Project Grant R44HL147787

Award Date 5/1/19
Completion Date 3/31/24
Dollars Obligated $1.7M
Federal Grant Program
93.837
Assistance Type
Project Grant
Place of Performance
Maryland, USA
Similar Awards
The National Heart, Lung, and Blood Institute (NHLBI) of the National Institutes of Health (NIH) awarded Sigt LLC a $293,880 Project Grant under the Cardiovascular Diseases Research (CFDA 93.837) program. The purpose of this Phase 1 SBIR grant is to develop a novel "Intraoperative Cardiac Pulsed Field Ablation Lesion Assessment System" (PFA-LAS) that can monitor procedure parameters and confirm durable lesion formation during cardiac pulsed electric field ablation procedures for atrial...
The National Heart, Lung, and Blood Institute (NHLBI), under the Cardiovascular Diseases Research program (CFDA 93.837), awarded a $323,230 Project Grant to Sirona Medical Technologies, Inc. to develop a multi-channel radiofrequency and pulsed field energy source generator for cardiac ablation. The goal of this R61 phase award is to develop and validate hardware to interface Sirona's proprietary catheter technology with RF and PF generator platforms, establish safe and effective signal...
This Project Grant award from the National Heart Lung and Blood Institute (NHLBI), under the Cardiovascular Diseases Research program (CFDA 93.837), provides $343,203 to Cyion Technologies LLC to develop a novel in vitro electrophysiology system for high-throughput measurement of intracellular action potential (IAP) in human-derived cardiomyocytes. The system leverages a 3D nanoelectrode array (NEA) technology to enable scalable recordings of IAP signals from many individual cardiomyocytes. This...
This $437,461 federal Project Grant award from the National Heart, Lung, and Blood Institute (NHLBI), funded under the Cardiovascular Diseases Research program (CFDA 93.837), supports the development of a novel stabilization catheter device for His pacing lead implantation. The goal is to improve the accuracy and ease of His bundle pacing, an emerging alternative cardiac resynchronization therapy (CRT) for heart failure patients. The project aims to refine a deployable suction-tipped lead...
This Project Grant award from the National Heart, Lung, and Blood Institute (NHLBI), under the Cardiovascular Diseases Research program (CFDA 93.837), provides $293,653 to 3DT Holdings, LLC to develop a software tool for optimizing cardiac resynchronization therapy (CRT), conduction system pacing (CSP), and left ventricular endocardial pacing (LVEP) therapies. The goal is to reduce non-responder rates and improve patient identification for these treatments, especially for patients with...
This Project Grant award of $305,000.00 was provided by the National Science Foundation (NSF) under the NSF Technology, Innovation, and Partnerships (CFDA 47.084) federal grant program. The award will fund the development of a non-invasive radiofrequency sensing technology for home-based monitoring of heart and lung function. The research objectives include designing improved antennas for ambulatory use, improving signal processing techniques to mitigate interference, and validating the system's...
The National Heart, Lung, and Blood Institute (NHLBI) awarded a $295,153 Project Grant under the Cardiovascular Diseases Research program (CFDA 93.837) to Safebeat RX Inc. The funding supports the development of a novel, smartwatch-enabled technology that allows patients with low-risk atrial fibrillation to safely initiate antiarrhythmic medications at home. The technology analyzes post-drug ECG data taken by patients using a machine learning algorithm and provides this information to...
This $275,000 Project Grant award from the National Science Foundation (NSF) Technology, Innovation, and Partnerships (CFDA 47.084) program supports the development and validation of an automated method for continuous post-operative cardiac rhythm diagnosis. The project, led by Atrility Medical, Inc., aims to improve the accuracy and accessibility of post-operative rhythm monitoring through the use of high-quality atrial electrogram signals. The anticipated outcome is a real-time, continuous...
This National Science Foundation (NSF) Small Business Technology Transfer (STTR) Phase I award provides $275,000 to Neuraltrak, Inc. to develop and validate a method for continuous, real-time cardiac rhythm diagnosis and display using high-quality atrial electrogram data. The project aims to address limitations of current post-operative cardiac rhythm monitoring approaches, which often fail to accurately interpret rhythm due to poor atrial signal quality and patient variability. The...
This Project Grant award from the National Heart, Lung, and Blood Institute (NHLBI), under the Cardiovascular Diseases Research program (CFDA 93.837), provides $395,306 to Cutcath LLC to develop and evaluate a novel electrosurgical catheter device for treating acute aortic dissection. The device, called the Cutcath Dissection Septum Cutting Catheter (DSCC), aims to facilitate more effective endovascular aortic repair (TEVAR/EVAR) by allowing complete fenestration of the aortic dissection septum....

