Application

Application

Application

Surgical Reality viewer

Surgical reality viewer is a CE- and FDA-Certified medical software application that automatically converts standard CT scans into patient-specific 3D models

Surgical reality viewer is a CE- and FDA-Certified medical software application that automatically converts standard CT scans into patient-specific 3D models

Surgical reality viewer is a CE- and FDA-Certified medical software application that automatically converts standard CT scans into patient-specific 3D models

Within minutes, it generates an interactive 3D model to support surgeons in preoperative planning and intraoperative guidance by enabling anatomical visualization, margin assessment, and navigation during VATS and RATS procedures.

CT-to-3D in minutes

Locally hosted

PACS integration

Workflow

Intuitive, Accessible, and Seamlessly Integrates

Intuitive, Accessible, and Seamlessly Integrates

Designed together with surgeons, the Viewer is intuitive, accessible, and seamlessly integrates into existing preoperative and intraoperative workflows. Every step is designed to reduce complexity, minimize clicks, and support fast, reliable surgical guidance. 

Designed together with surgeons, the Viewer is intuitive, accessible, and seamlessly integrates into existing preoperative and intraoperative workflows. Every step is designed to reduce complexity, minimize clicks, and support fast, reliable surgical guidance. 

Features

PACS Integrated and Locally Hosted

PACS Integrated and Locally Hosted

The Surgical Reality Viewer is PACS-integrated and runs fully on-premise within the hospital network, without requiring cloud connectivity. Patient CT scans can be securely retrieved via PACS or directly from imaging modalities within the hospital network.

The Viewer’s series selector previews DICOM series and allows quick selection and loading of the desired DICOM series. All data remains within the hospital network and can be reviewed, edited, and accessed across workstations. Results can also be optionally sent back to PACS.

The Surgical Reality Viewer is PACS-integrated and runs fully on-premise within the hospital network, without requiring cloud connectivity. Patient CT scans can be securely retrieved via PACS or directly from imaging modalities within the hospital network.

The Viewer’s series selector previews DICOM series and allows quick selection and loading of the desired DICOM series. All data remains within the hospital network and can be reviewed, edited, and accessed across workstations. Results can also be optionally sent back to PACS.

High-Fidelity CT Rendering

High-Fidelity CT Rendering

In addition to conventional 2D CT viewing, the Surgical Reality Viewer provides high-quality 3D volume rendering of CT data. This enables detailed visualization of lung anatomy and surrounding tissues in relation to the patient-specific 3D model. The result is improved spatial understanding and comprehensive anatomical assessment for surgical planning.

In addition to conventional 2D CT viewing, the Surgical Reality Viewer provides high-quality 3D volume rendering of CT data. This enables detailed visualization of lung anatomy and surrounding tissues in relation to the patient-specific 3D model. The result is improved spatial understanding and comprehensive anatomical assessment for surgical planning.

Automated Labeling of Anatomical Structures Within Minutes

Automated Labeling of Anatomical Structures Within Minutes

The loaded CT scan can be converted into a patient-specific 3D model with a single click. You select the side of the lung to process, and the AI automatically starts generating a 3D reconstruction. Within minutes, anatomical structures are labeled in color, including bronchi, arteries, veins, lobes, and segments.

The loaded CT scan can be converted into a patient-specific 3D model with a single click. You select the side of the lung to process, and the AI automatically starts generating a 3D reconstruction. Within minutes, anatomical structures are labeled in color, including bronchi, arteries, veins, lobes, and segments.

Anatomy-Based Segmental Borders

Anatomy-Based Segmental Borders

The automatically generated segmentations take both airway and arterial anatomy into account, ensuring anatomically correct segmental borders adapted to patient-specific anatomy. This enables accurate identification of segmental planes in relation to tumor margins, supporting precise segmentectomy planning and ICG-based delineation, according to the most recent technical recommendations. (Brunelli et al., 2023)

The automatically generated segmentations take both airway and arterial anatomy into account, ensuring anatomically correct segmental borders adapted to patient-specific anatomy. This enables accurate identification of segmental planes in relation to tumor margins, supporting precise segmentectomy planning and ICG-based delineation, according to the most recent technical recommendations. (Brunelli et al., 2023)

Easy-to-Use Interface Designed for Surgeons

Easy-to-Use Interface Designed for Surgeons

The interface is developed with and for surgeons, aligned with clinical workflows. It resembles standard DICOM viewers used in PACS systems for easy adoption. Using simple automated annotation tools, tumors and pulmonary lesions can be marked with a single click. Integrated planning tools support margin simulation and quantitative measurements on CT data. Anatomical structures can be easily toggled on and off to focus on the region of interest. The design remains intuitive, without unnecessary complexity.

