Summary of CPGs and Studies Included in Systematic Review
Study, Year . | Participants, n . | Design and/or Method . | Focus and/or Overview . | Study Sample and Characteristics . | Device . | Findings and Comments . | miniMAGIC Indication . |
---|---|---|---|---|---|---|---|
Adams et al,14 2016 | — | Clinical reviewa | Clinical review of midline catheter device indications and complications for use in the ED | — | Midline | Midlines have a low complication rate, long dwell time, and high rate of first-attempt placement. | General pediatrics |
Aiyagari et al,15 2012 | 89 | Observationala | To compare the clinical outcomes for infants with single-ventricle physiology after umbilical catheter and femoral CVAD placement | Patients with single-ventricle physiology admitted to the NICU (4–13 d) | Nontunneled CVAD, umbilical catheter | Nontunneled CVADs were associated with higher rates of thrombosis and vein occlusion. No difference was seen among CLABSI, need for transhepatic access, and ultrasound-documented thrombus at the inferior vena cava–right atrial junction. Patients with nontunneled femoral CVAD for ≥14 d had a higher prevalence of thrombosis than those for <14 d. No difference in the prevalence of iliofemoral vein occlusion was seen. | General pediatrics |
Ainsworth and McGuire,16 2015 | 549 | Systematic reviewb | To evaluate PN delivery via PIVC or CVAD in hospitalized neonates | Included 6 RCTs evaluating PN delivery via PIVC or CVAD in hospitalized neonates | PIVC, nontunneled CVAD | Nontunneled CVAD led to a smaller deficit of nutrients and fewer catheters; there was no difference for invasive infection. | Long-term dependent |
Alten et al,17 2012 | 115 | Observationala | To compare USG CVAD insertion to landmark techniques in critically ill neonates | Retrospective review of critically ill neonates (mean = <14 d) admitted to the PICU requiring CVAD placement using USG or landmark techniques | CVAD | Insertion using ultrasound guidance was associated with higher overall success, first-, and second- attempt success, and lower arterial puncture rates. | Vessel visualization |
Anil et al,18 2011 | 128 | Observationala | To evaluate complications associated with CVAD placement in the PICU | Retrospective review of all patients (median = 21 mo) admitted to the PICU requiring CVAD placement | CVAD | There was no difference in complications for CVAD insertion at femoral, subclavian, or jugular veins. | Insertion location |
ANZICS,19 2012 | — | CPGb | Specific recommendations for insertion central lines for the prevention of CLABSI | — | Nontunneled CVAD, tunneled CVAD | — | Insertion location |
Allen et al,20 2008 | — | Observationala | To determine the risk of infection in pediatric oncology patients requiring long-term vascular access | 12-mo prospective study of pediatric oncology patients (3 mo–20 y old) with a TIVD or tunneled-cuffed CVAD | TIVD, tunneled-cuffed CVAD | There was a higher rate ratio for CLABSIs in tunneled-cuffed CVAD. | Hematology and oncology |
ARC and NZRC,21 2010 | — | CPGb | Specific recommendations for access to circulation in infants and children in the context of cardiorespiratory arrest | — | CVAD, intraosseous, PIVC | — | Critical care |
ARC and NZRC,22 2010 | — | CPGb | Medication or fluids for the resuscitation of the newborn infant | — | Intraosseous, PICV, umbilical catheter | Specific recommendations for newborn infants in the context of resuscitation were provided. | Critical care |
ARC and NZRC,23 2010 | — | CPGb | Specific recommendations for vascular access in pediatric patients in the context of cardiopulmonary arrest | — | CVAD, intraosseous, PICV | — | General pediatrics |
Arnts et al,24 2014 | 203 | Observationala | To compare the rates of complications between umbilical catheters and PIVCs in newborns | Patients admitted to the NICU (24–42 wk gestation) requiring a PICC or umbilical catheter | PICC, umbilical catheter | There was no difference in complication rate or due to gestational age. | General pediatrics |
Athale et al,25 2012 | 358 | Observationala | To evaluate the impact of CVAD on 5-y overall and event-free survival in children with cancer | Children with non-CNS cancer (≤19 y old) who required a CVAD | CVAD | CVAD dysfunction controlling for thromboembolism is associated with poorer 5-y overall and event-free survival. | Hematology and oncology |
Avanzini et al,26 2017 | 194 | Observationala | To describe a single-center transition from CVAD placement via surgical cutdown to USG insertion techniques | Retrospective review of pediatric patients (7 d–18 y old) who underwent tunneled CVAD placement using USG or surgical cutdown techniques | Tunneled CVAD | Double-lumen PICCs were associated with increased risk of complications, compared to single-lumen PICCs; complications were reported but not significantly compared between USG and surgical cutdown techniques. | Device lumens |
Vessel visualization | |||||||
Barnwal et al,27 2016 | 60 | Observationala | To compare ECG and landmark insertion techniques for CVAD placement | Pediatric patients (0–11 y old) undergoing elective cardiovascular surgery randomly assigned to CVAD insertion via landmark or ECG techniques | CVAD | There were fewer complications using USG insertion techniques. | Vessel visualization |
Barrier et al,28 2012 | 1280 | Observationala | To determine risk factors for PICC-related complications in children | Immunocompromised children (mean = 3.2 y old; 0–21 y old) requiring a PICC | PICC | Double-lumen catheters, PICCs placed in the femoral vein and children 1–4 y old, compared with older children (5–10 y old, >10 y old), were more at risk for complications. | General pediatrics |
Device lumens | |||||||
Insertion location | |||||||
Baskin et al,29 2019 | — | CPGb | Specific recommendations for central venous catheters in children with chronic illness | — | Midline, PICC, TIVD, tunneled-cuffed CVAD | — | Long-term dependent |
Ben Abdelaziz et al,30 2017 | 215 | Observationala | To examine the incidence of PIVC-related complications in pediatric patients | Comparison of complications versus no complications in hospitalized children (0.1–18 y old) requiring a PIVC | PIVC | Longer duration was associated with local complication. | General pediatrics |
Bezzio et al,31 2019 | 205 | Observationala | To investigate the rate of and risk factors for infection in children undergoing cardiac surgery requiring CVAD placement | Prospective study of pediatric patients (1 d–25 y old) undergoing cardiac surgery | CVAD | Infection risk significantly increased with increased duration of device placement; the SCV vein was more likely to develop CLABSI. | Congenital cardiac |
Insertion location | |||||||
Blotte et al,32 2017 | 162 | Observationala | To compare PICC and CVAD complications in pediatric patients with intestinal failure | Pediatric patients (1 d–12 y old) with intestinal failure requiring PN | PICC, tunneled-cuffed CVAD | Tunneled-cuffed CVAD had a higher infection rate, and PICCs were more likely to break. More tunneled-cuffed CVADs had central venous thrombosis, whereas more PICCs had basilic vein thrombosis. | Long-term dependent |
Birhane et al,33 2017 | 178 | Observationala | To assess factors that impacted PIVC life span in neonates and infants | Neonates and infants (1 d–11 mo) requiring PIVC placement | PIVC | Compared to placement at the scalp, hand, or leg, PIVCs inserted at the arm had a longer life span. | Insertion location |
Bodenham Chair et al,34 2016 | — | CPGb | Specific recommendations for the insertion of VADs in all patients | — | CVAD, PIVC | — | Critical care |
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Boe et al,35 2015 | 92 | Observationala | To evaluate risk factors and complications associated with the placement of transhepatic CVADs | Retrospective review of congenital cardiac patients (IQR = 2–10 y old) undergoing transhepatic CVAD placement | Transhepatic CVAD | Placement ≥21 d was associated with increased transhepatic CVAD complications. | Critical care |
Borasino et al,36 2014 | 392 | Observationala | To determine if CVAD insertion into veins in the upper body is a risk factor for chylothorax | Retrospective review of pediatric patients (<1 y old) undergoing cardiac surgery; comparison among CVAD placement at IJV versus SCV versus femoral vein | CVAD | Insertion at IJV or SCV was associated with a higher risk of chylothorax. | Insertion location |
Boretta et al,37 2018 | 107 | Observationala | To evaluate the management and complications associated with PICCs inserted in pediatric oncology patients | Pediatric oncology patients (0–17 y old) requiring PICC placement | PICC | Compared to right-side insertion locations, PICCs inserted on the left side of the body were associated with more complications. | Insertion location |
Bouaziz et al,38 2015 | — | CPGb | Specific recommendations for the placement of VADs under ultrasound guidance in all patients | — | CVAD, PIVC | — | Vessel visualization |
Bozaan et al,39 2019 | 226 | Pilot studya | To evaluate the impact of an intervention designed to increase the use of single-lumen PICCs | Pre- and postintervention of PICC placement in hospitalized adults (60 y old) | PICC | Making single-lumen PICCs the default option and providing indications for multilumen devices increased use of single-lumen PICCs. | Device lumens |
Bratton et al,40 2014 | 178 | Observationala | To report complication rates of VADs in children undergoing radiotherapy | Retrospective review of pediatric patients (1–26 y old) undergoing radiotherapy who received a VAD | PICC, TIVD, tunneled-cuffed CVAD | TIVDs were associated with lower infection and complication rates and had greater durability. | Hematology and oncology |
Byon et al,41 2013 | 98 | RCTc | To evaluate the efficacy of USG SCV catheterization | Pediatric patients (0–2.9 y old) undergoing elective congenital cardiac surgery or neurosurgery; randomly assigned to supraclavicular or infraclavicular approaches | CVAD | The supraclavicular approach was associated with shorter puncture time, fewer insertion attempts, and fewer misplacements. | Insertion location |
Camkiran Firat et al,42 2016 | 280 | RCTc | To compare the rate of complications associated with IJV and SCV CVAD insertion | Pediatric patients (16 mo–2.2 y old) undergoing cardiac surgery; randomly assigned to IJV or SCV insertion | CVAD | Insertion via the SCV was associated with higher success rates; lower rates of arterial puncture, catheter-tip cultures, and CLABSI; and higher rates of malposition. There was no difference in mechanical complications, ICU and hospital length of stay, and in-hospital mortality. | Insertion location |
Campagna et al,43 2018 | 1538 | Observationala | To determine the safety of midline catheters used in general hospitalized adults | Hospitalized adults (median = 83 y old) requiring a midline catheter across 2 Italian hospitals | Midline | A total of 10% of midline catheters had a serious adverse event. | General pediatrics |
Carlson et al,44 2015 | 3846 | Observationala | To characterize procedures performed on critically ill children by emergency medical service personnel in out-of-hospital contexts | Retrospective review of pediatric patients (0–17 y old) requiring out-of-hospital critical care | CVAD, intraosseous | CVADs had higher success rates compared to intraosseous devices. | Critical care |
Carraro et al,45 2013 | — | CPGb | Specific recommendations for the use of long-term central venous access in pediatric hematology and oncology patients | — | TIVD, tunneled-cuffed CVAD | — | Hematology and oncology |
Cesaro et al,46 2016 | 1161 | Observationala | To report the frequency and associated risk factors for central venous catheter–associated complications in children with hemato-oncological conditions | Pediatric hematology-oncology patients (median = 6.1 y old) requiring a tunneled-cuffed CVAD | Tunneled-cuffed CVAD | At <6.1 y old, there were more mechanical complications, more malfunction or occlusion; compared to single-lumen devices, double-lumen devices had more mechanical complications, exit-site or tunnel infections, and malfunction or occlusion. | Hematology and oncology |
Device lumens | |||||||
Chen et al,47 2020 | 4405 | Systematic reviewb | To compare risk associated with PICCs placed in the upper versus the lower extremity in neonates | Neonates (<28 d old) requiring PICC placement | PICC | There was a greater risk of nonelective removals and malposition in PICCs placed in the upper versus lower extremity; there was a lower risk of thrombosis in PICCs placed at the upper extremity. There were no differences in mechanical complications, PICC-related infection, or phlebitis. | Insertion location |
Choi et al,48 2017 | 23 | Observationala | To determine the safety and accuracy of TIVD placement using ultrasound guidance compared to surgical cutdown | Retrospective review of pediatric (0–16 y old) hematology, oncology, and PN patients undergoing TIVD placement | TIVD | There was no difference using ultrasound guidance in insertion time or complication compared to surgical cutdown. | Vessel visualization |
