Application of Electrocardiogram Localization during Peripherally Inserted Central Catheter Line Insertion into the Persistent Left Superior Vena Cava of Neonates

Author(s):  
Liyuan Wu ◽  
Lijia Wan ◽  
Min Peng ◽  
Tian Cao ◽  
Qin Wang ◽  
...  

Background Most neonates with persistent left superior vena cava (PLSVC) have no clinical symptoms or hemodynamic changes, and this anomaly is only found during cardiac catheterization, pacemaker implantation, or central venous catheterization. Electrocardiogram (ECG) localization is helpful for the application of the peripherally inserted central catheter (PICC) technique in neonates with PLSVC. Objective To explore the characteristic waveforms of the P wave when a PICC under ECG localization is applied in neonates with PLSVC. Study Design The observation and management strategies for the P wave changes during catheter insertion (CI) of two neonates with PLSVC admitted to our institution between January and July 2020, who underwent PICC line insertion, were summarized. Results The characteristic P wave changes in two children with a PICC line inserted via the PLSVC were observed. When a wide inverted P wave appeared on ECG, the catheter was immediately withdrawn by 0.5 cm, a bidirectional P wave gradually appeared and then disappeared. After that, the catheter was further withdrawn by 0.5 cm. After catheterization, the optimal position of the PICC was confirmed by X-ray photography and bedside B-ultrasound. The PICC line was removed as scheduled after indwelling for 18 and 29 days, respectively, in the two cases, and no PICC-related complications occurred during indwelling. Conclusion The characteristic P wave changes on ECG during CI provide important clinical reference values for the application of the PICC technique under ECG localization in neonates with PLSVC. Key Points

2019 ◽  
Vol 5 (02) ◽  
pp. 64-66
Author(s):  
Arvind Borde ◽  
Vivek Ukirde

Abstract Introduction A persistent left superior vena cava (SVC) is found in 0.3 to 0.5% of the general population. It is seen in up to 10% of the patients with a congenital cardiac anomaly, being the most common thoracic venous anomaly, and is usually asymptomatic. Being familiar with such anomaly could help clinicians avoid complications during the placement of central lines, Swan-Ganz catheters, peripherally inserted central catheter (PICC) lines, dialysis catheters, defibrillators, and pacemakers. Case Presentation We describe a case of persistent left SVC which was noted after placement of a PICC line. A 5-year-old male child was hospitalized for evaluation and management of leukemia. He required PICC line placement for chemotherapy. He was noted to have a persistent left SVC during the procedure under fluoroscopic guidance and subsequently correct placement of PICC line in right SVC. Discussion This anatomical variant can pose iatrogenic risks if the clinician does not recognize it. A central catheter that tracks down the left mediastinal border may also be in the descending aorta, internal thoracic vein, superior intercostal vein, pericardiophrenic vein, pleura, pericardium, or mediastinum. Conclusion Our case is significant because the patient was diagnosed with double SVC on table only followed by the placement of PICC line into the right SVC. This case strongly demonstrates the importance of knowing the thoracic venous anomalies.


2014 ◽  
Vol 19 (2) ◽  
pp. 84-85 ◽  
Author(s):  
Vicki L. Mabry ◽  
Anne T. Mancino ◽  
Sheila Cox Sullivan

Abstract This is a case report of an incidental diagnosis of persistent left superior vena cava (PLSVC). The diagnosis was suspected after a peripherally inserted central catheter (PICC) was placed and a postinsertion chest radiograph was conducted. PLSVC is a vascular anomaly that is usually diagnosed as an incidental finding. Here, we discuss the tests performed to confirm the diagnosis and the 3 variants of PLSVC. Nurses who place PICCs are likely to run across this abnormality on postinsertion chest radiograph and knowing the diagnostic test to order to confirm the diagnosis is key in expediting patient care.


