MRI AI: Brain, Spine & MSK Analysis

Deep learning models for MRI interpretation with automated segmentation, pathology detection, and quantitative measurements. 30-minute turnaround with subspecialty radiologist review. Backed by peer-reviewed research.

234
Pathologies
Across all modalities
0.93
F1 Score
Clinical-grade accuracy
30 min
Avg TAT
vs 24-48hr industry
400+
Radiologists
Subspecialty expertise

How MRI AI Works

1

Multi-Sequence Processing

AI processes all MRI sequences (T1, T2, FLAIR, DWI, contrast) simultaneously, correlating findings across sequences for comprehensive analysis.

2

Automated Segmentation

Deep learning models segment anatomical structures automatically - disc levels, cord, brain regions - enabling precise measurements and volumetrics.

3

Pathology Detection

AI identifies abnormalities with attention mechanisms that highlight subtle findings. Confidence scores help radiologists prioritize review.

4

Subspecialty Review

Complex MRI studies are routed to neuroradiologists, MSK specialists, or body imagers based on anatomy. Human expertise ensures clinical accuracy.

MRI Analysis Capabilities

AI-assisted analysis across all major MRI body regions:

Brain MRI

  • Stroke/infarct
  • Tumors/masses
  • White matter lesions
  • Hemorrhage
  • Atrophy patterns
  • Hydrocephalus

Spine MRI

  • Disc herniation
  • Spinal stenosis
  • Cord compression
  • Vertebral fractures
  • Degenerative changes
  • Infections

MSK MRI

  • Ligament tears
  • Meniscal injuries
  • Rotator cuff
  • Tendon pathology
  • Bone marrow edema
  • Fractures

Abdominal MRI

  • Liver lesions
  • Kidney masses
  • Pancreatic abnormalities
  • Biliary pathology
  • Adrenal lesions
  • Vascular anomalies

Peer-Reviewed Research

Our MRI AI is backed by published research on automated pathology detection and segmentation.

AI-Driven MRI Spine Pathology Detection

arXiv:2503.20316

Comprehensive deep learning framework for automated MRI spine pathology detection across diverse clinical settings and patient populations.

Key Findings:

  • Advanced neural network architectures with attention mechanisms
  • High sensitivity for subtle spinal abnormalities
  • Effective across diverse patient populations
Read Full Paper on arXiv

Automated Segmentation and Measurement of Spinal Structures in MRI

arXiv:2503.11281

AI and deep learning for automated segmentation and quantitative measurement of spinal structures, supporting surgical planning.

Key Findings:

  • Precise anatomical analysis capabilities
  • Supports clinical decision-making in spinal surgery
  • Automated quantitative measurements
Read Full Paper on arXiv

Quantitative Analysis

Beyond pathology detection, MRI AI provides automated measurements that save radiologist time:

Spine Measurements

  • • Disc height and bulge quantification
  • • Spinal canal diameter
  • • Foraminal narrowing grading
  • • Vertebral body dimensions

Brain Volumetrics

  • • Hippocampal volume (dementia workup)
  • • Ventricle size assessment
  • • Lesion volume tracking
  • • White matter burden scoring

Joint Analysis

  • • Cartilage thickness mapping
  • • Meniscal tear characterization
  • • Ligament integrity grading
  • • Effusion quantification

Organ Measurements

  • • Liver/spleen volume
  • • Lesion size tracking
  • • Prostate zonal analysis
  • • Cardiac chamber dimensions

Add AI to Your MRI Workflow

Automated segmentation, pathology detection, and quantitative measurements. 30-minute reports with subspecialty review.