
The purpose of the Saving tiny Hearts Society is to provide the seed money for promising research projects such as these which can help all children afflicted with Congenital Heart Defects.
Our funding enables grantees with new ideas to generate enough data so that our grantees can apply for much larger funding from entities such as the National Institute of Health.
Seed money is too scarce, but is an absolute necessity to allow for future medical breakthroughs.
We are committed to funding these and many additional grass roots research projects in the future.
3-D Cardiac Tissue Engineering: Using Decellularized Scaffolds For Engineering Whole Heart
Principle Investigator Sunjay Kaushal, MD, PHD
Children's Memorial Hospital, Chicago
Amount Awarded: $100,000
Dr. Kaushal’s project’s goal is to generate new heart tissue (the entire heart) utilizing stem cells from the actual patient (not embryonic stem cells) who is the intended recipient of the tissue; this revolutionary work has been explained to us by our medical advisory board, as the “Holy Grail” of heart defect (and medical) research.
In the words of Dr. Kaushal, "It is our goal that one day, children in heart failure will be able to save their own lives by re-growing hearts or
parts of their heart with their own stem cells. Stem cells can now be derived from a skin biopsy from the intended recipient.
We are working on recreating the whole heart using as a scaffold decellularized (bleached) porcine hearts.
Stem cells derived and harvested from the intented patients could be harvested and re-injected into our scaffold to re-make new muscle.
This work will hopefully prolong and improve the lives of children suffering heart disease."
Effects of Miniaturized, Bloodless Circuits on the Systemic Inflammatory Response in Neonatal Cardiopulmonary Bypass
Principle Investigator Ross M. Ungerleider, MD
Oregon Health & Science University
Amount Awarded: $70,000
During cardiac surgery conventional heart-lung bypass machines in very small infants requires filling the bypass machine circuit with blood donated from a donor. Evidence is increasingly accumulating to suggest that the transfused blood received during cardiopulmonary bypass (CPB) has a significantly detrimental impact on the child by triggering a profound inflammatory response. The magnitude of the inflammatory response is known to be responsible for many of the life threatening complications of cardiac surgery.
This project’s goal is the continued development of the miniaturization of the bypass circuit resulting in a bloodless prime of the circuit. The project involves utilizing a CPB system known as Minimal Extracorporeal Circulation System (MECC) Bypass, which has been successfully utilized in adults, but the system has not been applied or investigated in children.
The goals of the project are:
- To further refine the experimental miniaturization CPB circuit into a system that can more easily be applied to the clinical arena (close the gap between experimental concept and the routine clinical application).
- Further characterize the inflammatory benefits of Miniaturized Bloodless Prime Bypass using refined technology.
Myocardial Protection and Support in Cyanotic Congenital Heart Disease
Henry Michael Spotnitz, M.D.
Columbia University
Amount Awarded: $52,000
Synopsis of research project:
Dr. Spotnitz and colleagues are proposing research to understand the development of ventricular stiffness in patients with single ventricle. Techniques from the past will be used to measure stiffness during the Fontan operation to compare stiffness during the Norwood, Glenn and Fontan operations. They will also use a special echocardiography technique to measure the thickness and mass of the ventricle, because water retention in the ventricle can cause stiffness, and water retention increases mass and thickness. Ventricular stiffness will also be measured by techniques that do not require surgery. If it is known that a ventricle is stiff before surgery is started, treatments may be used to reduce stiffness or special management techniques can be planned during surgery.
Ventricular stiffness will be measured before, during and after the three stages of surgery for single ventricle. By comparing the results at the three stages and by relating stiffness to the results of surgery, Dr. Spotnitz and colleagues hope to develop a plan for a clinical trial that will improve the results of surgery for all blue babies with single ventricle. The results of these studies, by improving understanding of how these operations affect the heart, could improve the results of surgery for all babies with congenital heart defects.
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