Abstract
Purpose
Considering the existing gaps in the literature regarding patient radiation dose (RD) and its associated risks, a systematic review of the literature on RD was conducted, focusing on percutaneous nephrolithotomy (PCNL), extracorporeal shock wave lithotripsy (SWL), and ureteroscopy (URS).
Methods
Two authors conducted a literature search on PubMed, Web of Science, and Google Scholar to identify studies on RD during endourological procedures. Two thousand two hundred sixty-six articles were screened. Sixty-five publications met the inclusion criteria using the PRISMA standards.
Results
RD was generally highest for PCNL, reaching levels up to 33 mSv, 28,700 mGycm2, and 430.8 mGy. This was followed by SWL, with RD reaching up to 7.32 mSv, 13,082 mGycm2, and 142 mGy. URS demonstrated lower RD, reaching up to 6.07 mSv, 8920 mGycm2, and 46.99 mGy. Surgeon experience and case load were inversely associated with RD. Strategies such as optimizing fluoroscopy settings, implementing ultrasound (US), and following the ALARA (As Low As Reasonably Achievable) principle minimized RD.
Conclusions
This is the first systematic review analyzing RD, which was generally highest during PCNL, followed by SWL and URS. There is no specific RD limit for these procedures. Implementation of strategies such as optimizing fluoroscopy settings, utilizing US, and adhering to the ALARA principle proved effective in reducing RD. However, further research is needed to explore the factors influencing RD, assess their impact on patient outcomes, and establish procedure-specific reference levels for RD.
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Data availability
The data that support the findings of this study are available from the authors upon reasonable request.
References
Linet MS, Slovis TL, Miller DL, Kleinerman R, Lee C, Rajaraman P et al (2012) Cancer risks associated with external radiation from diagnostic imaging procedures. CA Cancer J Clin 62(2):75–100
Yecies T, Averch TD, Semins MJ (2018) Identifying and managing the risks of medical ionizing radiation in endourology. Can J Urol 25(1):9154–9160
ICRP (2012) ICRP publication 118: ICRP statement on tissue reactions and early and late effects of radiation in normal tissues and organs-threshold doses for tissue reactions in a radiation protection context. Ann ICRP 41(1–2):1–322
Goldman M (1982) Ionizing radiation and its risks. West J Med 137(6):540–547
Little MP, Azizova TV, Richardson DB, Tapio S, Bernier MO, Kreuzer M et al (2023) Ionising radiation and cardiovascular disease: systematic review and meta-analysis. BMJ 380:e072924
Boeri L, Gallioli A, De Lorenzis E, Fontana M, Palmisano F, Sampogna G et al (2020) Impact of surgical experience on radiation exposure during retrograde intrarenal surgery: a propensity-score matching analysis. Eur Urol Focus 6(1):157–163
Harrison JD, Balonov M, Bochud F, Martin C, Menzel HG, Ortiz-Lopez P et al (2021) ICRP Publication 147: use of dose quantities in radiological protection. Ann ICRP 50(1):9–82
Harrison JD, Haylock RGE, Jansen JTM, Zhang W, Wakeford R (2023) Effective doses and risks from medical diagnostic x-ray examinations for male and female patients from childhood to old age. J Radiol Prot 43(1):011518
Valentin J (2007) PUBLICATION 103 - The 2007 recommendations of the international commission on radiological protection. Ann ICRP 37:1–332
Committee NRC (1999) Evaluation of guidelines for exposures to technologically enhanced naturally occurring radioactive materials. evaluation of guidelines for exposures to technologically enhanced naturally occurring radioactive materials. National Academies Press, Washington (DC)
Jamal JE, Armenakas NA, Sosa RE, Fracchia JA (2011) Perioperative patient radiation exposure in the endoscopic removal of upper urinary tract calculi. J Endourol 25(11):1747–1751
