ChestVision-AI
LAUNCH STUDIO
Clinical AI Platform

A Great Place to Diagnose Thoracic Diseases

ChestVision-AI is a high-performance clinical computer vision system developed to detect 14 distinct thoracic pathologies simultaneously from chest radiographs using a dual-branch ConvNeXt-Autoencoder fusion architecture.

0.874 Mean ROC-AUC
91.4% Specificity
42.8 ms Inference Speed
Clinical Radiologist with AI Thoracic Scans

Dual-Branch Fusion

Unsupervised Autoencoder extracts 512-D spatial vectors, seamlessly fused with ConvNeXt-Base 1024-D hierarchical semantic features.

14 NIH Pathologies

Multi-label classification with per-disease Youden's J-statistic dynamic thresholds rather than arbitrary 0.5 cutoffs.

Zero-Leakage Cohort

Strict patient-isolated partitioning across 24,000+ radiographs guarantees clinical independence between train, validation, and test splits.

Practice Advice

Leading Thoracic Diagnostic Studio

Real-time visual explainability with Grad-CAM heatmaps, Autoencoder latent difference maps, DICOM windowing, and per-disease calibrated probability radar.

"ChestVision-AI's dual-branch architecture detected subtle Cardiomegaly and bilateral Pleural Effusion with pinpoint anatomical localization."

RM
Regina Miles, MD Chief of Thoracic Radiology
Real-Time Model Ready

Select a Clinical Benchmark Case from NIH Cohort

6 authentic NIH benchmark cases available with instant multi-label diagnostic inference.

Clinical Benchmark Cases NIH-14 Test Cohort
CASE-01 • PT-00028471 Pathologies Detected

64 Y / Male • PA View

512×512 DUAL-BRANCH
Heatmap Intensity 65%

AI Diagnostic Impression & Findings

AE Anomaly Score: 0.88

Marked cardiomegaly with bilateral pleural effusions (predominantly right-sided) and dependent bibasilar congestion.

Deep Learning Architecture

Dual-Branch Hybrid Fusion Architecture

Unsupervised Convolutional Autoencoder structural embeddings combined with hierarchical ConvNeXt-Base semantic representations.

1

ConvNeXt-Base Branch

Extracts 1024-dim deep hierarchical semantic feature maps from radiographs.

1024-D Vectors
2

Autoencoder Branch

Unsupervised 512-dim latent spatial vector capturing lung-field structural anomalies.

512-D Latent
3

Feature Fusion Layer

Latent concatenation into 1536-dim vector with BatchNorm and 0.40 Dropout.

1536-D Fusion
4

14-Head Calibrated Sigmoids

Independent multi-label classification calibrated by Youden’s J-statistic.

14 Pathologies

Ablation Study (NIH Benchmark)

Patient Test Split
Architecture ROC-AUC F1-Score Specificity Latency
ConvNeXt + AE (Ours) 0.874 0.768 91.4% 42.8 ms
ConvNeXt-Base Alone 0.838 0.712 88.2% 36.2 ms
DenseNet-121 (CheXNet) 0.815 0.680 85.9% 22.4 ms
ResNet-50 Baseline 0.792 0.654 83.1% 19.8 ms
Autoencoder Alone 0.710 0.540 78.4% 14.1 ms

Multi-Disease ROC-AUC Curves

Ensemble AUC: 0.874
Team

Our Clinical & AI Research Team

Expert pulmonologists, medical imaging specialists, and deep learning researchers dedicated to advancing thoracic diagnosis.

Julian Jameson

Lead AI Radiologist & NIH Fellow

Sarah Bennett, MD

Thoracic Surgery & Pulmonology Lead

Dr. Arash Moradi

Deep Learning Computer Vision Architect

This is a Live Demo

Fully customizable. Order a site like this:

📲 WhatsApp ✈️ Telegram ✉️ Email
AI Assistant Online | RAG Enabled
Assistant Hello! I have analyzed Rouhalah's resume. Ask me anything about his skills or projects!