Cooling et al,49 2017 | 75 | Observationala | To examine the performance and safety of femoral CVADs | Retrospective study of pediatric patients undergoing stem cell collection (median = 3 y old) requiring CVAD placement | CVAD | Compared to thoracic CVADs, femoral CVADs had fewer flow-related adverse events. | Insertion location |
Crocoli et al,50 2015 | — | CPGb | CVADs in pediatric patients with cancer | — | Midline, PICC, nontunneled CVAD, TIVD, tunneled CVAD, tunneled-cuffed CVAD | — | Hematology and oncology |
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Debourdeau et al,51 2009 | — | CPGb | Prevention of thrombosis associated with central venous catheters in patients with cancer | — | TIVD, tunneled CVAD | — | Hematology and oncology |
Device lumens | |||||||
Insertion location | |||||||
De Carvalho Onofre et al,52 2012 | 42 | RCTc | To compare the use of ultrasound and palpation insertion success for PICC placement in pediatric patients | Any pediatric patient (1 mo–16 y old) requiring IV therapy for >7 d; randomly assigned to USG PICC insertion or palpation | PICC | USG PICC insertion was associated with higher first-attempt success rate, better catheter positioning and shorter insertion time. | Vessel visualization |
de Souza et al,53 2018 | 80 | RCTc | To determine if USG PICC placement led to higher insertion success compared to landmark techniques | Critically ill pediatric patients (IQR = 3 mo–1.3 y old) admitted to the PICU requiring PICC insertion via the IJV; randomly assigned to USG or landmark insertion | PICC | USG PICC insertion was associated with higher overall success rate, first- and third-attempt success rate, lower insertion time, and fewer hematomas and arterial punctures compared to landmark. | Vessel visualization |
DeWitt et al,54 2015 | 180 | Observationala | To determine procedural success and failure rates in umbilical catheter placement | Patients with congenital heart disease <20 h old versus >20 h old requiring an umbilical catheter | Umbilical catheter | There was a higher success rate for younger patients. | General pediatrics |
Dheer et al,55 2011 | 103 | Observationala | To compare the rates of immediate insertion-related complications after CVAD placement in pediatric patients | Hospitalized children (<12 y old) requiring a CVAD; comparison of complications among neonate versus infant versus >1–12 y old | CVAD | Neonates were at higher risk of immediate insertion-related complications; more insertion attempts were associated with insertion-related problems. | General pediatrics |
Doellman et al,56 2015 | — | CPGb | Specific recommendations regarding central venous catheters that account for the unique needs of pediatric patients | — | Hemodialysis catheter, PICC, nontunneled CVAD, TIVD, tunneled CVAD | — | General pediatrics |
Hematology and oncology | |||||||
Critical care | |||||||
Congenital cardiac | |||||||
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Dongara et al,57 2017 | 144 | RCTc | To compare success and complication rates, cost, and insertion time between PICCs and umbilical catheters inserted in the NICU | Patients admitted to the NICU (mean = 34 wk’ gestation) requiring a PICC or umbilical catheter | PICC, umbilical catheter | There was no difference in success rate, time, and short-term complications between PICCs and umbilical catheters. | General pediatrics |
Elser,58 2013 | — | Clinical reviewa | Clinical review of umbilical catheter placement | Patients admitted to the NICU requiring an umbilical catheter | Umbilical catheter | Umbilical catheter malposition or dislodgement is associated with hemorrhaging and death. | General pediatrics |
Fallon et al,59 2014 | 244 | Observationala | To determine device-related complications in infants requiring a VAD | Hospitalized children (0–3 y old) requiring a central venous catheter for prolonged therapy | TIVD, tunneled CVAD | Infants (≤1 y old) had higher complication rate, higher operative exchange rate, higher infection rate, and shorter duration compared with toddlers (>1 y old). | General pediatrics |
Faustino et al,60 2013 | 101 | Observationala | To explore the incidence of DVT in PICU patients requiring a central venous catheter | Critically ill children (0–17 y old) admitted to the PICU; comparisons made among age (<1 y old versus 1–13 y old versus 13–17 y old) | Nontunneled CVAD | Compared with infants (<1 y old), PICU patients 13–17 y old had higher odds of DVT. | Critical care |
Froehlich et al,61 2009 | 93 | Observationala | To determine if CVAD placement using ultrasound guidance increases insertion success and decreases complications after single-center transition to USG insertion techniques | Prospective study of critically ill pediatric patients (median = 2.5 y old) admitted to the PICU requiring CVAD placement with USG or landmark techniques | CVAD | Ultrasound guidance was associated with significantly lower arterial punctures and fewer No. attempts. There was no difference in success rate or insertion time between ultrasound guidance and landmark groups. | Vessel visualization |
Frykholm et al,62 2014 | — | CPGb | Specific guidelines for patients requiring central venous catheters regarding vascular approach, ultrasound guidance, and prevention of complications | — | Dialysis catheters, nontunneled CVAD, PICC, TIVD, tunneled-cuffed CVAD | — | Long-term dependent |
Device lumens | |||||||
Vessel visualization | |||||||
Gaballah et al,63 2014 | 150 | Observationala | To describe complication rates associated with CVAD placement using ultrasound guidance and fluoroscopic guidance in neonates and infants | Retrospective review of critically ill neonates and infants (premature–1 y old) requiring CVAD placement with USG versus fluoroscopic guidance | CVAD | There was no difference in complication rates. | Insertion location |
Vessel visualization | |||||||
Gallagher et al,64 2014 | 168 | Observationala | To determine if CVAD placement using USG techniques improved insertion success in pediatric ED patients | Retrospective study of pediatric (3–15 y old) emergency patients requiring CVAD placement with or without ultrasound guidance | CVAD | There was higher insertion success when using ultrasound guidance. | Vessel visualization |
Gonzalez et al,65 2012 | 172 | Observationala | To determine if early placement of TIVDs or tunneled-cuffed CVADs in patients at high risk of thrombosis and infection led to higher surgical complications | Retrospective review of children with ALL (4 d–16 y old) at high risk of infection and thrombosis | TIVDs, tunneled-cuffed CVADs | There was no difference in infection rate between TIVD and tunneled-cuffed CVADs and no difference in rate of infection in single- versus double-lumen devices. | Hematology and oncology |
Device lumens | |||||||
Gorski et al,66 2016 | — | CPGb | Specific practice recommendations for adult and pediatric patients requiring infusion therapy, including device selection, placement, and complication prevention | — | Hemodialysis catheters, intraosseous, long PIVC, midline, nontunneled CVAD, PICC, short PIVC, TIVD, tunneled CVAD, umbilical catheter | — | Critical care |
Congenital cardiac | |||||||
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Gray et al,67 2012 | 333 | Observationala | To identify risk factors for catheter-related DVT in infants <1 y old | Hospitalized infants (mean = 34 wk’ gestation) requiring a VAD | PICC, tunneled-cuffed CVAD | Mean catheter days before DVT diagnosis were shorter for PICCs than for tunneled-cuffed CVADs; higher rates of DVT were in multilumen CVADs; the majority of DVT was in femoral veins. Femoral CVADs were associated with greater DVT rates than jugular or SCV CVADs. There was more DVT in femoral lines than in sapheno-femoral tunneled-cuffed CVADs. | Long-term dependent |
Device lumens | |||||||
Insertion location | |||||||
Gurien et al,68 2016 | 1134 | Observationala | To determine the incidence of complications associated with CVAD placement using USG techniques | Retrospective, multicenter review of pediatric patients (1.5–12 y old) who underwent CVAD placement with landmark or USG insertion | CVAD | There was a higher first- attempt success rate using ultrasound guidance but higher risk of hemothorax using ultrasound guidance. | Vessel visualization |
Habas et al,69 2018 | 225 | Observationala | To determine the complications associated with CVAD placement at the BCV insertion site | Retrospective review of pediatric patients (mean = 7 y old) admitted to PICU requiring CVAD placement; BCV insertion site versus all others (femoral, subclavian, jugular) | CVAD | Compared to other insertion sites, BCV had fewer complications. | Insertion location |
Hamed et al,70 2013 | 300 | Observationala | To describe insertion success rate and complication rate after delivery of anesthesia to critically ill infants and toddlers | Critically ill infants and toddlers (21 d–1.3 y old) requiring emergency surgery | Intraosseous | Intraosseous access was appropriate for unobtainable peripheral or central access. | Critical care |
Hancock-Howard et al,71 2010 | 60 | Observationala | To determine the cost-effectiveness of TIVD placement using interventional radiology | Retrospective review of pediatric oncology patients undergoing placement of a TIVD using interventional radiology (mean = 7 y old) or surgical cutdown (mean = 4 y old) techniques | TIVD | Insertion time was shorter and resulted in fewer complications using interventional radiology compared to surgical cutdown. | Vessel visualization |
Handrup et al,72 2010 | 98 | Observationala | To evaluate the rates of VAD-related complications associated with placement of a TIVD or tunneled-cuffed CVAD | Retrospective review of children with ALL (<4–>9 y old) who received a TIVD or tunneled-cuffed CVAD over an 8-y period | TIVD, tunneled-cuffed CVAD | There was a higher CLABSI rate and nonelective removal for tunneled-cuffed CVAD. | Hematology and oncology |
Hanson et al,73 2012 | 1070 | Observationala | To investigate the rate of and risk factors for VTE in children with cardiac disease admitted to the PICU | Children with cardiac disease (median = 10 mo) admitted to the PICU; comparisons made among <6 mo versus 6 mo–1 y old versus 1–2 y old versus 2–12 y old versus 12–18 y old versus >18 y old | CVAD | VTE incidence was associated with increasing No. CVAD days. In young children (<6 mo), VTE incidence was significantly higher. | Critical care |
Heinrichs et al,74 2013 | 1076 | Systematic reviewb | To evaluate assistive technologies, other than ultrasound guidance, in improving PIVC insertion success | Seven RCTs of pediatric patients (0–21 y old) requiring PIVC insertion using novel interventions | PIVC | Transillumination was associated with higher first-attempt success compared to traditional insertion techniques; first-attempt success using NIR and traditional methods was not significantly different. There was no difference in time or No. attempts between insertion methods. | Vessel visualization |
Included studies | |||||||
Hosokawa, 2010 | |||||||
Katsogridakis, 2008 | |||||||
Nager, 1992 | |||||||
Perry, 2011 | |||||||
Chapman, 2011 | |||||||
Kim, 2012 | |||||||
Maynard, 1989 | |||||||
Institute for Healthcare Improvement,75 2012 | — | CPGb | Specific recommendations for the prevention of CLABSI | — | CVAD | — | Vessel visualization |
IVNNZ,76 2012 | — | CPGb | Specific practice recommendations for adult and pediatric patients requiring infusion therapy, including device selection, placement, and complication prevention | — | Intraosseous, midline, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | — | Critical care |
Long-term dependent | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Katsogridakis et al,77 2008 | 240 | Observationala | To determine if transillumination increases PIVC insertion success in pediatric patients | Pediatric patients (mean = 13 y old) with difficult venous access admitted to the ED requiring nonurgent PIVC placement; randomly assigned to with or without transillumination | PIVC | Insertion using transillumination was associated with higher first- and second-attempt success compared to without transillumination. | Vessel visualization |
Kim et al,78 2017 | 132 | RCTc | To compare ultrasound guidance to landmark techniques for CVAD insertion in children | Pediatric cardiac surgery, neurosurgery, or general surgical patients (1 mo–6 y old) requiring CVAD insertion; randomly assigned to USG insertion to the axillary vein or LM insertion via the SCV | CVAD | USG + axillary insertion was associated with fewer attempts and shorter insertion time. There was no difference in complication rates. Results were confounded by location and/or imaging. | Insertion location |
Vessel visualization | |||||||
Kulkarni et al,79 2014 | — | Systematic reviewb | A systematic review of TIVDs and tunneled-cuffed CVADs in adults and children receiving chemotherapy | 5 RCTs and 25 observational studies of adults and children undergoing chemotherapy | TIVD, tunneled-cuffed CVAD | Tunneled CVAD was associated with more infections, noninfectious complications, and device removal. | Hematology and oncology |
