Analysis of Parallel Boarding Methods in a Multi-Aisle Flying Wing Aircraft
Emil Ryd, Vihaan Khandelwal, Hayden So, Jason H. Steffen

TL;DR
This study evaluates various boarding methods for a multi-aisle Flying Wing aircraft, demonstrating that parallel aisle boarding significantly reduces boarding time and that practical approaches nearly match optimal methods.
Contribution
It provides a comparative analysis of boarding strategies in multi-aisle aircraft, highlighting the effectiveness of parallel boarding and practical implementation feasibility.
Findings
Parallel aisle boarding converges to the fastest Steffen method.
Parallel boarding reduces boarding time compared to single-aisle aircraft.
Practical parallel boarding approaches are nearly as efficient as optimal methods.
Abstract
We examine the speed of different boarding methods in a proposed Flying Wing aircraft design with four aisles using an agent-based model. We study the effect of various passenger movement variables on the boarding process. We evaluate the impact of these factors on the boarding time when the boarding process runs sequentially and in parallel with the aisles of the Flying Wing layout. Then, we analyze the impact of an increase in the number of aisles on the relative speed of all boarding methods and conclude that methods utilizing boarding of the separate aisles simultaneously (parallel boarding) converge to the fastest boarding time given by the Steffen method. With parallel boarding of the aisles the relative advantage of the Steffen method compared to Windows-Middle-Aisle (WMA) or Back-to-front boarding decreases, from being 1.6-2.1 times as fast to being approximately equal for our…
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Taxonomy
TopicsAerospace Engineering and Control Systems · Advanced Aircraft Design and Technologies · Advanced Manufacturing and Logistics Optimization
