Basics & Classifications
A clearer introduction to machine learning, the basic vocabulary, and how classification problems are framed.
A personal learning system for machine learning, RIS, sensing, and wireless research—built to help you decide what to study next, not just where to click.
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A clearer introduction to machine learning, the basic vocabulary, and how classification problems are framed.
A practical guide to the main ways machines learn from labeled, unlabeled, and partly labeled data.
A beginner-friendly guide to common machine learning, deep learning, DNN, and DRL parameters such as seed, batch size, epoch, bias, overfitting, underfitting, learning rate, and exploration.
A deeper but beginner-friendly explanation of gradient descent, learning rate, optimization variants, and common training problems.
A deeper guide to common classification algorithms, their intuition, strengths, weaknesses, and practical use cases.
A deeper explanation of regression models for predicting continuous values, with intuition, assumptions, and practical guidance.
A beginner-friendly explanation of Ridge Regression and Kernel Ridge Regression from first principles, with intuition, equations, kernels, and Python examples.
A practical comparison of classifiers and regressors, including output type, metrics, computational efficiency, and model-selection guidance.
A clearer and deeper guide to neural networks, CNNs, RNNs, transformers, training, and practical limitations.
A clearer and deeper guide to reinforcement learning, value functions, policies, exploration, Q-learning, and deep RL.
A practical guide to transfer learning, frozen layers, fine-tuning, applications, benefits, and limitations.
A detailed beginner-friendly explanation of RIS, smart radio environments, and why RIS is important for 6G wireless networks.
A deeper explanation of RIS physics, architectures, design variables, advantages, and practical limitations.
A structured view of RIS applications in coverage, interference control, security, IoT, sensing, and smart indoor environments.
How RIS helps localization through virtual anchors, controllable paths, near-field wavefronts, and channel-parameter estimation.
Why mmWave and RIS are naturally connected for high-resolution positioning, beam training, and near-field localization.
A 6G-oriented view of RIS in mmWave/sub-THz networks, including deployment, AI control, digital twins, and open research directions.
A detailed introduction to ISAC, why it matters for 6G, and how a radio signal can both communicate and sense.
The signal-processing principles behind ISAC, including waveform design, sensing metrics, communication metrics, and unavoidable trade-offs.
Major ISAC use cases in autonomous mobility, smart factories, healthcare, drones, localization, and network intelligence.
How ISAC supports device-based and device-free localization, tracking, Doppler estimation, and predictive beamforming.
Why mmWave and THz frequencies are central to high-resolution ISAC, and what challenges they introduce.
How ISAC fits into 6G networks with AI, RIS, digital twins, edge computing, and sensing-as-a-service.
Why RIS and ISAC naturally fit together in 6G networks, and what problem each technology solves.
The mechanics of RIS-assisted ISAC, including joint beamforming, RIS phase control, sensing echoes, and communication constraints.
The main ways RIS improves ISAC: blockage recovery, virtual anchors, sensing geometry, interference control, and active/multifunctional operation.
Recent research trends in RIS-assisted ISAC, including active RIS, STAR-RIS, NOMA, learning-based control, near-field sensing, and multifunctional surfaces.
Open research directions for RIS-assisted ISAC, from channel estimation and beamforming to privacy, hardware, standardization, and real-world deployment.