924 results on '"Bailey, Michael R"'
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202. Effects of cavitation and nonlinear propagation on HIFU lesion production in tissue-mimicking phantom
203. CHAPTER 28 - LIPOSUCTION AND FAT TRANSFER
204. Focused ultrasound to displace renal calculi: threshold for tissue injury
205. Non-spherical collapse of an air bubble subjected to a lithotripter pulse
206. Focused Ultrasonic Propulsion of Kidney Stones
207. Addressing nonlinear propagation effects in characterization of high intensity focused ultrasound fields and prediction of thermal and mechanical bioeffects in tissue
208. Fragmentation of kidney stones in vitro by focused ultrasound bursts without shock waves
209. Kidney stone fracture by surface waves generated with focused ultrasound tone bursts
210. Pulsed focused ultrasound treatment of muscle mitigates paralysis-induced bone loss in the adjacent bone: A study in a mouse model
211. Focused Ultrasonic Propulsion of Kidney Stones: Review and Update of Preclinical Technology
212. Characterization of a multi-element clinical HIFU system using acoustic holography and nonlinear modeling
213. Determination of tissue injury thresholds from ultrasound in a porcine kidney model
214. Rectified growth of histotripsy bubbles
215. Ultrasonic atomization: A mechanism of tissue fractionation
216. CHAPTER 10: INVASION OF THE BODY SNATCHERS.
217. B-mode Ultrasound Versus Color Doppler Twinkling Artifact in Detecting Kidney Stones
218. Radiation force of an arbitrary acoustic beam on an elastic sphere in a fluid
219. Ultrasound intensity to propel stones from the kidney is below the threshold for renal injury
220. Bubbles trapped on the surface of kidney stones as a cause of the twinkling artifact in ultrasound imaging
221. Acoustic radiation force to reposition kidney stones
222. Ultrasonic atomization of tissue and its role in tissue fractionation by high intensity focused ultrasound
223. Novel High-Intensity Focused Ultrasound Clamp—Potential Adjunct for Laparoscopic Partial Nephrectomy
224. Characterization of nonlinear ultrasound fields of 2D therapeutic arrays
225. Quantitative Assessment of Shockwave Lithotripsy Accuracy and the Effect of Respiratory Motion
226. 1709 IMPROVED DETECTION OF KIDNEY STONE TWINKLING USING AUTOREGRESSIVE SIGNAL PROCESSING METHOD
227. A reduced-order, single-bubble cavitation model with applications to therapeutic ultrasound
228. Controlled tissue emulsification produced by high intensity focused ultrasound shock waves and millisecond boiling
229. Observations of the collapses and rebounds of millimeter-sized lithotripsy bubbles
230. Acoustic radiation force applied to the treatment of lower pole kidney stones
231. Cavitation clouds created by shock scattering from bubbles during histotripsy
232. A mechanism of tissue emulsification by high intensity focused ultrasound
233. Investigation on the effect of specular reflections from stone surface on twinkling artifact
234. Determination of thresholds for renal injury in a porcine model by focused ultrasound
235. Shock Wave Technology and Application: An Update
236. Ultrasonic atomization on the tissue‐bubble interface as a possible mechanism of tissue erosion in histotripsy.
237. Miniature acoustic fountain mechanism for tissue emulsification during millisecond boiling in high intensity focused ultrasound fields.
238. Interrogating and imaging renal stones using vibro‐acoustography.
239. Full-diffraction and parabolic axisymmetric numerical models to characterize nonlinear ultrasound fields of two-dimensional therapeutic arrays.
240. A method of mechanical emulsification in a bulk tissue using shock wave heating and millisecond boiling.
241. 1826 PROTOTYPE FOR ULTRASONIC EXPULSION OF KIDNEY STONES
242. Investigation of the effect of signal amplitude on twinkling artifact.
243. Holographic reconstruction of therapeutic ultrasound sources.
244. Real‐time tracking of renal calculi displaced by the radiation force of focused ultrasound.
245. 1836 QUANTITATIVE ASSESSMENT OF SHOCKWAVE LITHOTRIPSY ACCURACY
246. Challenges of clinical high intensity focused ultrasound: The need for metrology.
247. Advantages and limitations of the fiber‐optic probe hydrophone for characterization of shock waves in water.
248. Clinical assessment of shockwave lithotripsy accuracy.
249. Characterization of nonlinearly distorted ultrasound waves in water using broadband laser vibrometry.
250. In vivo tissue emulsification using millisecond boiling induced by high intensity focused ultrasound.
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