VUNO
Integrations
- AWS HealthImaging
- HL7 FHIR R5
- DICOM / PACS
- Epic / Cerner (EHR)
- NVIDIA MONAI
Pricing Details
- VUNO has transitioned to a SaaS-centric model in 2026.
- Pricing is typically based on annual modular subscriptions or per-study volume for cloud-native diagnostic suites.
Features
- FDA-cleared DeepCARS™ Cardiac Prediction
- Cloud-native DeepBrain® Volumetric Analysis
- Chest X-ray Prioritization (Triage)
- HL7 FHIR R5 Interoperability
- Medical ASR (DeepASR®) integration
- Multi-modal Diagnostic Orchestration
Description
VUNO Med System Architecture Assessment
As of January 2026, VUNO Med functions as a global medical AI orchestration layer, following its successful FDA clearance for cardiovascular and radiological suites. The architecture centers on the VUNO Med-DeepCARS™ and VUNO Med-DeepBrain® engines, which leverage a unified processing pipeline to analyze both pixel-based DICOM data and time-series physiological signals 📑. The system has moved to a Cloud-First SaaS model, utilizing AWS HealthImaging for low-latency delivery of neuro-quantification reports 📑.
Medical Imaging & Vital Sign Orchestration
The platform utilizes a modular, microservices-based architecture to manage high-concurrency diagnostic tasks.
- DeepCARS™ (Vital Signs): FDA-cleared engine that monitors BP, HR, RR, and BT via temporal transformers to predict in-hospital cardiac arrest (IHCA) up to 24 hours in advance 📑.
- DeepBrain® (SaaS MRI): Cloud-native brain parcellation engine that performs volumetric analysis of 100+ brain regions in <60 seconds, now featuring native RAG-based clinical summary generation 📑.
- Chest X-ray Triage: Automated prioritization of urgent findings (e.g., pneumothorax, pleural effusion) directly within the PACS worklist, optimized for 2026 clinical reimbursement standards 📑.
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Operational Scenarios
- Emergency Cardiac Prediction: Input: Vital sign telemetry (HR, RR, BP, BT) via HL7 FHIR R5 → Process: DeepCARS™ temporal analysis against 2.5M+ patient-hour baseline data → Output: Risk-score alert (0-100) integrated into the nurse's dashboard and mobile workstation 📑.
- Dementia Screening Workflow: Input: 3D T1-weighted brain MRI via DICOM STOW-RS to VUNO.CLOUD → Process: DeepBrain® automated atrophy quantification with AWS HealthImaging-accelerated reconstruction → Output: Volumetric report with percentile ranking and longitudinal comparison PDF 📑.
Evaluation Guidance
Technical evaluators should verify the following architectural characteristics:
- SaaS Latency (MRI): Benchmark the end-to-end turnaround time for 3D MRI quantification when using cloud-native reconstruction vs. legacy on-premise local nodes 🧠.
- FHIR R5 Ingest Pipeline: Organizations should validate the stability of bidirectional data flow between VUNO.CLOUD and specific EMR versions (Epic R5 / Cerner 2026) for real-time risk scores 🌑.
- Medical ASR Accuracy: Verify the error rate of VUNO Med-DeepASR® in specialized surgical environments where nomenclature differs from standard radiology dictation 🌑.
Release History
Year-end update: Release of the Autonomous Patient Guard. Real-time AI monitoring hub for ICU units that manages patient alert prioritization.
Integration of generative AI to summarize multi-modal diagnostic data. Automatically creates cohesive patient summaries from imaging and vital signs.
General availability of VUNO Med-DeepASR. Medical voice-to-text recognition with 95%+ accuracy for real-time radiology reporting.
Strategic move into digital pathology. Launched VUNO Med-Pathology for whole-slide imaging (WSI) analysis in oncology.
Enhanced MRI analysis with DeepBrain. Automated brain atrophy quantification to assist in early Alzheimer's and dementia diagnosis.
Introduction of a vital-sign based predictive AI. Analyzes heart rate, blood pressure, and respiration to predict cardiac arrest in hospital patients.
Global expansion: Received CE marking and FDA clearance for Chest X-ray analysis. Automated detection of lung nodules and pneumonia.
First MFDS (South Korea) clearance for an AI medical device. Focused on automating bone age assessment for pediatric growth tracking.
Tool Pros and Cons
Pros
- Faster, accurate diagnoses
- Comprehensive data integration
- Improved workflow
- Reduced errors
- AI-powered analysis
- Enhanced patient care
- Optimized radiology workflows
- Multi-imaging support
Cons
- Potential data bias
- IT integration complexity
- Implementation costs