Innovation in Cardiac Diagnostics

Our Technology

Revolutionary ECG diagnostics powered by AI/ML and backed by global network infrastructure

Artificial Intelligence & Machine Learning

Patient-Contextual ECG Interpretation

Our proprietary artificial intelligence and machine learning model revolutionises ECG interpretation by incorporating patient-specific context. Unlike traditional ECG interpretation systems, our AI/ML model takes into account each patient's current medical conditions, medications, and clinical history to provide more accurate and personalised diagnostic insights.

Context-Aware Analysis

  • Analyses patient comorbidities
  • Considers current medications
  • Factors in age and clinical history
  • Adapts to individual patient profiles

Enhanced Clinical Decision Support

  • Reduced false positive rates
  • Personalised risk assessments
  • Context-specific alerts
  • Improved diagnostic accuracy

Continuous Learning

Our AI/ML system continuously improves, learning from new data while maintaining patient privacy and data protection standards.

Clinical Validation

Validated against traditional interpretation methods, our AI provides reliable clinical insights.

Model Training

How Our Model is Built

Training Data Sources

Our model is trained on a diverse, multi-source dataset designed to reflect the breadth of real-world cardiac presentations. Data is drawn from four complementary sources to maximise coverage across patient demographics, conditions, and clinical contexts:

Public ECG Datasets

Established, openly available ECG corpora used to provide a broad foundation of labelled waveform data across a wide range of cardiac conditions.

Proprietary Collected Data

ECG recordings collected directly through HyperLXC Medical's own devices and clinical partnerships, capturing real-world signal quality and patient variety.

Synthetic & Augmented Data

Algorithmically generated and augmented samples used to increase representation of rare conditions and edge cases that are underrepresented in real-world corpora.

EHR & Patient Context Data

Structured electronic health record data — including active medications, diagnoses, and clinical history — paired with ECG recordings to train the model's contextual reasoning.

Patient Context Fusion

The defining characteristic of our model is its ability to reason about an ECG in the context of the individual patient — not in isolation. During training, ECG waveform data is paired with structured patient context, teaching the model to weight its interpretation differently depending on clinical factors such as:

  • Active medications known to alter ECG morphology (e.g. QT-prolonging drugs, antiarrhythmics, digoxin)
  • Pre-existing cardiac and non-cardiac diagnoses that affect baseline waveform appearance
  • Patient age, which influences normal ECG reference ranges
  • Acute clinical context, such as electrolyte disturbances or post-procedural state

This fusion approach means the same waveform pattern can be interpreted appropriately as normal or clinically significant depending on who the patient is — reducing both false positives and missed findings.

Privacy & Data Handling

All training data — whether sourced from public datasets, proprietary collections, or paired EHR records — is handled under a strict data governance framework:

  • Patient identifiers are removed prior to any use in model training
  • EHR-derived context data is processed and stored in compliance with UK GDPR and applicable healthcare data security standards
  • Proprietary data collection is conducted under appropriate ethical and information governance frameworks
  • Synthetic data generation does not involve or reproduce real patient records
  • Access to training data is restricted and audited throughout the model development lifecycle
Infrastructure

Global Network — AS208915

HyperLXC Medical operates its own Autonomous System (AS208915) providing enterprise-grade network infrastructure with global reach and exceptional reliability. We maintain presence at major internet exchanges including AMS-IX Amsterdam, ERA-IX Amsterdam, and LONAP London, ensuring optimal routing and connectivity for healthcare services worldwide.

Network Specifications

  • Worldwide network presence
  • IPv6 native connectivity
  • London (LONAP), Amsterdam (AMS-IX, ERA-IX)
  • 10 Gbps connections
  • Redundant infrastructure

Performance

  • Low-latency real-time diagnostics
  • High-throughput data transmission
  • 99.9% uptime guarantee
  • Automatic failover protection
  • Load balancing across paths

Security

  • Dedicated network infrastructure
  • DDoS protection
  • Encrypted data transmission
  • Network-level security controls
  • Healthcare standards compliance
Regulatory & Quality

Standards & Compliance

Medical Device Development

  • Designed for UK medical device regulatory pathways
  • Quality management system implementation
  • Clinical evaluation framework
  • Risk management processes
  • Post-market monitoring protocols

Data Protection & Security

  • GDPR compliance framework
  • Healthcare data security standards
  • End-to-end encryption
  • Secure data transmission protocols
  • Access control and audit logging

Interoperability

  • Modern healthcare data standards
  • API-first architecture
  • System integration capabilities
  • Standard ECG data formats
  • Flexible integration options

Clinical Standards

  • Standard medical terminology support
  • Clinical coding compatibility
  • Industry-standard ECG formats
  • Evidence-based algorithms
  • Clinical safety considerations
Hardware

ECG Device Features

Portable Design

Compact and lightweight for use in any clinical setting, from GP surgeries to hospital wards.

Instant Results

Real-time AI analysis providing diagnostic insights within seconds of ECG capture.

Cloud Connected

Seamless cloud integration for remote monitoring, data storage, and multi-device management.

User Friendly

Intuitive interface requiring minimal training, designed with clinical workflows in mind.

Research & Development

Innovation at Our Core

Our commitment to advancing cardiac diagnostics drives continuous research and development in:

  • AI/ML Algorithms: Developing new models for improved diagnostic accuracy
  • Clinical Validation: Ongoing studies in partnership with healthcare institutions
  • User Experience: Iterative design improvements based on clinician feedback
  • Network Technology: Enhancing connectivity and data security
  • Integration Capabilities: Expanding compatibility with healthcare systems

We welcome collaboration with research institutions, NHS trusts, and private healthcare providers to advance the field of cardiac diagnostics.