| Acoustic propagation effects in therapeutic ultrasound (p. 3) |
| by Mast, T D |
| Modeling Heat Transfer in Tissue for Therapeutic Ultrasound (p. 8) |
| by Lagendijk, Jan J W |
| Therapeutic Bubbles : Basic Principles of Cavitation in Therapeutic Ultrasound(p. 13) |
| by Glynn-Holt, R |
| Nanobubble-Enhanced Sonothrombolysis : From Benchtop to Bedside(p. 21) |
| by UngerMD, Evan C |
| Microbubbles Reforming Endothelium (p. 24) |
| by Van Wamel, Annemieke |
| Hemorrhage Near Fetal Rat Bone : Preliminary Results(p. 29) |
| by Bigelow, Timothy A |
| Interaction of Impulsive Pressures of Cavitation Bubbles with Cell Membranes during Sonoporation (p. 34) |
| by Kodama, Tetsuya |
| Biological Effects of Ultrasound : Sonomechanical Mechanism, and Its Implications on Therapy and Biosafety(p. 44) |
| by Feril, Loreto B |
| 1 kHz Vibration Stimulates ATDC5 Chondrocytes (p. 49) |
| by Argadine, Heather |
| Acute Effects of High Intensity Focused Ultrasound on Blood Vessels In Vivo (p. 54) |
| by Davis, Sara |
| Steady Potential Changes and Spreading Depression in Rat Brains Produced by Focused Ultrasound (p. 59) |
| by Vykhodtseva, Natalia I |
| Effect of repeated US stimulation on adiponectin secretion by adipocytes of obese human subjects (p. 64) |
| by Fujii, Yasutomo |
| Visualization of Tumor's Vascularity for HIFU Treatment with Tissue Motion Correction (p. 71) |
| by Yoshikawa, Hideki |
| Assessment of MR Thermometry During High Intensity Ultrasound Ablation of the Canine Prostate (p. 76) |
| by Butts, P K |
| Respiratory And Cardiac Motion-Induced B0 Fluctuations In The Breast : Implications For PRFS-based Temperature Monitoring(p. 81) |
| by Peters, N H G M |
| Harmonic Band Spectrum Analysis of Backscattered Ultrasound from Lesioned and Normal Tissue (p. 86) |
| by Muratore, Robert |
| Referenceless MR thermometry during canine prostate ablation (p. 91) |
| by Rieke, Viola |
| Two-dimensional Temperature Imaging Using Pulse-Echo Ultrasound (p. 96) |
| by Ebbini, Emad S |
| Simulations of Localized Harmonic Motion Imaging for Ultrasound Surgery Monitoring (p. 102) |
| by Heikkilä, Janne |
| Measurement and Modeling of Acoustic Fields in a Gel Phantom at High Intensities (p. 107) |
| by Canney, Michael S |
| Computer modeling of hyperthermia temperature distributions produced by hybrid RF/US phased arrays (p. 112) |
| by Wu, Liyong |
| Nonlinear Mechanisms of Lesion Formation by High Intensity Focused Ultrasound (p. 117) |
| by Khokhlova, V A |
| CT and Ultrasound Guided Stereotactic High Intensity Focused Ultrasound (HIFU) (p. 122) |
| by Wood, Bradford J |
| Taking Advantage of Near-Field Heating in Order to Increase Ablated Volume during High Intensity Focused Ultrasound (p. 127) |
| by Curiel, Laura |
| Imaging Ultrasound Guidance and on-line Estimation of Thermal Behavior in HIFU Exposed Targets (p. 132) |
| by Chauhan, Sunita |
| Acoustical Registration of Shear Modulus Variation under HIFU in Soft Tissues (p. 137) |
| by Konopatskaya, I I |
| Ultrasound-Stimulated Acoustic Emission in Thermal Image-Guided HIFU Therapy : A Phantom Study(p. 142) |
| by Jiang, C P |
| The Feasibility of Conformal Thermal Therapy with Transurethral Ultrasound Heating Applicators and MR Temperature Feedback (p. 146) |
| by Choy, Vanessa |
| Simultaneous Temperature and Tissue Stiffness Detection by MR Elastography (p. 151) |
| by Le, Yuan |
| Evaluation of Referenceless Thermometry in MRI-Guided Focused Ultrasound Surgery of Uterine Fibroids (p. 156) |
| by McDannold, Nathan |
| Correction of Proton Resonance Frequency Shift Temperature Maps for Magnetic Field Disturbances Caused by Breathing (p. 161) |
| by Shmatukha, Andriy V |
| Born Inversion for Broadband Ultrasonic Monitoring of Cancer Treatment (p. 166) |
| by UlkerKarbeyaz, Basak |
| Real-Time Monitoring Of Regional Tissue Elasticity During FUS Focused Ultrasound Therapy Using Harmonic Motion Imaging (p. 171) |
