自主集装箱货运的经济影响分析

Tzameret H. Rubin
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引用次数: 0

摘要

先进的机器人技术是一种颠覆性技术,有可能产生巨大的经济影响。根据麦肯锡全球研究所2013年的一项研究,先进机器人被确定为具有经济影响的12项颠覆性技术之一,估计有可能影响全球6.3万亿美元的劳动力成本(麦肯锡,2013年)。先进机器人技术的一个应用是货运港口的自动化,目的是通过降低成本和提高集装箱处理效率来提高货运码头的盈利能力。它们包括配备雷达和激光制导技术的自动制导车辆(AGV)机器人,通过最大限度地减少空间分配时间并提供显着的安全性改进,以最佳和最有效的方式导航和定位集装箱。需要增加货运能力以支持经济增长是一个全球趋势,澳大利亚的报告也承认迫切需要增加货运能力。除非澳大利亚港口能够通过提高生产率来扩大其运力,否则货物供应链上不断发展的技术将给澳大利亚港口造成瓶颈,从而阻碍其经济增长。根据基础设施、运输和区域经济局(BITRE)的数据,在2029- 2030年,澳大利亚各地港口的吞吐量将是现在的近两倍。这种运力的增加需要通过空间和运输能力的优化来显著改善国家资源的使用(BITRE, 2010)。对澳大利亚港口最重要的贡献将来自一个完全自动化的系统,该系统连接码头操作系统(TOS)和与码头物流系统(TLS)集成和接口的设备。本报告侧重于能够在澳大利亚港口处理货物的先进机器人,并提供了在澳大利亚向自动化自主跨运车发展的经济效益分析和预测。目前,布里斯班港运营着一个完全自主的跨船码头,另一个将于2014年在悉尼植物学湾投入运营。2015年1月,卡尔玛宣布已获得一份合同,为澳大利亚墨尔本维多利亚国际集装箱码头有限公司(VICT)的新码头提供综合自动化系统(卡尔玛,2015)。自主跨界运输技术不仅可以显著提高货运能力,还可以提高操作的安全性,通过将劳动力与重型机械隔离开来,减少人工错误的可能性。Patrick -澳大利亚领先的集装箱装卸服务公司之一报告说,在布里斯班码头跨区自动化的第一年,他们实现了75%的安全事故减少,在接下来的几年里减少了90% (Patrick, 2012)。研究结果表明,2014年至2030年间,自动跨界运输技术的净现值(NPV)对新南威尔士州的直接影响价值约为94.2至100亿美元。在全国范围内,预计净现值收入增长在321亿至341亿美元之间。本研究仅针对一种具体的自动化技术——跨运机技术进行研究。一个完全自动化的货运港口有可能增加经济影响。因此,应该考虑对全自动化系统及其潜在的生产力提高进行更广泛的分析。本报告没有进行成本效益分析,因为创新研究表明,任何创新成果都不能充分体现经济效益,因此成本通常很高,在大多数情况下,没有创造有形的利益,但创造了无形的东西,比如知识不容易量化。在本报告中,我们只介绍了大学研发工作长期过程的最终应用。同样,由于引入该技术而带来的安全效益也得到了解决,但没有量化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Economic Impact Analysis of Autonomous Containerised Freight
Advanced robotics is a disruptive technology that has the potential to create massive economic impact. According to a McKinsey Global Institute study in 2013, advanced robotics were identified as one of twelve disruptive technologies to have an economic impact, with an estimated potential to affect $6.3 trillion in labour costs globally (McKinsey, 2013). One application of advanced robotics is the automation of cargo ports, with the intention of increasing profitability for cargo terminals by reducing costs and increasing container handling productivity. They comprise autonomous guided vehicle (AGV) robots equipped with radar and laser guidance technology to navigate and position containers in the optimum and most efficient manner, by minimising space allocation time and providing significant safety improvements. The need to increase cargo capacity to support economic growth is a global trend, which is echoed by Australian reports that acknowledge the urgent need for freight capacity increase. Unless Australian ports are able to expand their capacity by improving their productivity, the growing technology along the cargo supply chain will create a bottleneck in Australian ports that could hamper its economic growth. According to the Bureau of Infrastructure, Transport and Regional Economics (BITRE) data, in the year 2029-30, across Australia, ports will handle almost twice as much capacity as they do today. This capacity increase would require a significant improvement in using the nation’s resources, through optimisation of space and transportation capabilities (BITRE, 2010). The most significant contribution to Australian ports would result from a fully automated system that connects the terminal operating system (TOS) and equipment that would integrate and interface with the terminal logistic system (TLS). This report focuses on advanced robotics able to handle the cargo in Australia's ports, and provides an economic benefit analysis and forecast of moving towards automated autonomous straddle carriers across Australia. Currently Brisbane port operates a fully autonomous straddle carrier terminal, with another due to become operational in Botany Bay, Sydney in 2014. In January 2015 Kalmar announced that it has been awarded a contract to provide an integrated automation system to handle operations at Victoria International Container Terminal Ltd's (VICT) new terminal in Melbourne, Australia (Kalmar, 2015). Autonomous straddle carrier technology can not only significantly improve freight capacity but can also enhance the safety of operations, reducing the potential for manual errors by isolating the workforce from heavy machinery. Patrick – one of Australia leading company for containers stevedoring services reports that in the first year of straddle automation at Brisbane terminal they achieved a 75% reduction in safety incidents that increased with a reduction of 90% in following years (Patrick, 2012) . Findings suggest a net present value (NPV) of autonomous straddle carrier technology in direct impact worth for NSW of around $9.42 to $10 billion between the years 2014 and 2030. Nationally, the estimated NPV revenue gain ranges between around $32.1 billion and $34.1 billion. This study solely focuses on a specific automation technology - straddle carrier technology. A fully automated cargo port has the potential for increased economic impact. Therefore, a broader analysis of a fully automated system and its potential productivity increase should be considered. A cost benefit analysis was not undertaken in this report as innovation studies show that any innovation outcome cannot capture the full benefit to the economy, therefore the costs are normally high and in most cases create no tangible benefit but creates intangibles like knowledge is not easy to be quantified. In this report we present only the final application of a long term process of university R&D effort. Similarly, the safety benefits due to the introduction of this technology were addressed but they were not quantified.  
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