Insertion and maintenance of central venous catheter (CVC) lines are common hospital procedures in patients, including those being treated for cancer. CVCs allow clinicians an access point for infusion of fluids, blood sampling, and measurements, decreasing the need for repeated needle sticks to the patient. However, bloodstream infections associated with CVCs (CLABSIs) are a serious complication, leading to significantly longer hospital stays, morbidity, and mortality. Keeping catheter ports disinfected reduces the risk of bloodstream infection; however, consistent and adequate maintenance and disinfection of the line can be difficult. The purpose of this study is to demonstrate that passive disinfecting caps can provide a patient safety practice that is easy for clinicians to follow, as well as providing easily auditable compliance, which may lead to lower CLABSI rates. The compliance rate for needleless connector disinfection will be evaluated after implementation of the passive disinfecting cap, and compared to the pre-intervention rate. The CLABSI rates before and after cap implementation will also be compared.
Insertion and maintenance of central venous catheter (CVC) lines are common hospital procedures in patients, including those being treated for cancer. CVCs allow clinicians an access point for infusion of fluids, blood sampling, and measurements, decreasing the need for repeated needle sticks to the patient. However, bloodstream infections associated with CVCs (CLABSIs) are a serious complication, leading to significantly longer hospital stays, morbidity, and mortality. Keeping catheter ports disinfected reduces the risk of bloodstream infection; however, consistent and adequate maintenance and disinfection of the line can be difficult. The purpose of this study is to demonstrate that passive disinfecting caps can provide a patient safety practice that is easy for clinicians to follow, as well as providing easily auditable compliance, which may lead to lower CLABSI rates. Compliance is defined as following the protocol for disinfection of the catheter port. In the pre-intervention period, the disinfection protocol will utilize existing institution scrub-the-hub method. Compliance in the pre-intervention period will be determined by survey. After the pre-intervention period is complete, passive disinfecting devices (caps) will be implemented hospital-wide for any adult patient using CVC ports. In the intervention period, the disinfection protocol consists of using the disinfecting barrier cap on every needless connector (catheter port) used for accessing CVC IV lines per protocol. Compliance will be measured using observations, according to a schedule to ensure the absence of a shift bias. Observations will contain the number of needless connectors on CVCs with, and the number of needleless connectors without, disinfecting barrier caps attached. The compliance rate for needleless connector disinfection will be evaluated after implementation of the passive disinfecting cap, and compared to the pre-intervention rate. The CLABSI rates before and after cap implementation will also be compared. Incidence of CLABSI will be noted from existing aggregate hospital surveillance system data. The incidence, in terms of catheter days, will be recorded for each assigned intervention ward and for intervention ward overall by month, in the six months before the intervention and in the six-month intervention recording period.
Study Type
INTERVENTIONAL
Allocation
NA
Purpose
OTHER
Masking
NONE
Enrollment
165
Add use of passive disinfection cap to existing central line needleless connector infection control procedure
3M HealthCare
Maplewood, Minnesota, United States
Disinfecting Barrier Cap Compliance
Compliance to disinfection protocol for central line needleless connectors. Compliance will be measured by periodic audits, where the number of disinfecting caps on central line needleless connectors is compared to the total number of central line needleless connectors to determine compliance percentage.
Time frame: 6-month prospective period
Scrub the Hub Protocol Compliance
Compliance with Scrub the hub protocol Data collected retrospectively by survey
Time frame: 6-month retrospective period
CLABSI Rate
Central-line associated blood stream infection assessments were performed once a month per ward during the pre-intervention and post-intervention periods. The total number of CLABSI infections and CVC/day were recorded in all assessments to determine the CLABSI rate per 1000 CVC/days. Infections from patients without CVC IV access (those using a three-lumen dialysis catheter with a needleless connector on the third lumen and those using two-lumen dialysis catheters) were also recorded as part of the aggregated data, due to the impossibility of separating the infections in these patients from the ones with CVC access
Time frame: 6-month retrospective period and 6-month prospective period
Catheter-associated Urinary Tract Infection (CAUTI) Rate
Rate of CAUTI per 1000 indwelling urinary catheter days. CAUTI data was recorded to control for possible seasonal and/or environmental effects that could also influence CLABSI and hospital infection rates overall. Data on this type of infection was only available for the ICU, as recording of CAUTI is only mandatory in the intensive care setting in Brazil.
Time frame: 6 months pre-intervention and 6 months post intervention
Ventilator-associated Pneumonia (VAP) Rate
Rate of VAP per 1000 ventilator days. VAP data was recorded to control for possible seasonal and/or environmental effects that could also influence CLABSI and hospital infection rates overall. Data on this type of infection was only available for the ICU, as recording of VAP is only mandatory in the intensive care setting in Brazil.
Time frame: 6-month retrospective period and 6-month prospective period
MBI-Related CLABSI Rate
Central-line associated blood stream infection assessments were performed once a month per ward during the pre-intervention and post-intervention periods. The total number of CLABSI infections and CVC/day were recorded in all assessments. Lastly, CLABSIs were divided into mucosal-barrier injury (MBI)-related and non-MBI-related and recorded separately in the eCRF. MBI-related CLABSIs and CVC/day were used to determine MBI CLABSI rate per 1000 CVC/days. Infections from patients without CVC IV access (those using a three-lumen dialysis catheter with a needleless connector on the third lumen and those using two-lumen dialysis catheters) were also recorded as part of the aggregated data, due to the impossibility of separating the infections in these patients from the ones with CVC access.
Time frame: 6-month retrospective period and 6-month prospective period
Non MBI-related CLABSI Rate
Central-line associated blood stream infection assessments were performed once a month per ward during the pre-intervention and post-intervention periods. The total number of CLABSI infections and CVC/day were recorded in all assessments. Lastly, CLABSIs were divided into mucosal-barrier injury (MBI)-related and non-MBI-related and recorded separately in the eCRF. Non MBI-related CLABSIs and CVC/day were used to determine Non-MBI CLABSI rate per 1000 CVC/days. Infections from patients without CVC IV access (those using a three-lumen dialysis catheter with a needleless connector on the third lumen and those using two-lumen dialysis catheters) were also recorded as part of the aggregated data, due to the impossibility of separating the infections in these patients from the ones with CVC access.
Time frame: 6-month retrospective period and 6-month prospective period
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