| by Maleke, Caroline |
| Optimising HIFU Lesion Formation with Backscatter Attenuation Estimation (BAE) (p. 176) |
| by Civale, John |
| Optoacoustic Monitoring of HIFU Therapy : Feasibility Study(p. 181) |
| by Khokhlova, T D |
| Study of Shear Wave Displacement Change Measured by 1D MRE During Focused Ultrasound Treatment : Preliminary Study(p. 186) |
| by Le, Yuan |
| Focal Beam Distortion and Treatment Planning in Abdominal Focused Ultrasound Surgery (p. 191) |
| by Liu, Hao-Li |
| Theoretical investigation of bubble heating in soft tissue (p. 196) |
| by Yang Xin Mai |
| A Study of Effects of Tissue Inhomogeneity on HIFU Beam (p. 201) |
| by Amin, Viren |
| HIFU Therapy Planning Using Pre-treatment Imaging and Simulation (p. 206) |
| by Amin, Viren |
| Induction of Apoptosis In Vivo in the Rabbit Brain with Focused Ultrasound (p. 213) |
| by Vykhodtseva, Natalia I |
| Towards the use of HIFU, in Conjunction with Surgery, in the Treatment of Malignant Brain Tumors (p. 218) |
| by Dahl, Elizabeth |
| "Ultrasonic stars" for time reversal focusing using induced cavitation bubbles (p. 223) |
| by Pernot, Mathieu |
| Ultrasound Augmented Thrombolysis, From Test Tubes to Clinical Applications (p. 228) |
| by Culp, William C |
| The Safety of Using High Frequency, Low Intensity Ultrasound to Enhance Thrombolysis (p. 233) |
| by Soltani, Azita |
| Focused Ultrasound Surgery for the Treatment of Recurrent Anaplastic Astrocytoma : A Preliminary Report(p. 238) |
| by Park Jung Wuk |
| Investigation of HIFU-induced anti-tumor immunity in a murine tumor model (p. 241) |
| by Hu, Zhenlin |
| Minimally-invasive Ultrasound Devices for Treating Low Back Pain (p. 246) |
| by Nau, W |
| Longitudinal and Shear Mode Ultrasound Propagation in Human Skull Bone (p. 251) |
| by White, P J |
| Local Frequency Dependence in Transcranial Ultrasound Transmission (p. 256) |
| by White, P J |
| A Hemispherical Sparse Phased Array Design For Low Frequency Transcranial Focused Ultrasound Applications Without Skull-Specific Phase Aberration Correction (p. 261) |
| by Yin, Xiangtao |
| Targeted Drug Delivery to the Brain by MRI-guided Focused Ultrasound (p. 266) |
| by HsuTreat, Lisa |
| Noninvasive Blood-Brain Barrier Opening in Live Mice (p. 271) |
| by Choi, James J |
| Multiphoton Imaging of Ultrasound Bioeffects in the Murine Brain (p. 276) |
| by Raymond, Scott |
| Development of microcapsules for shock wave DDS and angiogenesis using shock waves (p. 288) |
| by Tamagawa, M |
| Monitoring HIFU Lesion Formation In Vitro Via The Driving Voltage (p. 293) |
| by Thomas, Charles R |
| The Characteristics of Cavitation Bubbles Induced by the Secondary Shock Wave in an HM-3 Lithotripter and Its Effect on Stone Comminution (p. 298) |
| by Zhou, Yufeng |
| Microbubble Collapse upon Focused Ultrasound Exposure in Narrow Tubes (p. 303) |
| by Sassaroli, Elisabetta |
| Detecting Fragmentation of Kidney Stones in Lithotripsy by Means of Shock Wave Scattering (p. 308) |
| by Sapozhnikov, O A |
| Ultrasonically-Induced Cavitation In Vivo Depends on the Physiological State (p. 313) |
| by Vykhodtseva, Natalia I |
| Experimental Study of Ultrasound Contrast Agent Mediated Heat Transfer for Therapeutic Applications (p. 318) |
| by Razansky, D |
| Acoustic Backscatter Features Associated with Production of Tissue Homogenate using Pulsed Cavitational Ultrasound Therapy (p. 323) |
| by Parsons, Jessica E |
| Characterization of the HIFU-induced cloud cavitation for the optimization of high pressure concentration for lithotripsy (p. 328) |
| by Ikeda, Teiichiro |
| Thermal Lesion Development in Bubble-Mediated HIFU : Modeling(p. 333) |
| by Wu, Tianming |
| The Design And Implementation Of A Passive Cavitation Detection System For Use With Ex Vivo Tissue (p. 338) |
| by McLaughlan, James |
