Inferensys

Integration

AI Integration for Sectra Dental Imaging

A technical blueprint for embedding AI analysis into the Sectra Dental Imaging workflow, covering CBCT and panoramic X-rays for automated detection, measurement, and reporting to support orthodontists, oral surgeons, and general dentists.
Operations team reviewing AI workflow automation on laptop, workflow builder visible, casual office setup.
ARCHITECTURE AND OPERATIONAL IMPACT

Where AI Fits into the Sectra Dental Imaging Workflow

A technical blueprint for embedding AI into the dental and maxillofacial imaging workflow within Sectra PACS, focusing on CBCT and panoramic X-rays.

AI integration for Sectra Dental Imaging connects at three primary workflow points: study ingestion, clinical review, and reporting. Upon a DICOM study arrival from a CBCT or panoramic unit, an AI inference service—triggered via Sectra's Enterprise Archive API or a DICOM listener—can automatically analyze the dataset. This pre-processing identifies and annotates key structures: caries lesions, root canals, impacted teeth, the mandibular nerve canal, sinus floor proximity, and bone density for implant planning. These AI-generated annotations are stored as DICOM Structured Reports (SR) or as private tags within the study, making them instantly available when the dentist or oral surgeon opens the case in the Sectra viewer.

During the clinical review, the AI insights are presented as non-obtrusive overlays and measurement guides. For example, when planning an implant, the AI can pre-measure bone height and width along a proposed trajectory, flagging areas where the nerve canal is within a critical distance. For orthodontic work, automated cephalometric analyses can generate landmark points and angular measurements on a lateral cephalogram, populating a structured report template. This shifts the dentist's role from manual measurement and search to verification and clinical decision-making, reducing planning time from 30-45 minutes to under 10 minutes per complex case.

Governance and rollout require a phased approach. Initial pilots typically focus on a single, high-value use case like implant site analysis or third molar risk assessment. AI results are configured to be displayed as 'soft' findings that require clinician confirmation before being committed to the final report. An audit trail logs every AI inference, user interaction, and override. Integration is managed through Sectra's Clinical Collaboration Platform or a dedicated middleware layer that handles study routing, AI model versioning, and result reconciliation, ensuring the core PACS workflow remains stable and compliant with regulatory standards for dental practice.

DENTAL AND MAXILLOFACIAL AI WORKFLOWS

Key Integration Surfaces in Sectra Dental PACS

CBCT Analysis & Implant Planning

The 3D Cone Beam CT (CBCT) module is the primary surface for advanced dental AI. Integration here focuses on automating anatomical analysis and surgical planning workflows.

Key Integration Points:

  • Automated Landmarking & Cephalometrics: AI models can identify key craniofacial landmarks (sella, nasion, menton) and generate cephalometric analyses, reducing manual tracing time from 15-20 minutes to seconds.
  • Implant Site Assessment: Connect AI to automatically measure bone height, width, density, and identify critical structures (inferior alveolar nerve, maxillary sinus). Results populate planning tools for virtual implant placement.
  • Airway & TMJ Analysis: AI can segment and quantify airway volume or assess temporomandibular joint morphology, providing quantitative data for sleep apnea or orthognathic surgery planning.

Integration typically occurs via Sectra's API, where a DICOM study is sent for AI inference, and results are returned as DICOM Structured Reports (SR) or JSON for overlay within the 3D viewer.

SECTRA DENTAL IMAGING INTEGRATION

High-Value AI Use Cases for Dental and Maxillofacial Imaging

Integrating AI into Sectra Dental Imaging transforms CBCT and panoramic workflows from manual measurement and review to automated, quantitative analysis. These use cases connect AI models directly to the radiologist's or surgeon's review station, embedding intelligence into the diagnostic and planning process.

01

Automated Cephalometric Analysis

AI analyzes lateral cephalograms and CBCT reconstructions to automatically place landmark points and calculate key orthodontic measurements (SNA, SNB, ANB). Results are overlaid directly in the Sectra viewer, reducing manual tracing from 15-20 minutes to under a minute for treatment planning.