2017 ◽  
Vol 22 (1) ◽  
pp. 15-18
Author(s):  
Nicholas Mifflin ◽  
Vanno Sou ◽  
Evan Alexandrou ◽  
Antony Stewart ◽  
Jules Catt

Abstract Introduction: A persistent left superior vena cava is one of the most common thoracic vascular anomalies, present in approximately 0.5% of the general population. The most common presentation is both a right and left superior vena cava, communicating through an innominate vein. In rare cases, complete absence of a right sided superior vena cava may have dispersion of pacemaker and conduction tissue leading to abnormal electrocardiography readings. Case Description: This case report describes the insertion of a peripherally inserted central catheter via the right basilic vein utilising ultrasound and electrocardiographic guidance during which atypical P-waves were noted. Post procedure chest x-ray found the catheter to be positioned to the left side of the chest. Discussion and Evaluation: Initial management was to assess whether the catheter was placed in the arterial system. Catheter transduction and blood gas analysis demonstrated the peripherally inserted central catheter was situated in the venous system. Computer tomography was then used to assess the patient's vasculature, demonstrating a persistent left vena cava with absence of a right vena cava. Conclusion: This case describes the successful placement of a right basilic peripherally inserted central catheter in a patient with a persistent left vena cava with an absent right superior vena cave using ultrasound and electrocardiographic guidance.


2020 ◽  
pp. 112972982093820
Author(s):  
Qi Li ◽  
Yuxiu Liu ◽  
Min Wang ◽  
Zhongjie Yu ◽  
Yufang Gao

Persistent left superior vena cava is rare and asymptomatic and is usually discovered incidentally during or after insertion of a central venous catheter. There is uncertainty as to whether or not the catheter should be removed after its malposition resulting in persistent left superior vena cava. We reported an unusual case of a breast cancer patient with a persistent left superior vena cava detected after a peripherally inserted central catheter insertion. The patient had undergone a modified radical mastectomy and needed to insert a peripherally inserted central catheter for chemotherapy. After the peripherally inserted central catheter insertion, the chest X-ray and computed tomography showed that the catheter was located in the persistent left superior vena cava. After an assessment of the persistent left superior vena cava and the catheter tip position, the peripherally inserted central catheter remained in the persistent left superior vena cava for further therapy. To ensure the integrity of the catheter, special follow-ups and tip position observations were carried out. The peripherally inserted central catheter was safe until the end of chemotherapy with no complications. Although the peripherally inserted central catheter tip was located in persistent left superior vena cava, given that the persistent left superior vena cava coexisted with a right superior vena cava with the similar lumen, the peripherally inserted central catheter could be used normally under strict attention.


2009 ◽  
Vol 10 (3) ◽  
pp. 212-213 ◽  
Author(s):  
Luigi Avolio ◽  
Antonio Rinaldi ◽  
Gianpaolo Serafini ◽  
Giuseppe Martucciello

We report an unusual presentation of the P wave and QRS complex during ECG-guided endocavitary assessment of the proper location of the central venous catheter in a pre-term infant operated on for esophageal atresia. The P wave and QRS complex had a normal morphology, but lay specularly to normal above the isoelectric line. The chest X-ray showed that the unusual ECG pattern was due to the left paracardiac position of the catheter, just lateral to the aortic arch within a persistent left superior vena cava.


2017 ◽  
Vol 22 (1) ◽  
pp. 20-21
Author(s):  
Priyank Shah ◽  
Rahul Vasudev ◽  
Raja Pullatt ◽  
Fayez Shamoon

Abstract A 42-year-old woman with past medical history of intravenous drug abuse was admitted to hospital with fever and heart murmur. A peripherally inserted central catheter (PICC) was inserted because the patient had poor venous access. Transesophageal echocardiography was done to rule out infective endocarditis. The test showed thrombus attached to the PICC line. Thrombus arising from a catheter is known complication of PICCs. Classifications of right heart thromboembolism (RHTE) are based on morphology. Type A thrombi are highly mobile and may prolapse through the tricuspid valve. Conversely, type B thrombi are attached to the right atrial or ventricular wall and may originate in association with foreign bodies or in structurally abnormal chambers. RHTEs are associated with pulmonary embolism in approximately 4%–6% of cases and increase the 3-month mortality rate from 16% to 29%. On echocardiography, partial dissection of the superior vena cava (SVC) was also noted. This is a very rare complication of PICC. To the best of our knowledge this is the first reported case of PICC-induced thrombosis with partial dissection of SVC. The PICC line was removed and echocardiography postremoval did not show any thrombus. The patient remained asymptomatic without any signs of hemodynamically significant pulmonary embolism. SVC dissection was also managed conservatively. Use of central venous catheters in clinical practice is increasing but it is not a benign procedure. It may be associated with serious complications.


