Horos

Patient provides scan on USB.

Clinician imports DICOM files into Horos local DB.

Clinician uses MPR to realign planes for better visualization of pathology.

Findings are annotated using ROI tools.

Key images are exported as high-res JPEGs for the report.

AI output is converted to DICOM SEG format.

Both original scan and AI overlay are loaded into Horos.

Researcher uses 3D Volume Rendering to check spatial accuracy.

Manual measurements are compared against AI metrics.

Results are saved to the local database for audit.

Pre-op CT scan is imported.

3D Volume Rendering is activated with 'Bone' preset.

The 'Cutting' tool is used to simulate surgical approaches.

3D model is exported to STL for potential 3D printing.

Surgical team reviews the 3D rotation in the OR.

Interesting case identified in PACS.

Case is queried and retrieved into Horos.

PHIs are scrubbed via the Anonymizer tool.

Case is tagged with metadata (e.g., 'Aortic Aneurysm').

Case is shared with students via the local network.

CBCT data imported into Horos.

Clinician uses the 'Curved MPR' tool to trace the jawline.

Cross-sectional slices are used to measure bone width.

Nerve canal is highlighted using annotation tools.

Plan is shared with the lab via Horos Cloud.

Sites install Horos for local quality control.

Scans are reviewed for motion artifacts.

Anonymizer script is run on all files.

Files are pushed to the central research repository.

Audit logs are generated via Horos session history.

Clinician opens patient scan in Horos.

Volume Rendering shows the pathology in 3D (easy for laypeople to see).

Clinician 'rotates' the heart or joint in real-time.

Video of the 3D rotation is exported to the patient's phone.

Patient leaves with a better understanding of the procedure.