15-20 min -> <1 min
Analysis time
02

Implant Planning & Nerve Canal Mapping

For CBCT-based implant planning, AI automatically segments the mandibular canal, maxillary sinus floor, and adjacent teeth. It provides 3D proximity warnings and suggests optimal implant size/position, integrated into the Sectra planning module to reduce risk and streamline surgical guide design.

Batch -> Real-time
Segmentation
03

Caries & Periapical Lesion Detection

AI acts as a concurrent read for bitewings and periapicals, highlighting regions suspicious for caries, recurrent decay, or periapical radiolucencies. Findings are presented as a sidecar DICOM SR (Structured Report) within the Sectra worklist, prioritizing cases needing urgent review.

Prioritized Worklist
Clinical impact
04

Airway Volume Analysis for Sleep Apnea

AI segments the upper airway pharyngeal volume from CBCT scans in seconds, providing quantitative measurements (minimal cross-sectional area, volume) critical for sleep apnea diagnosis and surgical planning. Metrics auto-populate a structured report template within Sectra, replacing manual, inconsistent measurements.

Hours -> Minutes
Reporting time
05

TMJ Analysis & Condylar Resorption Tracking

AI automates the complex assessment of the temporomandibular joint, measuring condylar morphology, joint space, and detecting signs of degenerative change. For serial studies, it performs longitudinal registration and quantifies change over time, providing objective data for surgical or orthodontic decision-making within the Sectra timeline view.

Objective Tracking
Longitudinal care
06

Integration with Dental Practice Software

AI-derived findings and measurements (e.g., implant plan coordinates, caries risk scores) are routed via HL7/FHIR from Sectra to the dental practice management system (e.g., Dentrix, Open Dental). This closes the loop, embedding imaging intelligence directly into the patient chart and treatment plan for chairside access.

Closed-Loop Workflow
Operational value
IMPLEMENTATION PATTERNS

Example AI-Enhanced Dental Imaging Workflows

These concrete workflows illustrate how AI models can be embedded into the Sectra Dental Imaging platform to automate detection, enhance planning, and streamline reporting. Each pattern details the trigger, data flow, AI action, and system update.

Trigger: A new panoramic or bitewing X-ray is acquired and stored in the Sectra VNA.

Context/Data Pulled: The DICOM study is retrieved via Sectra's DICOMweb API. Patient age, prior study IDs (for comparison), and the ordering dentist's notes (via HL7 ORU) are fetched for context.

Model or Agent Action: A specialized caries detection AI model analyzes the image, identifying and scoring potential carious lesions. It outputs structured data including:

  • Lesion location (tooth number, surface)
  • Confidence score and estimated depth
  • Urgency flag (e.g., 'needs immediate review' for deep proximal lesions)

System Update or Next Step: Results are pushed back to Sectra as a DICOM Structured Report (SR) object, linked to the original study. The worklist in the Sectra Dental PACS is automatically updated:

  • Studies with high-urgency flags are elevated in the reading queue.
  • A pre-populated findings section is added to the report template.

Human Review Point: The dentist reviews the AI-highlighted areas on the image, confirms or rejects findings, and adjusts the report draft before final sign-off. Rejected findings are logged for model feedback.

SECURE, CLINICAL-GRADE AI PIPELINE

Implementation Architecture: Data Flow and System Integration

A production-ready architecture for embedding AI analysis directly into the Sectra Dental Imaging workflow, from DICOM ingestion to structured findings in the clinician's viewer.

Integration begins when a new CBCT or panoramic X-ray study is completed and sent to the Sectra PACS. Our system monitors the PACS via a secure, HL7/DICOMweb listener. Upon study arrival, the relevant series (e.g., a volumetric CBCT dataset) are retrieved. The system performs automatic de-identification if required for external AI processing, preserving only necessary metadata like laterality and imaging parameters. The images are then routed to our inference orchestration layer, which manages the queuing and parallel execution of specific AI models—such as those for caries detection, implant site bone density analysis, or mandibular canal identification.