| Optical and Acoustic Monitoring of Bubble Dynamics at a Tissue-fluid Interface in Ultrasound Tissue Erosion (p. 343) |
| by Xu, Zhen |
| Monitoring the Development of HIFU-Induced Cavitation Activity (p. 348) |
| by Farny, Caleb H |
| Temperature Distribution In The Medium Containing Contrast Agent Microbubbles In HIFU Field (p. 353) |
| by Kaneko, Yukio |
| Relationship between Thermal Effect and Bubble Behavior in HIFU (p. 358) |
| by Watanabe, Shunsuke |
| Interstitial devices for treating deep seated tumors (p. 365) |
| by Lafon, Cyril |
| Targeted Prostate Thermal Therapy with Catheter-Based Ultrasound Devices and MR Thermal Monitoring (p. 370) |
| by Diederich, C |
| Integrated Interventional Devices For Real Time 3D Ultrasound Imaging and Therapy (p. 375) |
| by Smith, Stephen W |
| New Devices and Old Pitfalls in Shock Wave Therapy (p. 380) |
| by Bailey, Michael R |
| Two-Dimensional Ultrasonic Phased Arrays in an Application for Noninvasive Surgery : Random or Regular?(p. 385) |
| by Filonenko, E A |
| Dual Mode Transducer for Ultrasound Monitored Thermal Therapy (p. 390) |
| by Guillaume, Bouchoux |
| Capacitive Micromachined Ultrasonic Transducer Arrays for Integrated Diagnostic/Therapeutic Catheters (p. 395) |
| by Wong, Serena H |
| MRI-guided Transurethral Thermal Therapy for Prostate Disease : In-vivo Demonstration in a Canine Model(p. 400) |
| by Chopra, Rajiv |
| MRI-guided Therapeutic Ultrasound : In vitro Validation of a New MR Compatible, Phased Array, Contact Endorectal Ultrasound Transducer with Active Feedback Control of Temperature Evolution(p. 405) |
| by Salomir, Rares |
| A new HIFU probe for the treatment of the superficial venous insufficiency and varicose veins (p. 410) |
| by Pichardo, Samuel |
| Multi-Element Transducers For Conformal Transurethral Thermal Therapy (p. 415) |
| by Baker, Nicole |
| Intravascular Ultrasound Array for Treatment of Atrial Fibrillation (p. 420) |
| by Wong, Serena |
| A Phased Strip Array HIFU Transducer (p. 425) |
| by Rivens, Ian |
| On The Design of Dual Mode Arrays for Imaging and Therapy (p. 430) |
| by Otteson, Brett |
| Utilization of the k-space Computational Method to Design an Intracavitary Transrectal Ultrasound Phased Array Applicator for Hyperthermia Treatment of Prostate Cancer (p. 435) |
| by Al-Bataineh, Osama M |
| Acoustic and Cavitation Fields of Shock Wave Therapy Devices (p. 440) |
| by Chitnis, Parag V |
| A Low Cost Compact 512 Channel Therapeutic Ultrasound System For Transcutaneous Ultrasound Surgery (p. 445) |
| by Hall, Tim |
| A Design for a High-density Focused Ultrasound Addressing and Driving System (p. 450) |
| by ErichCaulfield, R |
| Dynamic Angular Control Of Thermal Therapy With Stationary Multi-Sectored Tubular Ultrasound Applicators Under MR Temperature Monitoring (p. 455) |
| by Kinsey, Adam M |
| Design and Evaluation of a 2-D Planar Therapeutic Ultrasound Phased Array (p. 460) |
| by Khatri, Danish S |
| The Antivascular Actions of Mild Intensity Ultrasound on a Murine Neoplasm (p. 467) |
| by Wood, Andrew K W |
| Localized Ablation of Thyroid Tissue by High-Intensity Focused Ultrasound : an Alternative to Surgery?(p. 472) |
| by Esnault, Olivier |
| Effect of ribs in HIFU beam path on formation of coagulative necrosis in goat liver (p. 477) |
| by Li, Faqi |
| Ultrasound-enhanced localized chemotherapy of drug-sensitive and multidrug resistant tumors (p. 481) |
| by Rapoport, Natalya Y |
| Investigation Of High Intensity Focused Ultrasound Ablation In Isolated Kidneys By MRI : Preliminary Results(p. 486) |
| by Jenne, J W |
| Efficacy of MR-guided Focused Ultrasound Thermal Ablation of Rabbit VX2 Tumors (p. 491) |
| by Yin, Xiangtao |
| High-intensity focused ultrasound for the treatment of solid tumor : Chinese clinical experience(p. 499) |
| by Takeuchi, Akira |
| High-Intensity Focused Ultrasound (HIFU) Using Sonablate-500 for the Treatment of Localized Prostate Cancer : 6-year experience(p. 504) |
