The first clinical use of the BiVACOR Total Artificial Heart
BiVACOR 全人工心脏首次临床应用
基本信息
- 批准号:10698258
- 负责人:
- 金额:$ 156.95万
- 依托单位:
- 依托单位国家:美国
- 项目类别:
- 财政年份:2023
- 资助国家:美国
- 起止时间:2023-08-01 至 2026-07-31
- 项目状态:未结题
- 来源:
- 关键词:AdultAffectAnatomyBloodBlood flowCardiovascular DiseasesCase StudyCause of DeathCessation of lifeChildClinicalClinical ResearchClinical Trials Data Monitoring CommitteesDevelopmentDevicesDocumentationEpidemicFDA approvedFailureFeasibility StudiesFriendsFutureGoalsGrantHealthHealth Care CostsHealthcare SystemsHeartHeart TransplantationHeart failureHospitalsHumanInstitutional Review BoardsInvestmentsLeftMagnetismMechanicsMedicalMembraneOrgan DonorOutcomePathway interactionsPatientsPerformancePhasePhysiologicalProceduresPumpQuality of lifeSafetySchemeSmall Business Innovation Research GrantStudy SubjectSystemSystems IntegrationTechnologyTimeTransplantationUnited StatesUpdateVentricularWomanbiomaterial compatibilityblood pumpcommercial applicationcommercializationcostcourse developmentdata submissioneffective therapyfirst-in-humanimplantationimprovedin vivoinnovationleft ventricular assist devicemanufacturemanufacturing processmechanical circulatory supportmenproduct developmentprogramssafety and feasibilitysuccesstotal artificial hearttransplantation therapyventricular assist device
项目摘要
SUMMARY/ABSTRACT
Heart Failure (HF) is a devastating epidemic affecting more than 23 million patients worldwide; in the U.S. alone,
1,000,000 new cases are reported each year. While heart transplantation provides the best treatment option for
many patients, less than 6,000 procedures take place globally each year. Consequently, it is estimated that
50,000 – 100,000 patients could immediately benefit from mechanical circulatory support.
Many circulatory support devices are available for patients who require left ventricular support, but few options
exist for patients who would benefit from biventricular support. With the exception of transplantation, the optimal
approach to biventricular failure is the replacement of the native heart with a Total Artificial Heart (TAH).
Traditional approaches have used volume displacement pumps, which have inherent limitations due to their
large size, flexing membranes, and valves that conspire to reduce the durability and lifetime of the device. The
same limitations were observed throughout the early application of VAD technology, which prompted a transition
to rotary blood pumps for size reduction and increased durability. Today, more than 60,000 patients are
supported with rotary VADs. Capitalizing on the advantages of rotary blood pump technology, the BiVACOR
TAH is small, reliable, blood-friendly and has inherently balanced blood flows.
Under the previous SBIR grants, the system components of the BiVACOR TAH were significantly improved and
validated on the benchtop and in-vivo. BiVACOR has entered the final product development and manufacturing
phase and wishes to utilize the SBIR II scheme to use the BiVACOR TAH system for the first time clinically via
an FDA-approved Early Feasibility Study (EFS). To achieve this goal, the following specific aims will be
completed: 1) clinical study initiation; 2) evaluate the safety and performance of the BIVACOR TAH in a clinical
study; and 3) evaluate the outcomes of the Early Feasibility Study and identify required device updates. The
commercial application and viability of this product will be demonstrated and will encourage additional investment
for full commercialization.
The world-wide impact of a commercially viable, long-term mechanical replacement to the failing human heart
will be tremendous. The wait for patients desperately requiring a heart transplant will go from years to off-the-
shelf availability, thereby quickly providing a vastly improved quality of life. Leveraging the successful durability
and small size of similar technologies used for ventricular assistance into the BiVACOR rotary TAH provides a
promising pathway to finally achieve the goal of a reliable, biocompatible, physiological, and ultimately practical
replacement to the failing human heart.
摘要/摘要
心力衰竭(HF)是一种毁灭性的流行病,影响了全球超过2300万患者。仅在美国,
每年有1,000,000例新病例。心脏移植提供了最好的治疗选择
许多患者每年在全球范围内进行少于6,000个程序。因此,据估计
50,000 - 100,000名患者可以立即受益于机械电路支持。
许多电路支撑设备可用于需要左心室支撑的患者,但很少选择
适用于将受益于双脑室支持的患者。除移植外,最佳
室室衰竭的方法是用完全人造心脏(TAH)替换天然心脏。
传统方法使用了体积位移泵,它们由于其而具有继承的局限性
大尺寸,弯曲的机制和阀门降低设备的耐用性和寿命。
在整个VAD技术的早期应用中,都观察到相同的限制,这促使过渡
旋转血泵以减小尺寸和增加的耐用性。如今,超过60,000名患者
由旋转vad支撑。利用旋转血泵技术的优势,双子座
塔(Tah)很小,可靠,对血液友好,具有天生的平衡血液流动。
在先前的SBIR补助下,双虎TAH的系统组件得到了显着改善,并且
在台式和体内验证。 Bivacor进入了最终产品开发和制造业
阶段并希望利用SBIR II方案在临床上首次使用Bivacor TAH系统。
FDA批准的早期可行性研究(EFS)。为了实现这一目标,以下具体目标将是
完成:1)临床研究计划; 2)评估临床中双歧杆菌TAH的安全性和性能
学习; 3)评估早期可行性研究的结果并确定所需的设备更新。这
将展示该产品的商业应用和可行性,并鼓励额外的投资
全面商业化。
商业上可行的长期机械替代人的全球影响力对失败的人心的影响
将是巨大的。等待迫切需要心脏移植的患者将从几年到现年
货架可用性,从而迅速提供了大大改善的生活质量。利用成功的耐用性
以及用于双室旋转tah的少量类似技术,可提供
最终实现可靠,生物相容性,物理和最终实用的目标的有希望的途径
取代人类心脏。
项目成果
期刊论文数量(0)
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Daniel Timms其他文献
Daniel Timms的其他文献
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{{ truncateString('Daniel Timms', 18)}}的其他基金
BiVACOR - A Physiological, Durable and Blood-Friendly Total Artificial Heart
BiVACOR - 生理、耐用且血液友好的全人工心脏
- 批准号:
10620855 - 财政年份:2017
- 资助金额:
$ 156.95万 - 项目类别:
BiVACOR - A Physiological, Durable and Blood-Friendly Total Artificial Heart
BiVACOR - 生理、耐用且血液友好的全人工心脏
- 批准号:
10402886 - 财政年份:2017
- 资助金额:
$ 156.95万 - 项目类别:
BiVACOR - A Physiological, Durable and Blood-Friendly Total Artificial Heart
BiVACOR - 生理、耐用且血液友好的全人工心脏
- 批准号:
10214075 - 财政年份:2017
- 资助金额:
$ 156.95万 - 项目类别:
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