Reducing the environmental footprint of glass manufacturing

IF 2.1 3区 材料科学 Q2 MATERIALS SCIENCE, CERAMICS
Scott Colangelo
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引用次数: 0

Abstract

The glass industry is a significant source of greenhouse gas emissions due to its energy consumption profile and the use of fossil fuels in the manufacturing process. Most of the energy to produce glass is consumed in the process of treating raw materials to elevated temperatures, usually above 1500°C. Glass manufacturing also generates significant environmental impacts, such as greenhouse gas emissions, air pollution, water consumption, and waste generation. Therefore, improving the sustainability of glass manufacturing is a significant challenge for the industry and society. There are ways to reduce the energy consumption and emissions of glass melting, such as recycling glass, using oxy-fuel burners, improving furnace insulation and design, and adopting electric melting technologies. These methods can help save energy, lower costs, and enhance the sustainability and environmental footprint of the glass industry. However, the industry faces challenges and barriers, such as technical feasibility, economic viability, capital investment, and market acceptance. More research and development must be invested to improve the energy efficiency and environmental performance of glass melting. The objective of this paper is to provide an overview of the growth glass industry has made over the past 30 years and the remaining challenges for sustainable glass manufacturing with a focus on the fiberglass segment. Sharing of procedural methods, technical approaches, and results can help enable the global glass industry in our future sustainability challenges. The fiberglass segment included a broad technical view including glass chemistry development, product development, new industry codes and standards, melting development, computational fluid dynamic modeling, life cycle assessments, and sustainability goals linked to capital planning. The net result delivered a significant reduction in environmental emissions at the global enterprise scale. The implemented changes have taken decades, significant investments, and resources to plan and develop. Practices reviewed and implemented can help drive collaboration and commonality within the glass industry to achieve sustainability goals. Action is needed now if the glass industry is to meet global government demands of reducing carbon emissions by 55% by 2030 and zero carbon emissions by 2050 in alignment with the Paris Agreement on decarbonization.

Abstract Image

减少玻璃制造的环境足迹
玻璃工业是温室气体排放的一个重要来源,原因在于其能源消耗情况以及生产过程中化石燃料的使用。生产玻璃的大部分能源消耗在将原材料处理到高温(通常超过 1500°C)的过程中。玻璃生产还会对环境产生重大影响,如温室气体排放、空气污染、水消耗和废物产生。因此,提高玻璃制造的可持续性是行业和社会面临的一项重大挑战。有一些方法可以减少玻璃熔化过程中的能耗和排放,例如回收玻璃、使用纯氧燃烧器、改进熔炉绝缘和设计以及采用电熔技术。这些方法有助于节约能源、降低成本,并增强玻璃行业的可持续性和对环境的影响。然而,该行业面临着各种挑战和障碍,如技术可行性、经济可行性、资本投资和市场接受度。必须投入更多的研发力量,以提高玻璃熔化的能效和环保性能。本文旨在概述玻璃行业在过去 30 年中取得的发展,以及可持续玻璃制造仍面临的挑战,重点关注玻璃纤维领域。分享程序方法、技术方法和成果有助于全球玻璃行业应对未来的可持续发展挑战。玻璃纤维部分包括广泛的技术视角,包括玻璃化学开发、产品开发、新的行业规范和标准、熔化开发、计算流体动力学建模、生命周期评估以及与资本规划相关的可持续发展目标。最终结果是在全球企业范围内大幅减少了环境排放量。所实施的变革需要数十年的时间、大量的投资和资源来规划和发展。回顾和实施的做法有助于推动玻璃行业内部的合作和共性,以实现可持续发展目标。如果玻璃行业要满足全球政府的要求,到 2030 年减少 55% 的碳排放,到 2050 年实现零碳排放,与《巴黎协定》中的去碳化目标保持一致,现在就需要采取行动。
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来源期刊
International Journal of Applied Glass Science
International Journal of Applied Glass Science MATERIALS SCIENCE, CERAMICS-
CiteScore
4.50
自引率
9.50%
发文量
73
审稿时长
>12 weeks
期刊介绍: The International Journal of Applied Glass Science (IJAGS) endeavors to be an indispensable source of information dealing with the application of glass science and engineering across the entire materials spectrum. Through the solicitation, editing, and publishing of cutting-edge peer-reviewed papers, IJAGS will be a highly respected and enduring chronicle of major advances in applied glass science throughout this century. It will be of critical value to the work of scientists, engineers, educators, students, and organizations involved in the research, manufacture and utilization of the material glass. Guided by an International Advisory Board, IJAGS will focus on topical issue themes that broadly encompass the advanced description, application, modeling, manufacture, and experimental investigation of glass.
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