures, compared with the control group. This remains significant after adjusting for day of insertion, gestational age, birth weight, and catheter type. Implications for Practice and Research: In parallel with currently published international literature, this study's findings support catheter securement with an octyl-based tissue adhesive in use with central venous catheters. When device stabilization is most pertinent, securement with tissue adhesive is a safe and effective method for long-term vascular access among the neonatal population.
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Background: Within every neonatal clinical setting, vascular access devices are considered essential for administration of fluids, nutrition, and medications. However, use of vascular access devices is not without danger of failure. Catheter securement adhesives are being evaluated among adult populations, but to date, studies in neonatal settings are scant. Purpose: This research describes the prevalence of peripherally inserted central catheter failure related to catheter securement before and after the introduction of tissue adhesive for catheter securement. The identified modifiable risks might be used to evaluate efficacy, to innovate neonatal practice and support future policy developments. Method and setting: This was a retrospective observational analysis of routinely collected anonymized intravenous therapy-related data. The study was carried out at the tertiary neonatal intensive care unit (112 beds) of the Women's Wellness and Research Center of Hamad Medical Corporation, Doha, Qatar. Results: The results showed that the use of an approved medical grade adhesive for catheter securement resulted in significantly less therapy failures, compared with the control group. This remains significant after adjusting for day of insertion, gestational age, birth weight, and catheter type. Implications for practice and research: In parallel with currently published international literature, this study's findings support catheter securement with an octyl-based tissue adhesive in use with central venous catheters. When device stabilization is most pertinent, securement with tissue adhesive is a safe and effective method for long-term vascular access among the neonatal population.
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Background: Neonates require continuous and reliable intravenous routes to receive fluids, intravenous nutrition, and medications; accordingly, repeated interventions are essential to implant these routes. Percutaneous catheterization is a technology used for this purpose. Considering that central line infections are a major concern in neonatal intensive care units (NICUs), the present study aimed to assess the effects of using a care package on the incidence of infections and shelf life of peripheral central catheterization in the premature infants admitted to the NICU. Methods: This quasi-experimental study was a process assessment research conducted on 131 premature catheterized infants who were admitted to the NICU of Mofid Children’s Hospital affiliated to Shahid Beheshti University of Medical Sciences, Tehran, Iran, in 2019. The study sample included 131 neonates who met the inclusion criteria. The neonates were enrolled in the study at two levels, including 53 subjects in the first four months before the intervention, and 78 in the second four months after application of the care package. The infants were selected via the convenience sampling method. Data were collected using the central line maintenance bundle and central line maintenance bundle daily checklists. The catheter insertion method and the degree of catheter tip infection were evaluated before and after the protocol training program for the nurses. The results of catheter tip culture after removal were considered as the training outcomes. Data analysis was performed in SPSS V. 16, using descriptive statistics, independent t test, the Fisher exact test, and the chi-squared test. Results: The results of the catheter tip culture confirmed the presence of pathogens in the catheter and culture of 18 samples (34%), before the intervention, while a reduction was denoted in 14 samples (17.9%) after the intervention; the reduction was statistically significant (P=0.036). Furthermore, the shelf life of the catheter increased after the intervention, however, the difference was not significant. Conclusion: According to the results, applying the care package reduces the incidence of central peripheral venous catheter infection in neonates admitted to the NICU. Therefore, it is suggested to incorporate this package into the care instructions of neonatal wards.
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Trends in Chlorhexidine Use in US Neonatal Intensive Care Units: Results From a Follow-Up National Survey - Volume 37 Issue 9 - Julia Johnson, Rebecca Bracken, Pranita D. Tamma, Susan W. Aucott, Cynthia Bearer, Aaron M. Milstone
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This multicenter study examines whether recently developed and evolving guidelines may reduce current substantial variation in indications, patterns of use, and outcomes of the use of peripherally inserted central catheters.Use of peripherally inserted central catheters (PICCs) has grown substantially in hospitalized medical patients.1,2 However, data regarding PICC placement largely originate from single-center experiences or studies of highly select populations and outcomes.3 Consequently, little is known about variation in PICC use or outcomes across hospitals. To examine this, we conducted a prospective study at 10 hospitals through the Michigan Hospital Medicine Safety (HMS) Consortium, a quality–improvement initiative dedicated to preventing adverse events in hospitalized medical patients.