AI results are formatted into a DICOM Structured Report (SR) or a JSON payload compatible with Sectra's Clinical Applications Platform (CAP). For a caries detection workflow, the SR includes annotated tooth numbers, lesion location (occlusal, interproximal), and confidence scores. This structured data is sent back to the Sectra PACS and linked to the original study. The findings are then presented within the Sectra IDS7 dental viewer as an interactive overlay or a side-panel findings list, allowing the dentist to review AI-highlighted areas, accept/reject findings, and incorporate them directly into their clinical note or referral letter. For implant planning, AI-generated 3D segmentations of the jawbone and nerve canal can be delivered as a secondary capture series for direct measurement within the viewer.

Governance is built into every step. All data movements are logged for audit trails. The system supports configurable human-in-the-loop review thresholds; for example, high-confidence caries may be auto-accepted into a draft report, while low-confidence or critical findings (e.g., a suspected periapical lesion near the nerve) always require clinician verification. Integration with Sectra's workflow manager allows for case prioritization—a study with AI-detected urgent pathology can be flagged and moved up the worklist. The entire pipeline is designed for zero disruption, operating as a background service that enriches the native Sectra environment without altering core clinician workflows. For practices using Sectra Dental Enterprise Imaging alongside practice management software, the AI-derived structured data can also be forwarded via HL7 to populate specific fields in the patient's dental record, closing the loop between imaging insight and clinical action.

SECTRA DENTAL AI INTEGRATION PATTERNS

Code and Payload Examples

Automating AI Analysis on Ingest

When a new CBCT or panoramic study is stored in the Sectra VNA, a DICOMweb STOW-RS request can trigger an AI inference pipeline. This pattern uses a webhook listener to fetch the study, route it to the appropriate dental AI model (e.g., caries detection, implant planning), and post the results back as a DICOM Structured Report (SR).

python
import requests
from orthanc_api import OrthancClient  # Example using Orthanc as a gateway

# Webhook handler for Sectra VNA STOW-RS notification
def handle_new_study(study_uid, modality="XC"):
    client = OrthancClient('http://orthanc:8042')
    
    # Fetch study from Sectra via DICOMweb WADO-RS
    study = client.get_study(study_uid)
    
    # Route based on modality and series description
    if "CBCT" in study.series_description:
        ai_endpoint = "http://ai-service:8000/infer/cbct"
        payload = {"study_uid": study_uid, "task": "implant_planning"}
    elif "PAN" in study.series_description:
        ai_endpoint = "http://ai-service:8000/infer/panoramic"
        payload = {"study_uid": study_uid, "task": "caries_detection"}
    
    # Call AI service
    ai_response = requests.post(ai_endpoint, json=payload, timeout=30)
    
    # Create and store DICOM SR with AI findings
    sr = create_dicom_sr(study_uid, ai_response.json())
    client.store_instances([sr])
AI-ENHANCED DENTAL IMAGING WORKFLOWS

Realistic Time Savings and Operational Impact

How AI integration for Sectra Dental Imaging changes daily operational metrics for dental practices and radiologists, based on typical workflows for CBCT and panoramic X-ray analysis.

MetricBefore AIAfter AINotes

Caries detection on bitewings

Manual visual review, 2-3 minutes per series

AI pre-highlights potential areas, 30-60 second review

Radiologist confirms AI findings; reduces oversight fatigue

Implant site planning measurements

Manual caliper tools, 5-10 minutes per site

AI auto-segments bone, suggests measurements, 1-2 minutes

Surgeon adjusts AI-proposed plan; critical for precision

Anatomical structure identification (IAN canal)

Manual tracing, 3-5 minutes per CBCT

AI auto-detects and labels, 30-second verification

Reduces risk of procedural injury; standardizes reports

Panoramic X-ray pathology screening

Full image review, 2-4 minutes per exam

AI flags regions of interest, 1-minute focused review

Especially valuable for high-volume screening clinics

Report drafting for common findings

Dictation or template selection, 3-5 minutes

AI generates draft findings from annotations, 1-2 minutes

Integrated with Sectra reporting; maintains radiologist control

Case prioritization in worklist

First-in, first-out or manual flagging

AI scores urgency (e.g., large lesion, fracture risk)

Critical cases surface faster; integrates with Sectra worklist

Follow-up comparison for lesion monitoring

Manual side-by-side review, 4-6 minutes

AI aligns images, highlights interval change, 1-2 minutes

Quantifies progression; supports longitudinal care plans

IMPLEMENTING AI IN A REGULATED CLINICAL ENVIRONMENT

Governance, Security, and Phased Rollout

A practical framework for deploying AI in Sectra Dental Imaging with appropriate controls, security, and a risk-managed rollout.

