Hello, I'm
18+ years at the chemistry & biology interface • 69 peer-reviewed articles • 1570+ citations
Now bridging science and AI/ML to drive the next wave of innovation.
I am a researcher and educator with over 18 years of experience at the intersection of computational chemistry, bioinformatics, and molecular biology — and an active AI/ML student and practitioner bridging scientific rigor with modern data-driven methods.
Currently an Associate Professor at the Bioinformatics Department, University of Talca (Chile), and a second-year student of the AI/ML Diploma at Lambton College (Ottawa), I combine decades of academic expertise with cutting-edge machine learning applications.
My passion lies in using computational multiscale methods — from quantum mechanics to AI/ML models — to tackle critical challenges in drug discovery, antibiotic resistance, and cancer research. I have secured multiple competitive national research grants and authored 69 peer-reviewed articles with over 1,570 citations. I am a proud member of the Center for Bioinformatics and Molecular Simulations (CBSM) at UTalca.
My research trajectory began during my DAAD-funded Ph.D. at the University of Chile, where I studied protein-ligand interactions in the CDK2/Cyclin cancer system — including research stays at the University of Valencia (Spain) and the Fritz Haber Institute, Max Planck Society (Berlin, Germany). Since joining CBSM as a postdoctoral researcher in 2007 — supported by the Chilean Government's PBCT program — I have built a comprehensive research program spanning drug binding kinetics, enzymatic catalysis, and enzyme engineering.
Global Sensor Systems Inc. • Ottawa, ON
5-month temporary & part-time contract
Lady Evelyn Alternative School • Ottawa, ON
Faculty of Engineering, University of Talca • Talca, Chile
Faculty of Engineering, University of Talca • Talca, Chile
Center for Bioinformatics and Molecular Simulation (CBSM), University of Talca • Talca, Chile
Complete record of competitive research grants as Lead Researcher, Associate Researcher, and Sponsoring Researcher.
Using computational multiscale methods and spectrofluorimetric/X-ray experiments in the search for enhanced inhibitors for protein kinases and HMP-kinases. The phosphoryl transfer as a model reaction to fight antibiotic resistance and cancer.
Estimating residence time in protein-ligand complexes: new computational protocols for understanding binding kinetics of drugs and improving drug discovery pipelines.
Rational protein design from computational calculations and site-directed mutagenesis studies of biotransformation processes catalyzed by ligninolytic enzymes.
Understanding the protein-ligand binding phenomena through hybrid calculation approaches and other computational methods. First independent grant as Principal Researcher.
Evaluation of the molecular stability of cylindrin-like structures via microsecond molecular dynamics simulations.
Design of polypharmacological agents that simultaneously interact with monoaminergic proteins and nicotinic receptors, based on similarities between their multiple binding sites.
Designing compounds that simultaneously interact with monoaminergic proteins and nicotinic receptors to understand nicotine addiction and withdrawal syndrome.
Fishing for complements: design of compounds that simultaneously interact with monoaminergic proteins and nicotinic acetylcholine receptors based on binding-site similarities.
Insights into the structural basis of interactions between cAMP-dependent protein kinase (PKA) and its substrates; development of predictive molecular models and testing on potassium channel AKT2.
New methodologies for the calculation of mean force potentials and biomedical applications (Simulaciones Moleculares de Catalizadores Biológicos).
Support for the formation of international networks between research centers (Concurso de Apoyo a la Formación de Redes Internacionales).
Understanding the subtle phenomena at the molecular level in protein-drug binding, using molecular docking, molecular dynamics, and free energy methods.
Mechanistic investigation of enzymatic reactions from X-ray structures to QM/MM simulations, covering phosphoryl transfer, oxidation, and biotransformation reactions.
Design of novel inhibitors targeting kinases and HMP-kinases linked to antibiotic resistance and cancer using multiscale computational approaches combined with experiments.
Computational protocols for estimating drug residence time in protein-ligand complexes via enhanced sampling molecular dynamics — a key predictor of in vivo efficacy.
Rational protein design using quantum mechanical calculations and site-directed mutagenesis; substrate recognition in protein kinases, ligninolytic enzymes, and proteases.
Applying machine learning, deep learning, and data science to accelerate molecular discovery — bridging 18+ years of chemical intuition with modern data-driven approaches.
28 verified peer reviews for 7 journals • View on ORCID
69 peer-reviewed articles in leading journals. Showing the most recent works.
A growing portfolio bridging 18+ years of domain expertise in molecular sciences with applied AI/ML skills.
At Global Sensor Systems Inc. (Ottawa), served as technical liaison between GSS and Lambton College. Performed simulation testing with synthetic and real-world data using NVIDIA Large Vision Models (LVM) for real-time computer vision tasks. Prototyped Digital Twin models with NVIDIA IsaacSim and contributed to benchmarking and comparative evaluation of vision architectures. Produced technical documentation and project reports for industry stakeholders.
Capstone project implementing and benchmarking SSD and YOLO object detection architectures on the COCO dataset (5k training images). Evaluated detection accuracy, inference speed, and trade-offs between the two models.
Applied Gaussian Naïve Bayes classification to distinguish active vs. inactive drug compounds using 9 physicochemical descriptors (RDKit: MW, LogP, TPSA, HBD/HBA…) on 199 compounds across 8 protein targets. Achieved 78% accuracy and F1-score of 72%.
Developed and compared three ML classification algorithms on a curated kinase inhibitor dataset with physicochemical and molecular descriptors (RDKit). Presented at the MoML @ Mila conference, bridging domain expertise with modern ML practice.
Replication of Andrej Karpathy's MakeMore project as the final assignment for the Neural Networks & Deep Learning course. Built character-level generative models from scratch — from bigrams and MLPs to deeper networks — exploring backpropagation and training dynamics.
All coursework and research code is publicly available on GitHub. View all repositories →
Open to research collaborations, academic positions, AI/ML projects, and insightful conversations.