Welcome, I'm Aisha

Software Engineer | Research Scientist | Latte Lover

About me

I’m passionate about engineering, intelligent data modeling, and applied machine learning with a focus on social impact.

Currently, I’m pursuing a bachelor’s degree at Oberlin College, majoring in 3-2 Engineering and Computer Science, with a concentration in data science.

As a full-stack developer, I’ve created AccessEd, a platform that expands education access for refugees, and BiteBalance, which promotes sustainability with a constant focus on making technology more equitable

In research, I used applied machine learning to support data-driven decision-making in public health

Outside work, I run on iced lattes, and the calm energy of horses

Education

Bachelor's of Arts

Major: 3-2 Engineering & Computer Science

Expected Graduation: May 2027

GPA: 3.7

Campus Engagement

  • Girls Who Code College Loop (President)
  • Muslim Students Association (MSA) (Co‑Chair)
  • Program Board (Member)

Fellowships

  • STRONG (Science and Technology Research Opportunities for a New Generation) Scholar
  • International Project for Peace Fellowship 2025 Recipient

Relevant Coursework

  • Data Structures
  • Algorithms
  • Programming Abstractions
  • Discrete Mathematics
  • Multivariable Calculus
  • Electricity, Magnetism and Thermodynamics
  • Mechanics and Relativity

Projects

AccessEd — Expanding Educational Opportunity

AccessEd is an educational platform for refugees facing barriers to education. The platform provides guidance, curated resources, and mentorship to help learners find academic opportunities—no matter where they are.

BiteBalance — Smart Sustainability Made Personal

BiteBalance transforms sustainability into a personal journey, with tailored meal suggestions based on user weight, activities, and goals—helping you eat well and reduce waste.

Research

Overview

This ongoing research focuses on developing predictive models to understand and forecast opioid overdose death rates across the United States. By analyzing large-scale public health datasets, the project aims to identify patterns, risk factors, and geographic trends to help inform resource allocation and public health policy decisions. The team leveraged publicly available datasets to develop six machine learning models, enabling more accurate predictions

Python R TensorFlow PyTorch Scikit-learn Jupyter Notebooks

Jan–May 2024

  • Conducted comprehensive literature review on opioid overdose death rate prediction, integrating key insights from public health studies.
  • Collaborated in developing an interactive R Shiny dashboard for dynamic visualization of county-level model results, supporting both internal analysis and public dissemination.
  • Presented research findings at the Oberlin Undergraduate Symposium.

June–August 2024

  • Evaluated and optimized various neural network structures to enhance model accuracy.
  • Transitioned workflows from TensorFlow to PyTorch, enabling more flexible training pipelines and improved computational efficiency.
  • Tuned hyperparameters across six deep learning models, performed comparative analyses, and iteratively refined configurations using validation metrics.

August–December 2024

  • Executed predictive models on county-, state-, and national-level datasets, ensuring generalizability across geographic scales.
  • Evaluated and visualized comparative results using multiple metrics in R to assess model accuracy, stability, and interpretability.
  • Integrated demographic and socioeconomic variables to improve overall prediction performance and relevance.