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Nicholas Fairnak - Business Analytics
This portfolio showcases a curated selection of data-driven projects that reflect my technical capabilities, problem-solving mindset, and focus on real-world impact.
- Project 1 – NFL Season Optimization
- Project 2 – Housing Market Trend Analysis
- Project 3 – Competitive Strategy Simulation
Each project combines analytical thinking with practical execution, highlighting my skills in Python, R, SQL, Power BI, and optimization modeling. Please scroll down the page for more information.
NFL 2025 Season Optimization: Minimizing Travel
Built an NFL scheduling optimization model to minimize total team travel across the 2025–26 regular season. Using AMPL and Python in Google Colab, we modeled 272 games with real-world constraints, including bye weeks, home/away limits, and matchup rules.
- Developed a binary integer program with a travel-minimizing objective
- Implemented a 6-7-4 matchup format to simplify standings-based scheduling
- Enforced logic constraints (e.g., no duplicates, no teams playing themselves)
- Created visualizations with Matplotlib and Seaborn to present insights
- Delivered a presentation communicating technical results to a non-technical audience
Building the Model
AMPL Coding for the models parameters, binary variables, and objective function.
• Each team plays exactly 17 games across 18 weeks
• 6 divisional games per team (home and away against each rival)
• One game per team per week, plus one designated bye week
• Division rivals must face off exactly twice
• Teams receive 8 or 9 home games to match NFL policy
• No more than 32 total games scheduled per week
These are just a few of the constraints used to ensure the schedule remains fair, realistic, and aligned with NFL rules.
Output for Week 1. The model generates all 18 weeks at once.
Optimal Solution: 301,442 miles traveled. This is mulitplied by 2 to account for flights back.
Travel Map
One-way travel for all 32 teams across the season, created with Python packages.
Housing Market Trends: Analysis
This project analyzed housing and rental market trends using Zillow House Value Index (ZHVI) data across Wake County, North Carolina metro areas, and select national markets.
Using R and Tidyverse tools, I explored how property values have changed over the past decade, identified regional differences, and built visualizations to highlight both historical patterns and future projections.
- Identified overall price trends, market dips, and affordability differences between high- and low-cost regions.
- Compared national metro markets (Chicago, Denver, Houston, New York) to highlight stability, volatility, and affordability gaps.
- Produced forecast models projecting short- and long-term housing value changes, revealing a broad dip in 2023 with New York expected to lead future growth.
Rental Costs in NC (2015-2023)
• Displays average rental cost growth in Asheville, Charlotte, Durham, Fayetteville, Raleigh, and Wilmington.
• Every city shows a sharp increase, with Asheville highest and Fayetteville lowest.
Home Values in NC Metro Areas (2013-2023)
• Violin and box plots comparing Asheville, Charlotte, Raleigh-Cary, and Wilmington.
• Charlotte-Concord-Gastonia has the lowest median home value; Wilmington shows the highest outliers (luxury homes).
• Asheville has the densest cluster around its median.
Future Home Value Projections (2024-2025)
Competitive Strategy Simulation
For my undergraduate capstone project I served as the Research and Development lead in our Capsim Business Simulation. For 8 weeks our team competed across five market segments, forecasting sales and adjusting products, pricing, marketing, and production each week.
My role focused on repositioning products meet consumer demands while ensuring long-term profitability and competitive advantage.
- Provided the best product in each segment (Broad Differentiation Strategy)
- Segmentation & Forecasting: Analyzed customer demand and sales data across 5 market segments to reposition products and anticipate competitor moves.
- Key Takeaways: This project required critical thinking and team based problem solving. By adapting strategies in response to weekly results, our team achieved 2nd place overall.
Managing Product Drift
In the simulation, each product’s ideal position within its segment would shift every round, reflecting changing consumer preferences.
Determined when to reposition products versus when to maintain their current trajectory. This required balancing trade-offs:
● Strategic Timing: Sometimes moving a product early captured market share before competitors could adjust.
● Critical Thinking: Every decision demanded weighing short-term sales impact against long-term profitability and segment dominance.
Tactical Decisions
●Repositioned products