Kulkarni et al,80 2017 | 176 | Observationala | To describe the complications related to VAD insertion in infants with hemophilia | Infants (0–2 y old) with hemophilia requiring either a PICC, TIVD, or tunneled CVAD | PICC, TIVD, tunneled CVAD | TIVDs had the lowest rates of complications. | Hematology and oncology |
Lam et al,81 2018 | 954 | Observationala | To evaluate the impact of defaulting to single-lumen PICCs | Hospitalized adults (mean = 66 y old) requiring PICC placement; comparison of single versus double lumens | PICC | Single-lumen PICCs were associated with lower complications. | Device lumens |
Lamperti et al,82 2012 | — | CPGb | Specific recommendations regarding USG VAD placement | — | CVAD, PICC | — | Catheter-to-vein ratio |
Vessel visualization | |||||||
Lau and Chamberlain,83 2016 | 760 | Systematic reviewb | To examine the safety and efficacy of CVAD insertion using ultrasound guidance | A total of 8 RCTs comparing the use of USG and landmark CVAD placement in pediatric patients (<18 y old) | CVAD | Ultrasound guidance had a higher success rate and fewer No. insertion attempts compared to landmark techniques. | Vessel visualization |
Included studies | |||||||
Alderson, 1993 | |||||||
Verghese, 1999 | |||||||
Verghese, 2000 | |||||||
Grebenik, 2004 | |||||||
Chuan, 2005 | |||||||
Ovezov, 2010 | |||||||
Aouad, 2010 | |||||||
Bruzoni, 2013 | |||||||
Levy et al,84 2010 | 279 | Observationala | To determine the rate of and potential risk factors for infectious and noninfectious complication associated with PICCs in pediatric patients | Hospitalized children (10 d–21 y old) requiring a PICC | PICC | Older age was associated with infectious complications. | General pediatrics |
Lindquester et al,85 2017 | 33 | Observationala | To examine the safety and efficacy of tunneled CVAD placement at the internal and external jugular in neonates and infants <5 kg | Multicenter retrospective review of hospitalized infants weighing <5 kg (0–1 y old) with a tunneled CVAD | Tunneled CVAD | There was no difference in complications associated with jugular and femoral vein insertion locations. | Insertion locations |
Loveday et al,86 2014 | — | CPGb | Specific recommendations for the prevention of hospital-acquired infections | — | PICC, TIVD, tunneled CVAD | — | Long-term dependent |
Device lumens | |||||||
Malbezin et al,87 2013 | 5435 | Observationala | To prospectively determine the overall success and complication rate of CVAD insertion over a 22-y period | Hospitalized children (mean = 5 y old) requiring any CVAD | CVAD | Device failure was more likely in children <3 kg. | General pediatrics |
Marshall et al,88 2017 | 19 | Observationala | To compare transhepatic CVADs to nontunneled CVADs as an alternative for preserving future central venous access | Retrospective review of infants (1.8–7.8 mo) with congenital heart disease who underwent placement of 1 or more transhepatic CVADs | Nontunneled CVAD, transhepatic CVAD | Transhepatic CVAD had a longer duration. There was no difference in thrombi, thrombolytic burden, or catheter sites requiring wound care consultation. There was a higher frequency of infection in transhepatic CVAD. There was no difference in the rate of infection-related removal. | Congenital cardiac |
Marquez et al,89 2016 | 175 | Observationala | To determine risk factors for thrombosis after placement of nontunneled CVADs in PICU patients | Prospective, multicenter study of pediatric patients (4 mo–8.6 y old) admitted to the PICU undergoing CVAD placement | Nontunneled CVAD | There were higher rates of DVT in patients with right-side nontunneled CVAD placement and insertion at SCV. | Insertion location |
May et al,90 2018 | 912 | Observationala | To determine the rates of thrombosis, infection, and insertion site symptoms after placement of PICCs and TIVDs in patients with cystic fibrosis | Retrospective review of adult and pediatric patents (mean = 7.4 y old) with cystic fibrosis | PICC, TIVD | Double-lumen PICCs were associated with greater rates of complications. | Long-term dependent |
Device lumens | |||||||
Menéndez et al,91 2016 | 256 | Observationala | To evaluate the incidence and risk factors for PICC-related thrombosis in children | Hospitalized children (IQR = 2.4–13 y old) requiring PICC placement | PICC | A catheter-to-vein ratio of >0.33 predicted PICC-related superficial vein thrombosis and DVT. | Catheter-to-vein ratio |
Mermel et al,92 2009 | — | CPGb | Specific recommendations for the prevention of catheter-related infection | — | CVAD, midline, PICC, PIVC, TIVD | — | Long-term dependent |
Moon et al,93 2018 | 629 | Observationala | To determine risk factors for CLABSI in children with hemato-oncological disease requiring long-term VADs | Retrospective review of children with hemato-oncologic disease (median = 6 y old; 14 d–17.9 y old) requiring any long-term CVAD | TIVD, tunneled-cuffed CVAD | There was no difference in the rate of CLABSI. | Hematology and oncology |
Mushtaq et al,94 2018 | 693 | Observationala | To determine the safety, specifically rates of CLABSI, mechanical complications, hospital length of stay, readmission within 90 d of discharge, and mortality of midline catheters compared to CVADs in adults admitted to intensive care | Adults >18 y old admitted to the ICU or medical-surgical ward with either a CVAD or midline catheter | CVAD, midline | CVADs were associated with higher rates of CLABSI, crude mortality, readmission, and transfer to the ICU. Midline catheters had more mechanical complications. | General pediatrics |
Noailly Charny et al,2 2018 | 295 | Observationala | To compare the risk of thrombosis in PICCs and tunneled-cuffed CVADs | Children (<18 y old) diagnosed with leukemia who received a PICC or tunneled-cuffed CVAD | PICC, tunneled-cuffed CVAD | PICCs were associated with an increased risk of thrombosis. | Hematology and oncology |
Nifong and McDevitt,95 2011 | — | Laboratory studya | To determine the effect of catheter size of fluid flow rates | — | PICC | Fluid flow rate decreased with increasing catheter size. | Catheter-to-vein ratio |
O’Grady et al,96 2011 | — | CPGb | Specific recommendations for the prevention of intravascular catheter-related infections | — | Midline, nontunneled CVAD, PICC, PIVC, TIVD, tunneled CVAD | — | Device lumens |
Vessel visualization | |||||||
Ohno et al,97 2016 | 120 | Observationala | To determine the rates of complications and CLABSI in infants and small infants (<1 y old or <10 kg) compared with children (>1 y old or >10 kg) | Children (4 mo–22 y old) requiring a TIVD | TIVD | Age was not associated with increased risk of complications. | General pediatrics |
Oulego-Erroz et al,98 2016 | 46 | Pilot studya | To determine if CVAD insertion to the BCV using USG techniques had greater insertion success compared to insertion to the IJV | Prospective study of critically ill children (0.6 mo–13 y old) requiring urgent CVAD insertion; nonrandom assignment to BCV + USG or IJV insertion | CVAD | BCV + ultrasound guidance had a higher first-attempt success rate, fewer insertion attempts, and lower insertion time compared to IJV. There was no difference in overall success rates. | Insertion location |
Vessel visualization | |||||||
Oulego-Erroz et al,99 2018 | 500 | Observationala | To determine if CVAD placement outcomes can be improved by using USG insertion | Prospective, multicenter study of all critically ill children (IQR = 2 mo–4.9 y old) requiring temporary CVAD placement using USG or landmark techniques | CVAD | Ultrasound guidance had a higher first-attempt success rate and fewer puncture attempts and mechanical complications. | Vessel visualization |
Pacilli et al,100 2018 | 18 | Observationala | To determine the appropriateness of long PIVCs in pediatric patients undergoing surgery | Children undergoing surgery (mean = 6.3 y old) requiring long PIVC insertion | Long PIVC | There were no immediate complications. On day 3, removals were made because of 3 occlusions and 1 red/pain. | General pediatrics |
Paladini et al,101 2018 | 40 | Pilot studya | To compare the success of USG long PIVC insertion in children admitted to the ED to short PIVCs | Children >10 y old (mean = 13 y old) who were admitted to the ED; comparison of blind short PIVC versus USG PIVC insertion | Long PIVC, short PIVC | Short PIVCs had a shorter dwell time duration and more complications compared to long PIVCs; ultrasound guidance had a lower risk of failure and complications but results confounded. | Critical care |
Vessel visualization | |||||||
Park et al,102 2016 | 3832 | Systematic reviewb | To determine the utility of NIR light devices | A total of 11 RCTs of any pediatric patient (<21 y old) undergoing PIVC placement using NIR or no assistive device | PIVC | There was no overall difference in overall success rate between NIR light device and traditional methods; however, NIR light devices had a higher success rate for subsets deemed high risk of failure. | Vessel visualization |
Included studies | |||||||
Chapman, 2011 | |||||||
Perry, 2011 | |||||||
Kaddoum, 2012 | |||||||
Kim, 2012 | |||||||
Cuper, 2013 | |||||||
Graaff, 2013 | |||||||
Sun, 2013 | |||||||
Szmuk, 2013 | |||||||
Woude, 2013 | |||||||
Graaff, 2014 | |||||||
Curtis, 2015 | |||||||
Pasteur et al,103 2010 | — | CPGb | Specific recommendations for patients with non-CF bronchiectasis | — | TIVD | — | Long-term dependent |
Peterson et al,104 2012 | 1399 | Observationala | To determine if assistive devices improve PIVC insertion success | Hospitalized children (mean = 1 y old) requiring PIVC placement; randomly assigned to unassisted versus assisted (transillumination versus NIR light device–guided) insertion | PIVC | PIVC insertion success was higher when no assistive device was used compared to assisted methods. | Vessel visualization |
Perin and Scarpa,105 2015 | — | Systematic reviewb | To review evidence related to the assessment of catheter-tip positioning in pediatric patients | Included 42 pediatric studies examining outcomes for patients undergoing VAD placement using vessel visualization techniques | CVAD, PICC, umbilical catheter | There was insufficient high-quality evidence to make specific recommendation for use in pediatric patients. | Vessel visualization |
Pinon et al,106 2009 | 915 | Observationala | To determine the incidence and risk factors of central venous catheter-related complications in pediatric hemato-oncological and immunologic conditions | Single-center, prospective study of children (0–19 y old) with oncological, hematologic, or immunologic diseases | TIVD, tunneled CVAD | Tunneled-cuffed CVADs were associated with more CLABSI; being ≤3 y old was associated with more dislodgements and more tunnel infections; CLABSI was more prevalent in double- versus single-lumen devices. | Hematology and oncology |
Device lumens | |||||||
Pittiruti et al,107 2009 | — | CPGb | Specific recommendations for CVADs and complication prevention in patients requiring PN | — | Midline, PICC, PIVC, TIVD, tunneled CVAD | — | Long-term dependent |
Device lumens | |||||||
Vessel visualization | |||||||
Polkinghorne et al,108 2013 | — | CPGb | Specific recommendations for vascular access in patients with chronic renal disease | — | Nontunneled CVAD, tunneled CVAD | — | Vessel visualization |
Qian et al,109 2014 | 40 | Observationala | To examine complication rates in pediatric patients with CF after the placement of a long PIVC | Prospective audit of pediatric patients with CF with infective exacerbation | Long PIVC | Complication rates were high; no serious adverse outcomes were reported. | Long-term dependent |
Ramer et al,110 2016 | 53 | RCTc | To evaluate the effectiveness of NIR light device technology for PIVC placement in pediatric hematology and oncology patients | Pediatric hematology and oncology patients (1–21 y old) requiring PIVC placement; randomly assigned to NIR light device or landmark insertion techniques | PIVC | NIR light device was associated with faster insertion time and higher satisfaction. | Vessel visualization |
Rauth et al,111 2008 | 138 | Observationala | To investigate the rate of infection in infants when the venous catheter is exchanged for a tunneled-cuffed CVAD after ECMO decannulation | PICU patients (mean = 13 d) requiring CVAD placement after decannulation from ECMO | Tunneled-cuffed CVAD | Increasing the duration of ECMO and CVAD placement independently predicted CLABSI. | Critical care |
Revel-Vilk et al,112 2010d | 423 | Observationala | To determine the rate of catheter-related complications in children undergoing chemotherapy during 12 mo of therapy | Single-center, prospective study of pediatric patients (29 d–28 y old) undergoing chemotherapy | PICC, tunneled-cuffed CVAD | PICCs were associated with a higher risk of DVT; tunneled CVAD had a higher risk of occlusion at 1 y. | Hematology and oncology |
Rey et al,113 2009 | 825 | Observationala | To identify risk factors for early mechanical complications in CVADs | Pediatric patients (median = 22 mo) admitted to the PICU; comparisons among femoral, jugular, and SCV CVAD insertion sites | CVAD | SCV and jugular vein, as well as increasing No. attempts were associated with significantly more early mechanical complications. | Difficult venous access |
