| Literature DB >> 32944384 |
Michael A Pritchett1, Krish Bhadra2, Mike Calcutt3, Erik Folch4.
Abstract
[This corrects the article DOI: 10.21037/jtd.2020.01.35.]. 2020 Journal of Thoracic Disease. All rights reserved.Year: 2020 PMID: 32944384 PMCID: PMC7475575 DOI: 10.21037/jtd-2020-60
Source DB: PubMed Journal: J Thorac Dis ISSN: 2072-1439 Impact factor: 2.895
Guided bronchoscopy platforms
| Product | Manufacturer | Technology | Peer-reviewed journal publications |
|---|---|---|---|
| superDimension™ navigation system (version 7.1 and below) | Medtronic | Electromagnetic tracking with a steerable locatable guide and working channel | Over 100 original research articles to date representing data from over 75 clinical studies (2,8) |
| superDimension™ navigation system version 7.2 with fluoroscopic navigation technology | Medtronic | Tomosynthesis-based fluoroscopic navigation: digital tomosynthesis reconstruction of multiple fluoroscopic images. A local registration feature uses fluoroscopy and a proprietary algorithm to update the relationship between the target and the catheter intraprocedurally | Aboudara |
| SPiN Thoracic Navigation System™ | Veran Medical | Based on an external electromagnetic generator, uses tip-tracked instruments for continuous guidance in a trackable airway map, an inspiration/ expiration computed tomography (CT) scan protocol, and an algorithm to pair inspiratory and expiratory CT scans with the respiratory cycle in order to compensate for respiratory variation (respiratory gating)* | 4 clinical studies (3,27,28,47) and 1 case report (48) on guided bronchoscopy with the SPiNDrive system™ for navigated bronchoscopy*. “All-in-One” study currently recruiting (30) |
| LungPoint™ virtual bronchoscopic navigation (VBN) system | Broncus Medical | Image-based synchronization technique (partly manual). No registration of integrated tracking method | Eberhardt |
| Bf-Navi | Olympus, Tokyo, Japan | Virtual bronchoscopy. No integrated tracking method | Oki |
| Archimedes™ VBN system | Broncus Medical | Registration is conducted using infrared cameras and radiopaque markers to create augmented fluoroscopic views (“fused fluoroscopy”) during bronchoscopic transparenchymal nodule access | Herth |
| LungVision™ | BodyVision Medical | Uses augmented fluoroscopy: Artificial intelligence with standard c-arm and dynamic registration tracking to fuse preprocedural CT scans with intraprocedural fluoroscopy | No peer-reviewed journal publications to date. Several abstract reports (14-17) |
| Cone-Beam Computed Tomography | Philips (Best, The Netherlands), Siemens Healthcare (Forchheim, Germany) | Overlays three-dimensional CBCT data on live fluoroscopy (augmented fluoroscopy) with automatic positional adaptation | Hohenforst-Schmidt |
| Ion™ endoluminal robotic system | Intuitive Surgical | Uses direct continuous visualization and fiber-optic, real-time shape-sensing technology | Fielding |
| Monarch™ Platform | Auris Surgical Robotics | Electromagnetic-based. Uses “fused navigation” of multiple data modalities (electromagnetic navigation, direct visualization, real-time optical pattern recognition, machine learning) to integrate the preprocedural CT into an intraprocedural interface | REACH study (56), Rojas-Solano |
*The SPiN Thoracic Navigation System™ also includes SPiN Perc™, a system of navigated transthoracic needle aspiration (27,57-59) which is outside the scope of this review article yet still subject to CT-to-body divergence.