top of page


Why Fusion Works: Cross-Modal Learning
Discover why combining microwave imaging and acoustic analysis achieves 99.3% accuracy—far beyond either modality alone—and what this means for clinical screening.
DetectED
Apr 62 min read


XGBoost: The Magic Behind Our Fusion Model
Learn how XGBoost (eXtreme Gradient Boosting) combines microwave features and acoustic probabilities to achieve 99.3% accuracy in tumor detection.
DetectED
Apr 63 min read


How YAMNet Works: From Sound Waves to 1024-D Embeddings
Explore how YAMNet converts lung sounds into 1024-dimensional embeddings, capturing wheezes, crackles, and breath patterns to classify respiratory diseases.
DetectED
Apr 63 min read


Permittivity, Conductivity, and Loss Tangent: The Dielectric Trio
Discover the three key electromagnetic properties that distinguish tumors from healthy tissue—permittivity, conductivity, and loss tangent—and how PULMO-AI uses them for detection.
DetectED
Apr 63 min read


Understanding IFFT: Revealing Hidden Tumor Reflections
Learn how the Inverse Fast Fourier Transform converts frequency-domain S21 data into time-domain reflections, helping PULMO-AI locate tumors by measuring signal delays.
DetectED
Apr 63 min read


Maxwell's Equations: The Physics Behind Microwave Imaging
Learn the physics and functionality behind microwave imaging by mastering these essential equations
DetectED
Apr 62 min read
bottom of page