Matching drug with vascular access device type – Full Text

vascular access

“The selection of venous catheters in acute care units is not usually adequate since many peripheral catheters are placed in patients who require intravenous medication during a prolonged period or who are receiving risk medication” Moreno-Rubio et al (2026).

Intravascular rewarming in major burns – Full Text

vascular access

“This report describes the first documented case of complicated removal of an intravascular warming catheter due to balloon detachment in burn patients. Physicians using these devices should be aware of this possible complication and be prepared for its management” Ligomenou et al (2026).

Vascular access choice in difficult intravenous access patients – Full Text

vascular access

“Patients with difficult intravenous access (DIVA) are at increased risk of delays, discomfort and complications due to multiple failed intravenous access attempts. However, evidence comparing commonly used alternatives, short midline catheters (SMLs) and central venous catheters (CVCs) in this population is limited” Mellander et al (2026).

Skill acquisition in novices – Full Text

vascular access

“Our findings indicate a possible benefit of even brief simulator exposure for skill acquisition for complex endovascular procedures such as MTE. While conventional training may suffice for basic skills, simulation may be particularly helpful in supporting learning in more advanced tasks” von Hessling et al (2026).

Vascular access in neonates and children

vascular access

“In this manuscript, we describe alternative approaches for establishing vascular access in pediatric patients, especially those with conditions that contraindicate conventional access methods” Drucker et al (2026).

Vascular access in the newborn

vascular access

“The NEVAT group provides the first European position paper on neonatal vascular access, aiming to improve homogeneity in device selection, insertion, and maintenance, promoting a safer and more consistent care” Barone et al (2026).

Central venous access in pediatric hematology-oncology

vascular access

“In our center, we use a systematic, multidisciplinary workflow to anticipate the treatment trajectory, prioritize venous preservation, prevent complications, and support structured salvage strategies when device dysfunction or infection occurs” Crocoli (2026).

Vascular access teams across Australia and New Zealand

vascular access team

“VAST presence was associated with greater use of escalation pathways and varied device type/technique such as ultrasound guided-PIVCs and midlines. However, limited staffing restricts the broader implementation of these benefits” Marsh et al (2026).

Vascular access for out-hospital cardiac arrest

vascular access

“In this randomized controlled trial (RCT), Couper et al. explored the impact of medication administration via the interosseous (IO) versus intravenous (IV) route on 30-day survival” Long et al (2025).

Nurse-led haemodialysis vascular access consultation – Full Text

vascular access

“We aimed to determine whether an adapted British Renal Society Infection Risk Screening Tool, applied during a nurse-led vascular access consultation, identifies patients at increased risk of subsequent infection-related hospitalisation and can inform de-selection of buttonhole puncture” Pinto et al (2025).

Vascular access in adults with difficult venous access – Full Text

vascular access

“This off-label strategy should follow infection-prevention bundles, non-vesicant infusion limits, clear labeling, and documentation. Both single- and double-lumen pediatric CVCs may be considered where dimensional compatibility with midline specifications is ensured” Mantri et al (2025).

Epicutaneo-caval catheter occlusion in neonates – Full Text

vascular access

“This study demonstrates a low rate of epicutaneo-caval catheters occlusion in neonates receiving parenteral nutrition without heparin infusion. These findings support the safety and feasibility of a heparin-free approach in neonatal central catheter management when standardized care protocols are followed” D’Andrea et al (2025).

Mini-sternotomy for direct right atrial dialysis catheter placement – Full Text

vascular access

“We report the case of a pediatric patient with kidney failure and bilateral central venous occlusion, in whom conventional dialysis access was no longer feasible. Following multidisciplinary evaluation, a dialysis catheter was surgically inserted directly into the right atrium via a lower mini-sternotomy” Nucera et al (2025).

Vascular access improvement following COVID-19

vascular access

“This scoping review aimed to explore how the COVID-19 pandemic affected vascular access practices and catheter-related complications, with the objective of mapping innovations, identifying emerging trends, and summarizing preventive and therapeutic strategies” Celano et al (2025).

Right subclavian vein catheterisation – Full Text

vascular access

“In adult cardiac surgical patients, the SC approach achieves faster landmark-guided right subclavian venous access than the approach, without detectable compromises in success or safety” Shanmuka et al (2025).

Comparison of PICC versus PICC-port

vascular access

“For patients with nasopharyngeal carcinoma requiring long-term treatment (duration >3 months), PICC-ports may be the preferred option compared to PICCs, particularly for those unable to undergo regular catheter maintenance or prioritizing quality of life” Xiao et al (2025).

Comparison of modified midlines versus PICC – Full Text

vascular access

“Currently, modified midlines and peripherally inserted central catheters (PICCs) are used frequently. The present retrospective research aims to assess the use, efficacy, and complications due to modified midlines and PICCs in the treatment of patients in a medical ICU” Long et al (2025).

Identification of the femoral vein

vascular access

“We aim to determine the accuracy of the anatomical landmark technique for finding the femoral vein vs. the ultrasound-guided technique. We hypothesize that the femoral vein location using anatomical landmarks is, on average, 10 mm or more away from the femoral vein location found using ultrasound” Sonka et al (2025).