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Background: Guidelines and clinical practice for the prevention of complications associated with central venous catheters (CVC) around the world vary greatly. Most institutions recommend the use of heparin to prevent occlusion, however there is debate regarding the need for heparin and evidence to suggest 0.9% sodium chloride (normal saline) may be as effective. The use of heparin is not without risk, may be unnecessary and is also associated with increased cost. Objectives: To assess the clinical effects (benefits and harms) of intermittent flushing of heparin versus normal saline to prevent occlusion in long term central venous catheters in infants and children. Search methods: The Cochrane Vascular Trials Search Co-ordinator searched the Specialised Register (last searched April 2015) and the Cochrane Register of Studies (Issue 3, 2015). We also searched the reference lists of retrieved trials. Selection criteria: Randomised controlled trials that compared the efficacy of normal saline with heparin to prevent occlusion of long term CVCs in infants and children aged up to 18 years of age were included. We excluded temporary CVCs and peripherally inserted central catheters (PICC). Data collection and analysis: Two review authors independently assessed trial inclusion criteria, trial quality and extracted data. Rate ratios were calculated for two outcome measures - occlusion of the CVC and central line-associated blood stream infection. Other outcome measures included duration of catheter placement, inability to withdraw blood from the catheter, use of urokinase or recombinant tissue plasminogen, incidence of removal or re-insertion of the catheter, or both, and other CVC-related complications such as dislocation of CVCs, other CVC site infections and thrombosis. Main results: Three trials with a total of 245 participants were included in this review. The three trials directly compared the use of normal saline and heparin, however, between studies, all used different protocols for the standard and experimental arms with different concentrations of heparin and different frequency of flushes reported. In addition, not all studies reported on all outcomes. The quality of the evidence ranged from low to very low because there was no blinding, heterogeneity and inconsistency between studies was high and the confidence intervals were wide. CVC occlusion was assessed in all three trials (243 participants). We were able to pool the results of two trials for the outcomes of CVC occlusion and CVC-associated blood stream infection. The estimated rate ratio for CVC occlusion per 1000 catheter days between the normal saline and heparin group was 0.75 (95% CI 0.10 to 5.51, two studies, 229 participants, very low quality evidence). The estimated rate ratio for CVC-associated blood stream infection was 1.48 (95% CI 0.24 to 9.37, two studies, 231 participants; low quality evidence). The duration of catheter placement was reported to be similar between the two study arms, in one study (203 participants). Authors' conclusions: The review found that there was not enough evidence to determine the effects of intermittent flushing of heparin versus normal saline to prevent occlusion in long term central venous catheters in infants and children. Ultimately, if this evidence were available, the development of evidenced-based clinical practice guidelines and consistency of practice would be facilitated.
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Objectives: The use of peripherally inserted central catheters (PICCs) has increased substantially within hospitals during the past several years. Yet, the prevalence and practices of designated nurse PICC teams (i.e., specially trained nurses who are responsible for PICC insertions at a hospital) are unknown. We, therefore, identified the prevalence of and factors associated with having a designated nurse PICC team among U.S. acute care hospitals. Methods: We conducted a survey of infection preventionists at a random sample of U.S. hospitals in May 2013, which asked about personnel who insert PICCs and the use of practices to prevent device-associated infections, including central line-associated bloodstream infection. We compared practice use between hospitals that have a designated nurse PICC team versus those that do not. Results: Survey response rate was 70% (403/575). According to the respondents, nurse PICC teams inserted PICCs in more than 60% of U.S. hospitals in 2013. Moreover, certain practices to prevent central line-associated bloodstream infection, including maximum sterile barrier precautions (93% versus 88%, P = 0.06), chlorhexidine gluconate for insertion site antisepsis (96% versus 87%, P = .003) and facility-wide insertion checklists (95% versus 87%, P = 0.02) were regularly used by a higher percentage of hospitals with nurse PICC teams compared with those without. Conclusions: These data suggest that nurse PICC teams play an integral role in PICC use at many hospitals and that use of such teams may promote key practices to prevent complications. Better understanding of the role, composition, and practice of such teams is an important area for future study.
