Inferensys

Integration

AI Integration for Sectra Veterinary Imaging

A technical blueprint for embedding AI into Sectra's veterinary imaging workflow to automate species-specific anatomy recognition, fracture detection, and report drafting, integrated with practice management systems.
Operations team reviewing AI workflow automation on laptop, workflow builder visible, casual office setup.
ARCHITECTING FOR SPECIES-SPECIFIC ANATOMY

Where AI Fits into Veterinary Imaging Workflows

Integrating AI into Sectra Veterinary Imaging transforms the diagnostic workflow for small and large animal cases by embedding intelligent analysis directly into the radiologist's review environment.

AI integration for Sectra Veterinary Imaging connects at three primary points: the worklist, the viewer, and the reporting module. For the worklist, AI algorithms analyze incoming DICOM studies (X-ray, CT, MRI) to prioritize cases—flagging potential fractures in equine limbs or thoracic effusions in canine studies—and reorder the reading queue to surface critical findings first. Within the Sectra viewer, AI results are presented as structured overlays: bounding boxes around suspected lesions on a spinal radiograph, automated measurements of cardiac silhouettes, or segmentation masks highlighting abnormal abdominal organ morphology. These annotations are rendered as DICOM Structured Reports (SR) or via a sidecar overlay, ensuring they are non-destructive to the original images and can be toggled on/off during review.

The practical impact is measured in workflow efficiency and diagnostic confidence. For a mixed animal practice, an AI model trained on canine and feline anatomy can automatically label vertebrae on spinal studies, calculate joint angles for dysplasia screening, and detect subtle pulmonary nodules, reducing manual measurement time from minutes to seconds. For equine or bovine imaging, species-specific models assist in identifying complex fracture patterns in distal limbs or quantifying gas shadows in colic cases. These AI-derived findings are then seamlessly pushed into the Sectra reporting interface, where they can auto-populate draft reports, suggest differential diagnoses based on the visualized anatomy and detected anomalies, and pull in relevant prior studies for comparison. This creates a closed-loop workflow where the radiologist verifies, adjusts, and signs off on an AI-assisted report, with all actions logged for audit and model feedback.

A production rollout requires a phased approach, starting with a single, high-value use case like thoracic radiograph triage in a canine emergency setting. Implementation involves standing up a secure inference service—often containerized on-premises or in a compliant cloud—that receives studies via DICOM send from the Sectra PACS, processes them, and returns results via DICOM SR or a REST API back to the Sectra platform. Governance is critical; results must be clearly marked as 'AI suggestions' requiring radiologist verification, and a feedback mechanism should be established to log radiologist corrections, which are used for continuous model validation and improvement. This architecture ensures AI augments the specialist's expertise without disrupting the familiar Sectra workflow, turning a powerful diagnostic tool into a reliable clinical copilot.

ARCHITECTURAL SURFACES FOR AI

Key Integration Points in the Sectra Veterinary PACS

AI-Powered Study Prioritization

The veterinary reading worklist is the primary control surface for radiologist workflow. AI integration here uses DICOM metadata (species, body part, modality, clinical history) and pre-fetch image data to score and reorder studies.

Key Integration:

  • HL7 ADT/ORM messages from the Practice Management System (PMS) provide patient signalment (species, breed, age) and reason for study.
  • DICOM Modality Worklist and MPPS track study status.
  • A lightweight AI inference service analyzes a preview image or full study to assign a priority score (e.g., 'Critical - Possible GDV', 'Routine - Orthopedic follow-up').
  • The Sectra Worklist API or a middleware layer reorders the list, pushing urgent equine colic or canine trauma studies to the top.

This reduces time-to-diagnosis for critical cases and optimizes radiologist throughput across a mixed caseload of small and large animals.

SPECIES-SPECIFIC WORKFLOWS

High-Value AI Use Cases for Veterinary Radiology

Integrating AI directly into Sectra Veterinary Imaging transforms diagnostic workflows for companion and large animal practices. These use cases focus on connecting AI models to specific imaging modules and data flows to accelerate reads, improve accuracy, and streamline reporting.