Insertion site | |||||||
Rivera-Tocancipa et al,114 2018 | 201 | Observationala | To describe the incidence of complications associated with USG CVAD insertion in children compared to anatomic landmark techniques | All hospitalized children (0–18 y old) requiring CVAD insertion using USG or LM insertion techniques | CVAD | Ultrasound guidance had fewer immediate complications, no arterial punctures, and higher rates of insertion success compared to landmark techniques. | Vessel visualization |
Rosado et al,115 2013 | 255 | Observationala | To examine the rate of CVAD-associated infection in PICU patients | Prospective, single-center review of children (majority <6 y old) admitted to the PICU requiring a CVAD | CVAD | CVADs inserted ≥7 d were associated with a higher risk of CLABSI. | Critical care |
Rossetti et al,116 2015 | 309 | Observationala | To investigate the safety and accuracy of intracavitary ECG-guided insertion in pediatric patients | Prospective, multicenter study of hospitalized pediatric patients (1 mo–18 y old) requiring a VAD; insertion using intracavitary ECG versus intracavitary ECG with dedicated ECG monitor compared | CVAD, PICC | Insertion accuracy was higher with a dedicated ECG monitor. | Vessel visualization |
Schiffer et al,117 2013 | — | CPGb | Specific recommendations for central venous catheters in patients with cancer | — | Nontunneled CVAD, PICC, tunneled CVAD, TIVD | — | Hematology and oncology |
Vessel visualization | |||||||
Sharp et al,118 2015 | 136 | Observationala | To identify the optimal ratio cutoff to reduce rates of VTE | Prospective study of hospitalized adults (mean = 57 y old) requiring PICC insertion, comparison between ≤45% versus ≥45% catheter-to-vein ratio | PICC | A >45% ratio was more likely to develop VTE. | Catheter-to vein ratio |
Shenep et al,119 2017 | 90 | Observationala | To determine the interaction between PN and external central venous devices in increasing risk of complications | Rates of complications during PN and non-PN periods in pediatric oncology patients (median = 7.3 y old) requiring central venous devices | TIVD, tunneled CVAD | Risk of CLABSI was higher during PN for children with TIVDs. Occlusion risk was higher for TIVDs. Complication rates for TIVDs were lower during the non-PN period but similar during the PN period. | Long-term dependent |
Sibson et al,120 2018 | — | CPGb | Specific recommendations for preventing thrombosis in pediatric patients with cancer | — | PICC, PIVC, TIVD, tunneled CVAD | — | Hematology and oncology |
Sigaut et al,121 2009 | 359 | Systematic reviewb | To evaluate the advantages of USG CVAD placement over anatomic landmark techniques in pediatric patients | Children (2 d–8 y old) undergoing cardiac surgery requiring CVAD | CVAD | For ultrasound guidance, no difference in rates of artery puncture, hematoma, hemothorax, pneumothorax, or time to insert was found. Ultrasound guidance had higher success rates for subsets of novice operators and during intraoperative use. | Vessel visualization |
Included studies | |||||||
Alderson, 1993 | |||||||
Chuan, 2005 | |||||||
Verghese, 1999 | |||||||
Verghese, 2000 | |||||||
Grabenic, 2004 | |||||||
Smitherman et al,122 2015 | 1135 | Observationala | To determine risk factors for the development of catheter-associated VTE in general hospitalized pediatric patients | Chart review of hospitalized children (mean = 8 y old) requiring a VAD | PICC | Increasing age was related to an increased risk of thrombosis; lumen No. was not associated with thrombosis risk; insertion site (brachial or cephalic, SCV, jugular, or femoral or saphenous) was not associated with an increased risk of thrombosis. | General pediatrics |
Device lumens | |||||||
Insertion location | |||||||
Takeshita et al,123 2015 | 96 | Observationala | To examine the factors that affect insertion success for invisible and impalpable peripheral veins in children | Pediatric patients (1.1–2.8 y old) with invisible or impalpable veins undergoing elective surgery | PIVC | PIVC with ultrasound guidance had better success rates compared to PIVC without ultrasound guidance; compared to insertion to the dorsal hand vein, the cephalic vein had a higher success rate and shorter insertion time. | Difficult access |
Insertion location | |||||||
Vessel visualization | |||||||
Takeshita et al,123 2015 | 196 | RCTc | To examine the factors that affect insertion success for invisible and impalpable peripheral veins in children | Pediatric patients (10–40 mo) with invisible or impalpable veins undergoing elective surgery | PIVC | Compared to insertion to the dorsal hand or saphenous vein, the cephalic vein had a higher success rate. | Insertion location |
The Joint Commission,124 2013 | — | CPGb | Specific recommendations for preventing CLABSI in CVADs | — | CVAD | — | Device lumens |
Tripi et al,125 2016 | 108 | Observationala | To determine the frequency of PIVC-related dysfunction in pediatric patients | Compared PIVC dysfunction in hospitalized children (0–>12 y old) over device durations of 1–2 d versus 2–3 d versus >3 d | PIVC | Higher rates of PIVC dysfunction were associated with PIVCs in place for >3 d or inserted in lower extremities. | General pediatrics |
Troianos et al,126 2011 | — | CPGb | Specific recommendations for VAD placement using ultrasound guidance in pediatric patients | — | CVAD, PICC, PIVC | — | Vessel visualization |
Ullman et al,6 2015 | 31 933 | Systematic reviewb | To review the incidence of VAD failure in pediatric patients | Hospitalized pediatric patients across 74 studies requiring any VAD | Hemodialysis catheter, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | Hemodialysis catheters and umbilical catheters had the highest failure rate; TIVDs had the lowest failure rate. | General pediatrics |
Ullman et al,1 2017 | 1027 | Observationala | To examine the prevalence, management, and associated complications of CVADs in pediatric patients | Hospitalized pediatric patients (IQR = 1–12 y old) requiring any VAD | Hemodialysis catheter, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | PICCs had higher proportions of CVAD-associated complications in the previous 7 d. | General pediatrics |
Unbeck et al,127 2015 | 2032 | Observationala | To identify risk factors for PIVC-associated complications in pediatric patients | Comparison of hospitalized neonatal versus pediatric patients (0–18 y old) requiring a PIVC | PIVC | Occlusion was associated with longer dwell time. Neonatal: PIVC survival time was shorter; there was more infiltration. Insertion at the arm bend or ankle was associated with higher rates of infiltration and occlusion. | General pediatrics |
Insertion location | |||||||
van Gent et al,128 2017 | 538 | Observationala | To determine the rates of infection and complications in pediatric hematology, oncology, and stem cell transplant patients | Retrospective review of pediatric patients (mean = 7.8 y old) after surgical placement of any CVAD | TIVD, tunneled-cuffed CVAD | Tunneled-cuffed CVAD had a lower risk of infection. | Hematology and oncology |
Vierboom et al,129 2018 | 232 | Observationala | To evaluate the safety of tunneled CVAD insertion in children weighing <10 kg | Retrospective review of all children (<1 mo–4 y old) receiving surgical insertion of a tunneled CVAD with ultrasound guidance or via surgical cutdown | Tunneled CVAD | USG insertion was associated with lower mechanical blockages, but there was no difference in intraoperative and postoperative complications, time to insert, or device longevity. | Vessel visualization |
Vinograd et al,130 2018 | 300 | Observationala | To evaluate PIVC insertion success in patients with difficult venous access using USG techniques | Pediatric patients (median = 14 y old) in an ED who had a failed PIVC attempt via traditional insertion techniques | PIVC | PIVC using USG techniques led to 68% and 87% first- and second-attempt success rates after failed traditional method. | Difficult access |
Vessel visualization | |||||||
Voigt et al,131 2012 | — | Systematic reviewb | To review the evidence for the use of intraosseous devices in emergent contexts | Studies evaluating intraosseous devices in patients requiring emergent vascular access or nonhuman randomized prospective studies | Intraosseous | Compared to alternative access, there was no difference in complications using intraosseous devices. | Critical care |
Wiegering et al,132 2014 | 43 | Observationala | To determine the incidence of catheter-related thrombosis in pediatric oncology patients | Single-center retrospective review of pediatric oncology patients (mean = 9.4 y old) requiring central venous access | TIVD, tunneled-cuffed CVAD | TIVDs showed an earlier peak of thrombosis occurrence than that of tunneled-cuffed CVAD catheters; the highest incidence of thrombosis occurred in the SCV, followed by external jugular and cephalic sites. There was no difference in complications between insertion at the left and right side. | Hematology and oncology |
Insertion location | |||||||
White et al,133 2012 | 322 | Observationala | To compare the rate of complications and early removal between TIVDs and tunneled-cuffed CVADs | Retrospective review of children (1 mo–19 y old) with ALL requiring a TIVD or a tunneled-cuffed CVAD | TIVD, tunneled-cuffed CVAD | TIVDs had less complications. | Hematology and oncology |
Wragg et al,134 2014 | 100 | Observationala | To determine the rate of occlusion associated with tunneled-cuffed CVAD insertion under ultrasound guidance | Children (21 d–16 y old) requiring elective or emergency removal of a tunneled-cuffed CVAD | Tunneled-cuffed CVAD | Complete venous occlusion was associated with younger age. | General pediatrics |
Vessel visualization | |||||||
Wu et al,135 2013 | 508 | Systematic reviewb | To evaluate whether USG CVAD insertion was more successful compared to anatomic landmark techniques | Meta-analysis of RCTs comparing USG versus landmark CVAD insertion in pediatric patients (mean = 0.5–<8 y old) | CVAD | There were few pediatric studies (n = 2), which limited analysis. For ultrasound guidance, there was no reduction in the risk of cannulation failure, arterial puncture, hematoma, pneumothorax, and hemothorax in children or infants. | Vessel visualization |
Wyckoff and Sharpe,136 2015 | — | CPGb | Specific recommendations for vascular access in neonates and infants | — | Midline, PICC, PIVC, TIVD, tunneled CVAD, umbilical catheter | — | General pediatrics |
Congenital cardiac | |||||||
Catheter-to-vein ratio | |||||||
Vessel visualization | |||||||
Xia et al,137 2016 | 48 | RCTc | To determine the efficacy and rate of complications in pediatric patients with moderate-to-severe burn injuries | Pediatric patients (mean = 2.2 y old) with moderate-to-severe burn injuries | PICC, PIVC | There was a higher 1-time puncture success rate, longer retention duration, and more complication for PICCs compared to PIVCs | Critical care |
Yacobovich et al,138 2015d | 423 | Observationala | To determine patient- and catheter-related risk factors for CLABSI in children receiving chemotherapy | Prospective study of pediatric patients (29 d–28 y old) receiving chemotherapy requiring a VAD | PICC, TIVD, tunneled-cuffed CVAD | Tunneled-cuffed CVADs and PICCs had a higher risk for CLABSI in the group of diseases with lower rate of infection. In diseases with high rate of infection, there was no difference. | Hematology and oncology |
Zanolla et al,139 2018 | 51 | RCTc | To determine if USG techniques reduce the No. puncture attempts, procedure time, and complication rates during CVAD insertion via the IJV in children | Prospective study of any child (11 mo–9 y old) requiring CVAD insertion via the IJV; randomly assigned to USG versus landmark insertion groups | CVAD | USG techniques required fewer attempts, took less time, and resulted in fewer complications, compared to landmark techniques. | Vessel visualization |
Zengin et al,140 2013 | 64 | Observationala | To determine risk factors for CVAD-related complications in children admitted to the ED | Retrospective review of pediatric patients (2–16 y old) admitted to the ED | Nontunneled CVAD | More complications were associated with >3 attempts. | Difficult venous access |
Zhou et al,141 2017 | 281 | Observationala | To evaluate the feasibility and safety of intracavitary ECG technique in guiding PICC placement in neonates | Hospitalized neonates (27–41 wk) requiring PICC placement using landmark techniques or intracavitary ECG guidance | PICC | Intracavitary ECG-guided PICC placement had a higher correct tip position on the first attempt compared to landmark techniques. | Vessel visualization |
Study, Year . | Participants, n . | Design and/or Method . | Focus and/or Overview . | Study Sample and Characteristics . | Device . | Findings and Comments . | miniMAGIC Indication . |
---|---|---|---|---|---|---|---|
Adams et al,14 2016 | — | Clinical reviewa | Clinical review of midline catheter device indications and complications for use in the ED | — | Midline | Midlines have a low complication rate, long dwell time, and high rate of first-attempt placement. | General pediatrics |
