HeartSim
Cardiac electrophysiology & electromechanical simulation, from tissue substrate to a 12-lead ECG in one physics pipeline.
Overview
A native, cross-platform desktop application that simulates activation propagation, electrograms, the 12-lead ECG and wall mechanics across eleven validated pathology presets, with every parameter grounded in published literature.
Key Capabilities
- Activation & LAT maps, unipolar/bipolar electrograms and synthetic 12-lead ECG
- Wall motion, strain and ejection metrics via a Land contraction model
- Eleven pathology presets: Post-MI, LBBB, AF, ARVC, Brugada, WPW, HCM, VT and more
- GPU-accelerated 3D rendering, macOS & Windows native
At a Glance
Built With
CARDIAC NEXUS
Advanced Cardiac Signal Analysis for Arrhythmia Insight
The Challenge
Modern cardiac recording systems collect thousands of electrical signals, but existing tools analyze each signal independently. This fragmented approach loses critical information about the heart's global organizational principles and arrhythmia mechanisms.
Our Solution
CARDIAC NEXUS turns raw cardiac electrical data into a single, unified view of the whole chamber that reveals:
- Precise local activation timing across the whole chamber
- Automatic detection of conduction block
- Identification of rotor cores and arrhythmia drivers
- Predictive identification of targets of interest
Impact
Technologies
3D Printing Solutions
Precision 3D Printing & Multi-Modal Reconstruction
The Challenge
Complex medical procedures require navigating intricate 3D anatomy. Traditional 2D imaging creates cognitive load and limits precision, particularly for challenging patient-specific cases.
Our Innovation
We developed an integrated technological ecosystem combining:
- 3D-Printed 3D Printing: Patient-specific biocompatible templates derived from pre-procedural imaging, showing optimal access trajectories and ablation targets
- Photogrammetric Reconstruction: Transforming 2D photographs into high-fidelity 3D models with sub-millimeter precision
- Universal Mapping Reconstruction: Digital reproduction of cardiac electrical mapping from any system ()
- Computational Simulations: Pre-procedural "rehearsal" with outcome modeling and validation
Impact
Technologies
AgriHiv3
The digital hive of agriculture, farm management, digital field notebook and regulatory compliance in one intuitive platform.
Overview
AgriHiv3 helps farmers manage their fields, record activities and stay compliant with regulations from a single, simple platform, designed for people who work in the fields, not in front of a computer.
Key Features
- Field management with satellite maps and geolocated data
- Digital field notebook, always updated to current regulations and inspection-ready
- Intuitive dashboard and smart notifications
- Sustainability tools to monitor and reduce environmental impact
Recognition
Highlights
Academic Admission Management System
Complete Application Tracking for International Programs
The Challenge
Universities receiving hundreds of international applications face document chaos, lost files, fragmented communications, and lack of real-time visibility, creating stress for both administrators and candidates.
The System
End-to-end candidate management platform featuring:
- Dual Storage Architecture: Innovative redundant system (Google Drive + MySQL LONGBLOB) ensuring zero data loss and 24/7 availability
- Candidate Portal: Self-service status tracking, document upload, and direct messaging with administration
- Admin Dashboard: Real-time analytics, filtering, Gantt timeline visualization, and bulk communications
- Automated Workflows: Email notifications, status updates, and deadline reminders
- Program Management: Support for PhD, Post-Doc, Observer programs with custom requirements
Results
Technologies
EnzyFuel Biofuel Cells
Glucose-Powered Implantable Medical Devices
The Vision
Modern implantable devices, pacemakers, neurostimulators, continuous glucose monitors, face a fundamental constraint: batteries die. This creates the burden of repeat replacement surgeries every 5-10 years, infection risk, patient anxiety, and design limitations.
The Technology
EnzyFuel develops next-generation enzymatic glucose biofuel cells that harvest energy directly from physiological glucose levels:
- Buckypaper Electrodes: Carbon nanotube substrates providing high surface area (>1000 m²/g) and excellent conductivity
- GDH Functionalization: Glucose dehydrogenase covalently immobilized for selective glucose oxidation
- 3D-Printed Microfluidics: Custom channels mimicking capillary perfusion for optimal mass transport
- Oxygen-Independent: FAD-GDH eliminates oxygen dependency and toxic peroxide production
Performance Achieved
Market Opportunity
Target applications include continuous glucose monitors (CGM), cardiac pacemakers, and neurostimulators, addressing a $35B+ problem by eliminating 30-40% of revision surgeries. The technology enables perpetual self-powered implants using the body's own fuel.