SourceBBC Technology•May 16, 2026Stalecollected in 31m

New 3D Imaging Advancements for Heart Procedures

Read original on BBC Technology

#healthcare-ai#medical-imaging#computer-vision3d-medical-imagingbbc3d-imaging

Learn how 3D spatial computing and AI are transforming high-stakes surgical precision in cardiology.

30-Second TL;DR

What Changed

Implementation of high-fidelity 3D imaging in cardiac surgery

Why It Matters

The adoption of AI-driven 3D reconstruction in medical imaging significantly reduces procedural risks. It sets a new standard for surgical planning and real-time guidance in cardiology.

What To Do Next

Explore medical imaging datasets on platforms like Kaggle or TCIA to understand how volumetric data is processed for AI-assisted diagnostics.

Who should care:Researchers & Academics

Key Points

•Implementation of high-fidelity 3D imaging in cardiac surgery
•Improved precision for surgeons during complex heart interventions
•Integration of real-time visualization to enhance patient outcomes

Deep Insight

Background and context from public sources — not the original article. 31 sources cited.

Enhanced Key Takeaways

•Augmented and Virtual Reality (AR/VR) technologies are increasingly utilized to provide immersive 3D environments for collaborative preoperative planning and real-time intraoperative overlays, enhancing surgeons' spatial understanding and precision beyond traditional 2D or static 3D displays.
•Artificial intelligence (AI) is being integrated into 3D imaging workflows to automate the segmentation of CT and MRI images, enabling the rapid creation of patient-specific 3D heart models and improving the efficiency and accuracy of electroanatomic mapping systems for procedures like cardiac ablation.
•Multimodality fusion imaging systems are emerging that combine real-time 2D fluoroscopy with pre-acquired 3D CT or MRI data, and integrate various imaging modalities such as ultrasound, CT, and angiography, to offer comprehensive and dynamic intraoperative guidance while potentially reducing radiation exposure for patients and staff.
•Real-time 3D Transesophageal Echocardiography (3D TEE) has become a pivotal intraoperative tool for guiding a broad spectrum of percutaneous structural heart interventions, providing superior anatomical definition and immediate assessment of device positioning and function during procedures.

Competitor Analysis

Siemens Healthineers Artis Icono.vision

Key Features: Integrated AI, real-time 2D/3D angiography, CT data integration, ultrasound monitoring
Primary Application: Coronary artery disease, heart valve interventions, stent implantation
Unique Selling Proposition: First-in-world clinical use of AI-integrated angiography system for precise treatment planning and reduced radiation.

SentiAR CommandEP

Key Features: Holographic guidance, real-time 3D heart models, hand gesture manipulation, AR headset
Primary Application: Electrophysiology (EP) cardiac mapping, cardiac ablation
Unique Selling Proposition: Interactive 360-degree holographic visualization, allowing surgeons to manipulate images hands-free in a sterile field.

Abbott EnSite Precision Cardiac Mapping System

Key Features: Advanced electroanatomic mapping, high automation, hybrid impedance/magnetic field technology
Primary Application: Diagnosis and treatment of arrhythmias, cardiac ablation
Unique Selling Proposition: High precision and accuracy with automated point collection for rapid, high-density mapping.

Biosense Webster CARTO System

Key Features: Electroanatomic mapping, magnetic tracking, 3D cardiac maps
Primary Application: Cardiac ablation, electrophysiology procedures
Unique Selling Proposition: Detailed 3D electroanatomic maps for visualizing and guiding catheter-based ablation.

Medtronic CardioInsight Noninvasive 3D Mapping System

Key Features: Non-invasive 3D cardiac maps, combines ECG signals with CT data, multi-chamber mapping
Primary Application: Characterizing abnormal heart rhythms, procedural planning outside EP lab
Unique Selling Proposition: Non-invasive mapping without catheterization, capturing rhythms across multiple chambers with a single beat.

inHEART AI Software

Key Features: AI-driven automated segmentation of CT/MR images, digital twin of the heart
Primary Application: Image-guided ablations, pre-procedural planning
Unique Selling Proposition: Rapid creation of highly detailed, interactive patient-specific 3D heart models within hours using AI automation.

BioCardia/CART-Tech Heart3D Fusion Imaging

Key Features: Fuses 2D X-ray images with annotated pre-procedure 3D anatomical heart models (MRI/CT)
Primary Application: Cardiac biotherapeutic delivery, biopsy procedures, augmented fluoroscopy
Unique Selling Proposition: Enhances 2D fluoroscopy with precise 3D anatomical context for interventional cardiology.

