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EXECUTIVE SUMMARY Beside safety and security new challenge for Aviation industry is also climate change. A vision has been outlined for international Aviation industry comprising of zero carbon emission growth in the future. Challenge is equally distributed along all stake holders of industry to achieve the goal of zero carbon emission by 2050. At present Aviation contributes 2% of CO2 emission in over all emissions which can reach up to 3% by 2050. To achieve this goal IATA has been playing leading role to bring all industry partners on common platform that includes manufacturers, Airports, Airlines, Governments, infrastructure providers, technology and economy etc. A growing carbon footprint is a big concern for the whole world. To achieve a carbon neutral growth of aviation industry IATA has planned a Four Pillar Strategy which has been accepted by aviation and government regulations. These four Pillars are Infrastructure, Technology, economic instruments and operations. To achieve this goal is not impossible for the aviation industry as industry has a record of achieving impossible in the past. Aviation industry has achieved 70% fuel efficiency in last 40 years. This strategy helps industry to asses and implement the measures for carbon neutral growth by improvement in Air Traffic Management, Air frames, Airport operations and achieving fuel efficiency or finding out substitute fuels which will not contribute towards carbon emission. This framework also elaborates on increasing cooperation and coordination among different industry partners and governments for carbon neutral growth. Whole industry is united moving towards common goal of zero carbon emission. In this document details are given about that how industry is getting united and moving towards a goal by modernising the aviation infrastructure, operations, developing new technologies and what contribution economic elements have in achieving this goal.
Transportation Research Part D: Transport and Environment , 2016
Emissions from aviation will continue to increase in the future, in contradiction of global climate policy objectives. Yet, airlines and airline organizations suggest that aviation will become climatically sustainable. This paper investigates this paradox by reviewing fuel-efficiency gains since the 1960s in comparison to aviation growth, and by linking these results to technology discourses, based on a two-tiered approach tracing technology-focused discourses over 20 years (1994-2013). Findings indicate that a wide range of solutions to growing emissions from aviation have been presented by industry, hyped in global media, and subsequently vanished to be replaced by new technology discourses. Redundant discourses often linger in the public domain, where they continue to be associated with industry aspirations of ‘sustainable aviation’ and ‘zero-emission flight’. The paper highlights and discusses a number of technology discourses that constitute ‘technology myths’, and the role these ‘myths’ may be playing in the enduring but flawed promise of sustainable aviation. We conclude that technology myths require policy-makers to interpret and take into account technical uncertainty, which may result in inaction that continues to delay much needed progress in climate policy for aviation.
Ottawa Law Review, 2018
The 2015 Paris Agreement represents a significant step forward in international cooperation to mitigate greenhouse gas (GHG) emissions. Aviation emissions represent approximately 2 percent of global GHG emissions, a percentage that is predicted to grow rapidly over the next few decades. In spite of their importance, aviation emissions have been essentially left out of the UNFCCC processes, including the recent Paris Agreement. Responsibility for negotiating a plan to mitigate global aviation emissions has been left to the UN International Civil Aviation Organization (ICAO). After years of challenging negotiations, ICAO members recently agreed to establish a global offsetting mechanism. While this is an important step, the program will not begin its voluntary pilot phase until 2021 and its first mandatory phase in 2024. Further, the program only covers international emissions. Given the projected growth in this industry, some jurisdictions are taking steps domestically to mitigate aviation emissions. For instance, the countries of the European Union (EU) included aviation in the EU Emissions Trading Program in 2012, although they offered international flights a hiatus while awaiting the outcome of ICAO negotiations on a market-based mechanism. In the wake of ICAO’s decision to implement an offsetting program, states now need to determine whether and how they will regulate emissions from aviation. This paper examines Canada’s options for mitigating aviation emissions. Under Canada’s division of legislative powers, aviation falls squarely within federal jurisdiction. As such, most provincial climate change policies exclude domestic aviation. We examine the potential for federal action on GHG emissions from domestic aviation as a first step in the broader climate change action program, as well as the possibility of further action on international flights. Since the majority of aviation emissions are a consequence of burning fuel, we first survey the ways in which aviation fuels are currently regulated and then we consider the potential for carbon pricing and other regulations to be applied. We argue that addressing GHG aviation emissions would not only show leadership, but could also ultimately set Canada up to cooperate with the EU in the event it once again includes international flights in the EU ETS. Taking steps to implement a carbon price on international aviation in Canada could ensure that the considerable revenue that would be raised by such a carbon price stays in Canada.
Action plans are a practical means for States to communicate to ICAO information on their activities to address CO2 emissions from international civil aviation. The ICAO Action Plan contains info about:Expected results: International RTK (Revenue Tonne Kilometre), fuel consumption, and projected future CO2 emissions (to 2050 is ideal); List of measures proposed to address CO2 emission from international civil aviation ; and Information on any assistance needs (financial, technological, training, etc.).