Yecies TS, Semins MJ (2019) Radiation mitigation techniques in kidney stone management. Urol Clin North Am 46(2):265–272
Hanna L, Walmsley BH, Devenish S, Rogers A, Keoghane SR (2015) Limiting radiation exposure during percutaneous nephrolithotomy. J Endourol 29(5):526–530
McCollough CH, Bushberg JT, Fletcher JG, Eckel LJ (2015) Answers to common questions about the use and safety of CT scans. Mayo Clin Proc 90(10):1380–1392
Mc Laughlin JP (2015) Some characteristics and effects of natural radiation. Radiat Prot Dosimetry 167(1–3):2–7
Miller DT, Semins MJ (2021) Minimizing radiation dose in management of stone disease: how to achieve “ALARA.” Curr Opin Urol 31(2):115–119
Howard SA, Rosenthal MH, Qin L, Matalon SA, Bernard BD, Beard CJ et al (2018) Quantifying decreased radiation exposure from modern CT scan technology and surveillance programs of germ cell tumors. Am J Clin Oncol 41(10):949–952
Rao PN, Faulkner K, Sweeney JK, Asbury DL, Sambrook P, Blacklock NJ (1987) Radiation dose to patient and staff during percutaneous nephrostolithotomy. Br J Urol 59(6):508–512
Geterud K, Larsson A, Mattsson S (1989) Radiation dose to patients and personnel during fluoroscopy at percutaneous renal stone extraction. Acta Radiol 30(2):201–205
Hellawell GO, Cowan NC, Holt SJ, Mutch SJ (2002) A radiation perspective for treating loin pain in pregnancy by double-pigtail stents. BJU Int 90(9):801–808
Allen D, O’Brien T, Tiptaft R, Glass J (2005) Defining the learning curve for percutaneous nephrolithotomy. J Endourol 19(3):279–282
Kumari G, Kumar P, Wadhwa P, Aron M, Gupta NP, Dogra PN (2006) Radiation exposure to the patient and operating room personnel during percutaneous nephrolithotomy. Int Urol Nephrol 38(2):207–210
Safak M, Olgar T, Bor D, Berkmen G, Gogus C (2009) Radiation doses of patients and urologists during percutaneous nephrolithotomy. J Radiol Prot 29(3):409–415
Mancini JG, Raymundo EM, Lipkin M, Zilberman D, Yong D, Banez LL et al (2010) Factors affecting patient radiation exposure during percutaneous nephrolithotomy. J Urol 184(6):2373–2377
Hristova-Popova J, Saltirov I, Vassileva J (2011) Exposure to patient during interventional endourological procedures. Radiat Prot Dosimetry 147(1–2):114–117
Lipkin ME, Mancini JG, Zilberman DE, Raymundo ME, Yong D, Ferrandino MN et al (2011) Reduced radiation exposure with the use of an air retrograde pyelogram during fluoroscopic access for percutaneous nephrolithotomy. J Endourol 25(4):563–567
Lantz AG, O’Malley P, Ordon M, Lee JY (2014) Assessing radiation exposure during endoscopic-guided percutaneous nephrolithotomy. Can Urol Assoc J 8(9–10):347–351
Torrecilla Ortiz C, Meza Martinez AI, Vicens Morton AJ, Vila Reyes H, Colom Feixas S, Suarez Novo JF et al (2014) Obesity in percutaneous nephrolithotomy. Is body mass index really important? Urology. 84(3):538–43
Ristau BT, Dudley AG, Casella DP, Dwyer ME, Fox JA, Cannon GM et al (2015) Tracking of radiation exposure in pediatric stone patients: the time is now. J Pediatr Urol. 11(6):339e1-339e5
Canales BK, Sinclair L, Kang D, Mench AM, Arreola M, Bird VG (2016) Changing default fluoroscopy equipment settings decreases entrance skin dose in patients. J Urol 195(4 Pt 1):992–997
Chi T, Masic S, Li J, Usawachintachit M (2016) Ultrasound guidance for renal tract access and dilation reduces radiation exposure during percutaneous nephrolithotomy. Adv Urol 2016:3840697
Demirci A, Raif Karabacak O, Yalcinkaya F, Yigitbasi O, Aktas C (2016) Radiation exposure of patient and surgeon in minimally invasive kidney stone surgery. Prog Urol 26(6):353–359
Dudley AG, Dwyer ME, Fox JA, Dwyer JT, Dangle P, Ristau BT et al (2016) Prospective assessment of radiation in pediatric urology: the pediatric urology radiation safety evaluation study. J Urol 196(1):202–206
