• Advanced skills in Python, MATLAB, and C for developing algorithms for biomedical data analysis (ECG, EEG, PPG).
• Expertise in developing real-time algorithms optimized for embedded systems for biomedical data analysis.
• Proficient in developing and deploying deep learning (computer vision) and machine learning models using PyTorch, TensorFlow and Scikit for biomedical data and image analysis.
• Advanced understanding of biomedical signal processing techniques (FFT, Wavelet, STFT, FIR and IIR filters).
• Solid understanding of cardiac electrophysiology and different heart arrhythmias.
• Strategic and innovative thinker with a background in biomedical engineering R&D.
• Thesis: A protocol for isolating neural activity of neurons and analyzing their behavior in a pattern separation task. (paper)
• Spike sorting, manual curation, and separation of mossy and granular cells based on physiological properties and clustering algorithms (k-means).
• Characterizing different stages of sleep (wake, REM, nonREM) in rats through analysis (frequency domain analysis) of local field potentials and EMG signals.
• Large scale spike train analysis and matching behavioral correlates to neural activities using classic methods (ISIs, autocorrelations, serial correlations, PSTH, and causal filters).
• Actively movement tracking of animals in the maze using object detection and tracking methods (OpenCV: CSRT, KCF).
• Comparative analysis of local field potentials (power spectrum, time-frequency analysis, and frequency coupling) between transgenic F344AD and healthy rats
• Multi-unit extraction (spike sorting) and manual curation using toolboxes such as Tridesclous and Phy.
• Comparative analysis of spike trains between AD and normal rats using spike train distance metrics (VR-d,ISI-d,ES-d) to identify pertinent features.
• Building a machine learning classification paradigm (meta learning model) to detect AD using high and low frequency features at the early stage of the disease (6-months-old).
Moradi et al. “Early Electrophysiological Aberrations in the Hippocampus of the TgF344-AD Rat Model as a Potential Biomarker for Alzheimer’s Disease Prognosis”, Cell Express, iScience (code) (paper)
M. Nouri, F. Moradi, H. Ghaemi, A. M. Nasrabadi, "Towards real-world BCI: CCSPNet, a compact subject-independent motor imagery framework." Digital Signal Processing (2022): 103816. (code) (paper)