Two Serious Complications of Peripherally Inserted Central Catheters Indicating the Need to Formalize Training for Placing Central Venous Vascular Access Devices

2016 ◽  
Vol 6 (4) ◽  
pp. 100-102 ◽  
Author(s):  
Volker Gerling ◽  
Nico Feenstra
2020 ◽  
pp. 112972982092861
Author(s):  
Ryan J Smith ◽  
Rodrigo Cartin-Ceba ◽  
Julie A Colquist ◽  
Amy M Muir ◽  
Jeanine M Moorhead ◽  
...  

Objective: Peripherally inserted central catheters are a popular means of obtaining central venous access in critically ill patients. However, there is limited data regarding the rapidity of the peripherally inserted central catheter procedure in the presence of acute illness or obesity, both of which may impede central venous catheter placement. We aimed to determine the feasibility, safety, and duration of peripherally inserted central catheter placement in critically ill patients, including obese patients and patients in shock. Methods: This retrospective cohort study was performed using data on 55 peripherally inserted central catheters placed in a 30-bed multidisciplinary intensive care unit in Mayo Clinic Hospital, Phoenix, Arizona. Information on the time required to complete each step of the peripherally inserted central catheter procedure, associated complications, and patient characteristics was obtained from a prospectively assembled internal quality assurance database created through random convenience sampling. Results: The Median Procedure Time, beginning with the first needle puncture and ending when the procedure is complete, was 14 (interquartile range: 9–20) min. Neither critical illness nor obesity resulted in a statistically significant increase in the time required to complete the peripherally inserted central catheter procedure. Three (5.5%) minor complications were observed. Conclusion: Critical illness and obesity do not delay the acquisition of vascular access when placing a peripherally inserted central catheter. Concerns of delayed vascular access in critically ill patients should not deter a physician from selecting a peripherally inserted central catheter to provide vascular access when it would otherwise be appropriate.


2008 ◽  
Vol 27 (6) ◽  
pp. 427-427
Author(s):  
Lee Shirland

I am writing concerning an article titled “Neonatal Peripherally Inserted Central Catheters: Recommendations for Prevention of Insertion and Postinsertion Complications,” published in Vol. 27, No. 4 (July/August 2008), pages 245– 257. Of concern are Figures 3 and 4 on page 253 titled securing the catheter with adhesive skin closure strips and looping the catheter. The instructions and pictures demonstrate how to secure the catheter using skin closure strips and show the strips placed over the catheter. This is of great concern. The manufacturer’s recommendations on BD L-Cath System state the following on page 8 line 26, “Secure the catheter and dress the site with a sterile dressing. Tapes and securing devices should never be applied directly to the non-protected catheter.” This caution is echoed in the article titled “Tiny Patients, Tiny Dressings: A Guide to Neonatal PICC Dressing Change,” published in Advances in Neonatal Care, Vol. 8, No. 3, pages 141–162. The author states the following, “Some hospitals use skin closure strips. If these are utilized, manufacturer’s recommendations should be followed, and they should never be placed directly overlying the catheter to avoid catheter breakage and embolism.” The author supports this statement with the following reference, Frey AM. PICC complications in neonates and children. Journal of Vascular Access Devices. 1999: 17–26. It is clear that skin closure strips used to secure the peripherally inserted central catheter pose great risk and must never be applied directly over the catheter. Thank you for sharing this important information with your readers.


Author(s):  
Jenna Fine ◽  
Ndidi Nwokorie ◽  
Lia H. Lowrie

Vascular access is necessary for routine and emergent care of patients for delivery of fluids and medications. The vascular access devices (VADs) discussed here include peripheral intravascular catheters, intraosseous needles, peripherally inserted central catheters (PICC lines), and central venous catheters. VAD insertion can be painful and frightening for children, and their inherently smaller anatomy may also make the procedure more challenging. Children often require behavioral modification as well as medications to control pain and anxiety in order to tolerate placement of VADs. The sedationist must have a good knowledge of the demands of the procedure, the patient’s level of cooperation and cognitive ability, and pharmacologic resources available to aid in the performance of the procedure.


2015 ◽  
Vol 20 (3) ◽  
pp. 169-176 ◽  
Author(s):  
Pietro Antonio Zerla ◽  
Antonio Canelli ◽  
Giuseppe Caravella ◽  
Alessandra Gilardini ◽  
Giuseppe De Luca ◽  
...  

Abstract Today's patients are more complex in terms of comorbidities and other conditions requiring multiple, long-lasting therapies such as chemotherapy, total parenteral nutrition, blood transfusion or blood component infusions, and frequent blood sampling. The use of central venous catheters represents an important aspect of care for many patients. It is essential to inform health care workers of the risks associated with central venous catheters such as systemic and infectious complications, mechanical complications, and/or thrombotic complications. To maintain monitoring of our peripherally inserted central catheter team's activity, we developed and adopted a database in which all the data regarding each catheter are recorded. By doing that, we have improved catheter management, clinical efficiency, as well as achieved a cost reduction. We implanted 1416 vascular access devices in 1341 patients of both sexes (632 male and 709 female) for a total of 135,778 vascular access device-implant days between March 2010 and December 2013 for several indications. We have followed-up total complications and we correlated them with the need for catheter removal. The results were that open-tipped catheters resulted in both more complications and a greater need for removal.