Aiyagari et al,15 2012 | 89 | Observationala | To compare the clinical outcomes for infants with single-ventricle physiology after umbilical catheter and femoral CVAD placement | Patients with single-ventricle physiology admitted to the NICU (4–13 d) | Nontunneled CVAD, umbilical catheter | Nontunneled CVADs were associated with higher rates of thrombosis and vein occlusion. No difference was seen among CLABSI, need for transhepatic access, and ultrasound-documented thrombus at the inferior vena cava–right atrial junction. Patients with nontunneled femoral CVAD for ≥14 d had a higher prevalence of thrombosis than those for <14 d. No difference in the prevalence of iliofemoral vein occlusion was seen. | General pediatrics |
Ainsworth and McGuire,16 2015 | 549 | Systematic reviewb | To evaluate PN delivery via PIVC or CVAD in hospitalized neonates | Included 6 RCTs evaluating PN delivery via PIVC or CVAD in hospitalized neonates | PIVC, nontunneled CVAD | Nontunneled CVAD led to a smaller deficit of nutrients and fewer catheters; there was no difference for invasive infection. | Long-term dependent |
Alten et al,17 2012 | 115 | Observationala | To compare USG CVAD insertion to landmark techniques in critically ill neonates | Retrospective review of critically ill neonates (mean = <14 d) admitted to the PICU requiring CVAD placement using USG or landmark techniques | CVAD | Insertion using ultrasound guidance was associated with higher overall success, first-, and second- attempt success, and lower arterial puncture rates. | Vessel visualization |
Anil et al,18 2011 | 128 | Observationala | To evaluate complications associated with CVAD placement in the PICU | Retrospective review of all patients (median = 21 mo) admitted to the PICU requiring CVAD placement | CVAD | There was no difference in complications for CVAD insertion at femoral, subclavian, or jugular veins. | Insertion location |
ANZICS,19 2012 | — | CPGb | Specific recommendations for insertion central lines for the prevention of CLABSI | — | Nontunneled CVAD, tunneled CVAD | — | Insertion location |
Allen et al,20 2008 | — | Observationala | To determine the risk of infection in pediatric oncology patients requiring long-term vascular access | 12-mo prospective study of pediatric oncology patients (3 mo–20 y old) with a TIVD or tunneled-cuffed CVAD | TIVD, tunneled-cuffed CVAD | There was a higher rate ratio for CLABSIs in tunneled-cuffed CVAD. | Hematology and oncology |
ARC and NZRC,21 2010 | — | CPGb | Specific recommendations for access to circulation in infants and children in the context of cardiorespiratory arrest | — | CVAD, intraosseous, PIVC | — | Critical care |
ARC and NZRC,22 2010 | — | CPGb | Medication or fluids for the resuscitation of the newborn infant | — | Intraosseous, PICV, umbilical catheter | Specific recommendations for newborn infants in the context of resuscitation were provided. | Critical care |
ARC and NZRC,23 2010 | — | CPGb | Specific recommendations for vascular access in pediatric patients in the context of cardiopulmonary arrest | — | CVAD, intraosseous, PICV | — | General pediatrics |
Arnts et al,24 2014 | 203 | Observationala | To compare the rates of complications between umbilical catheters and PIVCs in newborns | Patients admitted to the NICU (24–42 wk gestation) requiring a PICC or umbilical catheter | PICC, umbilical catheter | There was no difference in complication rate or due to gestational age. | General pediatrics |
Athale et al,25 2012 | 358 | Observationala | To evaluate the impact of CVAD on 5-y overall and event-free survival in children with cancer | Children with non-CNS cancer (≤19 y old) who required a CVAD | CVAD | CVAD dysfunction controlling for thromboembolism is associated with poorer 5-y overall and event-free survival. | Hematology and oncology |
Avanzini et al,26 2017 | 194 | Observationala | To describe a single-center transition from CVAD placement via surgical cutdown to USG insertion techniques | Retrospective review of pediatric patients (7 d–18 y old) who underwent tunneled CVAD placement using USG or surgical cutdown techniques | Tunneled CVAD | Double-lumen PICCs were associated with increased risk of complications, compared to single-lumen PICCs; complications were reported but not significantly compared between USG and surgical cutdown techniques. | Device lumens |
Vessel visualization | |||||||
Barnwal et al,27 2016 | 60 | Observationala | To compare ECG and landmark insertion techniques for CVAD placement | Pediatric patients (0–11 y old) undergoing elective cardiovascular surgery randomly assigned to CVAD insertion via landmark or ECG techniques | CVAD | There were fewer complications using USG insertion techniques. | Vessel visualization |
Barrier et al,28 2012 | 1280 | Observationala | To determine risk factors for PICC-related complications in children | Immunocompromised children (mean = 3.2 y old; 0–21 y old) requiring a PICC | PICC | Double-lumen catheters, PICCs placed in the femoral vein and children 1–4 y old, compared with older children (5–10 y old, >10 y old), were more at risk for complications. | General pediatrics |
Device lumens | |||||||
Insertion location | |||||||
Baskin et al,29 2019 | — | CPGb | Specific recommendations for central venous catheters in children with chronic illness | — | Midline, PICC, TIVD, tunneled-cuffed CVAD | — | Long-term dependent |
Ben Abdelaziz et al,30 2017 | 215 | Observationala | To examine the incidence of PIVC-related complications in pediatric patients | Comparison of complications versus no complications in hospitalized children (0.1–18 y old) requiring a PIVC | PIVC | Longer duration was associated with local complication. | General pediatrics |
Bezzio et al,31 2019 | 205 | Observationala | To investigate the rate of and risk factors for infection in children undergoing cardiac surgery requiring CVAD placement | Prospective study of pediatric patients (1 d–25 y old) undergoing cardiac surgery | CVAD | Infection risk significantly increased with increased duration of device placement; the SCV vein was more likely to develop CLABSI. | Congenital cardiac |
Insertion location | |||||||
Blotte et al,32 2017 | 162 | Observationala | To compare PICC and CVAD complications in pediatric patients with intestinal failure | Pediatric patients (1 d–12 y old) with intestinal failure requiring PN | PICC, tunneled-cuffed CVAD | Tunneled-cuffed CVAD had a higher infection rate, and PICCs were more likely to break. More tunneled-cuffed CVADs had central venous thrombosis, whereas more PICCs had basilic vein thrombosis. | Long-term dependent |
Birhane et al,33 2017 | 178 | Observationala | To assess factors that impacted PIVC life span in neonates and infants | Neonates and infants (1 d–11 mo) requiring PIVC placement | PIVC | Compared to placement at the scalp, hand, or leg, PIVCs inserted at the arm had a longer life span. | Insertion location |
Bodenham Chair et al,34 2016 | — | CPGb | Specific recommendations for the insertion of VADs in all patients | — | CVAD, PIVC | — | Critical care |
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Boe et al,35 2015 | 92 | Observationala | To evaluate risk factors and complications associated with the placement of transhepatic CVADs | Retrospective review of congenital cardiac patients (IQR = 2–10 y old) undergoing transhepatic CVAD placement | Transhepatic CVAD | Placement ≥21 d was associated with increased transhepatic CVAD complications. | Critical care |
Borasino et al,36 2014 | 392 | Observationala | To determine if CVAD insertion into veins in the upper body is a risk factor for chylothorax | Retrospective review of pediatric patients (<1 y old) undergoing cardiac surgery; comparison among CVAD placement at IJV versus SCV versus femoral vein | CVAD | Insertion at IJV or SCV was associated with a higher risk of chylothorax. | Insertion location |
Boretta et al,37 2018 | 107 | Observationala | To evaluate the management and complications associated with PICCs inserted in pediatric oncology patients | Pediatric oncology patients (0–17 y old) requiring PICC placement | PICC | Compared to right-side insertion locations, PICCs inserted on the left side of the body were associated with more complications. | Insertion location |
Bouaziz et al,38 2015 | — | CPGb | Specific recommendations for the placement of VADs under ultrasound guidance in all patients | — | CVAD, PIVC | — | Vessel visualization |
Bozaan et al,39 2019 | 226 | Pilot studya | To evaluate the impact of an intervention designed to increase the use of single-lumen PICCs | Pre- and postintervention of PICC placement in hospitalized adults (60 y old) | PICC | Making single-lumen PICCs the default option and providing indications for multilumen devices increased use of single-lumen PICCs. | Device lumens |
Bratton et al,40 2014 | 178 | Observationala | To report complication rates of VADs in children undergoing radiotherapy | Retrospective review of pediatric patients (1–26 y old) undergoing radiotherapy who received a VAD | PICC, TIVD, tunneled-cuffed CVAD | TIVDs were associated with lower infection and complication rates and had greater durability. | Hematology and oncology |
Byon et al,41 2013 | 98 | RCTc | To evaluate the efficacy of USG SCV catheterization | Pediatric patients (0–2.9 y old) undergoing elective congenital cardiac surgery or neurosurgery; randomly assigned to supraclavicular or infraclavicular approaches | CVAD | The supraclavicular approach was associated with shorter puncture time, fewer insertion attempts, and fewer misplacements. | Insertion location |
Camkiran Firat et al,42 2016 | 280 | RCTc | To compare the rate of complications associated with IJV and SCV CVAD insertion | Pediatric patients (16 mo–2.2 y old) undergoing cardiac surgery; randomly assigned to IJV or SCV insertion | CVAD | Insertion via the SCV was associated with higher success rates; lower rates of arterial puncture, catheter-tip cultures, and CLABSI; and higher rates of malposition. There was no difference in mechanical complications, ICU and hospital length of stay, and in-hospital mortality. | Insertion location |
Campagna et al,43 2018 | 1538 | Observationala | To determine the safety of midline catheters used in general hospitalized adults | Hospitalized adults (median = 83 y old) requiring a midline catheter across 2 Italian hospitals | Midline | A total of 10% of midline catheters had a serious adverse event. | General pediatrics |
Carlson et al,44 2015 | 3846 | Observationala | To characterize procedures performed on critically ill children by emergency medical service personnel in out-of-hospital contexts | Retrospective review of pediatric patients (0–17 y old) requiring out-of-hospital critical care | CVAD, intraosseous | CVADs had higher success rates compared to intraosseous devices. | Critical care |
Carraro et al,45 2013 | — | CPGb | Specific recommendations for the use of long-term central venous access in pediatric hematology and oncology patients | — | TIVD, tunneled-cuffed CVAD | — | Hematology and oncology |
Cesaro et al,46 2016 | 1161 | Observationala | To report the frequency and associated risk factors for central venous catheter–associated complications in children with hemato-oncological conditions | Pediatric hematology-oncology patients (median = 6.1 y old) requiring a tunneled-cuffed CVAD | Tunneled-cuffed CVAD | At <6.1 y old, there were more mechanical complications, more malfunction or occlusion; compared to single-lumen devices, double-lumen devices had more mechanical complications, exit-site or tunnel infections, and malfunction or occlusion. | Hematology and oncology |
Device lumens | |||||||
Chen et al,47 2020 | 4405 | Systematic reviewb | To compare risk associated with PICCs placed in the upper versus the lower extremity in neonates | Neonates (<28 d old) requiring PICC placement | PICC | There was a greater risk of nonelective removals and malposition in PICCs placed in the upper versus lower extremity; there was a lower risk of thrombosis in PICCs placed at the upper extremity. There were no differences in mechanical complications, PICC-related infection, or phlebitis. | Insertion location |
Choi et al,48 2017 | 23 | Observationala | To determine the safety and accuracy of TIVD placement using ultrasound guidance compared to surgical cutdown | Retrospective review of pediatric (0–16 y old) hematology, oncology, and PN patients undergoing TIVD placement | TIVD | There was no difference using ultrasound guidance in insertion time or complication compared to surgical cutdown. | Vessel visualization |
Cooling et al,49 2017 | 75 | Observationala | To examine the performance and safety of femoral CVADs | Retrospective study of pediatric patients undergoing stem cell collection (median = 3 y old) requiring CVAD placement | CVAD | Compared to thoracic CVADs, femoral CVADs had fewer flow-related adverse events. | Insertion location |
Crocoli et al,50 2015 | — | CPGb | CVADs in pediatric patients with cancer | — | Midline, PICC, nontunneled CVAD, TIVD, tunneled CVAD, tunneled-cuffed CVAD | — | Hematology and oncology |