11th AIAA Aviation Technology, Integration, and Operations (ATIO) Conference, 2011
In this paper we confront widely accepted global climate stabilization goals (70% reduction of CO2 emissions) with the International Civil Aviation Organization’s (ICAO) forecasts of future commercial aviation growth, in order to explore the real possibilities of realizing these climate stabilization goals. By using ICAO forecasts, we clearly show that, instead of the proclaimed 70% reduction of CO2 emissions, air transport’s CO2 emissions are going to rise five-fold (4.9 times) in the 2005-40 period. But even if a 70% increase of aviation’s energy efficiency and reduction of CO2 emissions could be somehow (miraculously) achieved, CO2 emissions of air transport would be higher by 50% in 2040 (than in 2005), due to the sudden increase in the volume of air-transport tourist trips. So, if the aim is to achieve ambitious energy consumption and GHG reduction for air transport within the next few decades, policies should aim at reducing total consumption, which means reducing VKT – not just vehicle-specific consumption. Due to the extremely high growth rates in the volume of air traffic, it is highly unlikely that technical progress of engines will be sufficient to reduce overall emissions or even keep them at today’s levels. Hence, the policy focus should shift to more rigorous and efficient implementation of market-driven instruments, which, apart from creating incentives to develop and use low-emission technologies, can also reduce the demand for travel.
2012
Use of biofuel as a substitute or extender for mineral jet fuel (Jet A1 kerosene) has rapidly moved from a relatively niche research topic to mainstream attention, with Virgin Atlantic in 2007 announcing plans for biofuel tests with one of its 747s and then making a test flight with a 747 in February 2008, using fuel derived from a mixture of Brazilian babassu palm oil and coconut oil, with one of the four engines connected to an independent biofuel tank that could provide 20 per cent of the engine's power (BBC, 2008).
Climate change and aviation: Issues, challenges and solutions, 2009
European nations agree they must tackle escalating greenhouse gas emissions arising from energy consumption. In response, several nations have set emission reduction targets for future years. In theory at least, these targets are chosen to correspond with stabilizing emissions at levels that are likely to avoid 'dangerous climate change'.
In the e�ffort to implement the IATA four-pillar strategy for emissions reduction and in view of achieving the aviation industry's high-level goals for carbon emissions reduction, IATA launched its "Technology Roadmap for Environmentally Sustainable Aviation" (TERESA) initiative bringing together manufacturers, scientists, government agencies, infrastructure service providers and airlines. Under this initiative the German Aerospace Center (DLR) and the Aerospace System Design Laboratory (ASDL) of Georgia Tech conducted the screening, description, selection, modeling and assessment of appropriate technologies. The application of the technologies into reference aircraft on their particular mission was modeled. The results of this modeling were subsequently fed into a world fleet forecast model, which takes into account an updated calendar of future aircraft entry into service. Thus the model accounts for the eff�ects of CO2 reduction potential via technology introduction...
Taxing the aviation sector at the EU level and using the resulting revenues to reduce Member States’ contributions to finance the EU budget presents itself as a huge opportunity not only to decrease carbon emissions effectively, but also to reform the EU system of own resources. The aviation sector is a small but fast growing emitter of carbon dioxide. The failed attempts of several EU Member States to introduce a flight ticket tax and the pressure on those EU Member States still levying such a tax clearly demonstrate the limits of national aviation taxation. Assigning any kind of taxes on flight tickets to the EU level would greatly reduce the tax enforcement problems inherent to mobile tax bases and put a stop to harmful tax competition between EU Member States. A double dividend, consisting of a reduction of CO2 on the one side and a boost for the economy on the other side, is a likely scenario if additional tax revenues are spent in the right way. Therefore, in this paper it is proposed that all revenues from a European carbon-based ticket tax should be used to reduce contributions of Member States to the EU budget. This would allow national governments to reduce taxes more harmful for growth and employment, in particular the high tax burden on labour. Given the current political and legal situation a European carbon-based ticket tax has better chances of implementation compared to a tax on aviation fuel and is therefore a financial instrument which could foster sustainable growth in the very near future. The paper estimates the expected revenue from implementing a carbon-based flight ticket tax at the EU level and revenue distribution across EU Member States. In particular, we propose that every passenger departing from an airport within the EU and every passenger arriving from outside the EU at an EU-based airport is subjected to this new carbon tax which is calculated individually for every route flown. The paper uses a new and very exact data set, which (depending on the country) assigns to approximately 75% to 90% of the respective intra and extra EU routes flown in the year 2014 the corresponding carbon dioxide emissions per passenger (using the ICAO methodology). Based on the demand elasticities provided by IATA (2007), we are thus able to exactly calculate the tax revenues per passenger per route that could have been generated in 2014 by introducing a carbon-based flight ticket tax in the EU.
Aviation emissions are an important contributor to global climatic change. As growth in travel demand continues to outstrip improvements in the fuel efficiency of air travel, the aviation contribution to climate change is likely to grow substantially. Consequently, measures that effectively reduce travel demand are required if atmospheric carbon concentrations are to be limited. The efficacy of the Australian Clean Energy Future policy which placed a $23.00AUD (FY 2012) to $24.15 AUD (FY 2013) per tonne levy on carbon-dioxide equivalent emissions from July 2012 to June 2014 is tested. Specifically, time-series regression is used to estimate the effect of this carbon price policy on the level of domestic passenger kilometres flown in Australia, while adjusting for costs of production (i.e. fuel and labour costs), economic activity (i.e. gross domestic product), competitive effects (i.e. airline capacity), and exogenous shocks. There was no evidence that the carbon price reduced the level of domestic aviation in Australia. Carbon pricing measures may have to be levied at a greater rate to affect behavioural change, particularly given the limited potential for future aviation efficiency gains.
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