About

AI/ML-informed theoretical physicist working at the interface of physics, engineering, and computational science, with focus on the architecture and dynamics of quantum and electromagnetic systems. Trained across analytical modeling, numerical simulation, data-driven analysis, and experimental laboratory practice, with experience translating abstract theory into implementable models, reproducible workflows, and deployable computational tools.

Learn More

Background spans quantum transport, complex systems, and applied machine learning, with a strong emphasis on rigor, structure–property relationships, and physically informed computation. Comfortable operating across academic and industrial research environments, particularly in contexts involving ill-defined problems, high-dimensional data, and model-driven decision making.
Experience includes interdisciplinary collaboration, technical communication, mentoring, and rapid acquisition of new computational tools. Motivated by problems where mathematical structure, physical insight, and data converge to produce scalable, product-oriented, and technologically relevant solutions, including the development of scientific SaaS platforms that operationalize physics-based models and data pipelines for real-world use.

Research Landscape

My work sits at the intersection of quantum transport, complex networks, and non-equilibrium phenomena, with a recurring focus on symmetry, irreversibility, and data-informed modeling across physical and chemical systems. In parallel, I am increasingly interested in the development of scientific SaaS: turning rigorous models, simulations, and data pipelines into scalable, reproducible, and user-facing computational tools that bridge research and application. Alongside my scientific work, I maintain an ongoing engagement with musical study and production as a counterpoint that sharpens perception and discipline.

Explore focus areas
  • Quantum transport in molecular and nanoscale systems.
  • Quantum graph models, spectral analysis, and network-based dynamics.
  • Irreversible and non-equilibrium models in electromagnetism, photonics, and optical media.
  • Physics-informed and data-driven machine learning for simulation, emulation, inverse design, and model-backed software services.
  • Statistical analysis of fMRI and other high-dimensional time series data to identify signatures of criticality.
  • Complex systems modeling in biological, social, and infrastructure systems (e.g., neural systems, urban traffic, collective dynamics).
  • Applied AI tools and workflows, including Hugging Face ecosystems, generative models (e.g., diffusion-based models), and ML-assisted, SaaS-ready research pipelines.

Ongoing Research

My current projects explore transport, structure, and emergent behavior across quantum, electromagnetic, and chemical systems, integrating analytical theory, computational modeling, and data-driven approaches, with an emphasis on transforming research-grade models into reproducible, scalable, and deployable computational tools.

View current projects
  • Quantum Graph Models. Analytical and computational studies of transport, resonances, and spectral structure in graph-based representations of nanoscale and solid-state systems.
  • Quantum Transport in Molecular Systems. Investigation of geometry-driven conduction, coherence, and structure–property relationships in molecular and triangulene-like systems relevant to nanoelectronics.
  • Critical Brain Dynamics. Analysis of large-scale Human Connectome Project fMRI datasets to identify power-law behavior, long-range correlations, and network signatures of criticality in high-dimensional time series.
  • AI-Driven Electromagnetic Media. Physics-informed and AI-assisted modeling of metamaterials and complex electromagnetic media, aimed at accelerating simulation, exploration, and inverse design in photonics and related applications.

Programming, Music & Arts

I work with Mathematica, Python and a range of numerical techniques to construct models, address differential systems and study high-dimensional data. Trained in piano and cello, I regard music as a parallel discipline: an inquiry into structure, rhythm and disciplined attention. This musical practice acts as a counterpoint to my scientific work, refining both method and insight.

Curriculum vitae

Wir müssen wissen, wir werden wissen. —David Hilbert.

Education

  • 01/2019 – 09/2023
    PhD in Science (Physics), Institute of Physics, BUAP, Puebla, México.
    Thesis: “Maxwell's Irreversibility in Wave Phenomena”.
  • 08/2016 – 09/2018
    Master in Physics, Institute of Physics, BUAP, Puebla, México.
    Thesis: “The Relativistic von Neumann Equation and Dirac Ensembles”.
  • 08/2009 – 07/2015
    Bachelor’s Degree in Physics, University of Veracruz, Xalapa, México.
    Thesis: “Increasing the Sensitivity of an SPR Sensor using Gold Ellipsoidal Super-Nanostructures”.
  • 08/2006 – 07/2009
    Music Education Technician (Piano), Open Music School, IVEC, Veracruz, México.

