
| Company Name | Philips |
| Founded | 1891 |
| Head office | Amsterdam, the Netherlands |
| Website | https://www.philips.nl/healthcare |
| Contact |
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Autosegmentation, MR-only workflow, Synthetic CT Generation
As a plug-in clinical application to Ingenia MR-RT, MRCAT Prostate + AutoContouring provides density information for dose calculations and accurate MRbased contours in as little as 20 minutes – all in a repeatable ‘one-click’ workflow. Because MRCAT Prostate + Auto-Contouring requires input from MR images only, it reduces the organization and coordination of scans, eliminates the effort involved in MR-CT registration, and saves the patient from undergoing multiple procedures.
MR-only workflow, Synthetic CT Generation
MRCAT Brain clinical application allows the use of MRI as the primary imaging modality for radiotherapy planning of primary and metastatic tumors in the brain without the need for CT. Detailed anatomical information for contouring and attenuation maps for dose calculations are both obtained from a single, submillimeter resolution 3D T1W mDIXON MR sequence. Artificial Intelligence (AI) is used for fast computation of continuous Hounsfield units directly on the MR console.
MR-only workflow, Synthetic CT Generation
MRCAT Pelvis supports MRI-only radiation therapy planning. A single MR examination provides soft-tissue contrast for target and organ-at-risk (OAR) delineation and continuous Hounsfield units for dose calculations. MRCAT (MR for Calculating ATtenuation) data can be exported to treatment planning systems for CT-equivalent dose calculations. The MR-based images also support CBCT-based patient positioning using soft-tissue contrast and a CT-like image appearance.
MR-only workflow, Synthetic CT Generation
MRCAT Head and Neck enables the use of MRI as a primary imaging modality for radiotherapy planning of patients with soft tissue tumors in the Head and Neck, without the need for CT. Powered by AI, MRCAT (MR for Calculating ATtenuation) images with CT-like density information are automatically generated from a single, high-resolution MR scan and can be used for CT-equivalent dose calculations and accurate patient positioning.