01

Automated Fracture Detection for Orthopedic Studies

AI models analyze canine and feline limb radiographs within the Sectra viewer, automatically flagging potential fractures, fissures, or bone lesions. Workflow: AI runs on ingestion, overlays bounding boxes with confidence scores on the PACS study, and prioritizes the case on the radiologist's worklist. This reduces missed subtle fractures in high-volume emergency settings.

Batch -> Real-time
Alerting speed
02

Species-Specific Anatomy Recognition & Labeling

AI identifies and labels normal anatomical structures across diverse species (e.g., equine cervical vertebrae, feline abdominal organs) on radiographs, CT, and MRI. Workflow: Upon opening a study, the AI auto-populates the report template with recognized anatomy, saving the radiologist time on manual annotation and reducing dictation errors for complex comparative anatomy.

1 sprint
Typical integration timeline
03

Abdominal Effusion & GDV Triage for Emergency Cases

AI algorithms prioritize critical abdominal studies by detecting signs of gastric dilatation-volvulus (GDV) in dogs or free fluid suggestive of hemorrhage. Workflow: Integrated via Sectra's worklist API, AI scores study urgency. Critical cases are flagged and pushed to the top of the queue, enabling faster surgical consultation for time-sensitive conditions.

Hours -> Minutes
Time to intervention
04

Automated Measurement for Canine Hip Dysplasia Scoring

AI assists in objective Norberg angle and distraction index measurements on standard hip extended radiographs. Workflow: The radiologist selects the study; AI identifies femoral heads and acetabular margins, proposes measurement lines, and calculates scores. Results are structured data sent directly to the report, standardizing evaluations for breeding programs.

Same day
Report turnaround
05

Integration with Veterinary Practice Management Systems

AI-derived findings (e.g., 'moderate cardiomegaly') are structured into DICOM SR or HL7 messages and sent to the practice management system (e.g., ezyVet, IDEXX Neo). Workflow: This creates an automated preliminary note in the patient record, alerting the referring DVM before the final report is signed, enabling faster treatment decisions.

Manual -> Automated
Data flow
06

Longitudinal Change Detection for Oncology Patients

For patients undergoing cancer treatment, AI compares current and prior thoracic/abdominal studies to quantify tumor burden change (e.g., pulmonary metastatic nodules). Workflow: AI highlights new or growing lesions within the Sectra comparison view, generating a quantitative summary for the report. This supports objective RECIST-like assessments in follow-up workflows.

SPECIES-SPECIFIC AUTOMATION

Example AI-Augmented Veterinary Workflows

These workflows illustrate how AI can be embedded into the Sectra Veterinary Imaging PACS to automate routine tasks, prioritize critical cases, and augment the diagnostic process for veterinary radiologists and clinicians. Each flow is triggered by a DICOM study arrival and uses AI to analyze, enrich, and route the case.

Trigger: A new canine or feline limb or spine radiograph series is received in the Sectra PACS.

Context Pulled: The AI service queries the PACS for patient metadata (species, breed, age) and prior imaging studies for comparison via DICOM Q/R.

AI Action: A species-specific fracture detection model analyzes the study. It identifies and localizes potential fractures, fissures, or luxations, generating a DICOM Structured Report (SR) with bounding boxes, confidence scores, and a severity flag (e.g., CRITICAL for unstable spinal fracture, ROUTINE for healed callus).

System Update: The study is automatically tagged in the Sectra worklist with a PRIORITY: TRAUMA flag and the AI SR is attached. An optional HL7 alert can be sent to the practice management system (e.g., ezyVet, IDEXX Neo) to notify the attending clinician.

Human Review Point: The veterinary radiologist reviews the prioritized case, with AI findings overlaid as a toggleable layer. The radiologist confirms, rejects, or modifies the AI findings, with their final dictation becoming the authoritative report.

VETERINARY IMAGING WORKFLOW

Implementation Architecture: Data Flow & Integration Patterns

A practical blueprint for connecting AI to Sectra Veterinary Imaging, focusing on species-specific workflows and secure data orchestration.

Integration begins at the Sectra Veterinary PACS workstation or worklist manager. Upon study completion (e.g., a canine thoracic radiograph series), the PACS can push the DICOM study to a secure, on-premises or cloud-based AI inference gateway via DICOM C-STORE or a RESTful API. This gateway manages authentication, de-identification if required for external AI models, and orchestrates the routing of studies to the appropriate AI algorithms—such as a fracture detection model for orthopedics or a species-specific anatomy segmentation model for abdominal studies. Results, including bounding boxes, confidence scores, and quantitative measurements, are packaged as DICOM Structured Reports (SR) or a lightweight JSON payload and sent back to the Sectra PACS.