Usawachintachit M, Masic S, Chang HC, Allen IE, Chi T (2016) Ultrasound guidance to assist percutaneous nephrolithotomy reduces radiation exposure in obese patients. Urology 98:32–38
Guiu-Souto J, Otero-Martinez C, Perez-Fentes D, Fernandez-Baltar C, Sanchez-Garcia JF, Garcia-Freire C et al (2017) Characterizing endourologist learning curve during percutaneous nephrolithotomy: implications on occupational dose and patients. J Radiol Prot 37(4):N49–N54
Giordano C, Marcello G, Barbattini L, Gobbi R (2018) Local levels of patient radiation exposure in a urology operating room in Italy. Radiat Prot Dosimetry 179(4):327–332
Fahmy A, Elgebaly O, Youssif M (2020) Fluoroscopic imaging optimization in children during percutaneous nephrolithotrispy. J Pediatr Urol 16(5):625e1-625e6
Simson N, Stonier T, Suleyman N, Hendry J, Salib M, Peacock J et al (2020) Defining a national reference level for intraoperative radiation exposure in urological procedures: FLASH, a retrospective multicentre UK study. BJU Int 125(2):292–298
Vassileva J, Zagorska A, Basic D, Karagiannis A, Petkova K, Sabuncu K et al (2020) Radiation exposure of patients during endourological procedures: IAEA-SEGUR study. J Radiol Prot 40(4):1390
Amirhasani S, Daneshdoost R, Mousavibahar S, Ghazikhanlou-Sani K, Raeisi R (2021) Reduction of radiation dose received by surgeons and patients during percutaneous nephrolithotomy: a new shielding method. Urol J 18(3):271–276
Bayram Ilikan G, Karabulut B, Tiryaki HT (2021) Can ultrasound guidance reduce radiation exposure significantly in percutaneous nephrolithotomy in pediatric patients? Urolithiasis 49(2):173–180
Zampini AM, Bamberger JN, Gupta K, Gallante B, Atallah WM, Gupta M (2021) Factors affecting patient radiation exposure during prone and supine percutaneous nephrolithotomy. J Endourol 35(10):1448–1453
Cheng G, Campbell T, Feng C, Quarrier S, Jain R (2022) Low-dose fluoroscopy technique drastically decreases patient radiation exposure during percutaneous nephrolithotomy. Urolithiasis 51(1):11
Hosier GW, Hakam N, Hamouche F, Cortez X, Charondo L, Yang H et al (2023) Ultrasound-only percutaneous nephrolithotomy is safe and effective compared to fluoroscopy-directed percutaneous nephrolithotomy. J Endourol 37(6):634–641
Falahatkar S, Haghjoo P, Esmaeili S, Kazemnezhad E (2022) Fluoroscopy screening time and radiation dose during complete supine percutaneous nephrolithotomy. World J Urol 40(11):2601–2607
Taghavi K, Kusel A, Webb N, McCahy P, Badawy M, Ditchfield M (2023) The burden of radiation exposure in children requiring percutaneous nephrolithotomy. J Pediatr Urol 19(5):559e1-559e7
McCullough D (1986) Bowman Gray School of Medicine
Newman R, Madorsky W, Finlayson BF (1986) Radiation exposure during ESWL. Southwestern Section, American Urological Association, Inc., New York
Saunders JE, Earle DJ, Porter JC, Coleman AJ (1986) Radiation dose to patients from extracorporeal shock wave lithotripsy. Br Med J (Clin Res Ed) 292(6525):958
Bush WH, Jones D, Gibbons RP (1987) Radiation dose to patient and personnel during extracorporeal shock wave lithotripsy. J Urol 138(4):716–719
Carter HB, Naslund EB, Riehle RA Jr (1987) Variables influencing radiation exposure during extracorporeal shock wave lithotripsy. Review of 298 treatments. Urology 30(6):546–550
Glaze S, LeBlanc AD, Bushong SC, Griffith DP (1987) Patient and personnel exposure during extracorporeal lithotripsy. Health Phys 53(6):623–629
Jocham D, Brandl H, Chaussy C, Schmiedt E (1987) Treatment of nephrolithiasis. In: Gravenstein JS, Peter K (eds) Extracorporeal shock wave lithotripsy technical and clinical aspects. Butterworths, Stoneham