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Debourdeau et al,51 2009 | — | CPGb | Prevention of thrombosis associated with central venous catheters in patients with cancer | — | TIVD, tunneled CVAD | — | Hematology and oncology |
Device lumens | |||||||
Insertion location | |||||||
De Carvalho Onofre et al,52 2012 | 42 | RCTc | To compare the use of ultrasound and palpation insertion success for PICC placement in pediatric patients | Any pediatric patient (1 mo–16 y old) requiring IV therapy for >7 d; randomly assigned to USG PICC insertion or palpation | PICC | USG PICC insertion was associated with higher first-attempt success rate, better catheter positioning and shorter insertion time. | Vessel visualization |
de Souza et al,53 2018 | 80 | RCTc | To determine if USG PICC placement led to higher insertion success compared to landmark techniques | Critically ill pediatric patients (IQR = 3 mo–1.3 y old) admitted to the PICU requiring PICC insertion via the IJV; randomly assigned to USG or landmark insertion | PICC | USG PICC insertion was associated with higher overall success rate, first- and third-attempt success rate, lower insertion time, and fewer hematomas and arterial punctures compared to landmark. | Vessel visualization |
DeWitt et al,54 2015 | 180 | Observationala | To determine procedural success and failure rates in umbilical catheter placement | Patients with congenital heart disease <20 h old versus >20 h old requiring an umbilical catheter | Umbilical catheter | There was a higher success rate for younger patients. | General pediatrics |
Dheer et al,55 2011 | 103 | Observationala | To compare the rates of immediate insertion-related complications after CVAD placement in pediatric patients | Hospitalized children (<12 y old) requiring a CVAD; comparison of complications among neonate versus infant versus >1–12 y old | CVAD | Neonates were at higher risk of immediate insertion-related complications; more insertion attempts were associated with insertion-related problems. | General pediatrics |
Doellman et al,56 2015 | — | CPGb | Specific recommendations regarding central venous catheters that account for the unique needs of pediatric patients | — | Hemodialysis catheter, PICC, nontunneled CVAD, TIVD, tunneled CVAD | — | General pediatrics |
Hematology and oncology | |||||||
Critical care | |||||||
Congenital cardiac | |||||||
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Dongara et al,57 2017 | 144 | RCTc | To compare success and complication rates, cost, and insertion time between PICCs and umbilical catheters inserted in the NICU | Patients admitted to the NICU (mean = 34 wk’ gestation) requiring a PICC or umbilical catheter | PICC, umbilical catheter | There was no difference in success rate, time, and short-term complications between PICCs and umbilical catheters. | General pediatrics |
Elser,58 2013 | — | Clinical reviewa | Clinical review of umbilical catheter placement | Patients admitted to the NICU requiring an umbilical catheter | Umbilical catheter | Umbilical catheter malposition or dislodgement is associated with hemorrhaging and death. | General pediatrics |
Fallon et al,59 2014 | 244 | Observationala | To determine device-related complications in infants requiring a VAD | Hospitalized children (0–3 y old) requiring a central venous catheter for prolonged therapy | TIVD, tunneled CVAD | Infants (≤1 y old) had higher complication rate, higher operative exchange rate, higher infection rate, and shorter duration compared with toddlers (>1 y old). | General pediatrics |
Faustino et al,60 2013 | 101 | Observationala | To explore the incidence of DVT in PICU patients requiring a central venous catheter | Critically ill children (0–17 y old) admitted to the PICU; comparisons made among age (<1 y old versus 1–13 y old versus 13–17 y old) | Nontunneled CVAD | Compared with infants (<1 y old), PICU patients 13–17 y old had higher odds of DVT. | Critical care |
Froehlich et al,61 2009 | 93 | Observationala | To determine if CVAD placement using ultrasound guidance increases insertion success and decreases complications after single-center transition to USG insertion techniques | Prospective study of critically ill pediatric patients (median = 2.5 y old) admitted to the PICU requiring CVAD placement with USG or landmark techniques | CVAD | Ultrasound guidance was associated with significantly lower arterial punctures and fewer No. attempts. There was no difference in success rate or insertion time between ultrasound guidance and landmark groups. | Vessel visualization |
Frykholm et al,62 2014 | — | CPGb | Specific guidelines for patients requiring central venous catheters regarding vascular approach, ultrasound guidance, and prevention of complications | — | Dialysis catheters, nontunneled CVAD, PICC, TIVD, tunneled-cuffed CVAD | — | Long-term dependent |
Device lumens | |||||||
Vessel visualization | |||||||
Gaballah et al,63 2014 | 150 | Observationala | To describe complication rates associated with CVAD placement using ultrasound guidance and fluoroscopic guidance in neonates and infants | Retrospective review of critically ill neonates and infants (premature–1 y old) requiring CVAD placement with USG versus fluoroscopic guidance | CVAD | There was no difference in complication rates. | Insertion location |
Vessel visualization | |||||||
Gallagher et al,64 2014 | 168 | Observationala | To determine if CVAD placement using USG techniques improved insertion success in pediatric ED patients | Retrospective study of pediatric (3–15 y old) emergency patients requiring CVAD placement with or without ultrasound guidance | CVAD | There was higher insertion success when using ultrasound guidance. | Vessel visualization |
Gonzalez et al,65 2012 | 172 | Observationala | To determine if early placement of TIVDs or tunneled-cuffed CVADs in patients at high risk of thrombosis and infection led to higher surgical complications | Retrospective review of children with ALL (4 d–16 y old) at high risk of infection and thrombosis | TIVDs, tunneled-cuffed CVADs | There was no difference in infection rate between TIVD and tunneled-cuffed CVADs and no difference in rate of infection in single- versus double-lumen devices. | Hematology and oncology |
Device lumens | |||||||
Gorski et al,66 2016 | — | CPGb | Specific practice recommendations for adult and pediatric patients requiring infusion therapy, including device selection, placement, and complication prevention | — | Hemodialysis catheters, intraosseous, long PIVC, midline, nontunneled CVAD, PICC, short PIVC, TIVD, tunneled CVAD, umbilical catheter | — | Critical care |
Congenital cardiac | |||||||
Long-term dependent | |||||||
Catheter-to-vein ratio | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Gray et al,67 2012 | 333 | Observationala | To identify risk factors for catheter-related DVT in infants <1 y old | Hospitalized infants (mean = 34 wk’ gestation) requiring a VAD | PICC, tunneled-cuffed CVAD | Mean catheter days before DVT diagnosis were shorter for PICCs than for tunneled-cuffed CVADs; higher rates of DVT were in multilumen CVADs; the majority of DVT was in femoral veins. Femoral CVADs were associated with greater DVT rates than jugular or SCV CVADs. There was more DVT in femoral lines than in sapheno-femoral tunneled-cuffed CVADs. | Long-term dependent |
Device lumens | |||||||
Insertion location | |||||||
Gurien et al,68 2016 | 1134 | Observationala | To determine the incidence of complications associated with CVAD placement using USG techniques | Retrospective, multicenter review of pediatric patients (1.5–12 y old) who underwent CVAD placement with landmark or USG insertion | CVAD | There was a higher first- attempt success rate using ultrasound guidance but higher risk of hemothorax using ultrasound guidance. | Vessel visualization |
Habas et al,69 2018 | 225 | Observationala | To determine the complications associated with CVAD placement at the BCV insertion site | Retrospective review of pediatric patients (mean = 7 y old) admitted to PICU requiring CVAD placement; BCV insertion site versus all others (femoral, subclavian, jugular) | CVAD | Compared to other insertion sites, BCV had fewer complications. | Insertion location |
Hamed et al,70 2013 | 300 | Observationala | To describe insertion success rate and complication rate after delivery of anesthesia to critically ill infants and toddlers | Critically ill infants and toddlers (21 d–1.3 y old) requiring emergency surgery | Intraosseous | Intraosseous access was appropriate for unobtainable peripheral or central access. | Critical care |
Hancock-Howard et al,71 2010 | 60 | Observationala | To determine the cost-effectiveness of TIVD placement using interventional radiology | Retrospective review of pediatric oncology patients undergoing placement of a TIVD using interventional radiology (mean = 7 y old) or surgical cutdown (mean = 4 y old) techniques | TIVD | Insertion time was shorter and resulted in fewer complications using interventional radiology compared to surgical cutdown. | Vessel visualization |
Handrup et al,72 2010 | 98 | Observationala | To evaluate the rates of VAD-related complications associated with placement of a TIVD or tunneled-cuffed CVAD | Retrospective review of children with ALL (<4–>9 y old) who received a TIVD or tunneled-cuffed CVAD over an 8-y period | TIVD, tunneled-cuffed CVAD | There was a higher CLABSI rate and nonelective removal for tunneled-cuffed CVAD. | Hematology and oncology |
Hanson et al,73 2012 | 1070 | Observationala | To investigate the rate of and risk factors for VTE in children with cardiac disease admitted to the PICU | Children with cardiac disease (median = 10 mo) admitted to the PICU; comparisons made among <6 mo versus 6 mo–1 y old versus 1–2 y old versus 2–12 y old versus 12–18 y old versus >18 y old | CVAD | VTE incidence was associated with increasing No. CVAD days. In young children (<6 mo), VTE incidence was significantly higher. | Critical care |
Heinrichs et al,74 2013 | 1076 | Systematic reviewb | To evaluate assistive technologies, other than ultrasound guidance, in improving PIVC insertion success | Seven RCTs of pediatric patients (0–21 y old) requiring PIVC insertion using novel interventions | PIVC | Transillumination was associated with higher first-attempt success compared to traditional insertion techniques; first-attempt success using NIR and traditional methods was not significantly different. There was no difference in time or No. attempts between insertion methods. | Vessel visualization |
Included studies | |||||||
Hosokawa, 2010 | |||||||
Katsogridakis, 2008 | |||||||
Nager, 1992 | |||||||
Perry, 2011 | |||||||
Chapman, 2011 | |||||||
Kim, 2012 | |||||||
Maynard, 1989 | |||||||
Institute for Healthcare Improvement,75 2012 | — | CPGb | Specific recommendations for the prevention of CLABSI | — | CVAD | — | Vessel visualization |
IVNNZ,76 2012 | — | CPGb | Specific practice recommendations for adult and pediatric patients requiring infusion therapy, including device selection, placement, and complication prevention | — | Intraosseous, midline, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | — | Critical care |
Long-term dependent | |||||||
Device lumens | |||||||
Vessel visualization | |||||||
Katsogridakis et al,77 2008 | 240 | Observationala | To determine if transillumination increases PIVC insertion success in pediatric patients | Pediatric patients (mean = 13 y old) with difficult venous access admitted to the ED requiring nonurgent PIVC placement; randomly assigned to with or without transillumination | PIVC | Insertion using transillumination was associated with higher first- and second-attempt success compared to without transillumination. | Vessel visualization |
Kim et al,78 2017 | 132 | RCTc | To compare ultrasound guidance to landmark techniques for CVAD insertion in children | Pediatric cardiac surgery, neurosurgery, or general surgical patients (1 mo–6 y old) requiring CVAD insertion; randomly assigned to USG insertion to the axillary vein or LM insertion via the SCV | CVAD | USG + axillary insertion was associated with fewer attempts and shorter insertion time. There was no difference in complication rates. Results were confounded by location and/or imaging. | Insertion location |
Vessel visualization | |||||||
Kulkarni et al,79 2014 | — | Systematic reviewb | A systematic review of TIVDs and tunneled-cuffed CVADs in adults and children receiving chemotherapy | 5 RCTs and 25 observational studies of adults and children undergoing chemotherapy | TIVD, tunneled-cuffed CVAD | Tunneled CVAD was associated with more infections, noninfectious complications, and device removal. | Hematology and oncology |
Kulkarni et al,80 2017 | 176 | Observationala | To describe the complications related to VAD insertion in infants with hemophilia | Infants (0–2 y old) with hemophilia requiring either a PICC, TIVD, or tunneled CVAD | PICC, TIVD, tunneled CVAD | TIVDs had the lowest rates of complications. | Hematology and oncology |
Lam et al,81 2018 | 954 | Observationala | To evaluate the impact of defaulting to single-lumen PICCs | Hospitalized adults (mean = 66 y old) requiring PICC placement; comparison of single versus double lumens | PICC | Single-lumen PICCs were associated with lower complications. | Device lumens |