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Use of peripherally inserted central catheters (PICCs) has grown substantially in recent years. Increasing use has led to the realization that PICCs are associated with important complications, including thrombosis and infection. Moreover, some PICCs may not be placed for clinically valid reasons. Defining appropriate indications for insertion, maintenance, and care of PICCs is thus important for patient safety. An international panel was convened that applied the RAND/UCLA Appropriateness Method to develop criteria for use of PICCs. After systematic reviews of the literature, scenarios related to PICC use, care, and maintenance were developed according to patient population (for example, general hospitalized, critically ill, cancer, kidney disease), indication for insertion (infusion of peripherally compatible infusates vs. vesicants), and duration of use (≤5 days, 6 to 14 days, 15 to 30 days, or ≥31 days). Within each scenario, appropriateness of PICC use was compared with that of other venous access devices. After review of 665 scenarios, 253 (38%) were rated as appropriate, 124 (19%) as neutral/uncertain, and 288 (43%) as inappropriate. For peripherally compatible infusions, PICC use was rated as inappropriate when the proposed duration of use was 5 or fewer days. Midline catheters and ultrasonography-guided peripheral intravenous catheters were preferred to PICCs for use between 6 and 14 days. In critically ill patients, nontunneled central venous catheters were preferred over PICCs when 14 or fewer days of use were likely. In patients with cancer, PICCs were rated as appropriate for irritant or vesicant infusion, regardless of duration. The panel of experts used a validated method to develop appropriate indications for PICC use across patient populations. These criteria can be used to improve care, inform quality improvement efforts, and advance the safety of medical patients.
Article
Objective: To compare the patency duration of a peripheral intravenous cannula (PIVC) using either continuous infusion with 5% dextrose or intermittent flushing with 0.9% saline. Study design: Prospective comparative cohort study, including full-term newborn infants in whom PIVC were placed for the administration of antibiotics. In cohort 1 (n=48), 5% dextrose was infused at 3 ml h(-1); in cohort 2 (n=50), the cannula was flushed six times daily with 2 ml 0.9% saline. Primary outcome was the duration of PIVC patency. Secondary outcomes included the occurrence of complications, time required by the nursing staff and the cost of materials. Result: Duration of PIVC patency was similar. However, significantly, more complications occurred in cohort 1 (P=0.02), and both cost and time were significantly lower in cohort 2 (P=0.001). Conclusion: Intermittent flushing and continuous infusion provide a similar duration of PIVC patency; however, intermittent flushing is associated with fewer complications, lower cost and reduced time.Journal of Perinatology advance online publication, 16 June 2016; doi:10.1038/jp.2016.94.
Article
Background: Peripherally inserted central catheters (PICCs) are increasingly used in hospitalized patients. Yet, little is known about the vascular access nurses who often place them. Methods: We conducted a Web-based survey to assess vascular access nursing experience, practice, knowledge, and beliefs related to PICC insertion and care in 47 Michigan hospitals. Results: The response rate was 81% (172 received invitations, 140 completed the survey). More than half of all respondents (58%) reported placing PICCs for ≥5 years, and 23% had obtained dedicated vascular access certification. The most common reported indications for PICC insertion included intravenous antibiotics, difficult venous access, and chemotherapy. Many respondents (46%) reported placing a PICC in a patient receiving dialysis; however, 91% of these respondents reported receiving approval from nephrology prior to insertion. Almost all respondents (91%) used ultrasound to find a suitable vein for PICC insertion, and 76% used electrocardiography guidance to place PICCs. PICC occlusion was reported as the most frequently encountered complication, followed by device migration and deep vein thrombosis. Although 94% of respondents noted that their hospitals tracked the number of PICCs placed, only 40% reported tracking duration of PICC use. Relatedly, 30% of nurses reported that their hospitals had a written policy to evaluate PICC necessity or appropriateness. Conclusion: This survey of vascular nursing experiences highlights opportunities to improve practices such as avoiding PICC use in dialysis, better tracking of PICC dwell times, and necessity. Hospitalists may use these data to inform clinical practice, appropriateness, and safety of PICCs in hospitalized patients. Journal of Hospital Medicine 2015. 2015 Society of Hospital Medicine.