Lin PJ, Hrejsa AF (1987) Patient exposure and radiation environment of an extracorporeal shock wave lithotriptor system. J Urol 138(4):712–715
Van Swearingen FL, McCullough DL, Dyer R, Appel B (1987) Radiation exposure to patients during extracorporeal shock wave lithotripsy. J Urol 138(1):18–20
Griffith DP, Gleeson MJ, Politis G, Glaze S (1989) Effectiveness of radiation control program for Dornier HM3 lithotriptor. Urology 33(1):20–25
Huda W, Bews J, Saydak AP (1989) Radiation doses in extracorporeal shock wave lithotripsy. Br J Radiol 62(742):921–926
Chen WC, Lee YH, Chen MT, Huang JK, Chang LS (1991) Factors influencing radiation exposure during the extracorporeal shock wave lithotripsy. Scand J Urol Nephrol 25(3):223–226
Baldock C, Greener AG, Batchelor S (1992) Radiation dose to patients and staff from Storz Modulith SL20 lithotripter. J Stone Dis 4(3):216–219
Kostakopoulos A, Picramenos D, Deliveliotis C, Christofis I, Koutsokalis G (1995) Radiation exposure to patients during extracorporeal shock wave lithotripsy. In 13th World Congress on Endourology and SWL, Jerusalem, Israel
Ugarte RR, Cass AS (1998) Radiation awareness program for extracorporeal shockwave lithotripsy using Medstone lithotripters. J Endourol 12(3):223–227
Macnamara A, Hoskins P (1999) Patient radiation dose during lithotripsy. Br J Radiol 72(857):495–498
Perisinakis K, Damilakis J, Anezinis P, Tzagaraki I, Varveris H, Cranidis A et al (2002) Assessment of patient effective radiation dose and associated radiogenic risk from extracorporeal shock-wave lithotripsy. Health Phys 83(6):847–853
Sandilos P, Tsalafoutas I, Koutsokalis G, Karaiskos P, Georgiou E, Yakoumakis E et al (2006) Radiation doses to patients from extracorporeal shock wave lithotripsy. Health Phys 90(6):583–587
Sulieman A, Ibrahim AA, Osman H, Yousef M (2010) Radiation dose assessment and risk estimation during extracorporeal shock wave lithotripsy. In: Tenth Radiation Physics & Protection Conference; Cairo, Egypt, p. 303–309
Bushara NA, Sulieman A, Halato MA, Suliman II (2012) Measurement of radiation dose during extracorpearal shockwave lithotripsy procedure. AJMRR 1(1):1–5
Rebuck DA, Coleman S, Chen JF, Casey JT, Perry KT, Nadler RB (2012) Extracorporeal shockwave lithotripsy versus ureteroscopy: a comparison of intraoperative radiation exposure during the management of nephrolithiasis. J Endourol 26(6):597–601
Pricop C, Maier A, Negru D, Malau O, Orsolya M, Radavoi D et al (2014) Extracorporeal shock waves lithotripsy versus retrograde ureteroscopy: is radiation exposure a criterion when we choose which modern treatment to apply for ureteric stones? Bosn J Basic Med Sci 14(4):254–258
Abid N, Ravier E, Promeyrat X, Codas R, Fehri HF, Crouzet S et al (2015) Decreased radiation exposure and increased efficacy in extracorporeal lithotripsy using a new ultrasound stone locking system. J Endourol 29(11):1263–1269
Sulieman A, Barakat H, Zailae A, Abuderman A, Theodorou K (2015) Measurement of patient radiation doses in certain urography procedures. Radiat Prot Dosimetry 165(1–4):397–401
Smith HE, Bryant DA, KooNg J, Chapman RA, Lewis G (2016) Extracorporeal shockwave lithotripsy without radiation: ultrasound localization is as effective as fluoroscopy. Urol Ann 8(4):454–457
Goren MR, Goren V, Ozer C (2017) Ultrasound-guided shockwave lithotripsy reduces radiation exposure and has better outcomes for pediatric cystine stones. Urol Int 98(4):429–435
Hassanpour N, Panahi F, Naserpour F, Karami V, Fatahi Asl J, Gholami M (2018) A study on radiation dose received by patients during extracorporeal shock wave lithotripsy. Arch Iran Med 21(12):585–588
Hadid-Beurrier L, Dabli D, Royer B, Demonchy M, Le Roy J (2021) Diagnostic reference levels during fluoroscopically guided interventions using mobile C-arms in operating rooms: a national multicentric survey. Phys Med 86:91–97