HIGH FREQUENCY DIELECTRIC SENSING CARDIAC RADIO FREQUENCY ABLATION MONITORING AND LESION ASSESSMENT SYSTEM - ATRIAL FIBRILLATION (AF) AFFECTS OVER 6 MILLION INDIVIDUALS IN THE USA AND IS A SIGNIFICANT CAUSE OF MORBIDITY AND MORTALITY. PERCUTANEOUS CATHETER RADIO FREQUENCY ABLATION (RFA) TREATMENT OF AF IS THE STANDARD OF CARE FOR TREATMENT OF AF. HOWEVER, CURRENT PROCEDURES HAVE A ~50% RECURRENCE RATE, DUE TO INCOMPLETE ABLATIONS AND CARRY A ~4% RISK OF COMPLICATIONS, DUE TO EXCESSIVE RF ENERGY DEPOSITION. THERE IS AN URGENT UNMET CLINICAL NEED TO IMPROVE THE SAFETY AND EFFICACY OF CARDIAC RFA PROCEDURES. TO ADDRESS THIS CLINICAL NEED; WE ARE DEVELOPING AN INTRAOPERATIVE HIGH FREQUENCY DIELECTRIC SENSING LESION ASSESSMENT SYSTEM (HFDS-LAS). OUR SOLUTION INVOLVES; DESIGNING THE ABLATION ELECTRODE OF AN RFA CATHETER AS A "MINIATURE RADAR" TO MONITOR THE ELECTRICAL PROPERTIES OF THE TISSUE ADJACENT TO THE ANTENNA- ELECTRODE. THE SYSTEM COMPRISES; A) STEERABLE ABLATION CATHETER WITH AN INTEGRATED ANTENNA-SENSOR ABLATION ELECTRODE, B) VECTOR NETWORK ANALYZER TO MEASURE TISSUE DIELECTRIC PROPERTIES IN A FREQUENCY RANGE OF 10 MHZ TO 4 GHZ, C) RF FILTER HARDWARE TO FILTER ABLATION (KHZ) AND MEASUREMENT (MHZ-GHZ) FREQUENCIES AND D) INTUITIVE GRAPHIC USER INTERFACE WHICH DISPLAYS PROCEDURE PARAMETERS, STATE OF LESION FORMATION AND WARNS OF ADVERSE EVENTS AT HIGH SPEED AND ACCURACY. DURING PHASE 1 SBIR PROJECT, WE PROTOTYPED A FIRST-OF-ITS-KIND CARDIAC HFDS-LAS COMPRISING A 9.5FR RFA CATHETER WITH AN ANTENNA-SENSOR ELECTRODE, BAND SELECTIVE FILTER HARDWARE AND A PROTOTYPE GUIDANCE USER INTERFACE (GUI). IN BENCH AND ANIMAL (N=5) TESTING, WE DEFINITIVELY DEMONSTRATED FEASIBILITY OF INTRAOPERATIVELY MONITORING CARDIAC RFA PROCEDURES TO ACCURATELY: CONFIRM AND QUANTIFY ELECTRODE-TISSUE ELECTRICAL CONTACT; CHARACTERIZE TISSUE; CONFIRM AND ASSESS LESION FORMATION/EXTENT OF ABLATION; AND PREDICT MICRO-BUBBLES AND STEAM-POPS TO TITRATE RF POWER TO SAFELY AND EFFICACIOUSLY DELIVER ATRIAL LESIONS. THE SYSTEM IS COMPATIBLE WITH ALL EP CATHLAB EQUIPMENT E.G. CARDIAC MAPPING SYSTEMS, ETC., WITH NO CHANGES TO CARDIAC RFA PROCEDURAL WORKFLOW. DURING PHASE 2 OF THE PROJECT, WE WILL OPTIMIZE AND TEST TO FINALIZE DESIGN OF A CLINICAL GRADE HFDS-LAS, COMPRISING 8.5FR CATHETER WITH OMNIDIRECTIONAL ANTENNA-SENSOR ELECTRODE, HIGH FIDELITY FILTER HARDWARE AND A GUI DISPLAYING TISSUE TYPE, LESION FORMATION AND CRITICAL PROCEDURE PARAMETERS. THE SYSTEM WILL UNDERGO VERIFICATION AND PERFORMANCE TESTING IN VITRO AND VALIDATION TESTING IN ANIMALS TO DEFINITIVELY QUANTIFY SYSTEM PERFORMANCE; AND ENABLE SUBMIT A PRE SUBMISSION AND A SUBMISSION TO THE FDA FOR IDE CLEARANCE TOWARDS A SAFETY AND EFFICACY CLINICAL TRIAL.

Posted 4/13/22, 12:00 AM