AB

AI for Radar and Remote Sensing

ECE556 · Colorado State University

Spring 2026 | Fort Collins, CO · Accelerated MSEE credit

Why I took it

Dual-counted toward the accelerated MSEE during the BSEE. Aerospace concentration, plus RF work at FIRST RF — I wanted AI on the sensing side, not another generic deep-learning survey. This course puts models on radar and satellite data: precipitation detection, classification, estimation, and prediction.

What I learned

ML fundamentals and radar

Features, labels, capacity, hyperparameters, and train/validation/test — then modern radar and remote-sensing systems, how you read the observations, and where the applications actually live.

Classical and convolutional models

Decision trees and random forests, ANNs, SVMs, self-organizing maps, neuro-fuzzy methods and k-means, then CNNs, transfer learning, and U-Net — the stack used on precipitation and related products.

Sequence models and tools

RNNs, LSTMs, and GANs, with hands-on work in Scikit-learn, TensorFlow, and PyTorch, and a final project on an approved radar or remote-sensing problem.

Selected work

Fuzzy-logic hydrometeor classification RHI

Fuzzy-logic hydrometeor classification RHI.

Radar reflectivity RHI

Reflectivity RHI through a convective core.

Four-panel polarimetric radar inputs

Polarimetric inputs: Z, ZDR, KDP, and ρhv.

Fuzzy-logic versus k-means hydroclass comparison

Fuzzy-logic hydroclass versus k-means, recall-normalized.

Topics

RadarRemote SensingCNNsU-NetRNN / LSTMGANs