HsiI RS, Harper JD (2013) Fluoroless ureteroscopy: zero-dose fluoroscopy during ureteroscopic treatment of urinary-tract calculi. J Endourol 27(4):432–437
Hsi RS, Zamora DA, Kanal KM, Harper JD (2013) Severe obesity is associated with 3-fold higher radiation dose rate during ureteroscopy. Urology 82(4):780–785
Kokorowski PJ, Chow JS, Strauss KJ, Pennison M, Tan W, Cilento B et al (2013) Prospective systematic intervention to reduce patient exposure to radiation during pediatric ureteroscopy. J Urol 190(4 Suppl):1474–1478
Hein S, Schoenthaler M, Wilhelm K, Schlager D, Vach W, Wetterauer U et al (2017) Ultralow radiation exposure during flexible ureteroscopy in patients with nephrolithiasis-how far can we go? Urology 108:34–39
Hadjipavlou M, Lam V, Seth J, Anjum F, Sriprasad S (2018) Radiation exposure during ureterorenoscopy and laser lithotripsy: an analysis of stone characteristics. Urol Int 100(2):198–202
Kokorowski PJ, Chow JS, Cilento BG Jr, Kim DS, Kurtz MP, Logvinenko T et al (2018) The effect of surgeon versus technologist control of fluoroscopy on radiation exposure during pediatric ureteroscopy: a randomized trial. J Pediatr Urol 14(4):334e1-334e8
Danilovic A, Nunes E, Lipkin ME, Ferreira T, Torricelli FCM, Marchini GS et al (2019) Low dose fluoroscopy during ureteroscopy does not compromise surgical outcomes. J Endourol 33(7):527–532
Lee JJ, Venna AM, McCarthy I, Cilento BG, Demers MG, MacDougall RD et al (2021) Flat panel detector c-arms are associated with dramatically reduced radiation exposure during ureteroscopy and produce superior images. J Endourol 35(6):789–794
Tzou DT, Villaneda M, Zetumer S, Reliford-Titus S, Taguchi K, Usawachintachit M et al (2018) Renal tract dilation is a significant source of radiation exposure during percutaneous nephrolithotomy: results from the registry for stones of the kidney and ureter (RESKU). Urol J 199(4S):724–725
Chang TH, Lin WR, Tsai WK, Chiang PK, Chen M, Tseng JS et al (2020) Comparison of ultrasound-assisted and pure fluoroscopy-guided extracorporeal shockwave lithotripsy for renal stones. BMC Urol 20(1):183
Grabsky A, Tsaturyan A, Musheghyan L, Minasyan G, Khachatryan Y, Shadyan G et al (2021) Effectiveness of ultrasound-guided shockwave lithotripsy and predictors of its success rate in pediatric population: a report from a national reference center. J Pediatr Urol 17(1):78e1-78e7
Logarakis NF, Jewett MA, Luymes J, Honey RJ (2000) Variation in clinical outcome following shock wave lithotripsy. J Urol 163(3):721–725
ICRP (1977) ICRP Publication 26: Recommendations of the ICRP. Ann ICRP 1(3)
Greene DJ, Tenggadjaja CF, Bowman RJ, Agarwal G, Ebrahimi KY, Baldwin DD (2011) Comparison of a reduced radiation fluoroscopy protocol to conventional fluoroscopy during uncomplicated ureteroscopy. Urology 78(2):286–290
Skolarikos A, Neisius A, Petřík A, Somani B, Thomas K, Gambaro G (2022) EAU Guidelines on Urolithiasis. EAU Guidelines Office, Arnhem
Assimos D, Krambeck A, Miller NL, Monga M, Murad MH, Nelson CP et al (2016) Surgical management of stones: american urological association/endourological society guideline. PART II J Urol 196(4):1161–1169
Inoue T, Okada S, Hamamoto S, Fujisawa M (2021) Retrograde intrarenal surgery: past, present, and future. Investig Clin Urol 62(2):121–135
Setterfield J, Watterson J, Playfair M, Lavallee LT, Roberts M, Blew B et al (2016) Should surgeons control fluoroscopy during urology procedures? Can Urol Assoc J 10(11–12):398–402
Elkoushy MA, Morehouse DD, Anidjar M, Elhilali MM, Andonian S (2012) Impact of radiological technologists on the outcome of shock wave lithotripsy. Urology 79(4):777–780
Ayoub EM, Bourgi A, Alsouki J, Merhej S, Conort P (2021) Fluoroless endourological surgery for high burden renal and proximal ureteric stones: a safe technique for experienced surgeons. Arab J Urol 19(4):438–444
