| Preface |
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V | (1) |
| Congratulatory Addresses |
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VI | (2) |
| Past and Future Perspectives of the Symposium |
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VIII | (1) |
| The Yoshioka Memorial Prize, the Akutsu Prize, and the Koyanagi Scientific Exhibition Prize |
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IX | (2) |
| Contributors |
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XI | |
| Part I Total Artificial Heart Prospects for Implantable Circulatory Support |
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3 | (78) |
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8 | (26) |
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Ultracompact, High-Performance, Completely Implantable Permanent Electromechanical Total Artificial Heart |
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8 | (7) |
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Development of a Totally Implantable Intrathoracic Ventricular Assist Device |
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15 | (6) |
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Use of an Improved Linear Motor-Driven Total Artificial Heart in an Acute Animal Experiment |
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21 | (5) |
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Artificial Heart with a Highly Efficient and Sensorless Fuzzy-Controlled Energy Converter |
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26 | (8) |
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34 | (47) |
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Over 500 Day's Survival of a Goat with a Total Artificial Heart with 1/R Control |
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34 | (7) |
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Heat Dissipation from Artificial Hearts: Characterizing Tissue Responses and Defining Safe Levels |
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41 | (9) |
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Brain and Spinal Cord Lesions with Long-Term Total Artificial Heart Pumping |
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50 | (9) |
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An Adaptive Cardiac Output Control for the Total Artificial Heart Using a Self-Tuning Proportional-Integral-Derivative (PID) Controller |
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59 | (7) |
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Acoustical Characteristics of a Moving Actuator Type Total Artificial Heart |
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66 | (8) |
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74 | (7) |
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| Part II Heart Transplantation |
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81 | (22) |
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Bridging for Heart Transplantation by Different Types of Ventricular Assist Device |
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81 | (10) |
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Mechanisms of Exercise Response in Denervated Heart After Transplant |
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91 | (4) |
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What Will Happen to Permanent Left Ventricular Assist Device Recipients? Clues from Long-Term Outcomes of Heterotopic Heart Transplants |
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95 | (8) |
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| Part III Biomaterials Biomaterials: Facts and Fiction |
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103 | (60) |
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110 | (29) |
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Calcification and Thrombus Formation on Polymer Surfaces of an Artificial Heart |
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110 | (8) |
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Surface Modification Techniques for the Artificial Heart |
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118 | (9) |
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Durability of Endothelial Cell Monolayers Inside a Beating Cardiac Prosthesis |
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127 | (5) |
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Evaluation of a Newly Developed, Heparin-Bonded Artificial Lung in Chronic Animal Experiments |
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132 | (7) |
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139 | (24) |
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Alumina Ceramic and Polyethylene: Materials for the Double Pivot Bearing System of an Implantable Centrifugal Ventricular Assist Device |
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139 | (9) |
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Highly Blood-Compatible Surface Consisting of a Silicon-Containing Block Copolymer with Supramolecular Structure |
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148 | (4) |
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Development of a Fracture and Wear-Resistant Titanium Graphite Composite |
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152 | (4) |
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Influence of Microporous Structures on Mural Thrombosis and Endothelialization at Blood-Contacting Surfaces |
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156 | (7) |
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| Part IV Ventricular Assist Devices |
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163 | (20) |
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The Heart Mate Left Ventricular Assist System: Looking into the Future |
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163 | (9) |
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The Jarvik 2000 Oxford System. Prospects for the Future |
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172 | (11) |
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| Part V Clinical Application Ventricular Assist Systems: Clinical Application |
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183 | (86) |
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190 | (27) |
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International Paediatric Ventricular Assist Device Registry |
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190 | (7) |
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The UCLA Experience with Assist Devices as a Bridge to Transplantation in End-Stage Heart Failure |
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197 | (5) |
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Medically Unresponsive Pulmonary Hypertension: Heterotopic Cardiac Transplant Versus Mechanical Support |
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202 | (4) |
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First Experience of Novacor Implant at the Heart Institute of Japan |
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206 | (4) |
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Application of Wearable Novacor Left Ventricular Assist System for Patients with End-Stage Cardiomyopathy: Osaka Experience |
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210 | (7) |
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217 | (26) |
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Ventricular Circulatory Support with the Abiomed System as a Bridge to Heart Transplantation |
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217 | (6) |
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M. Carmen Octavio de Toledo |
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Bridging to Cardiac Transplantation with the Thoratec Ventricular Assist Device in Australia |
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223 | (7) |
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Patient Selection for Successful Outcome with the Cardio West Total Artificial Heart as a Bridge to Heart Transplantation |
