Literature DB >> 23583535

Focused ultrasound to expel calculi from the kidney: safety and efficacy of a clinical prototype device.

Jonathan D Harper1, Mathew D Sorensen, Bryan W Cunitz, Yak-Nam Wang, Julianna C Simon, Frank Starr, Marla Paun, Barbrina Dunmire, H Denny Liggitt, Andrew P Evan, James A McAteer, Ryan S Hsi, Michael R Bailey.   

Abstract

PURPOSE: Focused ultrasound has the potential to expel small stones or residual stone fragments from the kidney, or move obstructing stones to a nonobstructing location. We evaluated the efficacy and safety of ultrasonic propulsion in a live porcine model.
MATERIALS AND METHODS: Calcium oxalate monohydrate kidney stones and laboratory model stones (2 to 8 mm) were ureteroscopically implanted in the renal pelvicalyceal system of 12 kidneys in a total of 8 domestic swine. Transcutaneous ultrasonic propulsion was performed using an HDI C5-2 imaging transducer (ATL/Philips, Bothell, Washington) and the Verasonics® diagnostic ultrasound platform. Successful stone relocation was defined as stone movement from the calyx to the renal pelvis, ureteropelvic junction or proximal ureter. Efficacy and procedure time was determined. Three blinded experts evaluated histological injury to the kidney in the control, sham treatment and treatment arms.
RESULTS: All 26 stones were observed to move during treatment and 17 (65%) were relocated successfully to the renal pelvis (3), ureteropelvic junction (2) or ureter (12). Average ± SD successful procedure time was 14 ± 8 minutes and a mean of 23 ± 16 ultrasound bursts, each about 1 second in duration, were required. There was no evidence of gross or histological injury to the renal parenchyma in kidneys exposed to 20 bursts (1 second in duration at 33-second intervals) at the same output (2,400 W/cm(2)) used to push stones.
CONCLUSIONS: Noninvasive transcutaneous ultrasonic propulsion is a safe, effective and time efficient means to relocate calyceal stones to the renal pelvis, ureteropelvic junction or ureter. This technology holds promise as a useful adjunct to surgical management for renal calculi.
Copyright © 2013 American Urological Association Education and Research, Inc. Published by Elsevier Inc. All rights reserved.

Entities:  

Keywords:  SWL; UPJ; kidney; kidney calculi; lithotripsy; shock wave lithotripsy; ultrasonography; ureteropelvic junction; ureteroscopy

Mesh:

Substances:

Year:  2013        PMID: 23583535      PMCID: PMC4414252          DOI: 10.1016/j.juro.2013.03.120

Source DB:  PubMed          Journal:  J Urol        ISSN: 0022-5347            Impact factor:   7.450


  27 in total

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6.  Direct and indirect costs of nephrolithiasis in an employed population: opportunity for disease management?

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9.  Focused ultrasound to expel calculi from the kidney.

Authors:  Anup Shah; Jonathan D Harper; Bryan W Cunitz; Yak-Nam Wang; Marla Paun; Julianna C Simon; Wei Lu; Peter J Kaczkowski; Michael R Bailey
Journal:  J Urol       Date:  2011-12-16       Impact factor: 7.450

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Review 1.  Innovations in Ultrasound Technology in the Management of Kidney Stones.

Authors:  Jessica C Dai; Michael R Bailey; Mathew D Sorensen; Jonathan D Harper
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2.  Content and face validation of a curriculum for ultrasonic propulsion of calculi in a human renal model.

Authors:  Ryan S Hsi; Barbrina Dunmire; Bryan W Cunitz; Xuemei He; Mathew D Sorensen; Jonathan D Harper; Michael R Bailey; Thomas S Lendvay
Journal:  J Endourol       Date:  2014-01-02       Impact factor: 2.942

Review 3.  Physical therapy in the management of stone fragments: progress, status, and needs.

Authors:  Suoshi Jing; Qiongyan Gai; Xin Zhao; Juan Wang; Yuwen Gong; Yangyang Pang; Chen Peng; Yuejun Tian; Yuhan Wang; Zhiping Wang
Journal:  Urolithiasis       Date:  2017-06-07       Impact factor: 3.436

Review 4.  Evaluation of dusting versus basketing - can new technologies improve stone-free rates?

Authors:  Brian Weiss; Ojas Shah
Journal:  Nat Rev Urol       Date:  2016-10-04       Impact factor: 14.432

5.  Safety and Effectiveness of a Longer Focal Beam and Burst Duration in Ultrasonic Propulsion for Repositioning Urinary Stones and Fragments.

Authors:  Karmon M Janssen; Timothy C Brand; Bryan W Cunitz; Yak-Nam Wang; Julianna C Simon; Frank Starr; H Denny Liggitt; Jeff Thiel; Mathew D Sorensen; Jonathan D Harper; Michael R Bailey; Barbrina Dunmire
Journal:  J Endourol       Date:  2017-06-26       Impact factor: 2.942

6.  In Vitro Evaluation of Urinary Stone Comminution with a Clinical Burst Wave Lithotripsy System.

Authors:  Shivani Ramesh; Tony T Chen; Adam D Maxwell; Bryan W Cunitz; Barbrina Dunmire; Jeff Thiel; James C Williams; Anthony Gardner; Ziyue Liu; Ian Metzler; Jonathan D Harper; Mathew D Sorensen; Michael R Bailey
Journal:  J Endourol       Date:  2020-03-20       Impact factor: 2.942

Review 7.  Integrating nanomedicine and imaging.

Authors:  Carlos Pérez-Medina; Sjoerd Hak; Thomas Reiner; Zahi A Fayad; Matthias Nahrendorf; Willem J M Mulder
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8.  Histotripsy Lesion Formation Using an Ultrasound Imaging Probe Enabled by a Low-Frequency Pump Transducer.

Authors:  Kuang-Wei Lin; Timothy L Hall; Zhen Xu; Charles A Cain
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9.  Focused Ultrasonic Propulsion of Kidney Stones.

Authors:  Mathew D Sorensen; Michael R Bailey; Ryan S Hsi; Bryan W Cunitz; Julianna Simon; Yak-Nam Wang; Barbrina L Dunmire; Marla Paun; Frank Starr; Wei Lu; Andrew P Evan; Jonathan D Harper
Journal:  J Endourol B Videourol       Date:  2013-12-09

10.  Non-invasive measurement of the temperature rise in tissue surrounding a kidney stone subjected to ultrasonic propulsion.

Authors:  Ghanem F Oweis; Barbrina L Dunmire; Bryan W Cunitz; Michael R Bailey
Journal:  Conf Proc IEEE Eng Med Biol Soc       Date:  2015
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