课题基金 / 基金详情

Airport Capacity Consequences Leveraging Aviation Integrated Modelling (ACCLAIM)

Airport Capacity Consequences Leveraging Aviation Integrated Modelling (ACCLAIM)
利用航空集成建模 (ACCLAIM) 的机场容量后果
批准号:
EP/M027031/1
负责人:
Andreas Schafer
金额:
$86.48万
依托单位:
依托单位国家:
英国
项目类别:
Research Grant
财政年份:
2015
资助国家:
英国
项目状态:
已结题
起止时间:
2015 至 --

项目摘要

项目成果

Andreas Schafer的其他基金

相似基金

相关文献

中文摘要
翻译
全球航空运输量以每年5%左右的速度增长,这一速度通常超过了机场容量的增长。在工业化国家尤其如此,在那里,机场扩建的经济利益日益被环境问题所抵消。不受限制的运力增长将通过增加噪音和降低空气质量来影响机场周围的居民,并通过其对气候变化的贡献来影响更广泛的人口。然而,限制产能增长可能会对国家和全球产生重大影响。运力限制可能导致机票价格上涨和航空公司网络变化,使过境和始发目的地交通远离该地区,从而限制空中交通和经济的增长。伦敦就是一个热门的例子。希思罗机场的机场容量限制可能最终导致伦敦失去枢纽地位,这几乎肯定会给伦敦和整个英国经济带来直接、间接和间接的负面经济后果。因此,英国政府目前正在评估是否增加该系统的容量。不仅在欧洲和美国,而且在越来越多的发展中市场,许多国家都在处理这种资本密集型的机场容量扩大决定。各国经济的得失取决于其主要机场,特别是洲际中转枢纽的表现。因此,机场容量扩张的决定需要基于严格的科学模型,以综合的方式模拟乘客和行业的行为,并说明各种选择的经济和环境影响。开发这样的模式是具有挑战性的,因为虽然全球航空旅行预计将在未来几十年稳步增长,但随着新兴市场经济的扩张和新商业模式(例如,联盟,低成本长途航空公司),营销策略(例如,忠诚度计划)和新技术的发展,预计全球交通分布和结构将发生重大变化。非常远程的飞机将允许乘客绕过洲际枢纽)。此外,这种变化的驱动因素(例如,未来收入和国内生产总值水平、燃料价格)以及变化本身的性质都存在高度的不确定性。目前用于评估机场扩建政策影响的工具有限。现有模型(如DfT航空模型)没有考虑到影响乘客选择机场和航空公司的一些关键因素(如机票和忠诚度计划),也忽略了航空公司对乘客的竞争。此外,他们只以最简单的方式处理不确定性,通常使用基于场景的分析,并且不试图模拟系统结构的未来变化(例如低成本长途航空公司的增长)。因此,我们建议开发一个适应性强、反应迅速的模型,该模型可以快速评估机场容量限制和扩张的有利和不利影响,并考虑到各个层面的不确定性。该模型,ACCLAIM,将建立在现有AIM框架的基础上,并通过为数十亿英镑的投资决策提供支持,显著增强其能力。提出的方法是将旅客行程选择(包括机场和航空公司选择)的全球模型作为旅行时间,票价,航空公司忠诚度,机场访问和成本的函数,与航空公司决策模型相结合,模拟竞争下的航空公司票价,网络,频率和机队决策。由此产生的乘客和空中交通流量将输出到影响模块,评估气候、空气质量、噪音和经济影响。然后将在伦敦机场容量的背景下演示该工具的应用,模拟其对国家、区域和全球范围的影响。
英文摘要
Global air transport grows at around 5% per year, a rate that generally exceeds increases in airport capacity. This is especially true in the industrialized world, where the economic benefit of airport expansion has been increasingly counterbalanced by environmental concerns. Unrestricted capacity growth would impact those living around airports via increased noise and reduced air quality, and on the wider population via its contribution to climate change. However, restricting capacity growth can have significant national and global implications. Capacity constraints may lead to increases in airfares and airline network changes that take transit and origin-destination traffic away from the region, thus limiting growth in air traffic and the economy. London is a topical example. Airport capacity constraints at Heathrow may ultimately lead to a loss of London's hub status, which would almost certainly translate into negative direct, indirect and induced economic consequences for London and the UK economy as a whole. Hence, the UK Government is currently evaluating whether to add capacity to the system. Such capital-intensive airport capacity expansion decisions are being dealt with by many countries, not only in Europe and the United States, but also increasingly in developing markets. Countries stand to gain or lose economically depending on the performance of their major airports, particularly intercontinental transit hubs. Airport capacity expansion decisions therefore need to be based on rigorous scientific models that simulate passenger and industry behaviour in an integrated way, as well as illustrate the economic and environmental implications of the various options. Developing such models is challenging because, while global air travel is expected to grow steadily over the next few decades, significant changes are