Within Sectra, the AI results are ingested and made available to the veterinary radiologist or clinician in two key ways. First, as non-obtrusive overlays and annotations directly on the images in the viewer, allowing for rapid verification. Second, as structured data populating a side-panel or report template, suggesting findings like "moderate cardiomegaly suggested" or "potential slab fracture at L1." This integration is designed for a human-in-the-loop workflow; the AI acts as a copilot, highlighting areas of interest while the final diagnosis and report remain under the veterinarian's control. For high-throughput clinics, rules can be configured in the Sectra workflow manager to automatically prioritize studies with high-confidence critical findings (e.g., GDV, pneumothorax) at the top of the reading list.

A production rollout requires careful governance. We recommend a phased approach, starting with a single AI application (e.g., feline cardiac silhouette measurement) in a silent mode, where results are logged but not displayed, to establish baseline performance and clinician trust. Post-integration, all AI interactions should be audit-logged within Sectra's system for traceability. For clinics using a Veterinary Practice Management System (VPMS) like ezyVet or IDEXX Neo, a secondary integration layer can push key AI findings (e.g., "osteoarthritis progression noted") and derived billing codes via HL7 or API into the patient's clinical record, closing the loop between diagnostic imaging and practice management. This end-to-edge architecture ensures AI augments the veterinary workflow without disrupting the trusted Sectra environment.

VETERINARY IMAGING WORKFLOWS

Code & Payload Examples

Triggering AI on New Veterinary Studies

When a new DICOM study arrives in Sectra Veterinary PACS, a DICOM C-STORE SCP or a DICOM Modality Worklist trigger can initiate the AI workflow. The system extracts metadata to identify species (canine, feline, equine), body part (thorax, abdomen, limb), and modality (CR, DR, CT, MRI) for routing to the appropriate AI model.

A Python service listening for these events can forward the study to an AI inference service. The payload includes the study UID, accession number, and routing criteria.

python
# Example: DICOM Listener for Sectra Veterinary PACS
import pynetdicom
from pynetdicom.sop_class import CTImageStorage, MRImageStorage, CRImageStorage

def handle_store(event):
    """Handle incoming DICOM study for AI routing."""
    ds = event.dataset
    # Extract veterinary-specific metadata
    species = ds.get('PatientSpeciesDescription', 'Unknown')
    body_part = ds.get('BodyPartExamined', '')
    modality = ds.Modality
    
    # Construct payload for AI service
    ai_payload = {
        "study_uid": ds.StudyInstanceUID,
        "accession_number": ds.AccessionNumber,
        "species": species,
        "body_part": body_part,
        "modality": modality,
        "pacs_endpoint": "sectra_vet://retrieve"
    }
    # Route to appropriate AI model queue
    route_to_ai_service(ai_payload)
    return 0x0000  # Success status

# Create DICOM SCP
ae = pynetdicom.AE()
ae.add_supported_context(CTImageStorage)
ae.add_supported_context(MRImageStorage)
ae.add_supported_context(CRImageStorage)
ae.start_server(('', 11112), evt_handlers=[(evt.EVT_C_STORE, handle_store)])
VETERINARY RADIOLOGY WORKFLOWS

Realistic Time Savings & Operational Impact

How AI integration for Sectra Veterinary Imaging changes daily operations for veterinary radiologists, specialists, and referring clinicians.

Workflow / MetricBefore AI IntegrationAfter AI IntegrationClinical & Operational Notes

Initial study triage & prioritization

Manual review of modality and history

AI-assisted flagging of urgent cases (e.g., GDV, fractures)

Critical cases routed to top of worklist; reduces time to diagnosis for emergencies.

Fracture detection in orthopedic X-rays

Visual scan by radiologist

AI pre-highlights potential fracture lines & locations

Human verification required; reduces missed subtle fractures, especially in complex species anatomy.

Species-specific anatomy labeling

Manual annotation for teaching or reports

AI auto-segments and labels bones/organs on canine, feline, equine studies

Saves 2-5 minutes per study for detailed reports or surgical planning.