Integrating AI into a clinical workflow like Sectra Dental Imaging requires a governance model that addresses data privacy, model validation, and clinical oversight. The architecture typically involves a secure, containerized inference service that receives anonymized DICOM studies (CBCT, panoramic X-rays) via Sectra's Enterprise Imaging SDK or a DICOMweb listener. AI-generated findings—such as caries probability maps, implant site suggestions, or anatomical landmarks—are returned as DICOM Structured Reports (SR) or JSON payloads, which are then ingested back into the Sectra VNA and linked to the original study. All data flows must be encrypted in transit, and the AI service should operate within the health system's secure network boundary, with access logs and audit trails for every study processed.

A phased rollout is critical for clinical adoption and risk management. Phase 1 often begins with a non-diagnostic, assistive use case—like automated cephalometric tracing for orthodontic planning—deployed to a single pilot clinic. This allows validation of the integration's technical reliability and gathers initial user feedback without impacting diagnostic throughput. Phase 2 expands to detection support, such as highlighting potential periapical lesions on CBCTs for an oral surgeon's review, implemented with a clear 'AI Findings' overlay in the Sectra viewer that requires radiologist confirmation. The final phase introduces workflow automation, like auto-routing studies with suspected pathology to a specialist's worklist. Each phase includes parallel QA workflows where a percentage of AI-analyzed studies are reviewed by a human expert to monitor model performance and drift.

Security is paramount, especially when integrating with cloud-based AI models. For on-premises Sectra deployments, the AI service should be deployed within the same data center, with strict role-based access controls (RBAC) mirroring Sectra's user permissions. If using a cloud AI vendor, a zero-data-retention agreement and HIPAA-compliant BAA are required, with data sent only via de-identified, tokenized pipelines. All AI outputs should be stored as non-destructive annotations within the Sectra archive, preserving the original images and creating a full audit trail for compliance. Governance committees—including IT security, compliance officers, and lead clinicians—should approve each rollout phase, ensuring the integration enhances, rather than disrupts, safe and efficient dental care. For related architectural patterns, see our guide on AI Integration for Vendor Neutral Archives (VNA).

AI INTEGRATION FOR SECTRA DENTAL IMAGING

Frequently Asked Questions for Technical and Clinical Buyers

Practical answers for dental practice owners, IT teams, and clinical leads evaluating AI integration for Sectra's dental imaging platform, covering CBCT and panoramic workflows.

AI integrates as a background service that listens for new studies and enriches them with findings, without disrupting the clinician's primary workflow.

  1. Trigger: A new CBCT or panoramic X-ray is saved to the Sectra PACS.
  2. Context Pull: The AI service (hosted on-premise or in your compliant cloud) retrieves the anonymized DICOM series via DICOMweb or a secure REST API.
  3. AI Analysis: The service runs specialized dental AI models for tasks like:
    • Caries Detection: Highlighting potential decay in 2D and 3D reconstructions.
    • Anatomical Landmarking: Automatically identifying the inferior alveolar nerve canal, sinus floor, and mental foramen in CBCT scans.
    • Implant Planning: Suggesting optimal implant size and position based on bone density and anatomy.
  4. System Update: Results are sent back to Sectra as a DICOM Structured Report (SR) or as annotations (SC overlay). These are attached to the original study.
  5. Clinician Review: The dentist or oral surgeon opens the study in Sectra. AI findings are available as an overlay or a separate findings panel, providing a "second look" and quantitative data to inform diagnosis and planning.
Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.