Article
Background Central line–associated bloodstream infection (CLABSI) remains one of the most common and deadly hospital acquired infections in the United States. Creating a culture of safety is an important part of healthcare–associated infection improvement efforts; however, few studies have robustly examined the role of safety climate in patient safety outcomes. We applied a pattern-based approach to measuring safety climate to investigate the relationship between intensive care unit (ICU) patient safety climate profiles and CLABSI rates. Methods Secondary analyses of data collected from 237 adult ICUs participating in the On the CUSP: Stop BSI project. Unit-level baseline scores on the Hospital Survey on Patient Safety, a survey designed to assess patient safety climate, and CLABSI rates, were investigated. Three climate profile characteristics were examined: profile elevation, variability, and shape. Results Zero-inflated Poisson analyses suggested an association between the relative incidence of CLABSI and safety climate profile shape. K-means cluster analysis revealed 5 climate profile shapes. ICUs with conflicting climates and nonpunitive climates had a significantly higher CLABSI risk compared with ICUs with generative leadership climates. Conclusions Relative CLABSI risk was related to safety climate profile shape. None of the climate profile shapes was related to the odds of reporting zero CLABSI. Our findings support using pattern-based methods for examining safety climate rather than examining the relationships between each narrow dimension of safety climate and broader safety outcomes like CLABSI.
Article
Objective To determine the association between state legal mandates for data submission of central line–associated bloodstream infections (CLABSIs) in neonatal intensive care units (NICUs) with process and outcome measures. Design Cross-sectional study. Participants. National sample of level II/III and III NICUs participating in National Healthcare Safety Network (NHSN) surveillance. Methods State mandates for data submission of CLABSIs in NICUs in place by 2011 were compiled and verified with state healthcare-associated infection coordinators. A web-based survey of infection control departments in October 2011 assessed CLABSI prevention practices, ie, compliance with checklist/bundle components (process measures) in ICUs including NICUs. Corresponding 2011 NHSN NICU CLABSI rates (outcome measures) were used to calculate standardized infection ratios (SIRs). Association between mandates and process and outcome measures was assessed by multivariable logistic regression. Results Among 190 study NICUs, 107 (56.3%) were located in states with mandates, with mandates in place >3 years in 52 (49%). More NICUs in states with mandates reported ≥95% compliance to at least 1 CLABSI prevention practice (52.3%–66.4%) than NICUs in states without mandates (28.9%–48.2%). Mandates were predictors of ≥95% compliance with all practices (odds ratio, 2.8; 95% confidence interval, 1.4–6.1). NICUs in states with mandates reported lower mean CLABSI rates in the ≤750-g birth weight group (2.4 vs 5.7 CLABSIs/1,000 central line–days) but not in others. Mandates were not associated with SIR <1. Conclusions State mandates for NICU CLABSI data submission were significantly associated with ≥95% compliance with CLABSI prevention practices, which declined with the duration of mandate but not with lower CLABSI rates. Infect Control Hosp Epidemiol 2014;35(9):1133-1139
Article
Background Bundles and checklists have been shown to decrease the rates of central line–associated bloodstream infections (CLABSIs), but implementation of these practices and association with CLABSI rates have not been described nationally. We describe implementation and levels of compliance with preventive practices in a sample of US neonatal intensive care units (NICUs) and assess their association with CLABSI rates. Methods An online survey assessing infection prevention practices was sent to hospitals participating in National Healthcare Safety Network CLABSI surveillance in October 2011. Participating hospitals permitted access to their NICU CLABSI rates. Multivariable regressions were used to test the association between compliance with NICU-specific CLABSI prevention practices and corresponding CLABSI rates. Results Overall, 190 level II/III and level III NICUs participated. The majority of NICUs had written policies (84%-93%) and monitored compliance with bundles and checklists (88%-91%). Reporting ≥95% compliance for any of the practices ranged from 50%-63%. Reporting of ≥95% compliance with insertion checklist and assessment of daily line necessity were significantly associated with lower CLABSI rates (P < .05). Conclusions Most of the NICUs in this national sample have instituted CLABSI prevention policies and monitor compliance, although reporting compliance ≥95% was suboptimal. Reporting ≥95% compliance with select CLABSI prevention practices was associated with lower CLABSI rates. Future studies should focus on identifying and improving compliance with effective CLABSI prevention practices in neonates.