about
The Application of Ultrasound in 3D Bio-PrintingHigh-intensity focused ultrasound treatment for advanced pancreatic cancerEnhancement of Small Molecule Delivery by Pulsed High-Intensity Focused Ultrasound: A Parameter Exploration.Particle Accumulation in a Microchannel and Its Reduction by a Standing Surface Acoustic Wave (SSAW)Application of acoustic droplet vaporization in ultrasound therapy.Targeted long-term venous occlusion using pulsed high-intensity focused ultrasound combined with a pro-inflammatory agentEnhanced visualization of fine needles under sonographic guidance using a MEMS actuator.Reduction of bubble cavitation by modifying the diffraction wave from a lithotripter aperture.Assessment of shock wave lithotripters via cavitation potential.The effect of reflector geometry on the acoustic field and bubble dynamics produced by an electrohydraulic shock wave lithotripter.Progressive increase of lithotripter output produces better in-vivo stone comminutionTranssclera Drug Delivery by Pulsed High-Intensity Focused Ultrasound (HIFU): An Ex Vivo Study.Generation of Autologous Platelet-Rich Plasma by the Ultrasonic Standing Waves.The recent development and applications of fluidic channels by 3D printing.Variations of bubble cavitation and temperature elevation during lesion formation by high-intensity focused ultrasound.Generation of uniform lesions in high intensity focused ultrasound ablation.High-intensity focused ultrasound ablation around the tubing.Quantitative evaluation of sonophoresis efficiency and its dependence on sonication parameters and particle size.Numerical evaluation of the effect of electronically steering a phased array transducer: axially post-focal shifting.Noninvasive Thermometry in High-Intensity Focused Ultrasound Ablation.Effect of pulse repetition frequency of high-intensity focused ultrasound on in vitro thrombolysis.Effect of hydrodynamic cavitation in the tissue erosion by pulsed high-intensity focused ultrasound (pHIFU).Simulation of non-linear acoustic field and thermal pattern of phased-array high-intensity focused ultrasound (HIFU).Acoustic power measurement of high-intensity focused ultrasound transducer using a pressure sensor.Quantitative assessment of acoustic intensity in the focused ultrasound field using hydrophone and infrared imaging.The effect of the scanning pathway in high-intensity focused ultrasound therapy on lesion production.Fast algorithm in estimating high intensity focused ultrasound induced lesions.Preclinical in vivo evaluation of an extracorporeal HIFU device for ablation of pancreatic tumors.Suppressing bubble shielding effect in shock wave lithotripsy by low intensity pulsed ultrasound.Remediation of oil-contaminated sand with self-collapsing air microbubbles.Shifting the Split Reflectors to Enhance Stone Fragmentation of Shock Wave Lithotripsy.Improvement of Lesion Detection by Complete Angular Compound Ultrasonic Elastography.Innovations in shock wave lithotripsy technology: updates in experimental studies.The effect of treatment strategy on stone comminution efficiency in shock wave lithotripsy.Comparison of sonothrombolysis efficiencies of different ultrasound systems.Effect of clot aging and cholesterol content on ultrasound-assisted thrombolysis.High-Intensity Focused Ultrasound (HIFU) Ablation by the Dual-Frequency ExcitationDynamics of bubble oscillation in constrained media and mechanisms of vessel rupture in SWLSuppression of large intraluminal bubble expansion in shock wave lithotripsy without compromising stone comminution: methodology and in vitro experimentsSuppression of large intraluminal bubble expansion in shock wave lithotripsy without compromising stone comminution: refinement of reflector geometry
P50
Q26750870-D930C75E-FA6C-43EA-9D61-2D0CF4455EF4Q26998686-194D26F2-3E5B-44E9-812D-F72672BD4A90Q30360051-8C9B672B-3A17-4B4E-8C56-8613FB273D2AQ30363682-545A211B-F312-4E04-8361-9595D03981D2Q30398863-4ED1BA01-0F46-486A-98FF-7E9C3D0E3D8AQ30399264-A6328D0B-89C5-48C2-AD4F-4A17B7DC1AAEQ30413438-437205AB-BFEE-4901-B581-BD472FE2B801Q30451541-60966CC9-5A3E-4BC8-B2EE-34CEFD9A9552Q30485834-558BE863-1EE4-489F-AA9A-6938C3C7B734Q30500944-CD1AECFC-A6FA-4D71-871F-C2E98E734F42Q30502504-4B0C6BDF-9A27-4626-A98F-7D92772DF583Q35403847-76A6B3AA-1144-4DE7-915C-8D193B703C77Q38989674-4D90163B-D27C-4664-B9E2-459268893801Q42657902-4C10C0FB-07A4-40B7-A8E8-C75C83C94029Q43915399-A2DEB3B4-CCB6-420C-A12B-2C5A2A19BC4AQ45352133-DF4241DE-6896-4857-9808-D592A755AA47Q47142560-5131AE32-B2B7-4773-B665-BCC9E682B1EDQ47403759-42A2769B-3358-411C-A4BB-E602BC8522B8Q47832648-17FE0151-C725-4B76-85C1-54C8E82B3F15Q50239366-BB6F08CD-FC6E-4B18-B29B-31380551A26CQ50239941-2BAD2EFF-9AF5-4D7D-A7BD-AB6B4C1D026CQ50240028-08BB4A08-6200-49BF-A5AC-D2FD2F3660B0Q50240332-1B751F41-25A3-4395-8B5A-AF9932CE02D8Q50241927-E5BE7665-F7EE-4639-8B0E-EFD7229A1695Q50243766-DE1CF9C9-4040-46AE-B610-F3E2021D092BQ50246021-FC69A55A-256F-4C2E-9085-708F4BCD047DQ50246560-006E9693-C9D5-4C16-8487-2729B7D1D0DAQ50248090-48C84E88-CE17-43CD-B6A9-E4A9D1EA8EEEQ51059226-A745B691-41BA-4051-A1C2-59BE905427BAQ51164133-5B412FE9-60F4-4757-8123-6B9945E4F436Q51337245-E4AF38F3-B024-4009-A2B7-0F055993A47FQ51546782-46B66BB9-977C-4C05-BA03-CB16280DC7FCQ51582466-75DDD047-4C36-4E99-AB04-74525A6D5B1FQ51660966-DA56408E-0928-48F2-B64D-37C3AA16C91AQ53440175-3AC9A8F6-D9C1-42D7-86D8-A7E5DF6A3831Q53627683-ECFDC179-EE77-470C-8086-E6B78CD30586Q58555057-A8EDD72E-B675-4DC0-81FF-67CD34112077Q73734111-C044DBE1-2EED-4F95-95A9-B91BF53B0E05Q77474466-34BC86A4-E0C2-4ED7-AB1A-E4CE9B039892Q78857825-B291BC7C-FBC7-4A2B-BD57-2E4235606C81
P50
description
researcher
@en
հետազոտող
@hy
name
Yufeng Zhou
@ast
Yufeng Zhou
@en
Yufeng Zhou
@es
Yufeng Zhou
@nl
Yufeng Zhou
@sl
type
label
Yufeng Zhou
@ast
Yufeng Zhou
@en
Yufeng Zhou
@es
Yufeng Zhou
@nl
Yufeng Zhou
@sl
prefLabel
Yufeng Zhou
@ast
Yufeng Zhou
@en
Yufeng Zhou
@es
Yufeng Zhou
@nl
Yufeng Zhou
@sl
P1053
A-1127-2011
P106
P1153
55048639400
P31
P3829
P496
0000-0003-4086-2150