2013 ◽  
Vol 34 (9) ◽  
pp. 980-983 ◽  
Author(s):  
Paul Chittick ◽  
Sobia Azhar ◽  
Kalyani Movva ◽  
Paula Keller ◽  
Judith A. Boura ◽  
...  

The risks and microbiology for peripherally inserted central catheters (PICCs) are less well described than those for traditional central catheters, particularly as they pertain to duration of catheterization. We compared patients with early- and late-onset PICC bloodstream infections at our institution and found significant differences in microbiologic etiologies.


Blood ◽  
2009 ◽  
Vol 114 (22) ◽  
pp. 4521-4521
Author(s):  
Elie R Skaff ◽  
Steve Doucette ◽  
Sheryl McDiarmid ◽  
Mitchell Sabloff

Abstract Abstract 4521 Introduction As part of the care of patients with acute leukemia, central vascular access is important in order to safely and reliably deliver chemotherapy, antibiotics, blood products and nutrition as needed. Two examples of these vascular access devices are peripherally inserted central venous catheters (PICC) and Hickman® catheters (Bard Access Systems, Inc., Salt Lake City, Utah). Each has its set of unique benefits and weaknesses. Some are related to the location where they enter the vascular system but others such as risk of infection, device occlusion or incidence of deep vein thrombosis (DVT) are less clear between devices. Methods Patients included in this study had a diagnosis of acute leukemia (lymphoblastic [ALL] or myeloid [AML]) between September 1996 and April 2009, had a central venous access device inserted (PICC or a Hickman®), received induction chemotherapy and survived at least 20 days. In that time period, the method of insertion of both devices has changed since January 1st 2007. Prior to this date, a specially trained nurse using palpation inserted the PICC at the patient's bedside into veins located in the antecubital fossa (PICC-palp). After this date, the same nursing team began inserting PICCs using ultrasound guidance and modified seldinger technique into veins proximal to the antecubital fossa (PICC-U/S). Hickman® catheters, previously inserted in the operating room by a surgeon (H-Surg), since January 1st 2007 have been inserted in the angiographic suite by an interventional radiologist (H-IR). The four groups were analyzed for differences in basic demographics. Comparisons between the four devices included the presence of cellulitis at the catheter exit site and whether or not there was an infection accompanied at the site, confirmed bacteremia, the need to administer a thrombolytic agent to unblock the device, a DVT around the device, and whether or not the line had to be removed. The four groups were compared for differences using the Kruskal-Wallis Test for continuous variables and the chi-square test for categorical variables. Results 147 patients were identified. 55 had a Hickman® catheter (18 H-Surg and 37 H-IR) and 92 had a PICC (69 PICC-palp and 23 PICC-U/S). The median age (range) within the four groups H-Surg, H-IR, PICC-palp, and PICC-U/S were 54 (20-72), 52 (17-69), 51 (18-73), 56 (19-73), respectively. Males made up 49-56% of each group. ALL ranged between 6 and 9% within each group. The only significant difference between the four groups was whether they were inserted from the right or left side with 89-100% of the Hickman® catheters being inserted on the right vs. 59-74% of the PICCs being inserted on the right (p<0.0001). The most significant improvements from H-Surg to H-IR catheters are the reduction in catheter exit site cellulitis accompanied by exit site infections (27.8% to 5.4%, p=0.04) and in bacteremia counts (72.2% to 27.0%, p=0.01). There were no statistically significant findings from PICC-palp to PICC-U/S; however, the most clinically relevant improvements showed decreases in cellulitis and DVT cases from 60.9% to 39.1% (p=0.07) and 24.6% to 8.7% (p=0.07), respectively. H-IR catheters were shown to outperform PICC-U/S in DVT cases (0.0% vs. 8.7%), and the need to administer a thrombolytic agent (8.1% vs. 69.6%, p<0.0001). upon comparing PICCs vs. Hickman® catheters, the number of catheter exit site cellulitis cases were fewer in the PICC catheters (55.4% vs. 76.4%, p=0.01); however, Hickman® catheters prevailed over PICCs when comparing cases of DVT (0.0% vs. 20.7%) and the need to administer a thrombolytic agent (5.5% vs. 59.8%, p<0.0001). The difference in catheter removal across all four groups was similar ranging from 24-33%. Conclusion Despite small sample groups it appears that both vascular access devices have shown improvements from pre to post 2007 insertion methods. Patients treated at the Ottawa Hospital with intensive chemotherapy for acute leukemia currently appear to demonstrate less complications with Hickman® catheters, inserted by interventional radiologists, compared to PICCs, especially in the most clinically relevant spheres (i.e. bacteremia, incidence of DVT and need for thrombolytic agents to unblock the catheter). This suggests that Hickman® catheters provide a more reliable central vascular access in these patients. A larger sample size or a randomized control trial would be needed to confirm these observations. Disclosures: No relevant conflicts of interest to declare.


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