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Going Beyond Traditional Procedure Planning for Structural Heart Interventions

FEops HEARTguide™ is a unique, stand-alone solution. It combines predictive simulation with AI-based anatomical measurements to deliver results that are easy to integrate into a clinical workflow.

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The FEops HEARTguide™ 3-step process 
1. Patient CT-scan upload
2. FEops HEARTguide™ analysis
3. Centrally accessible insights*

Plan with more confidence

Select the optimal device size and implant position using unmatched predictive simulation.

 

 

Assess device apposition and frame deformation.

Improved efficiency and outcomes

Clinically proven results.

PREDICT-LAA study
15% reduction in the total number of closure devices used.
Twofold increase in procedural success with single device and deployment (+90 days).

PRECISE-TAVI study 
35% of pre-procedural decisions were changed, resulting in favorable clinical outcomes.

Save time with
AI-based anatomical analysis

Fast, accurate anatomical analysis with semi-automatic identification and measurements of anatomical landmarks.

Assess implant size and position options easily with the 3D viewer

 Take full control using the options for manual measurements
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Save Time with AI-based Anatomical Analysis

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LAAO - Multiplanar Reconstruction (MPR)

The new version of FEops HEARTguide™ – now with DICOM interface – has been developed for fast and accurate anatomical analysis. It includes semi-automatic identification and measurement of anatomical landmarks. The DICOM interface allows cardiologists, medical care providers, researchers, and others to easily conduct a full review of a patient’s anatomical landmarks.

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TAVI - MPR

Key benefits: 

  • Semi-automatic identification and measurement of anatomical landmarks.
  • Users have full control thanks to the manual measurement options.
  • Interactive analysis between 2D and 3D Viewer for each landmark.
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LAAO - Anatomical analysis

All the necessary tools close at hand
FEops HEARTguide™ provides general functionalities such as:
– Segmentation of cardiovascular structures.
– Visualization and image reconstruction techniques: 2D review and MPR.
– Tools for taking measurements and making annotations.

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TAVI - Anatomical analysis

our-solutions

Our Solutions

FEops HEARTguide™ is a procedure planning platform that has been specifically developed for interventional cardiologists. It enables them to plan percutaneous procedures quickly and accurately. Multiple workflows have been developed to suit different situations.

Clinical workflows in Structural heart*

More exciting innovations in the FEops pipeline

Collaborative platform

 

FEops HEARTguide, cloud-based planning platform, offers secure access from anywhere at any time to automated anatomical analysis and predictive planning for Structural Heart interventions. This new release gives you now the possibility to grant secure access to other FEops HEARTguide users outside your organization, for one or multiple of your cases. This new feature will make it easier and secure your case sharing with peers and industry partners and transforms FEops HEARTguide into a unique collaborative platform.

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Case(s) sharing

Key benefits: 

  • Case sharing with peers and industry partners *
  • Manual or automatic
  • e.g. proctoring, congress etc. 

(*) option to revoke access at any time.

LAAO-workflow

Left Atrial Appendage Occlusions

Improved efficiency and outcomes of LAAO procedures¹

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Predictive simulations
Abbott Amplatzer™ Amulet™

Get unique insights and make LAAO procedures more predictable with FEops HEARTguide™

FEops HEARTguide™ enables a clear assessment of a patient’s anatomy. The software provides a segmentation of the left side of the heart with semi-automatic identification and measurement of anatomical landmarks. The 3D Model can be rotated to enable detailed assessment of left atrial appendage (LAA) morphology. It is also possible to evaluate different device sizes and positioning options using predicted device appositionframe deformation and compression rate of the simulated LAA occluder. And physicians can select the optimal device size and implant position for a patient by using predictive simulation to see how a specific LAA occluder will interact with that patient’s unique anatomy.

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Predictive simulations
Boston Scientific WATCHMAN FLX™

Key benefits: 
 - Predict device apposition, frame deformation and compression rate.
 - Select the optimal device size and implant position for a specific patient.
 - C-arm angulation with pre-defined views: optimal projection and lateral-apical for TSP guidance.
 - Improve procedural success rates by using one device and one deployment¹

¹ PREDICT-LAA , J Am Coll Cardiol Intv. Feb 22, 2023. Epublished DOI: 10.1016/j.jcin.2023.01.008

TAVI-workflow

Transcatheter Aortic Valve Implantation

Improved decision-making for complex TAVI cases

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Medtronic Evolut™ PRO+

Plan even your most challenging TAVI cases with confidence

FEops HEARTguide™ lets physicians accurately predict which patients are at risk for new pacemakers or paravalvular leaks via aortic root assessment and patient-specific digital simulations. It enables them to select the best size and position of valve for a specific patient. It also allows for better assessment of implant depth with precise and predictive simulations for different device sizes, including data-driven insights such as frame deformation, displacement of leaflet calcification, and paravalvular-leak predictions.

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Boston Scientific ACURATE neo2™

Key benefits
 - Assess potential complications for different device sizes and positions.
 - Accurately predict which patients are at risk for new pacemakers or paravalvular leaks.²
 - Most appropriate treatment modality for patients with Bicuspid Aortic Valve (BAV) .³
 - Select proper angulation with pre-defined views: “Cusp Overlap” view and  “Three-cusp” view.

²Hokken T. - Van Mieghem N. et al. Computed Tomography-Derived Predictive Simulations of Transcatheter Aortic Valve Replacement in Challenging Anatomies. CRT-700.26 JACC Cardiovascular Interventions, February 2022
³Dowling C. et al, Ongoing experience with patient-specific computer simulation of transcatheter aortic valve replacement in bicuspid aortic valve. https://doi.org/10.1016/j.carrev.2023.01.015. CardiovascularRevascularizationMedicine, In Press, Jan 2023

Transcatheter Mitral Valve Replacement

Early evidence supports the use of FEops simulation technology in TMVR

TMVR-workflow
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Neo-left ventricle outflow tract (neo-LVOT) assessment
● Early research² supports the use of FEops simulation technology in transcatheter mitral valve replacement (TMVR).
● FEops HEARTguide provides a finite element simulation based on segmentation of the CT scan. This enables it to calculate the neo-LVOT area at various heights of deployment.

Transcatheter mitral valve replacement in mitral annulus calcification (MAC)
● Computer simulation may have the potential to improve patient selection for transcatheter mitral valve replacement in the presence of significant MAC.³

¹FEops HEARTguide is currently not indicated for clinical use in TMVR
²Chehab et al, JACC State-of-the-Art Review VOL. 80, NO. 7, 2022 Management of Patients With Severe Mitral Annular Calcification
³Karady J, et al, JCCT ref 1052  DOI: 10.1016/j.jcct.2017.12.007Transcatheter mitral valve replacement in mitral annulus calcification – “The art of computer simulation”

*In EU, UK, Canada and Australia, FEops HEARTguide™ is available for AI-enabled anatomical analysis and computer simulation with indication for use in TAVI and LAAO. In USA, FEops HEARTguide ™ is available for AI-enabled anatomical analysis with indication for use in TAVI and LAAO and for computer simulation in LAAo with WATCHMAN™, WATCHMAN™FLX, Amplatzer™ Amulet™.
**FEops HEARTguide is currently not indicated for clinical use in TMVR