Cutdowns for Totally Implantable Access Ports to Central Veins

Vascular ◽  
2009 ◽  
Vol 17 (5) ◽  
pp. 273-276 ◽  
Author(s):  
Mahmoud Kulaylat ◽  
Constantine P. Karakousis
Keyword(s):  
Success Rate ◽  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Jugular Vein ◽  
Superior Vena ◽  
Vena Cava ◽  
External Jugular Vein ◽  
Cephalic Vein ◽  
Seldinger Technique ◽  
Basilic Vein

For insertion of totally implantable access ports, with the catheter end in the superior vena cava, the percutaneous (Seldinger) technique is commonly used. Of cutdowns, the cephalic vein cutdown is the most popular one (success rate about 80%), followed by the external jugular vein cutdown. Our preliminary experience suggests that internal jugular vein and basilic vein cutdowns have the anatomic features to prove both of them superior to the cephalic vein cutdown.

scholarly journals Aplasia of the superior vena cava and persistent superior left vena cava in a 3-year-old child: Case report

2021 ◽  
Vol 11 (1) ◽  
pp. 85-90
Author(s):  
Vladimir V. Lazarev ◽  
Tatiana V. Linkova ◽  
Pavel M. Negoda ◽  
Anastasiya Yu. Shutkova ◽  
Sergey V. Gorelikov ◽  
...  
Keyword(s):  
Case Report ◽  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Vascular Access ◽  
Vascular System ◽  
Jugular Vein ◽  
Superior Vena ◽  
Vena Cava ◽  
X Ray ◽  
The Right

BACKGROUND: Structural features of the patients vascular system can cause unintended complications when providing vascular access and can disorient the specialist in assessing the location of the installed catheter. This study aimed to demonstrate anatomical features of the vascular system of the superior vena cava and diagnostic steps when providing vascular access in a child. CASE REPORT: Patient K (3 years old) was on planned maintenance of long-term venous access. Preliminary ultrasound examination of the superior vena cava did not reveal any abnormalities. Function of the right internal jugular vein under ultrasound control was performed without technical difficulties; a J-formed guidewire was inserted into the vessel lumen. X-ray control revealed its projection in the left heart, which was regarded as a technical complication, so the conductor was removed. A further attempt to insert a catheter through the right subclavian vein led to the same result. For a more accurate diagnosis, the child underwent computed angiography of the superior vena cava system. Congenital anomalies of the vascular system included aplasia of the superior vena cava and persistent left superior vena cava. Considering the information obtained, the Broviac catheter was implanted under ultrasound control through the left internal jugular vein without technical difficulties with the installation of the distal end of the catheter into the left brachiocephalic vein under X-ray control. CONCLUSION: A thorough multifaceted study of the vascular anatomy helps solve the anatomical issues by ensuring vascular access and preventing the risks of complications.

The diagnostic value of multi-detector CT angiography for catheter-related central venous stenosis in hemodialysis patients

2020 ◽  
pp. 026835552095509
Author(s):  
Yuliang Zhao ◽  
Letian Yang ◽  
Yating Wang ◽  
Huawei Zhang ◽  
Tianlei Cui ◽  
...  
Keyword(s):  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Subclavian Vein ◽  
Jugular Vein ◽  
Superior Vena ◽  
Vena Cava ◽  
Brachiocephalic Vein ◽  
Central Venous ◽  
Hemodialysis Catheter ◽  
Central Venous Stenosis

The objective is to compare Multi-detector CT angiography (MDCTA) and digital subtraction angiography (DSA) in diagnosing hemodialysis catheter related-central venous stenosis (CVS). During a period of 6 years, hemodialysis patients with suspected catheter related-CVS who received both MDCTA and DSA were retrospectively enrolled. We analyzed the sensitivity, specificity, accuracy, Cohen’s kappa coefficient (κ) and other diagnostic parameters for MDCTA compared to DSA. A total of 1533 vascular segments in 219 patients were analyzed. Among the 280 lesions identified by DSA, 156 were correctly identified by MDCTA. There were 124 false negative and 41 false positive diagnoses. MDCTA had a high specificity (96.73%) but a low sensitivity (55.71%), with a moderate inter-test agreement (κ = 0.5930). In stratified analyses of vascular segments, the specificities of MDCTA were 89.93% (superior vena cava), 98.95% (left brachiocephalic vein), 95.33% (right brachiocephalic vein), 99.53% (left subclavian vein), 97.61% (right subclavian vein), 97.13% (left internal jugular vein), and 95.86% (right internal jugular vein), while the sensitivities were 90.00%, 65.52%, 66.67%, 87.50%, 40.00%, 20.00% and 8.11%, respectively. Good to excellent inter-test agreement was observed for the superior vena cava (κ = 0.7870), left brachiocephalic vein (κ = 0.7300), right brachiocephalic vein (κ = 0.6610), and left subclavian vein (κ = 0.8700) compared with poor to low agreement for the right subclavian vein (κ = 0.3950), left internal jugular vein (κ = 0.1890), and right internal jugular vein (κ = 0.0500). MDCTA had a high specificity in diagnosing hemodialysis catheter related-CVS. Its sensitivity varied by central venous segments, with better performance in superior vena cava and brachiocephalic veins.