The interface is developed with and for surgeons, aligned with clinical workflows. It resembles standard DICOM viewers used in PACS systems for easy adoption. Using simple automated annotation tools, tumors and pulmonary lesions can be marked with a single click. Integrated planning tools support margin simulation and quantitative measurements on CT data. Anatomical structures can be easily toggled on and off to focus on the region of interest. The design remains intuitive, without unnecessary complexity.

Surgeon Stays in Control

Surgeon Stays in Control

The automatically generated 3D model remains directly linked to the original CT data, ensuring continuous anatomical reference. If needed, the segmentations can be refined using integrated editing tools, including simple drawing and erasing functions. Once clinically validated, the interactive and deformable 3D model is generated.

The automatically generated 3D model remains directly linked to the original CT data, ensuring continuous anatomical reference. If needed, the segmentations can be refined using integrated editing tools, including simple drawing and erasing functions. Once clinically validated, the interactive and deformable 3D model is generated.

Interactive and Deformable 3D Model

Interactive and Deformable 3D Model

An interactive, patient-specific deformable 3D model can be generated within seconds, mimicking tissue behaviour during surgical manipulation. Advanced simulation techniques replicate how lung tissue responds to pressure and instrument interaction, improving spatial understanding of anatomy in its intraoperative context.

An interactive, patient-specific deformable 3D model can be generated within seconds, mimicking tissue behaviour during surgical manipulation. Advanced simulation techniques replicate how lung tissue responds to pressure and instrument interaction, improving spatial understanding of anatomy in its intraoperative context.

Intraoperative Guidance

Intraoperative Guidance

During surgery, the patient-specific 3D model remains continuously available and can be displayed alongside the endoscopic video (VATS/RATS), including seamless integration within robotic console monitors. This enables real-time navigation of anatomical structures and confirmation of landmarks.

After surgery, all cases remain available for review, educational use, and a clinical report can be added to the patient's electronic health record profile.

During surgery, the patient-specific 3D model remains continuously available and can be displayed alongside the endoscopic video (VATS/RATS), including seamless integration within robotic console monitors. This enables real-time navigation of anatomical structures and confirmation of landmarks.

After surgery, all cases remain available for review, educational use, and a clinical report can be added to the patient's electronic health record profile.

Workflow benefits

Optimized for Speed and Seamless Integration in Your Daily Workflow

Optimized for Speed and Seamless Integration in Your Daily Workflow

Connect to PACS using least-privileged access controls

Connect to RATS consoles for side-by-side 3D visualization

Connect to VATS towers for intraoperative 3D display

Plan behind your desk and take cases directly with you to the OR

Load CT scans in seconds, generate segmentations in minutes, and render complex lung tissue deformation in real time.

Evidence

Insights Driven
Innovation

Insights Driven
Innovation

Insights Driven
Innovation

-30 min

-30 min

Operating time for 3D VATS compared to 2D VATS

Operating time for 3D VATS compared to 2D VATS

> 97%

> 97%

Accurate Anatomical 3D Models

Accurate Anatomical 3D Models

52%

52%

Plan change after SR 3D model review

Plan change after SR 3D model review

Request a Demo

Experience patient-specific 3D planning for thoracic surgery. 

CT-to-3D in minutes

Locally hosted

PACS integration

Request a Demo

Experience patient-specific 3D planning for thoracic surgery. 

CT-to-3D in minutes

Locally hosted

PACS integration

Request a Demo

Experience patient-specific 3D planning for thoracic surgery. 

CT-to-3D in minutes

Locally hosted

PACS integration

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Stay informed about the latest developments

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Stay informed about the latest developments