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阿根廷的民航排放。

Civil aviation emissions in Argentina.

机构信息

Argentine National Technological University (GEAA UTN / CONICET), Argentina.

出版信息

Sci Total Environ. 2023 Apr 15;869:161675. doi: 10.1016/j.scitotenv.2023.161675. Epub 2023 Jan 17.

DOI:10.1016/j.scitotenv.2023.161675
PMID:36669658
Abstract

The impact of aviation on climate change is reflected in increasing emissions of CO2 and other pollutants from fuel burning emitted at high altitudes, representing 2.9 % of total Greenhouse gases (GHG) emissions in 2019. However, mitigations options for decarbonization of aviation are difficult to implement given operational safety, technology maturity, energy density and other constraints. One alternative for mitigation is the use of certified sustainable aviation fuel (SAF) with lower carbon intensity than conventional jet fuel (CJF). This research presents an inventory of Argentine civil aviation emissions for its domestic and international flights, and analyzes the possibility of supplying SAF as a mitigation strategy given its abundant biomass production. Argentine aviation activity is presented as a monthly 4D (latitude, longitude, altitude and time) spatial inventory for the interval 2001-2021, based on origin and destination city pairs, aircraft types and airlines. Fuel consumption and pollutant emissions were calculated for landing-and-take-off and cruise phases. Monthly domestic ranged from 67 to 179 kt CO (2001-2019). Annual peak values occurred in 2019 consuming 560 kt CJF and direct emitting of 1.77 Mt CO. While Revenue-Passenger-Kilometer (RPK) grew almost 4 times (4.18 × 10 in 2001 to 16.42 × 10 in 2019), the number of flights changed only 1.5 times (from 98,000 in 2002 to 152,000 in 2019). The main efficiency indexes varied from 97 t CJF/RPK, 308 gCO/RPK to 34 t CJF/RPK, 107 gCO/RPK between 2001 and 2019, respectively, showing an average annual improvement of 3.5 % due to partial fleet renewal, especially from 2015 onwards. Emissions of other pollutants for 2019 reached total values of CO 14.14 kt; NOx 6.77 kt; PM tot 55.12 kt. For the period 2001-2019, international aviation consumed between 1 Mt - 1.5 Mt CJF, directly emitting between 3.30 and 4.80 Mt of CO; RPKs went from 6.234 × 10 to 20.524 × 10; the efficiency indices ranged from 529 to 240 gCO/RPK. The most important changes occurred with an optimization of routes and number of flights and the replacement of the four-engines (B747, A380) by more efficient twin-engines (B777, A330) aircraft. Argentina is not required to any offsetting regulatory program due to its small aviation market (approx. 0.22 % global market in 2019), nor has to date certified SAF production pathways, nevertheless it has potential for SAF availability based on actual biofuels production (ethanol, biodiesel and soybean oil) and biomass feedstock's existences. In this sense this studies proposes that 2019 domestic fuel consumption could be supplied using 79 % exportable amounts of sugarcane ethanol (257 ± 53 kt) (by Ethanol to Jet ETJ) and 34 % of exportable soybean oil (1079 ± 160 kt) (by hydroprocessed esters and fatty acids- HEFA) pathways. For this scenario average GHG emissions reached 1.321 ± 0.115 Mt CO2eq; which would imply a 62 % of the current emission value using CJF (2.17Mt CO2eq), or savings of about 838 kt CO2eq (38 %). At the 2019 level of harvest and biofuel production, up to 1.4 Mt of SAF could be produced from sugarcane ethanol/ETJ and soybean oil/HEFA mitigating up to 1.8 MtCO2eq. A 35 kt CO annual sectoral national mitigation strategy could be reached by using 14 kt of SAF.

摘要

航空对气候变化的影响体现在燃料燃烧在高空排放的 CO2 和其他污染物的增加,占 2019 年温室气体(GHG)总排放量的 2.9%。然而,由于运营安全、技术成熟度、能量密度和其他限制,航空脱碳的缓解措施很难实施。一种缓解方法是使用比传统喷气燃料(CJF)碳强度更低的经认证的可持续航空燃料(SAF)。本研究提供了阿根廷国内和国际航班的民用航空排放量清单,并分析了在生物质产量丰富的情况下使用 SAF 作为缓解策略的可能性。根据出发和到达城市对、飞机类型和航空公司,阿根廷航空活动呈现为 2001-2021 年期间的每月 4D(纬度、经度、高度和时间)空间清单。计算了着陆和起飞以及巡航阶段的燃料消耗和污染物排放。国内每月排放量在 2001-2019 年期间从 67 到 179 千吨 CO 之间。2019 年的年度峰值消耗了 560 千吨 CJF,并直接排放了 1.77 Mt CO。虽然收入-乘客-公里(RPK)增长了近 4 倍(2001 年的 4.18 × 10 增长到 2019 年的 16.42 × 10),但航班数量仅增加了 1.5 倍(从 2002 年的 98000 架增加到 2019 年的 152000 架)。主要效率指标在 2001 年至 2019 年期间从 97 吨 CJF/RPK、308 克 CO/RPK 变化到 34 吨 CJF/RPK、107 克 CO/RPK,表明由于部分机队更新,平均每年提高 3.5%,特别是自 2015 年以来。2019 年其他污染物的排放量达到了 CO 总量的 14.14 千吨;NOx 6.77 千吨;总 PM 55.12 千吨。在 2001-2019 年期间,国际航空消耗了 100 万至 150 万吨 CJF,直接排放了 330 万吨至 480 万吨 CO;RPK 从 6.234 × 10 增加到 20.524 × 10;效率指标在 529 至 240 克 CO/RPK 之间变化。最重要的变化是优化了航线和航班数量,并用更高效的双引擎(B777、A330)飞机取代了四引擎(B747、A380)飞机。由于阿根廷的航空市场规模较小(2019 年约占全球市场的 0.22%),因此不需要参与任何抵消监管计划,也没有获得经认证的 SAF 生产途径,但根据实际生物燃料(乙醇、生物柴油和大豆油)产量和生物质原料的存在情况,阿根廷有 SAF 的供应潜力。在这方面,本研究提出,2019 年国内燃料消耗可以使用 257 ± 53 千吨可出口的甘蔗乙醇(通过乙醇转化为喷气燃料 ETJ)和 34%可出口的大豆油(1079 ± 160 千吨)(通过加氢处理酯和脂肪酸-HEFA)路径来供应。对于这种情况,平均 GHG 排放量达到 1.321 ± 0.115 Mt CO2eq;这意味着使用 CJF(2.17Mt CO2eq)时,当前排放量的 62%,或约 838 kt CO2eq(38%)的减排量。在 2019 年的收获和生物燃料生产水平下,从甘蔗乙醇/ETJ 和大豆油/HEFA 可以生产高达 1400 千吨的 SAF,可减少 180 万吨 CO2eq。通过使用 14 千吨 SAF,可以实现每年 35 千吨的部门国家缓解战略。

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