Ramp Operations Monitoring System

J. Bonilla, H. Mohammed, J. Norris, T. Phung, I. Zegada-Frias
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Abstract

United Airlines (UAL) operations estimates that they spent $1.39 million in flight delay costs last year. The SENSIS Corporation was sponsoring the design of a system that would assist airport ramp personnel in the allocation of ramp resources by physically tracking each resource. Through much research and analysis, our group concluded that a good business case could not be made for SENSIS Corporation. Our main sponsor is now United Airlines. The system design described in this paper is an information, resource tracking, and communications system. The key operational benefits of the system include increased situational awareness for ramp personnel and reduced operating costs. A top-down approach was implemented to design the Ramp Operations Monitoring System (ROMS). Research concerning airport operations was conducted to identify the current problems and inefficiencies with ramp resource allocation. Stakeholder interviews were conducted to generate system requirements. The house of quality methodology was used to identify and define the system's functional and physical architecture. Objectives hierarchies were developed to determine the weighting functions for the system's requirements traceability matrix. A model was developed of the aircraft turn process. A model of daily ramp operations was also developed. Stochastic simulations were performed using the two models by using "Arena" to evaluate the proposed design's overall performance. Arena is a discrete event simulation modeling environment. Preliminary results indicate that a business case can be developed for the system described in this paper. Tracking the aircraft turn process appears to be the critical task of the system.
坡道作业监察系统
美国联合航空公司(United Airlines)的运营部门估计,他们去年在航班延误上花费了139万美元。SENSIS公司正在赞助设计一个系统,该系统将通过物理跟踪每个资源来帮助机场坡道人员分配坡道资源。通过大量的研究和分析,我们小组得出结论,SENSIS公司不可能有一个好的商业案例。我们现在的主要赞助商是联合航空公司。本文所描述的系统设计是一个信息、资源跟踪和通信系统。该系统的主要运营优势包括提高匝道人员的态势感知能力和降低运营成本。采用自上而下的方法设计坡道作业监控系统(ROMS)。对机场运营进行了研究,以确定当前匝道资源分配的问题和效率低下。进行涉众访谈以生成系统需求。质量之家方法论被用来识别和定义系统的功能和物理架构。开发了目标层次结构,以确定系统需求可追溯性矩阵的权重函数。建立了飞机转弯过程的数学模型。此外,还制订了一个坡道日常运作模式。采用“Arena”软件对两种模型进行随机模拟,以评估所提设计的整体性能。Arena是一个离散事件仿真建模环境。初步结果表明,可以为本文描述的系统开发一个业务案例。跟踪飞机转弯过程似乎是该系统的关键任务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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