Development of Brake Shoe with Carbon Footprint Reduction

R.B. Casagrande, A.R.A. De Souza, A.V. Finimundi, C.H.S Pereira, D. Masotti, R.J. Rombaldi, T. Gotardo
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Abstract

Considered one of the greenest forms of transport, the rail industry is at an exciting point pursuing several key initiatives to decarbonise its operations, assets, and supply chains. Therefore, having a brake shoe with a lower carbon footprint is essential for achieving the goals related to decarbonizing the operation, as it is a wear item. For this purpose, a carbon footprint measurement methodology was applied to the development of a friction material for railway brake shoes in order to reduce the carbon footprint generated in the production of the material, combining a sustainable material with greater durability in operation, thus reducing the total cost of ownership. In order to assess the advantages of the new product, a comparative analysis was carried out of the carbon footprint of the conventional shoe and the new railway shoe proposal, both used in the same application, considering the performance and environmental impact of each raw material and stage of the production process. This assessment was carried out by compiling and analyzing greenhouse gas emissions throughout the entire life cycle, from the extraction of raw materials, through all the links in its production chain to the gate, in accordance with ABNT ISO/TS 14067:2018. Performance was also assessed based on the AAR M-926 standard using a 1:1 scale inertial dynamometer capable of simulating the various operating conditions following the specifications of the Brazilian market. The comparative analysis showed that the new railway shoe is a more sustainable option, as it emits 43% less greenhouse gases than the conventional shoe (avoiding 4.7 kg of CO2e in the environment). The performance results also indicated a durability gain of 20% compared to conventional brake shoes.
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开发减少碳足迹的制动蹄铁
铁路被认为是最环保的运输方式之一,铁路行业正处于一个令人兴奋的阶段,正在推行几项关键举措,以实现其运营、资产和供应链的去碳化。因此,由于制动蹄属于易损件,碳足迹较低的制动蹄对于实现运营脱碳目标至关重要。为此,在开发铁路制动蹄摩擦材料时采用了碳足迹测量方法,以减少材料生产过程中产生的碳足迹,将可持续材料与更高的运行耐用性相结合,从而降低总拥有成本。为了评估新产品的优势,我们对传统制动蹄铁和新铁路制动蹄铁提案的碳足迹进行了比较分析,这两种材料都用于相同的用途,并考虑到了每种原材料和生产过程各阶段的性能和对环境的影响。这项评估是根据 ABNT ISO/TS 14067:2018 标准,通过汇编和分析整个生命周期的温室气体排放量进行的,包括从原材料的提取、生产链的所有环节到出厂。此外,还根据 AAR M-926 标准,使用能够按照巴西市场规格模拟各种运行条件的 1:1 比例惯性测功机进行了性能评估。对比分析表明,新型铁路鞋的温室气体排放量比传统鞋少 43%(避免向环境排放 4.7 千克 CO2e),是一种更具可持续性的选择。性能结果还表明,与传统制动蹄相比,耐用性提高了 20%。
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