Quantitative Research, Applied Statistics, and Machine Learning
I am a mathematics professor with graduate training in mathematics and applied statistics.
My work sits at the intersection of teaching, learning, student success, quantitative methods,
applied research, statistical modeling, machine learning, and clear communication of data-driven results.
I am especially interested in projects where rigorous analysis, research design, and practical
data science workflows can support better decisions in education, analytics, applied AI, and
quantitative research.
Featured Work
Master of Science in Applied Statistics Capstone
A full applied statistics project analyzing public felony case records from Cleveland County,
Oklahoma, with attention to sentencing outcomes, attorney type, and related case characteristics.
I was responsible for the project design, research questions, data collection, data cleaning,
statistical analysis, interpretation, and client-facing communication.
Required for completion of the Master of Science in Applied Statistics at the University of Oklahoma
The project required building a usable dataset from public records one observation at a time.
Because the data came from real administrative court records rather than a pre-cleaned research
dataset, the work required careful coding decisions, judgment about ambiguity, ethical interpretation,
and statistical maturity about what could and could not be concluded from observational data.
Designed and executed an applied statistical research project
Collected and coded real-world public-record data manually
Handled ambiguity, exclusions, variable coding, and analytic subsets
Used chi-square tests, logistic regression, and random forest feature importance
Interpreted observational findings without overstating causality
Produced both internal technical and client-facing reports
Master's Thesis: Predicting Success on the NCLEX-RN
A graduate-level quantitative research project examining predictors of NCLEX-RN first-time success
among associate degree nursing students at a small public university. The project connected
student success, educational research, applied statistics, institutional decision-making, and
statistical modeling. Required for completion of the Master of Science in Mathematics at Shawnee State University.
This thesis involved a full literature review, a theoretical framework, and analysis of real
institutional data with practical complications, including missing values, duplicate records,
limited failure cases, and substantial class imbalance. The work required not only fitting models,
but also understanding the limits of prediction when the outcome distribution itself makes
classification difficult.
Completed a full graduate thesis in applied quantitative research
Reviewed academic and demographic predictors of NCLEX-RN success
Used a theoretical framework related to nursing student retention and success
Cleaned and analyzed real institutional education data
Handled missingness, duplicate records, and class imbalance
Used logistic regression, correlation analysis, group comparisons, and diagnostics in R
A production-aware machine learning project implementing an end-to-end classification workflow
for U.S. visa approval prediction. The project moves beyond notebook-based modeling by organizing
the workflow into modular components for data ingestion, validation, transformation, model training,
evaluation, prediction, and deployment.
This project was implemented as part of my applied data science and MLOps development. It helped
me practice the engineering side of machine learning, including FastAPI application development,
Docker packaging, GitHub Actions, AWS deployment concepts, MongoDB integration, and cloud-based
model storage.
Implemented an end-to-end machine learning classification workflow
Built modular training and prediction pipeline components
Used FastAPI for prediction serving
Practiced Docker-based packaging and deployment structure
Worked with MongoDB, AWS/S3 components, and GitHub Actions
Strengthened production-aware ML and MLOps foundations
Teaching, Learning, and Applied Research
My teaching background gives me a strong interest in how people learn quantitative ideas,
how data can support better educational decisions, and how statistical methods can be used
responsibly in real-world settings.
I am interested in work that connects mathematics education, student success, quantitative
methods, applied statistics, machine learning, research design, and decision support.
Research and Education Interests
Teaching and learning in mathematics, statistics, and data science
Quantitative methods in education
Learning analytics
Student success research
Program evaluation
Assessment and measurement
Applied statistical consulting
Technical and Analytical Interests
Applied statistics
Statistical modeling and interpretation
Machine learning for decision support
Reproducible analysis
Data visualization and storytelling
Interactive dashboards
Production-aware AI/ML workflows
Technical Areas
R and RStudio
Python
Applied statistics
Quantitative methods
Statistical modeling
Logistic regression and classification
Data visualization
R Markdown and Quarto
Git and GitHub
Shiny dashboards
Machine learning foundations
MLOps foundations
Research design and evaluation
Educational data analysis
Professional Direction
My professional direction is to combine mathematical depth, applied statistical training,
teaching experience, research design, communication, and practical data science skills.
I am building toward work involving quantitative research, applied analytics, machine learning,
statistical consulting, educational data analysis, program evaluation, decision support, and
production-aware AI/ML systems.
The strongest version of my work sits at the intersection of rigorous analysis, clear explanation,
human learning, applied modeling, and practical systems that help people and organizations make
better decisions.