Comparison to prior studies

Manual side-by-side review

AI auto-registers and highlights interval changes

Focuses radiologist's attention on new findings or progression.

Report drafting for common findings

Typed or dictated from scratch

AI generates draft findings for normal studies or common conditions

Radiologist edits and signs off; can cut reporting time by 30-50% for routine cases.

Integration with Practice Management System

Manual transfer of findings or manual search for patient data

AI-structured findings auto-populate referral notes in PMS (e.g., ezyVet, IDEXX Neo)

Reduces administrative follow-up, ensures referring vet receives consistent data.

Quality assurance for technologist positioning

Supervisor spot-check

AI provides immediate feedback on view adequacy and technique

Enables same-study retake if needed, improving diagnostic yield and reducing callbacks.

CONTROLLED DEPLOYMENT FOR VETERINARY PRACTICES

Governance, Security, and Phased Rollout

A practical approach to implementing AI in a clinical veterinary environment, ensuring safety, compliance, and user adoption.

Integrating AI into a Sectra Veterinary Imaging workflow requires strict data governance from the start. This means establishing clear policies for Protected Health Information (PHI) handling, ensuring AI inference occurs on de-identified DICOM studies, and mapping result data back to the original patient record only after processing. All AI-generated findings, such as automated measurements or fracture probability scores, must be written as DICOM Structured Reports (SR) or annotations, creating a permanent, auditable trail within the PACS. Access controls should mirror your existing RBAC (Role-Based Access Control) in Sectra, ensuring only credentialed veterinarians or radiologists can view and approve AI suggestions before they influence patient records or billing.

A phased rollout minimizes disruption and builds trust. Phase 1 (Pilot) typically targets a single, high-volume study type like canine thoracic radiographs. AI runs in a silent mode, generating findings that are saved but not displayed, allowing the practice to audit AI performance against gold-standard reads. Phase 2 (Assistive) enables the AI results as a non-obtrusive overlay or sidebar panel in the Sectra viewer, providing ‘second-look’ support without altering the primary diagnostic workflow. Phase 3 (Integrated) embeds AI triggers into specific hanging protocols or worklists, such as auto-prioritizing studies with a high probability of pathology (e.g., GDV, fractures) for urgent review. Each phase should include defined key performance indicators (KPIs), like reduction in time-to-diagnosis for emergency cases or consistency in measurements for serial orthopedic studies.

Security is paramount when connecting cloud-based AI models to an on-premise or hybrid Sectra deployment. We architect integrations using a zero-trust, API-first model. DICOM studies are sent via secure DICOMweb or TLS-encrypted DICOM send to a dedicated, isolated inference endpoint—often a containerized service within your practice's VPC or a HIPAA-compliant cloud tenant. No PHI is stored in the AI service. The integration should support break-glass workflows where AI services can be instantly disabled without impacting core PACS functionality, and all data transfers must be logged for compliance audits. This controlled, stepwise approach ensures the AI becomes a reliable, governed tool that enhances—rather than risks—your veterinary diagnostic quality and operational efficiency.

VETERINARY IMAGING AI INTEGRATION

Frequently Asked Questions

Practical questions for veterinary practice owners, radiologists, and IT teams evaluating AI integration for Sectra Veterinary Imaging. Focused on workflow impact, technical architecture, and operational rollout.

AI integrates as a background service that listens for new studies and enriches the radiologist's reading environment. The typical flow is:

  1. Trigger: A new DICOM study (e.g., canine thoracic radiograph) is sent to the Sectra PACS.
  2. Context Pull: The AI service, via Sectra's API or a DICOM listener, retrieves the study and relevant metadata (species, breed, body part, prior exams).
  3. AI Inference: The study is processed by species-specific AI models (e.g., for fracture detection in equine limbs, cardiomegaly in cats).
  4. System Update: AI findings are sent back to Sectra as a DICOM Structured Report (SR) or via API, attaching to the original study.
  5. Radiologist Review: The veterinarian opens the study in Sectra. AI findings appear as an interactive overlay, a sidebar panel, or pre-populated text in the reporting module, requiring verification and sign-off.

This creates a "human-in-the-loop" system where AI acts as an assistant, not an autonomous reporter.

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.