Company/System	Key Features	Primary Application	Unique Selling Proposition
Siemens Healthineers Artis Icono.vision	Integrated AI, real-time 2D/3D angiography, CT data integration, ultrasound monitoring	Coronary artery disease, heart valve interventions, stent implantation	First-in-world clinical use of AI-integrated angiography system for precise treatment planning and reduced radiation.
SentiAR CommandEP	Holographic guidance, real-time 3D heart models, hand gesture manipulation, AR headset	Electrophysiology (EP) cardiac mapping, cardiac ablation	Interactive 360-degree holographic visualization, allowing surgeons to manipulate images hands-free in a sterile field.
Abbott EnSite Precision Cardiac Mapping System	Advanced electroanatomic mapping, high automation, hybrid impedance/magnetic field technology	Diagnosis and treatment of arrhythmias, cardiac ablation	High precision and accuracy with automated point collection for rapid, high-density mapping.
Biosense Webster CARTO System	Electroanatomic mapping, magnetic tracking, 3D cardiac maps	Cardiac ablation, electrophysiology procedures	Detailed 3D electroanatomic maps for visualizing and guiding catheter-based ablation.
Medtronic CardioInsight Noninvasive 3D Mapping System	Non-invasive 3D cardiac maps, combines ECG signals with CT data, multi-chamber mapping	Characterizing abnormal heart rhythms, procedural planning outside EP lab	Non-invasive mapping without catheterization, capturing rhythms across multiple chambers with a single beat.
inHEART AI Software	AI-driven automated segmentation of CT/MR images, digital twin of the heart	Image-guided ablations, pre-procedural planning	Rapid creation of highly detailed, interactive patient-specific 3D heart models within hours using AI automation.
BioCardia/CART-Tech Heart3D Fusion Imaging	Fuses 2D X-ray images with annotated pre-procedure 3D anatomical heart models (MRI/CT)	Cardiac biotherapeutic delivery, biopsy procedures, augmented fluoroscopy	Enhances 2D fluoroscopy with precise 3D anatomical context for interventional cardiology.

Technical Deep Dive

3D Transesophageal Echocardiography (3D TEE): Utilizes matrix array transducers for real-time 3D single-beat full volume acquisitions, often incorporating improved ultrasound quantification software. Features include multiplanar reformatting (MPR) for precise linear and annular measurements, and the ability to visualize structures from various 'surgical' en-face perspectives.
Augmented Reality (AR) and Virtual Reality (VR) Systems: Involve head-mounted displays or spatial computing to project 3D virtual elements. These systems integrate imaging data from CT, MRI, 3D angiography, and 3D TEE, allowing for real-time overlay of virtual anatomical models onto the patient's body or immersive virtual environments for planning. Interaction often includes hand gestures to manipulate holographic models.
Electroanatomic Mapping Systems (e.g., CARTO, EnSite): Employ either magnetic tracking (using sensors embedded in catheters and external magnetic field generators/location pads) or impedance-based electrofield mapping (using body-surface patch electrodes). Hybrid systems combine both. They construct real-time 3D cardiac maps by tracking catheter movement and electrical activity, with some advanced systems offering high-density mapping using multi-electrode catheters (e.g., 64-electrode mini-basket catheters).
AI-Powered 3D Modeling Software (e.g., inHEART): Leverages artificial intelligence algorithms for fully automated segmentation of pre-procedural CT and/or MR images. This automation rapidly generates highly detailed, interactive 3D digital twins of the heart, optimizing pre-procedural planning for image-guided ablations.
Fusion Imaging Systems: Integrate live 2D fluoroscopic images with pre-acquired 3D anatomical models (e.g., from CT or MRI). The 3D model is overlaid onto the real-time 2D image, providing enhanced anatomical context and guidance during interventional procedures.
Robotic-Assisted Surgical Systems: Incorporate high-definition 3D imaging for visualization. Robotic instruments offer enhanced dexterity, allowing for rotations and curves not possible with human hands, facilitating minimally invasive procedures through small incisions.

Future ImplicationsAI analysis grounded in cited sources

Augmented and virtual reality will become standard tools for complex cardiac surgical planning and real-time intraoperative guidance.

The demonstrated benefits in improving spatial understanding, collaborative planning, and precision, coupled with ongoing technical advancements, will drive broader clinical integration and adoption.

Artificial intelligence will increasingly automate and personalize cardiac procedure planning and execution.

AI's capability to rapidly generate detailed patient-specific 3D models and enhance diagnostic accuracy will lead to more efficient, tailored, and safer treatment strategies, reducing human error and procedural time.

Cardiac interventions will become even less invasive with reduced radiation exposure.

Continuous advancements in real-time fusion imaging, non-invasive 3D mapping, and precise guidance systems will minimize the need for traditional invasive diagnostics and significantly lower patient and operator exposure to radiation.

Timeline

1990s

Invention of 3D ultrasound prototype by Olaf von Ramm and Stephen Smith at Duke University.

2002

Introduction of the first reasonably user-friendly real-time 3D echocardiography (RT3DE) for clinical use.

2011

Development of a system for real-time 3D stereo visualization for cardiac ablation using 4D ultrasound and magnetic tracking.

2017

Studies demonstrate improved surgical outcomes and reduced operating times using 3D-printed patient-specific heart models for preoperative planning.

2023-10

SentiAR receives FDA 510(k) clearance for its CommandEP holographic guidance system for EP cardiac mapping.

2026-03

Siemens Healthineers Artis Icono.vision system, an angiography system with integrated AI for real-time 2D/3D imaging, is introduced into clinical use.

1990s
Invention of 3D ultrasound prototype by Olaf von Ramm and Stephen Smith at Duke University.
2002
Introduction of the first reasonably user-friendly real-time 3D echocardiography (RT3DE) for clinical use.
2011
Development of a system for real-time 3D stereo visualization for cardiac ablation using 4D ultrasound and magnetic tracking.
2017
Studies demonstrate improved surgical outcomes and reduced operating times using 3D-printed patient-specific heart models for preoperative planning.
2023-10
SentiAR receives FDA 510(k) clearance for its CommandEP holographic guidance system for EP cardiac mapping.
2026-03
Siemens Healthineers Artis Icono.vision system, an angiography system with integrated AI for real-time 2D/3D imaging, is introduced into clinical use.