2016 ◽  
Vol 21 (1) ◽  
pp. 44-54 ◽  
Author(s):  
Yvonne K. Cales ◽  
Jennifer Rheingans ◽  
Janet Steves ◽  
Mary Moretti

Abstract Objective: The purpose of this institutional review board-approved, single-blinded, randomized controlled trial was to evaluate the effectiveness of bedside peripherally inserted central catheter (PICC) tip placement using a nonproprietary electocardiogram (EKG) machine and wide-mouth EKG clip connected to the right arm lead and PICC guide wire. The hospital site in this study was an 800-bed community, nonacademic, Magnet hospital in the southeastern United States. Methods: All patients who provided consent and were eligible for bedside PICC insertion were randomly assigned to either standard PICC insertion or standard PICC insertion plus EKG guidance. Placement was identified by observing for P wave changes, which indicated PICC tip location in relationship to the sinoatrial node in the superior vena cava. After the PICC lines were placed, 2 radiologists blinded to treatment assignment independently reviewed confirmatory chest radiographs. De-identified data were collected and analyzed. Results: One hundred eighty-seven patients participated in this study. Of all patients, 94.6% had a baseline rhythm with a discernable P wave. The time to insert the PICC while using EKG guidance increased by a mean difference of 9 minutes (P = .001). The time to notification of the floor nurse that the PICC was read by a radiologist and ready to use for infusions was not significant between groups. In the control group, 91.8% of PICC lines were placed to completion at the bedside vs 90.2% in the experimental group (P = .710). PICCs placed with EKG guidance were successfully placed with the first attempt or 1 pass (89%; n = 91) vs PICCs placed without EKG guidance (75%; n = 63; P = .01). Of the control group, 40% (n = 34) and of the experimental group, 48% (n = 49) had PICC lines placed within 1.5 cm of the sinoatrial junction. Of the control group, 53% (n = 45) and of the experimental group, 65% (n = 66) had PICC lines placed within 1.5 cm of the sinoatrial junction to 3.0 cm above the sinoatrial junction (P = .10). Of the control group, 64.8% (n = 55) and of the experimental group, 82.2% (n = 84) had PICC lines placed within 1.5 cm of the sinoatrial junction to 6.0 cm above the sinoatrial junction (P =.3). Of the control group, 7.1% (n = 6) and of the experimental group, 2.9% (n = 3) had PICC lines placed 6.1 cm or more above the sinoatrial junction. Of the control group, 18.8% (n = 16) and of the experimental group, 8.8% (n = 9) had PICC lines placed too deep in the superior vena cava and below 1.6 cm (P < .05). PICCs inserted with or without EKG guidance statistically had the same amount of chest radiograph images performed (P =.083). Three groups reviewed the chest radiographs to determine the PICC tip location and they agreed to the location 82% of the time and a significant positive correlation between all 3 groups existed. The PICC Team subjectively identified 22 patients as obese. No statistical significance was realized among patients not identified as obese vs those identified as obese. Conclusions: The data revealed that the control and experimental groups were equally distributed for baseline demographic characteristics such as sex and age. Importantly, it was determined that 94% of participants had a discernable P wave and were candidates for the use of EKG guidance. The time to insert a PICC line at bedside with the use of EKG guidance increased the procedure time by a mean of 9 minutes; however, the ultimate infiuence on patient care resulted in a savings of 67 minutes after factoring in an average of 76 minutes for radiograph confirmation. Complications and the need to reposition PICC lines were not found to be significant or vastly different or improved with or without the use of EKG guidance. PICC lines placed with the use of EKG guidance were significantly unlikely to be repositioned. Lastly, it was found that obesity did not play any particular role. Based on these findings, the facility determined that EKG guidance is effective and its use was implemented for all bedside PICC placements in which a P wave was discernable.


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