Peng L, Wang W, Gao X, Di X, Luo D (2021) Fluoroless versus conventional ureteroscopy for urinary stones: a systematic review and meta-analysis. Minerva Urol Nephrol 73(3):299–308
Van Besien J, Uvin P, Hermie I, Tailly T, Merckx L (2017) Ultrasonography is not inferior to fluoroscopy to guide extracorporeal shock waves during treatment of renal and upper ureteric calculi: a randomized prospective study. Biomed Res Int 2017:7802672
Emiliani E, Kanashiro A, Chi T, Perez-Fentes DA, Manzo BO, Angerri O et al (2020) Fluoroless endourological surgery for stone disease: a review of the literature-tips and tricks. Curr Urol Rep 21(7):27
Emiliani E, Motta GL, Llorens E, Quiroz Y, Kanashiro AK, Angerri O et al (2019) Totally fluoroless retrograde intrarenal surgery technique in prestented patients: tips and tricks. J Pediatr Urol 15(5):570–573
Kirac M, Ergin G, Kibar Y, Kopru B, Biri H (2018) The efficacy of ureteroscopy without fluoroscopy for ureteral and renal stones in pediatric patients. J Endourol 32(2):100–105
Manzo BO, Lozada E, Manzo G, Sanchez HM, Gomez F, Figueroa A et al (2019) Radiation-free flexible ureteroscopy for kidney stone treatment. Arab J Urol 17(3):200–205
Nouralizadeh A, Sharifiaghdas F, Pakmanesh H, Basiri A, Radfar MH, Soltani MH et al (2018) Fluoroscopy-free ultrasonography-guided percutaneous nephrolithotomy in pediatric patients: a single-center experience. World J Urol 36(4):667–671
El-Shaer W, Kandeel W, Abdel-Lateef S, Torky A, Elshaer A (2019) Complete ultrasound-guided percutaneous nephrolithotomy in prone and supine positions: a randomized controlled study. Urology 128:31–37
ICRP (1991) ICRP Publication 60: 1990 Recommendations of the International Commission on Radiological Protection. Ann ICRP 21(1–3):1–202
ICRP (2007) The 2007 Recommendations of the International Commission on Radiological Protection. ICRP publication 103. Ann ICRP 37(2–4):1–332
Smith DL, Heldt JP, Richards GD, Agarwal G, Brisbane WG, Chen CJ et al (2013) Radiation exposure during continuous and pulsed fluoroscopy. J Endourol 27(3):384–388
Chen R, Joo EH, Baas C, Hartman J, Amasyali AS, Shete K et al (2024) Reducing hand radiation during renal access for percutaneous nephrolithotomy: a comparison of radiation reduction techniques. Urolithiasis 52(1):27
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Vincent De Coninck: Protocol/project development, Data collection or management, Data analysis, Manuscript writing/editing. Xavier Mortiers: Data collection or management, Data analysis, Manuscript writing/editing. Laura Hendrickx: Data collection or management, Data analysis. Stefan De Wachter: Manuscript writing/editing. Olivier Traxer: Manuscript writing/editing. Etienne Xavier Keller: Data analysis, Manuscript writing/editing.
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Vincent De Coninck is a speaker and/or consultant for BD, Coloplast, and Karl Storz, and has no specific conflicts relevant to this study. Olivier Traxer is a consultant for Coloplast, Karl Storz, Rocamed, Quanta Systems, Ambu, Boston Scientific, and IPG Medical, and has no specific conflicts relevant to this study. Etienne Xavier Keller is a speaker and/or consultant for Coloplast, Olympus, Boston Scientific, Recordati, Debiopharm and Alnylam, and has no specific conflicts of interest relevant to this work. All other authors have no conflicts of interest.
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De Coninck, V., Mortiers, X., Hendrickx, L. et al. Radiation exposure of patients during endourological procedures. World J Urol 42, 266 (2024). https://doi.org/10.1007/s00345-024-04953-y
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DOI: https://doi.org/10.1007/s00345-024-04953-y