Intraoperative venoplasty to facilitate placement of tunneled catheters for hemodialysis

Vascular ◽  
2017 ◽  
Vol 26 (3) ◽  
pp. 338-340 ◽  
Author(s):  
Afsha Aurshina ◽  
Anil Hingorani ◽  
Natalie Marks ◽  
Enrico Ascher
Keyword(s):  
Arteriovenous Fistula ◽  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Balloon Angioplasty ◽  
Jugular Vein ◽  
Superior Vena ◽  
Vena Cava ◽  
Severe Stenosis ◽  
Cervical Portion

Objective With the implementation of the K-DOQI guidelines, more patients are in need of long-term dialysis catheters until maturation of the arteriovenous fistula. However, on occasion, when placing a tunneled cuffed catheter for hemodialysis, we have encountered difficulty with passing the guidewire in spite of demonstration of a patent cervical portion of the internal jugular vein on duplex. Herein, we review our experience with intraoperative venoplasty for placement of Tesio™ catheters (Medcomp Harleysville, PA). Methods Of the 1147 Tesio™ catheters placed since 1997 by our service, 35 venograms were performed due to difficulty encountered with placement of the guidewire. Patent veins were all crossed with the use of angle-guiding catheters, angled glidewires, and a torque vise. If chronically occluded intrathoracic veins were identified, an alternate site was selected for the placement of the Tesio™ catheter. Results Of the 35 cases with difficulty in catheter placement, venogram demonstrated a patent but tortuous vein in 9, chronically occluded intrathoracic veins in 6, and severe stenosis of the intrathoracic veins in 20. In 19 cases with severe stenosis of the intrathoracic veins, balloon angioplasty with an 8-mm balloon was successfully performed, which allowed successful placement of a functional Tesio™ catheter. In the additional one case, the catheter was not able to be placed despite angioplasty. Seven lesions that underwent balloon angioplasty were in the innominate vein, 11 were in the proximal internal jugular vein, and two were in the superior vena cava. Conclusion Venous balloon angioplasty can be used to maintain options for the site of access for tunneled cuffed catheters and may be necessary to assist with placement of long term cuffed dialysis catheters.

Superior vena cava reconstruction under the left internal jugular vein to left femoral vein bypass support

Perfusion ◽  
2017 ◽  
Vol 32 (7) ◽  
pp. 613-615
Author(s):  
Jun Ba ◽  
Runsheng Peng ◽  
Hui Shi ◽  
Chunsheng Wang
Keyword(s):  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Jugular Vein ◽  
Superior Vena ◽  
Femoral Vein ◽  
Tumor Resection ◽  
Vena Cava ◽  
Left Internal Jugular Vein ◽  
Venous Bypass ◽  
Malignant Thymoma

The complete surgical resection of malignant thymoma is recommended. We present a rare case of tumor resection and superior vena cava (SVC) reconstruction under veno-venous bypass support from the left internal jugular vein to the left femoral vein. The full amount of systemic heparinization (3 mg/kg) was avoided. The surgical pathology revealed thymic squamous cell carcinoma. No complications such as fatal extensive bleeding, coagulopathy, thromboembolism or transfusion reaction were found postoperatively. The patient was discharged home uneventfully. The support of this veno-venous bypass allows a safe and feasible thymic tumor resection and SVC reconstruction.

scholarly journals Cerebral venous drainage through internal jugular vein

2019 ◽  
Vol 8 (3) ◽  
Author(s):  
Nadiya Y. Mohammed ◽  
Giovanni Di Domenico ◽  
Mauro Gambaccini
Keyword(s):  
Internal Jugular Vein ◽  
Superior Vena Cava ◽  
Jugular Vein ◽  
Superior Vena ◽  
Vena Cava ◽  
Venous Drainage ◽  
Doppler Spectrum ◽  
Cerebral Venous Drainage ◽  
The Right ◽  
Venous Pulse

Internal jugular veins (IJVs) are the largest veins in the neck and are considered the primary cerebral venous drain for the intracranial blood in supine position. Any reduction in their flow could potentially results an increase in cerebral blood volume and intracranial pressure (ICP). The right internal jugular vein communicates with the right atrium via the superior vena cava, in which a functional valve is located at the union of the internal jugular vein and the superior vena cava. The atrium aspiration is the main mechanism governing the rhythmic leaflets movement of internal jugular vein valve synchronizing with the cardiac cycle. Cardiac contractions and intrathoracic pressure changes are reflecting in Doppler spectrum of the internal jugular vein. The evaluation of the jugular venous pulse provides valuable information about cardiac hemodynamics and cardiac filling pressures. The normal jugular venous pulse wave consists of three positive waves, a, c, and v, and two negative waves, x and y. A normal jugular vein gradually reduces its longitudinal diameter, as described in anatomy books; it is possible to segment IJV into three different segments J3 to J1, as it proposed in ultrasound US studies and CT scan. In this review, the morphology and methodology of the cerebral venous drainage through IJV are presented.

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