UNIVERSITY PROJECT

Fleet Expansion &
Operational Feasibility Study

Developing a Monte Carlo simulation to evaluate the financial impact of adding a 3rd vehicle to a courier fleet. Using probabilistic modeling to calculate ROI and break-even points under fluctuating demand.

Tool

Microsoft Excel

Focus

Data Analysis

Overview

This project modeled demand and capacity using statistical distributions to optimize logistics and fleet sizes for a mid-scale distribution center. By leveraging advanced Monte Carlo simulation techniques within a spreadsheet environment, I provided stakeholders with a robust framework to evaluate capital investments under high-uncertainty conditions.

Methodology

Strategic Pillars

analytics

Demand & Loss Modeling

Using Uniform distributions for hourly package volume and Poisson for lost/failed deliveries.

hub

Traffic Impact Analysis

Modeling delivery performance drops during peak hours (09:00 & 17:00) using stochastic traffic coefficients.

trending_up

Revenue Elasticity

Implementing an inverse-linear relationship between daily revenue levels and incoming cargo volume.

payments

Amortization Analysis

Determining the 1.5-year payback period for a 1.000.000 ₺ investment based on net profit simulations.

The "How"

Technical Deep Dive

Logic Engineering

Developed a dynamic simulation model using complex nested IF statements and probability-weighted lookup tables.

Iteration Engine

Utilized Excel’s Data Tables to run iterative scenarios, observing the system's performance across different revenue tiers.

Fleet Optimization

Compared 2-vehicle vs. 3-vehicle configurations to identify the threshold where a new driver becomes profitable.

Key Learnings

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    Practical Risk Modeling

    Applying theoretical distributions to solve real-world business problems like logistics bottlenecks.

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    Investment Intuition

    Understanding how operational costs and fixed investments interact with market demand.