Ionoptix LLC — Department of Health and Human Services SBIR Phase I: NHLBI
Ionoptix LLC — SBIR Phase I award from Department of Health and Human Services.
- Amount
- $205,113
- Agency
- Department of Health and Human Services · National Institutes of Health
- Program / Phase
- SBIR · Phase I
- Topic
- NHLBI
- Solicitation
- PA16-302
- NAICS
- —
- Place of performance
- MA
- Period
- 2017-04-01 → 2018-06-30
Description
The isolated cardiac myocyte represents the smallest fully functional model system of heart muscle Cardiac myocytes contract in response to electrical stimulation and are useful to characterize heart function in terms of contractility calcium ion regulation and action potential Currently the number of cardiac myocytes that can be examined and analyzed using current techniques is on the order of myocyte per min Higher throughput is required however to accommodate faster drug discovery and a growing motivation in basic research toward large scale rapid data collection and analysis This grant is focused on validating the feasibility of fully automated identification of non overlapping viable myocytes and quantification of contractility and calcium ion regulation in at least myocytes in min In the pharmaceutical setting this is a significant enhancement in phenotype quantification that expedites assessment of drug efficacy toxicity and will greatly reduce costs by permitting companies to eliminate more dangerous or marginal compounds In Aim we will develop a lightweight x y moveable inverted microscope that will scan a field of isolated cardiac myocytes The goal of Aim is to identify isolated and viable cardiac myocytes by their morphology and sarcomeric pattern such that at least useable myocytes are identified within min In Aim a novel image analysis method will quantify position size orientation and dynamic characteristics of contraction relaxation function for all isolated cardiac myocytes within the field of view again with the goal of myocytes within min IonOptix is located in Massachusetts and has provided microscopy based equipment for assessing intracellular calcium regulation and contraction relaxation function for the last years This project will result in a new device useful for rapidly characterizing the mechanical function and ion regulation of heart muscle cells This device will be especially useful in heart research and to screen potential heart drugs quickly