My coursework has combined technical theory with practical application, building strong skills in design, analysis, and problem-solving. Alongside classes, I’ve completed a variety of projects and labs that demonstrate how I apply these concepts in real-world settings. The examples below highlight the experiences most relevant to my professional preparation and engineering career goals.
ENGR 102: Engineering Computation - Introduced programming fundamentals in Python with applications to engineering problem-solving and computational design.
MMET 181: Manufacturing and Assembly Processes I - Covered machining, welding, fabrication, casting, and assembly with emphasis on practical manufacturing skills.
MMET 206: Nonmetallic Materials - Examined the properties and applications of plastics, ceramics, and composites in engineering design.
MMET 207: Metallic Materials - Focused on the structure, behavior, and engineering use of ferrous and nonferrous metals.
MMET 275: Static Mechanics - Analyzed forces, moments, and equilibrium in 2D and 3D systems, including applications to structural analysis.
MMET 281: Manufacturing and Assembly Processes II - Explored polymer processing, casting, extrusion, molding, and additive manufacturing techniques.
ISEN 302: Economic Analysis of Engineering Projects - Applied principles of time value of money, cost estimation, and investment analysis to evaluate engineering alternatives.
MATH 150: Precalculus - Introduced functions, trigonometry, and analytic geometry as preparation for higher-level mathematics.
MATH 151: Calculus I - Developed skills in limits, derivatives, and their applications to rates of change in engineering problems.
MATH 152: Calculus II - Covered integration techniques, sequences, and series with applications in physics and engineering systems.
MATH 251: Calculus III - Applied multivariable calculus to partial derivatives, multiple integrals, and vector calculus in three dimensions.
MATH 304: Linear Algebra - Built a foundation in vectors, matrices, and eigenvalues/eigenvectors with applications to system modeling.
MATH 308: Differential Equations - Modeled real-world systems using ordinary differential equations, Laplace transforms, and systems of equations.
STAT 211: Principles of Statistics - Applied probability, hypothesis testing, and regression methods to data analysis and engineering decision-making.
ENGR 102: Python Final Project - This project implemented a Connect Four game in Python featuring turtle graphics for gameplay, win detection across all directions, and file logging of results. It also included a planning document and extended functionality with a Matplotlib chart to display player win percentages. The project utilized the turtle library for graphics and matplotlib for data visualization. GitHub
MMET 281: Materials and Manufacturing Project - This project involved analyzing CAD models to select suitable materials and processes, including CNC milling a Texas flag from American White Oak and blow molding a vase from HDPE. It emphasized the importance of aligning design requirements, material properties, and manufacturability. The work demonstrated how different processes and materials influence trade-offs between cost, performance, and production efficiency. Project Link
MMET 281: Design Project - This project involved reverse engineering a Phillips-head screwdriver to analyze its materials, manufacturing processes, and design features. It emphasized material testing, process identification, and trade-off analysis to propose alternative materials and a redesigned handle using 3D printing for greater flexibility and reduced cost. The work highlighted how thoughtful material selection and modern manufacturing methods can improve both performance and manufacturability. Project Link