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Home NEWS Science News Technology

National Research Initiative Launches Trial for Innovative Mechanical Heart Pump

Bioengineer by Bioengineer
February 12, 2025
in Technology
Reading Time: 4 mins read
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ANN ARBOR, Mich. — In a groundbreaking approach to treating end-stage heart failure, a team of cardiac surgeons at the University of Michigan has successfully implanted a novel mechanical heart pump, marking a significant milestone in the realm of artificial heart technology. This procedure was performed as part of a clinical trial aimed at evaluating the efficacy of this new device against the standard treatment currently available for advanced heart failure. By integrating advanced engineering principles with clinical cardiology, the team hopes to offer new hope to the millions of Americans grappling with this challenging medical condition.

Heart failure, a chronic and progressive failure of the heart’s ability to pump blood effectively, affects approximately six million individuals across the United States. Within this demographic, a concerning number find themselves in a situation where they are either awaiting a life-saving heart transplant or have been deemed ineligible for such a procedure. The implications of these statistics underline the critical necessity for innovative and effective long-term therapeutic options for heart failure patients.

Traditionally, patients suffering from severe heart failure have been treated with a ventricular assist device (VAD). These devices are ingeniously designed to aid the compromised function of the heart’s left ventricle, enhancing blood flow and optimizing circulation throughout the body. Initially deployed as a temporary solution prior to a heart transplant, VADs have now evolved into viable long-term alternatives for patients whose conditions prohibit them from undergoing transplantation.

The study, aptly named INNOVATE (Investigation of a Novel, magNetically levitated VAD for the treatment of refractOry left Ventricular heArT failure), represents the inaugural comparative trial of the BrioVAD, a left ventricular assist device conceived by BrioHealth Solutions, Inc. Prior to this trial, VAD technology has remained predominantly stagnant, with few significant advancements made in enhancing patient outcomes or safety profiles. As a result, the stakes of this investigation are immensely high, underscoring the urgency to explore better therapeutic strategies for managing advanced heart failure.

The inaugural recipient of the BrioVAD at the University of Michigan is a female patient from Monroe, Michigan, whose participation in the trial may pave the way for the broader acceptance and implementation of this emerging technology. The eligibility criteria for this clinical trial are stringent; participants must exhibit significantly weakened left ventricular function, with an ejection fraction of 25% or less, despite receiving optimal medical therapy.

In an intriguing design, the study outlines a randomized assignment of participants: two-thirds of those enrolled will receive the BrioVAD, while the remaining third will be implanted with the HeartMate 3, currently the sole device routinely provisioned as a life-sustaining treatment for heart failure patients. The HeartMate 3 has garnered attention since its approval by the U.S. Food and Drug Administration in 2017, emerging as a benchmark of innovation in the field of mechanical heart devices.

Both the BrioVAD and HeartMate 3 utilize groundbreaking technology that incorporates magnetically levitated rotors. This design is intrinsically aimed at mitigating wear and tear on the components, thereby preserving the integrity of the blood as it is pumped. However, the BrioVAD seeks to innovate further by spinning at a marginally reduced speed, a tactical adjustment intended to minimize blood trauma. This represents a crucial step toward enhancing the overall safety and effectiveness of mechanical circulatory support systems.

From a structural standpoint, the BrioVAD distinguishes itself as approximately 20% smaller than the established HeartMate 3, illustrating a commitment to reduce the physical burden on patients. Such compact design considerations are paramount, especially given the necessity for patients to manage external components, like the driveline that connects the pump to an external battery pack. With the BrioVAD utilizing a single battery, patients find themselves carrying less equipment while still receiving support for their vital functions.

Power autonomy is a significant aspect of ventricular assist devices. The HeartMate 3 is engineered to provide up to 17 hours of continuous operation on a pair of batteries, while the newly introduced BrioVAD, despite its single-battery approach, offers around 12 hours of runtime. This trade-off could be pivotal for patients who lead active lifestyles, as it further simplifies the logistics of managing their medical support systems.

In a striking cautionary note, the FDA announced in April 2024 the recall of both the HeartMate II and HeartMate 3 in response to reports of biological material buildup, which posed a risk of pump blockages. While the HeartMate 3 has maintained a reputation for yielding superior outcomes in comparison to prior VAD iterations, the implications of such a recall emphasize the importance of having alternative devices available for patients who rely on these life-sustaining technologies.

The clinical team’s anticipation and optimism concerning the innovative trial speak volumes to the potential landscape shifts in heart failure treatment. The research aims to enroll up to 780 participants across 40 health systems in the U.S., setting the stage for extensive data collection that could radically alter the therapeutic pathways for patients with severe heart failure.

While advancements in VAD therapy have proliferated over the years, there remains a reticence in broader adoption of these technologies. The INNOVATE trial stands as a beacon of hope, not only for clinical practitioners seeking to enhance their treatment arsenal but also for patients yearning for improved outcomes in a landscape fraught with challenges. As the investigation unfolds, the insights gained will be instrumental in shaping future therapeutic strategies in the realm of heart failure care.

In conclusion, the introduction of the BrioVAD marks a transformative moment within cardiology, pushing the boundaries of what is possible in the treatment of advanced heart failure. The ongoing clinical trial may provide critical data that could redefine standards of care, introducing a new era of possibilities for those affected by this debilitating condition. As researchers navigate through this uncharted territory, the hope remains that patients will experience a renewed sense of vitality and improved quality of life.

Subject of Research: People
Article Title: University of Michigan Begins Trial of Novel Heart Pump for Heart Failure
News Publication Date: October 2023
Web References: https://clinicaltrials.gov/study/NCT06310031?term=NCT06310031&rank=1
References: https://briohealthsolutions.com/innovate/
Image Credits: University of Michigan

Keywords

Heart failure, Clinical trials, Ventricular assist devices, Mechanical systems, Medical technology, Cardiovascular disorders, Heart muscle, Heart ventricles, Cardiovascular disease, Heart disease

Tags: artificial heart technology advancementschronic heart failure managementclinical trials for heart devicesend-stage heart failure solutionsengineering in cardiologyimproving patient outcomes in heart failureinnovative heart failure treatmentslong-term heart failure therapiesmechanical heart pump trialnew hope for heart transplant patientsUniversity of Michigan cardiac researchventricular assist device comparison

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