Abstract
Data on the impact of donor-to-recipient laterality on kidney transplantation are lacking. This study evaluated the impact of donor-to-iliac fossa laterality and the site of venous anastomosis on operating time and surgical outcome. This retrospective single-center study analyzed 1262 deceased donor adult kidney transplants into pristine iliac fossa. Multivariable linear and logistic regression analyses were used to identify variables with an impact on operating time and surgical complications. Operating time was shorter by 11 min in median for transplantations into the right iliac fossa compared to the left iliac fossa (p < 0.001). Operating time in left-to-right donor-to-recipient combination was shorter by 17 min in median if venous anastomoses were performed on the caval vein or common iliac vein as compared to anastomoses to the external iliac vein (p < 0.001). Overall, the shortest operating times (median 112.5 min) were achieved in left-to-right donor-to-recipient combinations with venous anastomosis to the caval or common iliac vein, without an increase in surgical complications. Kidney transplantation into the right iliac fossa with anastomosis to the caval vein or the common iliac vein saves operating time and reduces thrombotic complications. Acceptance of a left donor kidney is likely to further reduce operating time.







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Data Availability
The datasets generated during and/or analysed during the current study are not publicly available due to European General Data Protection Regulation (EGDPR), but are available from the corresponding author on reasonable request.
Abbreviations
- LL:
-
Left donor kidney to left recipient’s iliac fossa
- LR:
-
Left donor kidney to right recipient’s iliac fossa
- RL:
-
Right donor kidney to left recipient’s iliac fossa
- RR:
-
Right donor kidney to right recipient’s iliac fossa
- AT:
-
Anastomosis time
- OT:
-
Operating time
- CV:
-
Caval vein
- CIV:
-
Common iliac vein
- EIV:
-
External iliac vein
- VIF:
-
Variance inflation factor
References
Gregoir W (1955) Lateral uretero-vesical anastomosis with plastic formation of ureteral segment to replace excised portion. Acta Urol Belg 23:32–37
Napolitano A, Fortunelli D (1960) Cancrini A [Clinical considerations on pyelo-ureteral and uretero-vesical plastic operations]. Ann Ital Chir 37:659–678
Salaman JR, Clarke AG, Crosby DL (1974) The management of kidney transplants damaged during their removal from the donor. Br J Urol 46:173–177
Charlesworth M, Marangoni G, Ahmad N (2011) High ureteric injury following multiorgan recovery: successful kidney transplant with boari flap ureterocystostomy reconstruction. Arab J Nephrol Transplant 4:155–158
Benedetti E, Troppmann C, Gillingham K, Sutherland DE, Payne WD, Dunn DL et al (1995) Short- and long-term outcomes of kidney transplants with multiple renal arteries. Ann Surg 221:406–414
Santangelo M, Spinosa G, Grassia S, Clemente M, Caggiano M, Pelosio L et al (2008) In situ elongation patch in right kidney transplantation. Transplant Proc 40:1871–1872
Valeriani G, Cerbone V, Russo E, Sciano D, De Rosa P (2010) Bench surgery in right kidney transplantation. Transplant Proc 42:1120–1122
Barry JM, Fuchs EF (1978) Right renal vein extension in cadaver kidney transplantation. Arch Surg 113:300
Szmidt J, Frunze S, Karolak M, Madej K, Sablinski T, Nazarewski S (1989) Right renal vein extension technique in human kidney transplantation. Eur Urol 16:204–206
Vaz O, Asderakis A, Sharma V, Moinuddin Z, Shanmugam M, Tavakoli A et al (2022) Laterality in laparoscopic hand assisted donor nephrectomy - does it matter anymore? Outcomes of a large retrospective series. Surgeon 20:e273–e281
Domagala P, van den Berg T, Tran K, Terkivatan T, Kimenai H, Hartog H et al (2019) Surgical safety and efficacy of third kidney transplantation in the ipsilateral iliac fossa. Ann Transplant 24:132–138
Kulkarni S, Wei G, Jiang W, Lopez LA, Parikh CR, Hall IE (2020) Outcomes from right versus left deceased-donor kidney transplants: a US National Cohort Study. Am J Kidney Dis 75:725–735
Carolan C, Tingle SJ, Thompson ER, Sen G, Wilson CH (2021) Comparing outcomes in right versus left kidney transplantation: a systematic review and meta-analysis. Clin Transplant 35:e14475
Khalil A, Mujtaba MA, Taber TE, Yaqub MS, Goggins W, Powelson J et al (2016) Trends and outcomes in right vs. left living donor nephrectomy: an analysis of the OPTN/UNOS database of donor and recipient outcomes–should we be doing more right-sided nephrectomies? Clin Transplant 30:145–153