| by Uchida, Toyoaki |
| A History of the Sonocare CST-100 : The First FDA-approved HIFU Device(p. 508) |
| by Muratore, Robert |
| The Early Effects of MRgFUS in Treating Uterine Fibroids (p. 513) |
| by Funaki, Kaoru |
| Can TRUS Power Doppler Predict the Preservation of Erectile Function in HIFU Treatment of Localised Prostate Cancer? : A Preliminary Study(p. 518) |
| by Hoh, I M |
| Ultrasound-Mediated Therapies Using Receptor-Targeted Nanodroplets (p. 525) |
| by Schumann, P |
| Pulsed-High Intensity Focused Ultrasound (HIFU) Exposures for Enhanced Delivery of Therapeutics : Mechanisms and Applications(p. 528) |
| by Frenkel, Victor Y |
| Calcium Imaging of Sonoporation of Mammalian Cells (p. 533) |
| by Sabens, David |
| Intracellular delivery of peptides and siRNAs using microbubble enhanced focused ultrasound (p. 538) |
| by Kinoshita, Manabu |
| Effect of Anticancer Drug on the Cell Sensitivity to Ultrasound In Vitro and In Vivo (p. 543) |
| by Kamaev, Pavel P |
| The activation of tissue factor by high intensity focused ultrasound-a pathway to acoustic-biochemical hemostasis (p. 548) |
| by Yang Xin Mai |
| Noninvasive Ultrasound Transdermal Insulin Delivery and Glucose Monitoring Using a Low-Profile Cymbal Array (p. 553) |
| by Park, E -J |
| Advanced Cavitation Induction for Improved Reproducibility and In Situ Monitoring of Sonodynamic Cancer Treatment (p. 558) |
| by Sugita, Nami |
| Characterization of Pulsed High Intensity Focused Ultrasound for Enhanced Drug and Gene Delivery (p. 563) |
| by Kam, Anthony W |
| Development of the Liposomes Entrapped Ultrasound Imaging Gas ("Bubble Liposomes") as Novel Gene Delivery Carriers (p. 568) |
| by Suzuki, Ryo |
| Initiate and Maintain Cavitation by Combining High Amplitude Bursts and Continuous Ultrasound Exposure in Culture Medium (p. 573) |
| by Mestas, J -L |
| Effects of Extracellular Calcium on Cell Membrane Resealing during Sonoporation (p. 578) |
| by Zhou, Yun |
| Molecular Dynamics Simulation of Water Pore Formation in Lipid Bilayer Induced by Shock Waves (p. 583) |
| by Koshiyama, Ken-ichiro |
| High Intensity Focused Ultrasound induced Gene Activation in Solid Tumors (p. 588) |
| by Liu, Yunbo |
| The FDA Perspective on Pre-Clinical Testing for High Intensity Focused Ultrasound Devices (p. 595) |
| by Harris, Gerald R |
| Nonlinear Restoring Behavior of Therapeutic Ultrasound Transducers (p. 599) |
| by White, P J |
| An Experimental Study of Real-time Monitoring of Acoustic Output in High-intensity Focused Ultrasound Using a PVDF Piezoelectric Sensor (p. 604) |
| by Ye, Fangwei |
| Development of a High Intensity Focused Ultrasound (HIFU) Hydrophone System (p. 609) |
| by Schafer, Mark E |
| Simple Schlieren System for Visualization of a HIFU Sound Field (p. 614) |
| by Kudo, Nobuki |
| A Robust Hydrophone for HIFU Metrology (p. 618) |
| by Zanelli, Claudio I |
| Analysis of a Protocol for Measuring Ultrasonic Power from Focused Therapeutic Ultrasound Transducers Using Radiation Force (p. 623) |
| by Maruvada, Subha |
| How to Measure HIFU Output Power Properly (p. 628) |
| by Shaw, Adam |
| Temperature Measurement in ex-vivo Bovine Liver using Fine-Wire and Thin-Film Thermocouples (p. 633) |
| by Morris, Hugh |
| Basic Principles of Lesion Formation during HIFU Therapy Demonstrated in an Egg White Phantom (p. 638) |
| by Wilzbach-Divkovic, Gabriela |
| Bubbles trapped at the coupling surface of the treatment head significantly reduce acoustic energy delivered in shock wave lithotripsy (p. 643) |
| by Pishchalnikov, Yuri A |
| Development of a Tissue-Mimicking Phantom for Evaluating the Focusing Performance of High Intensity Focused Ultrasound (p. 648) |
| by Zongyu, Jing |
| Quality Assurance and System Stability of a Clinical MRI-Guided Focused Ultrasound System : Three-Year Experience(p. 652) |
| by McDannold, Nathan |