Lung Digital Twin
Inside every lung is a map no one can fully see – a thousand branching airways, vessels threaded between them, and somewhere in the maze, a nodule the width of a grain of rice. From one lung CT scan, LTTS builds an AI digital twin that sees its anatomy, diagnoses what matters, and navigates the route in, so the device sent to find it no longer goes in blind.
Feature Highlights
- Auto-segments airways, vessels, and the five lobes into a 3D reconstruction with an anatomical reference baseline
- AI-automated with no need for manual annotation
- Detects and localizes tumors, fibrosis, emphysema, and obstruction
- Measurement and quantification (airway diameter, volumetrics)
- Risk assessment
- Explainable AI
- Virtual bronchoscopy navigation
- Optimal scope path
- Vessel-proximity mapping
- Branch-by-branch guidance
- Pre-procedural planning
- Airflow and tissue-mechanics simulation via CFD
- Disease-progression, treatment-response and outcome forecasting
- What-if scenarios run virtually
- Multi-planar and 3D rendering
- Quantitative measurement
- Tumor-growth progression analysis and monitoring
Track Record & Proof
Built on LTTS Engineering Intelligence, the lung twin was engineered with practicing pulmonologists and surgeons, grounding the model in real clinical workflows rather than a research prototype. Built today, extensible tomorrow. The structural, diagnostic, and procedural twins are built and demonstrable for the lung. A behavioral twin is part of the roadmap, with the same framework is designed to extend across organs.
Proof points
- Patented navigation method — “Method and system for guiding navigation of an imaging tool”
- 90%+ AI-automated segmentation, with no manual annotation
- Built with practicing pulmonologists and surgeons
- Trained on diverse, multi-source clinical data
- Reusable framework: lung today; liver, heart, brain and eye on the roadmap
Where the Twin Earns Its Place
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
What the twin does
Maps the optimal scope path and vessel proximity from the scan before the procedure begins.
Outcome
Navigate with a plan
- Faster to market: Up to 50% faster to market than building the organ-intelligence layer in-house - you start from a working, patented twin, not a blank sheet.
- Lower data burden: 90%+ automated segmentation cuts the dependence on massive, costly annotated datasets.
- Differentiation: Navigation and explainability become the layer that sets your device apart.
- Regulatory readiness: Explainable AI supplies the transparency case regulators and clinicians now expect.
- Scale across organs: One reusable framework: lung today; liver, heart, brain and eye next.
- Protected Solution: The navigation method at the core of the twin is patented.
The Intelligence Inside Your Next Device
One scan. One living twin. Structural, diagnostic and procedural today - behavioral on the roadmap, and a framework that scales across organs.
Resources