CEPHALIC VEIN ACCESS - A FEASIBLE, SAFE AND EFFECTIVE METHOD FOR DEVICE IMPLANTATION
AbstractDear Editor, We would like to congratulate Shah et al in contributing their work, “permanent pacemaker implantation through axillary vein approach” published in recent issue of JAMC (2017; 29(2):241–5). It is commendable to note that 800 permanent pacemakers (PPM) were implanted in a single centre, with axillary veins access for pacing leads in most cases.The cardiac device implantation in Pakistan has seen a surge in recent years due to variety of reasons. One of the fundamental steps in PPM implantation is selection of site of venous access. Traditionally subclavian vein has been used for access but has several drawbacks with higher complication rates such as, pneumothorax, lead insulation erosions and lead fractures.1–4 The axillary and cephalic route of access are alternate options that can be considered and are well described in literature.5–8In the reported series of 800 devices, one wonders whether the authors have considered cephalic vein access an alternative option. This would not only negate risk of potential pneumothorax, but would also reduce fluoroscopy time for access, and eliminate need for use of contrast to identify the axillary vein.3,8,9 Fluoroscopy times mentioned of less than 10 min in this series are still very high where currently for single or dual chamber PPM implantations where fluoroscopy time of less than 5 min are generally achieved.3,10 There is understandably, a learning curve required to gain skills in non-subclavian accesses and reduction of fluoroscopy times.3,10 In our institution, we regularly use cephalic vein access as first choice for brady systems as well as standalone defibrillator implants to eliminate risk of pneumothorax11, avoid use of contrast and prolonged fluoroscopic time as access is achieved under direct vision.3 This also helps spare the axillary and subclavian veins for future use for device upgrades and system revisions. Diabetes, ventricular dysfunction, male gender are associated with an increased likelihood of a successful implant using the cephalic vein.5 There can be significant variations in upper limb venous anatomy which necessitates use of alternative venous access.12 In a good sized cephalic vein pacing lead can directly be fed through, avoiding use of peel away sheaths. However, for a beginner (and in case of small sized cephalic veins) its best to use wide bore venfelon and hydrophilic wire to cannulate the vein and then pass peel away sheath over the guide wire.13 This helps achieve successful use of cephalic vein in majority of cases for pacing lead placement. Complex devices including CRT and CRTD have been successfully implanted using cephalic veins and with fluoroscopy times averaging 5 min for single and dual chamber pacemakers3,10, while for complex devices average fluoroscopy times of 20 minutes has been described in literature3. Axillary vein access can be performed without contrast when accompanied by cephalic vein access by using guidewire or by using the 1st rib and clavicle junction as an anatomical marker for axillary vein.6,14,15 The axillary vein access is achieved either medially over the first rib-clavicle junction or laterally. The lateral approach is common in North America and medial approach in Europe. The lateral approach could potentially increase the lead fracture risk in young physically active individuals. In our experience, axillary vein access can be achieved, in at least 50% of the cases, without use of contrast. Contrast agent can be used if unable to locate the vein using methods described above or if complications such as pneumothorax are to be avoided at all costs or where system upgrades are to be undertaken with pre-existing leads and vein patency is to be determined.It is very important that trainees in complex device implants learn all these access options and maintain competency in all three routes but it is natural to develop a personal preference. In addition, clinical situation in a patient may dictate the access route for safe and efficient achievement of goal of device implant. Cephalic access is the safest option in vast majority of the situations and should be preferred over other options for safe device implant and improved patient care.
Chan NY, Kwong NP, Cheong AP. Venous access and long-term pacemaker lead failure: comparing contrast-guided axillary vein puncture with subclavian puncture and cephalic cutdown. Europace, 2016;euw145.
Povoski SP, Young DC. Prospective randomized trial comparing implantation of subcutaneous indwelling venous access devices by the cephalic vein cutdown (CVC) approach versus the percutaneous subclavian vein (PSV) approach. Chir Ital 2003;55(1):149–50.
Ussen B, Dhillon PS, Anderson L, Beeton I, Hickman M, Gallagher MM. Safety and feasibility of cephalic venous access for cardiac resynchronization device implantation. Pacing Clin Electrophysiol 2011;34(3):365–9.
Calkins H, Ramza BM, Brinker J, Atiga W, Donahue K, Nsah E, et al. Prospective randomized comparison of the safety and effectiveness of placement of endocardial pacemaker and defibrillator leads using the extrathoracic subclavian vein guided by contrast venography versus the cephalic approach. Pacing Clin Electrophysiol 2001;24(4 Pt 1):456–64.
Knight BP, Curlett K, Oral H, Pelosi F, Morady F, Strickberger SA. Clinical predictors of successful cephalic vein access for implantation of endocardial leads. J Interv Card Electrophysiol 2002;7(2):177–80.
Conessa C, Talfer S, Herve S, Chollet O, Poncet JL. [Cephalic vein access for implantable venous access devices. Technique and long-term follow-up]. Rev Laryngol Otol Rhinol (Bord) 2002;123(3):143–8.
Jablon LK, Ugolini KR, Nahmias NC. Cephalic vein cut-down verses percutaneous access: a retrospective study of complications of implantable venous access devices. Am J Surg 2006;192(1):63–7.
Sarveswaran J, Burke D, Bodenham A. Cephalic vein cut-down verses percutaneous access: a retrospective study of complications of implantable venous access devices. Am J Surg 2007;194(5):699.
Tse HF, Lau CP, Leung Sk. A cephalic vein cutdown and venography technique to facilitate pacemaker and defibrillator lead implantation. Pacing Clin Electrophysiol 2001;24(4 Pt 1):469–73.
Tsapaki V, Christou A, Spanodimos S, Nikolaou N, Poulianitou A, Triantopoulou CH, et al. Evaluation of radiation dose during pacemaker implantations. Radiat Prot Dosimetry 2011;147(1-2):75–7.
Kirkfeldt RE, Johansen JB, Nohr EA, Moller M, Arnsbo P, Nielsen JC. Pneumothorax in cardiac pacing: a population-based cohort study of 28,860 Danish patients. Europace 2012;14(8):1132–8.
Lee H, Lee SH, Kim S, Choi WI, Lee JH, Choi IJ. Variations of the cubital superficial vein investigated by using the intravenous illuminator. Anat Cell Biol 2015;48(1):62–5.
Romeyer-Bouchard C, Da Costa A, Abdellaoui L, Messier M, Thévenin J, Afif Z, et al. Simplified cardiac resynchronization implantation technique involving right access and a triple-guide/single introducer approach. Heart Rhythm 2005;2(7):714–9.
Belott P. How to access the axillary vein. Heart Rhythm 2006;3(3):366–9.
Squara F, Tomi J, Scarlatti D, Theodore G, Moceri P, Ferrari E. Self-taught axillary vein access without venography for pacemaker implantation: prospective randomized comparison with the cephalic vein access. Europace 2017;euw363.