Goal 2: Reduce Human Disease

Submitted by (@rezanezafat)

What do we know about Heart Failure with Preserved Ejection Fraction (HFpEF)

Mortality is similar between HFpEF and HFrEF but we have currently no viable therapeutic option for HFpEF. There have been many large trials, but they all failed. Our basic understanding of the disease is very limited which contributed to failures of many prior trials and wasting $$$. We know very little about the pathophysiology of the disease . It is time to get back to the basic science and use our new tools (e.g. ...more »

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Goal 3: Advance Translational Research

Submitted by (@efimov)

NHLBI Cardiovascular Engineering Strategy

Most impressive and impactful advances in CV diagnostics and therapies came in the last 50 years from CV engineering, including implantable devices and imaging technology. CV engineers are developing next breakthrough technology including tissue engineering and flexible electronics. However, organizational structure of NIH does not have an entity responsible for strategic development of CV engineering. NIBIB does not ...more »

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Goal 2: Reduce Human Disease

Submitted by (@dpinsky)

Can one integrate cardiac imaging studies with genetic,clinical, "omics", and historical data to predict disease and personalize

There are many novel imaging modalities, including radiographic, scintigraphic, sonographic, MR-based, and molecular for the heart and vessels. Patients have unique medical "signatures"- genetic risk factor profiles, epigenetic markings, "omics" profiles, and personal clinical and family history as well as symptom constellation and physical exam findings. Can these all be integrated into a single personalized profile ...more »

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Goal 3: Advance Translational Research

Submitted by (@mmarkl)

Comprehensive Assessment of Cardiovascular Physiology: Imaging of Structure, Function and Blood Flow

The development of cardiovascular disease is associated with changes in structure, function and blood flow within a complex and highly interconnected system. Current diagnostic tools focus on individual elements of the cardiovascular system and/or relatively simple parameters which do not reflect the true underlying pathophysiology. A novel multi-modular and multi-parametric approach based on new and promising imaging ...more »

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Goal 2: Reduce Human Disease

Submitted by (@bavtad)

Controversies exist regarding thoracic aortic disease imaging

Controversies exist regarding aortic disease imaging (the aorta as well as the aortic valve, including characterization in the presence of a bicuspid aortic valve (BAV)). Many imaging approaches are optimized for evaluation of coronary artery disease rather than aortic disease. Without accurate characterization, the degree of disease progression may be under estimated, patient symptoms may be discounted, and those who ...more »

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Goal 2: Reduce Human Disease

Submitted by (@nhlbiforumadministrator)

Detection of rupture prone small aortic aneurysms

Critical challenges in the assessment of aortic aneurysms are: (1) Availability of reliable animal models that simulate the human pathology, (2) Availability of molecular imaging resources – identification of biomarkers, development of targeted imaging probes and pre-clinical imaging methods, and plasma markers that predict whether an aneurysm is prone to rupture or dissection, (3) Bringing together a wide array of multi-disciplinary ...more »

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Goal 2: Reduce Human Disease

Submitted by (@nhlbiforumadministrator1)

Patient-Specific Blueprints to Guide Cardiac Surgery

In order to increase the success of robotic mitral valve repair, we need to stimulate a fusion of multi-modal functional imaging with 3-D valve models that can accurately predict valve shape and closure throughout the cardiac cycle, then develop surgical “blueprints” that overlay incision and suture maps on the surgeon’s console to guide perioperative robotic repair.

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