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230 | (5) |
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Bridge for Transplantation with the Symbion and Cardiowest Total Artificial Heart: The Pitie Experience |
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235 | (8) |
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243 | (26) |
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The Effect of Cardiomyoplasty on Coronary Blood Flow and Diastolic Dimension of the Left Ventricle |
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243 | (5) |
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What Is the Ideal Frequency for Skeletal Muscle Ventricle Electrical Stimulation? |
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248 | (3) |
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Muscle Blood Pump Driven by Roller Screw Linear Actuator |
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251 | (6) |
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Circulatory Assistance Using Liner Skeletal Muscle Ventricle |
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257 | (12) |
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| Part VI Pathophysiology |
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269 | (62) |
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Mechanoenergetics of Natural Hearts: Contractility, Mechanical Energy, Oxygen Consumption, and Efficiency |
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269 | (12) |
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Treatment of Idiopathic Dilated Cardiomyopathy (Beta-Cardiomyopathy) by Insertion of a Left Ventricular Mechanical Support System |
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281 | (14) |
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Altered Hemodynamic, Humoral, and Metabolic Conditions in Nonpulsatile Systemic Circulation |
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295 | (8) |
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Influence of Long-Term Support Upon the Severly Failing Left Ventricle |
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303 | (5) |
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Sympathetic Nerve Adjustment to Artificial Circulation |
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308 | (5) |
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Pathological Study of a Goat That Survived for 532 Days with a Total Artificial Heart Using the 1/R Control Method |
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313 | (5) |
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The Role of Pulsatility in End-Organ Microcirculation After Cardiogenic Shock |
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318 | (5) |
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A New Index For Characterizing Pulsatility: Recovery of Renal Function |
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323 | (8) |
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| Part VII Engineering |
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331 | (30) |
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Further Development of the Moving-Actuator Type Total Artificial Heart |
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331 | (6) |
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The "Cool Seal" Concept: A Low-Temperature Mechanical Seal with Recirculating Purge System for Rotary Blood Pumps |
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337 | (7) |
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Remote Energy Transmission for Powering Artificial Hearts and Assist Devices |
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344 | (4) |
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New Insight into the Fracture and Wear Problems of a Mechanical Heart Valve--In Vitro Microstrain, Creep Rupture, and Wear Studies |
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348 | (5) |
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Basic Study Towards the Establishment of a Fabrication Technology for a Vacuum-Formed Blood Pump |
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353 | (8) |
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| Part VIII New Approaches |
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361 | (30) |
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A Review and Assessment of Investigative Methods for Mechanically Induced Blood Trauma: Special Aspects in Rotary Blood Pumps |
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361 | (9) |
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Remote Monitoring and Control of Artificial Hearts and Assist Devices |
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370 | (4) |
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Fractal Dimension Analysis of Heart Rate Variability with Left Ventricular Assist Device |
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374 | (4) |
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Parameter Optimization Approach to Estimation of Emax Under Cardiac Assistance |
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378 | (4) |
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Development and Clinical Application of Silicon-Coated Leak-Free Oxygenator with a Built-in Hemoconcentration Function |
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382 | (9) |
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| Part IX From Pulsatile to Nonpulsatile |
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391 | (26) |
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Magnetically Suspended Centrifugal Pump as an Implantable Ventricular Assist System |
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391 | (5) |
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In Vivo Evaluation of an Intraventricular Axial Flow Blood Pump |
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396 | (5) |
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Improvements in the Design of the Monopivot Magnetic-Suspension Blood Pump |
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401 | (6) |
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The DeBakey/NASA Axial Flow Ventricular Assist Device |
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407 | (10) |
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| Part X Posters |
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417 | (84) |
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The Design of a Linear Oscillatory Actuator for an Artificial Heart |
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417 | (4) |
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Reintroduction of the Jarvik/Cardio West Total Artificial Heart as a Bridge to Transplant |
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421 | (3) |
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Application of Adaptive Pole Assignment Method to Vascular Resistance-Based Control for Total Artificial Heart |
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424 | (4) |
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Relationship Between Atrial Pressures and the Interventricular Pressure in the Moving Actuator Type Total Artificial Heart |
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428 | (5) |
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Progress in Developing a Permanent Totally Implantable Pulsatile Impeller Total Artificial Heart |
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433 | (4) |
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The Combined Use of Extra-Aortic Balloon Counterpulsation and a Ventricular Assist Cup for Acute Heart Failure in Dogs-Effects on Regional Blood Flow |
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437 | (4) |
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Implantable Rotary Blood Pump Performs as Well as Pulsatile Pneumatic Assist Device |
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441 | (4) |
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