Research notebook

Engineering systems through simulation, optimization, and experimentation.

My research interests sit between thermodynamics, control, computation, and energy systems. I’m learning through models, small investigations, and careful comparison with physical reality.

Research model

From observation to useful decisions.

A working framework for asking better questions. Each stage can send the work back for another iteration.

  1. 01

    Physical systems

    Observe real behavior

  2. 02

    Modeling

    Make assumptions explicit

  3. 03

    Simulation

    Test scenarios

  4. 04

    Optimization

    Compare strategies

  5. 05

    Decision making

    Interpret the tradeoffs

  6. 06

    Impact

    Apply what is learned

Iterate · Learn · Improve. Findings are checked against the model’s limits, then the questions are refined.

Core themes

What I’m exploring.

01

Hybrid powertrains

Energy management, control strategies, and integration across electrical and mechanical systems.

02

Hydrogen & combustion

Fuel behavior, engine adaptation, and the practical questions around alternative energy.

03

Energy optimization

Using models and data to make energy systems more efficient and responsive.

04

Computational engineering

Simulation and analysis as ways to understand complex physical systems.

Process

A repeatable way to investigate.

The steps are a guide rather than a claim that every project has reached validation.

  1. 01

    Observe

  2. 02

    Review

  3. 03

    Model

  4. 04

    Simulate

  5. 05

    Analyze

  6. 06

    Validate

  7. 07

    Document

Current investigations

Questions under development.

These are investigations and planned studies, with their present status stated plainly.

In progress

Hybrid vehicle energy management

How can control strategies reduce fuel use while respecting battery constraints?

Read investigation
Exploring

Hydrogen ICE simulation

What tradeoffs emerge when hydrogen is used in an internal combustion engine?

Read investigation
Planned

Smart EV charging optimization

How might charging schedules account for grid demand and operational cost?

Read investigation
Methods & tools

Methods before software.

Tools are chosen to serve the question, not the other way around.

Simulation

Represent physical behavior, expose assumptions, compare scenarios.

Exploring with Python, OpenModelica, Cantera

Optimization & control

Formulate objectives and constraints, then test candidate strategies.

Exploring with Python, Pyomo, CVXPY

Data analysis

Inspect results and uncertainty before drawing conclusions.

Exploring with NumPy, Pandas, SciPy

Machine learning

Explore data driven control where simpler models are insufficient.

Exploring with PyTorch, reinforcement learning

Reading & learning

On the desk.

References that inform the questions and methods behind the work.

  • Book

    Internal Combustion Engine Fundamentals

    John B. Heywood

  • Book

    Reinforcement Learning: An Introduction

    Richard S. Sutton & Andrew G. Barto

  • Reference

    Cantera documentation

    Cantera project

Research roadmap

Where the work may lead.

These are directions and intentions, not completed milestones.

  1. Current

    Strengthening foundations

    Thermodynamics, control, and reproducible simulation practice.

  2. Exploring

    Comparing strategies

    Hybrid energy management and hydrogen combustion questions.

  3. Next

    Graduate study

    Preparing for a mechanical engineering degree focused on energy systems.

  4. Long term

    Applied impact

    Contributing to more efficient and sustainable mobility.