Duty BD, Barry JM (2015) Diagnosis and management of ureteral complications following renal transplantation. Asian J Urol 2:202–207
Locke JR, Noe HN (1987) Management of obstruction and resultant complications in transplant kidney by endoscopic and percutaneous techniques. Urology 30:43–45
Murray JE, Harrison JH (1963) Surgical management of fifty patients with kidney transplants including eighteen pairs of twins. Am J Surg 105:205–218
Sansalone CV, Maione G, Aseni P, Mangoni I, Soldano S, Minetti E et al (2005) Advantages of short-time ureteric stenting for prevention of urological complications in kidney transplantation: an 18-year experience. Transplant Proc 37:2511–2515
Benoit G, Blanchet P, Eschwege P, Alexandre L, Bensadoun H, Charpentier B (1996) Insertion of a double pigtail ureteral stent for the prevention of urological complications in renal transplantation: a prospective randomized study. J Urol 156:881–884
Alberts VP, Idu MM, Legemate DA, Laguna Pes MP, Minnee RC (2014) Ureterovesical anastomotic techniques for kidney transplantation: a systematic review and meta-analysis. Transpl Int 27:593–605
Moreno-Alarcon C, Server-Pastor G, Lopez-Gonzalez PA, Lopez-Cubillana P, Ruiz-Morcillo JC, Donate-Iniguez G et al (2013) Must we still be worried about multiple arteries in kidney transplantation? Nephrourol Mon 5:692–696
Chabchoub K, Mhiri MN, Bahloul A, Fakhfakh S, Ben Hmida I, Hadj Slimen M et al (2011) Does kidney transplantation with multiple arteries affect graft survival? Transplant Proc 43:3423–3425
Lechevallier E, Bretheau D, Berland Y, Olmer M, Rampal M (1995) Coulange C [Outcome of kidney transplants with multiple arteries]. Prog Urol 5:370–376
Gore JL, Pham PT, Danovitch GM, Wilkinson AH, Rosenthal JT, Lipshutz GS et al (2006) Obesity and outcome following renal transplantation. Am J Transplant 6:357–363
Lynch RJ, Ranney DN, Shijie C, Lee DS, Samala N, Englesbe MJ (2009) Obesity, surgical site infection, and outcome following renal transplantation. Ann Surg 250:1014–1020
Singh D, Lawen J, Alkhudair W (2005) Does pretransplant obesity affect the outcome in kidney transplant recipients? Transplant Proc 37:717–720
Morris PJ, Johnson RJ, Fuggle SV, Belger MA, Briggs JD (1999) Analysis of factors that affect outcome of primary cadaveric renal transplantation in the UK. HLA task force of the kidney advisory group of the United Kingdom transplant support service authority (UKTSSA). Lancet 354:1147–1152
Lefaucheur C, Loupy A, Hill GS, Andrade J, Nochy D, Antoine C et al (2010) Preexisting donor-specific HLA antibodies predict outcome in kidney transplantation. J Am Soc Nephrol 21:1398–1406
Solheim BG, Flatmark A, Enger E, Jervell J, Thorsby E (1977) Influence of HLA-A, -B, -C, and -D matching on the outcome of clinical kidney transplantation. Transplant Proc 9:475–478
Moreira P, Sa H, Figueiredo A, Mota A (2011) Delayed renal graft function: risk factors and impact on the outcome of transplantation. Transplant Proc 43:100–105
Emmanouilidis N, Boeckler J, Ringe BP, Kaltenborn A, Lehner F, Koch HF et al (2017) Risk balancing of cold ischemic time against night shift surgery possibly reduces rates of reoperation and perioperative graft loss. J Transplant 2017:5362704
Simforoosh N, Aminsharifi A, Tabibi A, Fattahi M, Mahmoodi H, Tavakoli M (2007) Right laparoscopic donor nephrectomy and the use of inverted kidney transplantation an alternative technique. BJU Int 100:1347–1350
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NE: participated in research design, writing of the paper and interpretation of data, performance of the research, data acquisition, and data analysis. AABH: participated in the writing of the paper and interpretation of data, performance of the research, data acquisition, and data analysis. PS: participated in the writing of the paper and interpretation of data. BPR: participated in research design and performance of the research. TAA: participated in the performance of the research and data acquisition. JK: participated in the performance of the research. HS: participated in the writing of the paper and interpretation of data, performance of the research, and in data acquisition.
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Emmanouilidis, N., Hashem, A.A.B., Stiegler, P. et al. Transplanting a left or right donor kidney into the left or right iliac fossa: importance of laterality and site of venous anastomosis. Updates Surg 75, 1243–1257 (2023). https://doi.org/10.1007/s13304-023-01512-9
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DOI: https://doi.org/10.1007/s13304-023-01512-9