Work Experience

  • Institute of Physical Sciences, National Autonomous University of Mexico (ICF-UNAM)
    Postdoctoral Researcher | 10/2023 – Present
    • Computational Modeling and Emulation of Complex Electromagnetic Media (10/2025 – Present)
    • Transport in Graphene Fractals (10/2024 – 09/2025)
    • Critical Brain Dynamics and Quantum Graphs (10/2023 – 09/2024)
  • Science Research Centre, Autonomous University of the State of Morelos (CInC-UAEM)
    Lecturer
    • Optics (02/2026 – 07/2026)
    • Relativistic Physics (08/2024 – 12/2024)
  • Research Assistant (Undergraduate)
    Micro and Nanotechnology Research Centre, Veracruzana University (MICRONA-UV)
    01/2014 – 06/2015
  • Piano Instructor
    08/2008 – 07/2009

Publications

Certifications & Courses

Skills

  • Core Competencies: Quantitative problem solving, End-to-end project management, Mathematical and computational modeling, Data-driven analysis and validation, Scientific research and technical reporting, Numerical methods, Computational physics, Electromagnetic theory, Quantum transport, Scientific visualization, Teaching and mentoring.
  • Programming & Scientific Computing: Wolfram Mathematica, Python, CUDA, Bash, LaTeX, HTML/CSS, Linux systems, Git, High-Performance Computing (HPC), Cloudflare Workers, Arduino (IoT).
  • Data, Machine Learning & Automation: Data cleaning & validation, Dataset labeling and annotation, Feature engineering, CSV/JSON processing, Machine learning classification, Model evaluation, TensorFlow, Python automation workflows, Reproducible scientific computing, Technical documentation.
  • Professional Skills: Adaptability in fast-changing environments, Technical leadership and mentoring, Accountability and ownership mindset, Resilience under pressure, Stakeholder-oriented communication, Cross-disciplinary collaboration, Time and resource management, Critical thinking, Independent research, Rapid learning.
  • Music Technology & Digital Production: Music notation (Sibelius), MIDI sequencing, VST instruments, Ableton Live, Digital audio workflows, Piano instruction, Musical analysis.

Volunteering

  • Physics Coach | National Physics Talent Contest
    01/2025 – 12/2025
    Centre for Research in Engineering and Applied Sciences, Autonomous University of the State of Morelos. CIICAp - UAEM
  • Waze Map Editor
    12/2015 – Present
    Actively contribute to the Waze map, ensuring real-time accuracy of road data to improve navigation for millions of users worldwide. Profile

Languages

  • Spanish: Native proficiency
  • English: Fluent
  • German: CEFR A2
  • Chinese: HSK 1
  • Thai: Basic

Research Profile and Technical Expertise

The research profile presented here spans quantum transport in molecular, nanoscale, and graphene-based systems, including geometry-driven conduction, coherence phenomena, and transport in fractal and graph-based structures. Experience includes analytical modeling, numerical simulation, and spectral analysis of quantum graphs relevant to molecular electronics and solid-state physics.

Additional expertise includes the statistical analysis of large-scale Human Connectome Project fMRI datasets, with emphasis on time series analysis, correlation structure, network science, and graph-based modeling of complex systems. Research focuses on identifying signatures of criticality, power-law behavior, and emergent dynamics in high-dimensional biological data.

Ongoing work integrates physics-informed machine learning and AI-driven modeling for electromagnetic media, metamaterials, and photonic systems. This includes neural-network-based emulation, inverse design, and accelerated simulation pipelines for complex electromagnetic environments.

Technical competencies include computational physics, data science, reproducible research pipelines, numerical simulation, mathematical modeling, and interdisciplinary research across physics, neuroscience, and complex systems. Applied experience spans R&D projects, national research grants, and collaborative academic environments.

Teaching and mentoring experience includes undergraduate instruction in optics and relativistic physics, curriculum design, technical communication, assessment development, and structured knowledge transfer. Additional work includes coaching high-performance students in analytical reasoning, problem decomposition, and performance optimization under time constraints.

Core keywords and research themes include quantum transport, quantum graphs, spectral analysis, graphene, nanoscale systems, molecular electronics, numerical simulation, computational modeling, network science, time series analysis, complex systems, critical brain dynamics, fMRI data analysis, physics-informed machine learning, AI-driven modeling, electromagnetic media, metamaterials, photonics, inverse design, reproducible pipelines, data science, interdisciplinary research, materials physics, nanotechnology, experimental characterization, and scientific communication.