
Plamen Nikolov, PhD
I am a Post-Doctoral Research Affiliate at Georgetown University Medical Center, specializing in Computational Neuroscience, Signal Processing, and Machine Learning. My work translates complex neural and physiological data into clinical impact — from cardiac digital twins for first-of-their-kind clinical trials to decoding human speech with advanced neuroimaging.
Bio / Timeline






Research & Projects
Neural Dynamics of Speech Perception & Production
2018 - 2024Investigation of computational models engaged during auditory and spoken word speech processing, with potential applications for neuroscience-based speech therapy.
- Developed methods for EEG image acquisition and decoding of very fast (millisecond range) neural dynamics involving significant motion artifacts.
- Developed multivariate analysis pipelines using HPC clusters to analyze large neural image datasets (cut preprocessing time from 3 weeks to 2 days).
- Led interdisciplinary team investigating evidence of internal inverse and forward models in the brain.
- Secured independent funding (NIH T32 & TL1) and led grant proposals from concept to award.
Cardiac 'Digital Twins' & Arrhythmia Prediction
2014 - 2018Large-scale electrophysiology simulations to analyze and predict arrhythmia behavior using patient-specific models.
- Built MR-derived, patient-specific cardiac models and ran large-scale EP simulations.
- Delivered the first clinical trial using virtual heart EP simulations to inform ventricular tachycardia ablation planning (Nature Biomedical Engineering).
- Led two industry-academic partnerships to productionize finite-element solvers for biologically realistic heart models.
Connectome-Based ML for TBI Recovery
2019Built an end-to-end machine learning framework to model recovery trajectories in traumatic brain injury patients.
- Built connectome-based ML framework using 2-week post-injury fMRI from the TRACK-TBI cohort.
- Processed functional connectivity matrices to extract graph/network features.
- Trained elastic net, ridge, and gradient boosting models to predict Glasgow Outcome Scale-Extended (GOSE) at 3/6/12 months.
BCI & Real-Time Bio-Signal Processing
2008 - 2013Design and implementation of non-invasive brain-computer interface technologies.
- Designed visual stimulus-based BCI system integrated within a real-time EEG pipeline.
- Wrote assembly-level firmware for deterministic timing and achieved four-class control for on-screen navigation.
- Developed algorithms for motor imagery BCI, validating timing determinism and signal integrity.
- Conducted empirical evaluations to optimize accuracy, false-activation rate, and user training time.
Featured Talks
Neural Dynamics of Speech Processing
Overview of my doctoral research on how the brain processes spoken language using rapid neural dynamics.
Machine Learning for TBI Recovery
Presenting a framework for predicting recovery trajectories in TBI patients.
Technical Notes / Whitepapers
Short write-ups on methods, tooling, and gotchas from my research.
Publications
- Virtual-heart simulations to predict patient-specific risk of arrhythmiaNature Biomedical Engineering · 2018
- Example Publication TitleJournal of Neuroscience · 2024
Hobbies / Personal Projects
Side projects — usually at the intersection of code, data, and curiosity.
Blog
I write longer-form on neuroscience, AI, and machine learning on my bearblog.