Lamperti et al,82 2012 | — | CPGb | Specific recommendations regarding USG VAD placement | — | CVAD, PICC | — | Catheter-to-vein ratio |
Vessel visualization | |||||||
Lau and Chamberlain,83 2016 | 760 | Systematic reviewb | To examine the safety and efficacy of CVAD insertion using ultrasound guidance | A total of 8 RCTs comparing the use of USG and landmark CVAD placement in pediatric patients (<18 y old) | CVAD | Ultrasound guidance had a higher success rate and fewer No. insertion attempts compared to landmark techniques. | Vessel visualization |
Included studies | |||||||
Alderson, 1993 | |||||||
Verghese, 1999 | |||||||
Verghese, 2000 | |||||||
Grebenik, 2004 | |||||||
Chuan, 2005 | |||||||
Ovezov, 2010 | |||||||
Aouad, 2010 | |||||||
Bruzoni, 2013 | |||||||
Levy et al,84 2010 | 279 | Observationala | To determine the rate of and potential risk factors for infectious and noninfectious complication associated with PICCs in pediatric patients | Hospitalized children (10 d–21 y old) requiring a PICC | PICC | Older age was associated with infectious complications. | General pediatrics |
Lindquester et al,85 2017 | 33 | Observationala | To examine the safety and efficacy of tunneled CVAD placement at the internal and external jugular in neonates and infants <5 kg | Multicenter retrospective review of hospitalized infants weighing <5 kg (0–1 y old) with a tunneled CVAD | Tunneled CVAD | There was no difference in complications associated with jugular and femoral vein insertion locations. | Insertion locations |
Loveday et al,86 2014 | — | CPGb | Specific recommendations for the prevention of hospital-acquired infections | — | PICC, TIVD, tunneled CVAD | — | Long-term dependent |
Device lumens | |||||||
Malbezin et al,87 2013 | 5435 | Observationala | To prospectively determine the overall success and complication rate of CVAD insertion over a 22-y period | Hospitalized children (mean = 5 y old) requiring any CVAD | CVAD | Device failure was more likely in children <3 kg. | General pediatrics |
Marshall et al,88 2017 | 19 | Observationala | To compare transhepatic CVADs to nontunneled CVADs as an alternative for preserving future central venous access | Retrospective review of infants (1.8–7.8 mo) with congenital heart disease who underwent placement of 1 or more transhepatic CVADs | Nontunneled CVAD, transhepatic CVAD | Transhepatic CVAD had a longer duration. There was no difference in thrombi, thrombolytic burden, or catheter sites requiring wound care consultation. There was a higher frequency of infection in transhepatic CVAD. There was no difference in the rate of infection-related removal. | Congenital cardiac |
Marquez et al,89 2016 | 175 | Observationala | To determine risk factors for thrombosis after placement of nontunneled CVADs in PICU patients | Prospective, multicenter study of pediatric patients (4 mo–8.6 y old) admitted to the PICU undergoing CVAD placement | Nontunneled CVAD | There were higher rates of DVT in patients with right-side nontunneled CVAD placement and insertion at SCV. | Insertion location |
May et al,90 2018 | 912 | Observationala | To determine the rates of thrombosis, infection, and insertion site symptoms after placement of PICCs and TIVDs in patients with cystic fibrosis | Retrospective review of adult and pediatric patents (mean = 7.4 y old) with cystic fibrosis | PICC, TIVD | Double-lumen PICCs were associated with greater rates of complications. | Long-term dependent |
Device lumens | |||||||
Menéndez et al,91 2016 | 256 | Observationala | To evaluate the incidence and risk factors for PICC-related thrombosis in children | Hospitalized children (IQR = 2.4–13 y old) requiring PICC placement | PICC | A catheter-to-vein ratio of >0.33 predicted PICC-related superficial vein thrombosis and DVT. | Catheter-to-vein ratio |
Mermel et al,92 2009 | — | CPGb | Specific recommendations for the prevention of catheter-related infection | — | CVAD, midline, PICC, PIVC, TIVD | — | Long-term dependent |
Moon et al,93 2018 | 629 | Observationala | To determine risk factors for CLABSI in children with hemato-oncological disease requiring long-term VADs | Retrospective review of children with hemato-oncologic disease (median = 6 y old; 14 d–17.9 y old) requiring any long-term CVAD | TIVD, tunneled-cuffed CVAD | There was no difference in the rate of CLABSI. | Hematology and oncology |
Mushtaq et al,94 2018 | 693 | Observationala | To determine the safety, specifically rates of CLABSI, mechanical complications, hospital length of stay, readmission within 90 d of discharge, and mortality of midline catheters compared to CVADs in adults admitted to intensive care | Adults >18 y old admitted to the ICU or medical-surgical ward with either a CVAD or midline catheter | CVAD, midline | CVADs were associated with higher rates of CLABSI, crude mortality, readmission, and transfer to the ICU. Midline catheters had more mechanical complications. | General pediatrics |
Noailly Charny et al,2 2018 | 295 | Observationala | To compare the risk of thrombosis in PICCs and tunneled-cuffed CVADs | Children (<18 y old) diagnosed with leukemia who received a PICC or tunneled-cuffed CVAD | PICC, tunneled-cuffed CVAD | PICCs were associated with an increased risk of thrombosis. | Hematology and oncology |
Nifong and McDevitt,95 2011 | — | Laboratory studya | To determine the effect of catheter size of fluid flow rates | — | PICC | Fluid flow rate decreased with increasing catheter size. | Catheter-to-vein ratio |
O’Grady et al,96 2011 | — | CPGb | Specific recommendations for the prevention of intravascular catheter-related infections | — | Midline, nontunneled CVAD, PICC, PIVC, TIVD, tunneled CVAD | — | Device lumens |
Vessel visualization | |||||||
Ohno et al,97 2016 | 120 | Observationala | To determine the rates of complications and CLABSI in infants and small infants (<1 y old or <10 kg) compared with children (>1 y old or >10 kg) | Children (4 mo–22 y old) requiring a TIVD | TIVD | Age was not associated with increased risk of complications. | General pediatrics |
Oulego-Erroz et al,98 2016 | 46 | Pilot studya | To determine if CVAD insertion to the BCV using USG techniques had greater insertion success compared to insertion to the IJV | Prospective study of critically ill children (0.6 mo–13 y old) requiring urgent CVAD insertion; nonrandom assignment to BCV + USG or IJV insertion | CVAD | BCV + ultrasound guidance had a higher first-attempt success rate, fewer insertion attempts, and lower insertion time compared to IJV. There was no difference in overall success rates. | Insertion location |
Vessel visualization | |||||||
Oulego-Erroz et al,99 2018 | 500 | Observationala | To determine if CVAD placement outcomes can be improved by using USG insertion | Prospective, multicenter study of all critically ill children (IQR = 2 mo–4.9 y old) requiring temporary CVAD placement using USG or landmark techniques | CVAD | Ultrasound guidance had a higher first-attempt success rate and fewer puncture attempts and mechanical complications. | Vessel visualization |
Pacilli et al,100 2018 | 18 | Observationala | To determine the appropriateness of long PIVCs in pediatric patients undergoing surgery | Children undergoing surgery (mean = 6.3 y old) requiring long PIVC insertion | Long PIVC | There were no immediate complications. On day 3, removals were made because of 3 occlusions and 1 red/pain. | General pediatrics |
Paladini et al,101 2018 | 40 | Pilot studya | To compare the success of USG long PIVC insertion in children admitted to the ED to short PIVCs | Children >10 y old (mean = 13 y old) who were admitted to the ED; comparison of blind short PIVC versus USG PIVC insertion | Long PIVC, short PIVC | Short PIVCs had a shorter dwell time duration and more complications compared to long PIVCs; ultrasound guidance had a lower risk of failure and complications but results confounded. | Critical care |
Vessel visualization | |||||||
Park et al,102 2016 | 3832 | Systematic reviewb | To determine the utility of NIR light devices | A total of 11 RCTs of any pediatric patient (<21 y old) undergoing PIVC placement using NIR or no assistive device | PIVC | There was no overall difference in overall success rate between NIR light device and traditional methods; however, NIR light devices had a higher success rate for subsets deemed high risk of failure. | Vessel visualization |
Included studies | |||||||
Chapman, 2011 | |||||||
Perry, 2011 | |||||||
Kaddoum, 2012 | |||||||
Kim, 2012 | |||||||
Cuper, 2013 | |||||||
Graaff, 2013 | |||||||
Sun, 2013 | |||||||
Szmuk, 2013 | |||||||
Woude, 2013 | |||||||
Graaff, 2014 | |||||||
Curtis, 2015 | |||||||
Pasteur et al,103 2010 | — | CPGb | Specific recommendations for patients with non-CF bronchiectasis | — | TIVD | — | Long-term dependent |
Peterson et al,104 2012 | 1399 | Observationala | To determine if assistive devices improve PIVC insertion success | Hospitalized children (mean = 1 y old) requiring PIVC placement; randomly assigned to unassisted versus assisted (transillumination versus NIR light device–guided) insertion | PIVC | PIVC insertion success was higher when no assistive device was used compared to assisted methods. | Vessel visualization |
Perin and Scarpa,105 2015 | — | Systematic reviewb | To review evidence related to the assessment of catheter-tip positioning in pediatric patients | Included 42 pediatric studies examining outcomes for patients undergoing VAD placement using vessel visualization techniques | CVAD, PICC, umbilical catheter | There was insufficient high-quality evidence to make specific recommendation for use in pediatric patients. | Vessel visualization |
Pinon et al,106 2009 | 915 | Observationala | To determine the incidence and risk factors of central venous catheter-related complications in pediatric hemato-oncological and immunologic conditions | Single-center, prospective study of children (0–19 y old) with oncological, hematologic, or immunologic diseases | TIVD, tunneled CVAD | Tunneled-cuffed CVADs were associated with more CLABSI; being ≤3 y old was associated with more dislodgements and more tunnel infections; CLABSI was more prevalent in double- versus single-lumen devices. | Hematology and oncology |
Device lumens | |||||||
Pittiruti et al,107 2009 | — | CPGb | Specific recommendations for CVADs and complication prevention in patients requiring PN | — | Midline, PICC, PIVC, TIVD, tunneled CVAD | — | Long-term dependent |
Device lumens | |||||||
Vessel visualization | |||||||
Polkinghorne et al,108 2013 | — | CPGb | Specific recommendations for vascular access in patients with chronic renal disease | — | Nontunneled CVAD, tunneled CVAD | — | Vessel visualization |
Qian et al,109 2014 | 40 | Observationala | To examine complication rates in pediatric patients with CF after the placement of a long PIVC | Prospective audit of pediatric patients with CF with infective exacerbation | Long PIVC | Complication rates were high; no serious adverse outcomes were reported. | Long-term dependent |
Ramer et al,110 2016 | 53 | RCTc | To evaluate the effectiveness of NIR light device technology for PIVC placement in pediatric hematology and oncology patients | Pediatric hematology and oncology patients (1–21 y old) requiring PIVC placement; randomly assigned to NIR light device or landmark insertion techniques | PIVC | NIR light device was associated with faster insertion time and higher satisfaction. | Vessel visualization |
Rauth et al,111 2008 | 138 | Observationala | To investigate the rate of infection in infants when the venous catheter is exchanged for a tunneled-cuffed CVAD after ECMO decannulation | PICU patients (mean = 13 d) requiring CVAD placement after decannulation from ECMO | Tunneled-cuffed CVAD | Increasing the duration of ECMO and CVAD placement independently predicted CLABSI. | Critical care |
Revel-Vilk et al,112 2010d | 423 | Observationala | To determine the rate of catheter-related complications in children undergoing chemotherapy during 12 mo of therapy | Single-center, prospective study of pediatric patients (29 d–28 y old) undergoing chemotherapy | PICC, tunneled-cuffed CVAD | PICCs were associated with a higher risk of DVT; tunneled CVAD had a higher risk of occlusion at 1 y. | Hematology and oncology |
Rey et al,113 2009 | 825 | Observationala | To identify risk factors for early mechanical complications in CVADs | Pediatric patients (median = 22 mo) admitted to the PICU; comparisons among femoral, jugular, and SCV CVAD insertion sites | CVAD | SCV and jugular vein, as well as increasing No. attempts were associated with significantly more early mechanical complications. | Difficult venous access |
Insertion site | |||||||
Rivera-Tocancipa et al,114 2018 | 201 | Observationala | To describe the incidence of complications associated with USG CVAD insertion in children compared to anatomic landmark techniques | All hospitalized children (0–18 y old) requiring CVAD insertion using USG or LM insertion techniques | CVAD | Ultrasound guidance had fewer immediate complications, no arterial punctures, and higher rates of insertion success compared to landmark techniques. | Vessel visualization |
