Digital Twins & In Silico Trials

Siemens Healthineers Digital Twin

by Siemens Healthineers AG

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Patient-specific cardiac digital twins enabling precision planning for structural heart interventions

Category

Digital Twins & In Silico Trials

Founded

2018

Headquarters

Erlangen, Germany

Overview

Siemens Healthineers has developed a portfolio of digital twin technologies for cardiovascular medicine, most notably patient-specific cardiac simulation models used to plan structural heart interventions such as transcatheter aortic valve replacement (TAVR), left atrial appendage occlusion, and mitral valve repair. These digital twins are constructed from CT and MRI imaging data using AI-powered segmentation and finite element modeling, enabling interventional cardiologists to virtually test device sizing, deployment angles, and potential complications before the procedure. The HeartNavigator and syngo.via software platforms integrate digital twin planning into clinical imaging workflows. Interventional cardiologists and cardiac surgeons at major heart centers worldwide use Siemens Healthineers digital twin tools to reduce procedural complications, optimize device selection, and train structural heart teams on complex cases. Clinical studies have demonstrated that TAVR planning using patient-specific simulation reduces paravalvular leak rates and improves device sizing accuracy. Siemens Healthineers has embedded digital twin capabilities into its broader imaging and diagnostics ecosystem, connecting simulation with real-time imaging guidance during procedures. Siemens Healthineers' strength in digital twins stems from its unique position as both an imaging equipment manufacturer and a software/AI company: access to the world's largest imaging dataset, combined with deep clinical relationships at major heart centers, enables training and validation of models that purely software companies cannot replicate. The company's digital twin approach is tightly integrated with its cardiovascular imaging products — SOMATOM CT scanners, MAGNETOM MRI, and ACUSON ultrasound — creating a closed-loop workflow from patient imaging to simulation to guided intervention that competing standalone software platforms cannot match.

Key Features

Trial Design Optimization

AI-optimized trial design including dosing schedules, endpoints, and patient stratification.

Regulatory Evidence Generation

Generate computational evidence packages aligned with FDA guidance for regulatory submissions.

Real-World Data Integration

Calibrate and validate models using real-world clinical data from healthcare systems.

Virtual Patient Modeling

Create digital patient models simulating drug responses across diverse population demographics.

In Silico Clinical Trials

Virtual clinical trials reduce time and cost of traditional Phase I-III studies by 30-50%.

Pros & Cons

Pros

  • +Virtual patient models simulate drug responses across diverse population demographics
  • +In silico clinical trials reduce time and cost of traditional Phase I-III studies by 30-50%
  • +Multi-scale modeling connects molecular interactions to organ-level physiological responses
  • +Regulatory acceptance growing with FDA guidance on computational modeling for device and drug evaluation
  • +Synthetic control arms reduce the need for placebo groups in rare disease clinical trials
  • +Predictive toxicology models identify safety liabilities before first-in-human dosing
  • +Integration with real-world clinical data improves model calibration and prediction accuracy

Cons

  • Model validation against real clinical data is essential but time-consuming and expensive
  • Regulatory acceptance of in silico evidence varies across jurisdictions and therapeutic areas
  • Computational models cannot fully capture the complexity of human biological variability
  • Requires extensive clinical data for initial model calibration and ongoing validation

Use Cases

Research Workflow Optimization

AI-powered optimization of research workflows to accelerate discovery timelines and improve reproducibility.

Data Analysis & Insights

Machine learning analysis of complex biological datasets to extract actionable insights and identify patterns.

Collaboration & Knowledge Management

Platform-enabled collaboration across distributed research teams with integrated data sharing and knowledge capture.

Last updated: February 19, 2026