expected in the global distribution and structure of traffic, with the expansion of emerging market economies and the development of new business models (e.g., alliances, low-cost long-haul airlines), marketing strategies (e.g., loyalty programs) and new technology (e.g., very long-range aircraft that will allow passengers to bypass intercontinental hubs). Furthermore, there is a high degree of uncertainty in the drivers of this change (e.g., future income and GDP levels, fuel prices), as well as the nature of the change itself. The tools currently used to assess the impacts of airport expansion policies are limited. Existing models (e.g., the DfT Aviation Model) do not take into account a number of critical factors affecting passenger choice of airports and airlines (e.g. air fare and loyalty programmes), and ignore airline competition for passengers. In addition, they deal with uncertainty only in the simplest way, typically using scenario-based analysis, and do not attempt to model future changes in system structure (such as the growth of low-cost long-haul carriers). We therefore propose to develop an adaptable, responsive model, which can rapidly assess both the beneficial and undesired impacts of airport capacity constraints and expansion, accounting for uncertainty at every level. This model, ACCLAIM, would build on the existing AIM framework, and add significantly to its capabilities by providing support to the multi-billion pound investment decisions at stake. The proposed methodology is to integrate a global model of passenger itinerary choice (including airport and airline choice), as a function of travel time, fare, airline loyalty, airport access and cost, with a model of airline decision making, simulating airline fare, network, frequency and fleet decisions under competition. The resulting passenger and air traffic flows will then output to impact modules, estimating climate, air quality, noise and economic effects. Application of the tool will then be demonstrated in the context of airport capacity in London, simulating its impact on a national, regional and global scale.
期刊论文(9)
专著(0)
科研奖励(0)
会议论文
DOI: 10.1038/s41560-018-0294-x
发表时间: 2019-02-01
期刊: NATURE ENERGY
影响因子: 56.7
作者: [Schafer, Andreas W., Barrett, Steven R. H., Torija, Antonio J.]
通讯作者: Torija, Antonio J.
DOI: 10.1016/j.tranpol.2019.04.013
发表时间: 2019-07-01
期刊: TRANSPORT POLICY
影响因子: 6.8
作者: [Dray, Lynnette M., Krammer, Philip, Schafer, Andreas W.]
通讯作者: Schafer, Andreas W.
DOI: 10.2514/1.d0070
发表时间: 2017-12
期刊:
影响因子: --
作者: [L. Dray;I. Laplace;A. Marzuoli;E. Feron;A. Evans]
通讯作者: L. Dray;I. Laplace;A. Marzuoli;E. Feron;A. Evans
Simulating Airline Behavior: Application for the Australian Domestic Market
模拟航空公司行为:澳大利亚国内市场的应用
DOI: 10.1177/0361198119826533
发表时间: 2019
期刊: Journal of the Transportation Research Board
影响因子: --
作者: [Doyme K]
通讯作者: Doyme K
共 8 条
    Towards Zero Carbon Aviation (TOZCA)
    • 批准号:
      EP/V000659/1
    • 项目类别:
      Research Grant
    • 资助金额:
      $175.82万
    • 财政年份:
      2021
    • 负责人:
      Andreas Schafer
    • 依托单位:
    A Highly Modular Systems Model For Integrated Assessment Of Aircraft Emissions
    • 批准号:
      EP/D060001/1
    • 项目类别:
      Research Grant
    • 资助金额:
      $97.27万
    • 财政年份:
      2006
    • 负责人:
      Andreas Schafer
    • 依托单位:
    海外基金