Rosado et al,115 2013 | 255 | Observationala | To examine the rate of CVAD-associated infection in PICU patients | Prospective, single-center review of children (majority <6 y old) admitted to the PICU requiring a CVAD | CVAD | CVADs inserted ≥7 d were associated with a higher risk of CLABSI. | Critical care |
Rossetti et al,116 2015 | 309 | Observationala | To investigate the safety and accuracy of intracavitary ECG-guided insertion in pediatric patients | Prospective, multicenter study of hospitalized pediatric patients (1 mo–18 y old) requiring a VAD; insertion using intracavitary ECG versus intracavitary ECG with dedicated ECG monitor compared | CVAD, PICC | Insertion accuracy was higher with a dedicated ECG monitor. | Vessel visualization |
Schiffer et al,117 2013 | — | CPGb | Specific recommendations for central venous catheters in patients with cancer | — | Nontunneled CVAD, PICC, tunneled CVAD, TIVD | — | Hematology and oncology |
Vessel visualization | |||||||
Sharp et al,118 2015 | 136 | Observationala | To identify the optimal ratio cutoff to reduce rates of VTE | Prospective study of hospitalized adults (mean = 57 y old) requiring PICC insertion, comparison between ≤45% versus ≥45% catheter-to-vein ratio | PICC | A >45% ratio was more likely to develop VTE. | Catheter-to vein ratio |
Shenep et al,119 2017 | 90 | Observationala | To determine the interaction between PN and external central venous devices in increasing risk of complications | Rates of complications during PN and non-PN periods in pediatric oncology patients (median = 7.3 y old) requiring central venous devices | TIVD, tunneled CVAD | Risk of CLABSI was higher during PN for children with TIVDs. Occlusion risk was higher for TIVDs. Complication rates for TIVDs were lower during the non-PN period but similar during the PN period. | Long-term dependent |
Sibson et al,120 2018 | — | CPGb | Specific recommendations for preventing thrombosis in pediatric patients with cancer | — | PICC, PIVC, TIVD, tunneled CVAD | — | Hematology and oncology |
Sigaut et al,121 2009 | 359 | Systematic reviewb | To evaluate the advantages of USG CVAD placement over anatomic landmark techniques in pediatric patients | Children (2 d–8 y old) undergoing cardiac surgery requiring CVAD | CVAD | For ultrasound guidance, no difference in rates of artery puncture, hematoma, hemothorax, pneumothorax, or time to insert was found. Ultrasound guidance had higher success rates for subsets of novice operators and during intraoperative use. | Vessel visualization |
Included studies | |||||||
Alderson, 1993 | |||||||
Chuan, 2005 | |||||||
Verghese, 1999 | |||||||
Verghese, 2000 | |||||||
Grabenic, 2004 | |||||||
Smitherman et al,122 2015 | 1135 | Observationala | To determine risk factors for the development of catheter-associated VTE in general hospitalized pediatric patients | Chart review of hospitalized children (mean = 8 y old) requiring a VAD | PICC | Increasing age was related to an increased risk of thrombosis; lumen No. was not associated with thrombosis risk; insertion site (brachial or cephalic, SCV, jugular, or femoral or saphenous) was not associated with an increased risk of thrombosis. | General pediatrics |
Device lumens | |||||||
Insertion location | |||||||
Takeshita et al,123 2015 | 96 | Observationala | To examine the factors that affect insertion success for invisible and impalpable peripheral veins in children | Pediatric patients (1.1–2.8 y old) with invisible or impalpable veins undergoing elective surgery | PIVC | PIVC with ultrasound guidance had better success rates compared to PIVC without ultrasound guidance; compared to insertion to the dorsal hand vein, the cephalic vein had a higher success rate and shorter insertion time. | Difficult access |
Insertion location | |||||||
Vessel visualization | |||||||
Takeshita et al,123 2015 | 196 | RCTc | To examine the factors that affect insertion success for invisible and impalpable peripheral veins in children | Pediatric patients (10–40 mo) with invisible or impalpable veins undergoing elective surgery | PIVC | Compared to insertion to the dorsal hand or saphenous vein, the cephalic vein had a higher success rate. | Insertion location |
The Joint Commission,124 2013 | — | CPGb | Specific recommendations for preventing CLABSI in CVADs | — | CVAD | — | Device lumens |
Tripi et al,125 2016 | 108 | Observationala | To determine the frequency of PIVC-related dysfunction in pediatric patients | Compared PIVC dysfunction in hospitalized children (0–>12 y old) over device durations of 1–2 d versus 2–3 d versus >3 d | PIVC | Higher rates of PIVC dysfunction were associated with PIVCs in place for >3 d or inserted in lower extremities. | General pediatrics |
Troianos et al,126 2011 | — | CPGb | Specific recommendations for VAD placement using ultrasound guidance in pediatric patients | — | CVAD, PICC, PIVC | — | Vessel visualization |
Ullman et al,6 2015 | 31 933 | Systematic reviewb | To review the incidence of VAD failure in pediatric patients | Hospitalized pediatric patients across 74 studies requiring any VAD | Hemodialysis catheter, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | Hemodialysis catheters and umbilical catheters had the highest failure rate; TIVDs had the lowest failure rate. | General pediatrics |
Ullman et al,1 2017 | 1027 | Observationala | To examine the prevalence, management, and associated complications of CVADs in pediatric patients | Hospitalized pediatric patients (IQR = 1–12 y old) requiring any VAD | Hemodialysis catheter, nontunneled CVAD, PICC, TIVD, tunneled CVAD, umbilical catheter | PICCs had higher proportions of CVAD-associated complications in the previous 7 d. | General pediatrics |
Unbeck et al,127 2015 | 2032 | Observationala | To identify risk factors for PIVC-associated complications in pediatric patients | Comparison of hospitalized neonatal versus pediatric patients (0–18 y old) requiring a PIVC | PIVC | Occlusion was associated with longer dwell time. Neonatal: PIVC survival time was shorter; there was more infiltration. Insertion at the arm bend or ankle was associated with higher rates of infiltration and occlusion. | General pediatrics |
Insertion location | |||||||
van Gent et al,128 2017 | 538 | Observationala | To determine the rates of infection and complications in pediatric hematology, oncology, and stem cell transplant patients | Retrospective review of pediatric patients (mean = 7.8 y old) after surgical placement of any CVAD | TIVD, tunneled-cuffed CVAD | Tunneled-cuffed CVAD had a lower risk of infection. | Hematology and oncology |
Vierboom et al,129 2018 | 232 | Observationala | To evaluate the safety of tunneled CVAD insertion in children weighing <10 kg | Retrospective review of all children (<1 mo–4 y old) receiving surgical insertion of a tunneled CVAD with ultrasound guidance or via surgical cutdown | Tunneled CVAD | USG insertion was associated with lower mechanical blockages, but there was no difference in intraoperative and postoperative complications, time to insert, or device longevity. | Vessel visualization |
Vinograd et al,130 2018 | 300 | Observationala | To evaluate PIVC insertion success in patients with difficult venous access using USG techniques | Pediatric patients (median = 14 y old) in an ED who had a failed PIVC attempt via traditional insertion techniques | PIVC | PIVC using USG techniques led to 68% and 87% first- and second-attempt success rates after failed traditional method. | Difficult access |
Vessel visualization | |||||||
Voigt et al,131 2012 | — | Systematic reviewb | To review the evidence for the use of intraosseous devices in emergent contexts | Studies evaluating intraosseous devices in patients requiring emergent vascular access or nonhuman randomized prospective studies | Intraosseous | Compared to alternative access, there was no difference in complications using intraosseous devices. | Critical care |
Wiegering et al,132 2014 | 43 | Observationala | To determine the incidence of catheter-related thrombosis in pediatric oncology patients | Single-center retrospective review of pediatric oncology patients (mean = 9.4 y old) requiring central venous access | TIVD, tunneled-cuffed CVAD | TIVDs showed an earlier peak of thrombosis occurrence than that of tunneled-cuffed CVAD catheters; the highest incidence of thrombosis occurred in the SCV, followed by external jugular and cephalic sites. There was no difference in complications between insertion at the left and right side. | Hematology and oncology |
Insertion location | |||||||
White et al,133 2012 | 322 | Observationala | To compare the rate of complications and early removal between TIVDs and tunneled-cuffed CVADs | Retrospective review of children (1 mo–19 y old) with ALL requiring a TIVD or a tunneled-cuffed CVAD | TIVD, tunneled-cuffed CVAD | TIVDs had less complications. | Hematology and oncology |
Wragg et al,134 2014 | 100 | Observationala | To determine the rate of occlusion associated with tunneled-cuffed CVAD insertion under ultrasound guidance | Children (21 d–16 y old) requiring elective or emergency removal of a tunneled-cuffed CVAD | Tunneled-cuffed CVAD | Complete venous occlusion was associated with younger age. | General pediatrics |
Vessel visualization | |||||||
Wu et al,135 2013 | 508 | Systematic reviewb | To evaluate whether USG CVAD insertion was more successful compared to anatomic landmark techniques | Meta-analysis of RCTs comparing USG versus landmark CVAD insertion in pediatric patients (mean = 0.5–<8 y old) | CVAD | There were few pediatric studies (n = 2), which limited analysis. For ultrasound guidance, there was no reduction in the risk of cannulation failure, arterial puncture, hematoma, pneumothorax, and hemothorax in children or infants. | Vessel visualization |
Wyckoff and Sharpe,136 2015 | — | CPGb | Specific recommendations for vascular access in neonates and infants | — | Midline, PICC, PIVC, TIVD, tunneled CVAD, umbilical catheter | — | General pediatrics |
Congenital cardiac | |||||||
Catheter-to-vein ratio | |||||||
Vessel visualization | |||||||
Xia et al,137 2016 | 48 | RCTc | To determine the efficacy and rate of complications in pediatric patients with moderate-to-severe burn injuries | Pediatric patients (mean = 2.2 y old) with moderate-to-severe burn injuries | PICC, PIVC | There was a higher 1-time puncture success rate, longer retention duration, and more complication for PICCs compared to PIVCs | Critical care |
Yacobovich et al,138 2015d | 423 | Observationala | To determine patient- and catheter-related risk factors for CLABSI in children receiving chemotherapy | Prospective study of pediatric patients (29 d–28 y old) receiving chemotherapy requiring a VAD | PICC, TIVD, tunneled-cuffed CVAD | Tunneled-cuffed CVADs and PICCs had a higher risk for CLABSI in the group of diseases with lower rate of infection. In diseases with high rate of infection, there was no difference. | Hematology and oncology |
Zanolla et al,139 2018 | 51 | RCTc | To determine if USG techniques reduce the No. puncture attempts, procedure time, and complication rates during CVAD insertion via the IJV in children | Prospective study of any child (11 mo–9 y old) requiring CVAD insertion via the IJV; randomly assigned to USG versus landmark insertion groups | CVAD | USG techniques required fewer attempts, took less time, and resulted in fewer complications, compared to landmark techniques. | Vessel visualization |
Zengin et al,140 2013 | 64 | Observationala | To determine risk factors for CVAD-related complications in children admitted to the ED | Retrospective review of pediatric patients (2–16 y old) admitted to the ED | Nontunneled CVAD | More complications were associated with >3 attempts. | Difficult venous access |
Zhou et al,141 2017 | 281 | Observationala | To evaluate the feasibility and safety of intracavitary ECG technique in guiding PICC placement in neonates | Hospitalized neonates (27–41 wk) requiring PICC placement using landmark techniques or intracavitary ECG guidance | PICC | Intracavitary ECG-guided PICC placement had a higher correct tip position on the first attempt compared to landmark techniques. | Vessel visualization |
ALL, acute lymphoblastic leukemia; ANZICS, Australian and New Zealand Intensive Care Society; ARC, Australian Resuscitation Council; BCV, brachiocephalic vein; CF, Cystic Fibrosis; CNS, Central Nervous System; ECMO, Extracorproeal membrane oxygenation; IJV, internal jugular vein; IQR, interquartile range; IVNNZ, Intravenous Nursing New Zealand Incorporated Society; LM, Landmark; miniMAGIC, Michigan Appropriateness Guide for Intravascular Catheters in Pediatrics; mo, months old; NZRC, New Zealand Resuscitation Council; SCV, subclavian vein; TIVD, totally implantable venous device; VTE, venous thromboembolism; —, not applicable.
Low strength of evidence: observational study (with comparator) and other (eg, clinical review or pilot study).
High strength of evidence: CPG, systematic review.
Moderate strength of evidence: RCT.
Same sample.