Virtonomy
Provides a web-based platform and services that create and use de-identified, CT-derived digital patient and animal twins for virtual implantation, high-performance medical simulation, cohort analytics, and regulatory-grade reporting to support medical device development and in‑silico evidence generation.
Industries
Nr. of Employees
small (1-50)
Virtonomy
Paul-Heyse-Straße 6, 80336 Munich, Germany
Products
Digital patient twin database
A curated collection of de-identified, CT-derived 3D anatomical models (human and animal) annotated with measurements and cohort statistics for device testing and selection.
Virtual patient simulation platform
Interactive platform for virtual implantation, simulation setup, and result reporting intended to accelerate design cycles and support regulatory evidence generation.
Digital patient twin database
A curated collection of de-identified, CT-derived 3D anatomical models (human and animal) annotated with measurements and cohort statistics for device testing and selection.
Virtual patient simulation platform
Interactive platform for virtual implantation, simulation setup, and result reporting intended to accelerate design cycles and support regulatory evidence generation.
Services
Access to a cloud platform hosting de-identified digital patient and animal models, interactive 3D visualization, cohort selection, and virtual implantation tools.
Conduct advanced simulations (hemodynamics, device/organ interaction, benchtop test emulations) and deliver validated results and visuals for design validation or regulatory use.
Ingestion, cleaning, de-identification and conversion of medical image data into validated 3D anatomical models for use in simulation and analysis.
Workshops and consulting to draft virtual testing plans, align simulation methods with FDA/EMA and ASME guidance, and generate submission-ready evidence packages.
Implementation and tuning of automated device placement algorithms to propagate device positions across cohorts and accelerate iterative testing.
Access to a cloud platform hosting de-identified digital patient and animal models, interactive 3D visualization, cohort selection, and virtual implantation tools.
Conduct advanced simulations (hemodynamics, device/organ interaction, benchtop test emulations) and deliver validated results and visuals for design validation or regulatory use.
Ingestion, cleaning, de-identification and conversion of medical image data into validated 3D anatomical models for use in simulation and analysis.
Workshops and consulting to draft virtual testing plans, align simulation methods with FDA/EMA and ASME guidance, and generate submission-ready evidence packages.
Implementation and tuning of automated device placement algorithms to propagate device positions across cohorts and accelerate iterative testing.
Expertise Areas
- Digital twin platforms for medical devices
- In silico clinical trials and digital evidence
- Cardiovascular device simulation and optimization
- Medical image processing and DICOM pipelines
Key Technologies
- Smoothed Particle Hydrodynamics (SPH)
- Meshless simulation methods
- Fluid-structure interaction (FSI)
- DICOM processing and 3D reconstruction
News & Updates
Guide describing the customer process from consultation, patient selection, model development and regulatory documentation when using the digital twin platform.
Explainer on the Smoothed Particle Hydrodynamics method and its applications for medical simulation of fluids and device interactions.
Description of the DICOM standard, metadata importance, and the company's pipeline for converting medical image data into 3D patient models.
Guide describing the customer process from consultation, patient selection, model development and regulatory documentation when using the digital twin platform.
Explainer on the Smoothed Particle Hydrodynamics method and its applications for medical simulation of fluids and device interactions.
Description of the DICOM standard, metadata importance, and the company's pipeline for converting medical image data into 3D patient models.