医学实验室的节能和可持续性战略。

IF 6.6 2区 医学 Q1 MEDICAL LABORATORY TECHNOLOGY
Snežana Jovičić, Neda Milinković
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引用次数: 0

摘要

医学实验室需要大量的能量,是标准办公楼的三到六倍。此外,它们消耗大量的水和气体,产生各种各样的废物,其中一些是有毒的。他们的能源需求是复杂的,当估计一个医学实验室的总碳足迹时,我们需要记住不同的贡献者。首先,各种实验室测试的实验室仪器各不相同,需要不同数量的电、气、水和消耗品。此外,据估计,根据其复杂性和不同建筑的不同要求,实验室暖通空调(HVAC)系统的基础设施可能占能耗的40-60%。照明/遮阳系统可能消耗总能源的15%。此外,实验室数据处理所需的计算机及其支持系统使用电力,增加了医学实验室的碳足迹。减轻一般医疗保健部门,特别是医学实验室对环境影响的系统方法是根据国际标准ISO 14001或欧洲EMAS(生态管理和审计计划)自愿采用环境管理系统(EMS)。专注于管理能源效率,ISO 50001能源管理体系-要求与使用指南,可以帮助医学实验室制定和实施节能战略,通过建立可实现的能源使用目标,定义实现这些目标的行动计划,并量化改进。为了预防和管理医学实验室能源消耗失控的风险,必须牢记实验室能源密集型的特点,从而促进节能和可持续发展战略的实施。此外,实验室建筑具有大量的隐含碳,这显著影响其功能对环境的影响。近年来,针对卫生研究的环境可持续性发展了许多举措、工具和方法。它们中的许多是适用的,并在临床实验室环境中使用,即使它们不是专门为它开发的。最近,欧洲临床化学和实验室医学联合会(European Federation of Clinical Chemistry and Laboratory Medicine)制作了一些教育材料,旨在提高人们对医学实验室碳足迹的认识,并指导他们如何减少碳足迹。本文综述了目前在节能意义上提高医学实验室可持续性的努力。我们将介绍医疗保健结构和医学实验室对环境的影响程度,确定其碳足迹的主要贡献者,重点关注能源消耗,最后提供可以减轻这种影响的策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Strategies for energy conservation and sustainability in medical laboratories.

Medical laboratories require a great amount of energy, ranging from three to six times more than a standard office building. Also, they consume massive amounts of water and gases and produce diverse waste products, some of which are toxic. Their energy requirements are complex and when estimating the total carbon footprint of a medical laboratory, we need to keep in mind the different contributors present. First, laboratory instrumentation varies for various laboratory tests, requiring different amounts of electricity, gas, water, and consumables. Furthermore, according to some estimates, laboratory infrastructure of heating, ventilation, and air-conditioning (HVAC) system may account for 40-60% of energy consumption, depending on its complexity and different requirements for different buildings. A lighting/shading system may consume up to 15% of the total energy. Also, the computers and their supporting systems needed for laboratory data processing use electrical power and contribute to the carbon footprint of medical laboratories. The systematic approach to mitigate the environmental impact of the healthcare sector in general, and medical laboratories in particular, is the voluntary adoption of an Environmental Management System (EMS) according to the International Standards ISO 14001 or the European EMAS (Eco-Management and Audit Scheme). Focusing on managing energy efficiency, the ISO 50001 Energy Management Systems - Requirements with guidance for use, can help medical laboratories develop and implement an energy-saving strategy by establishing achievable energy usage goals, defining action plans to achieve them, and quantifying improvements. To prevent and manage the risks of uncontrolled energy consumption in medical laboratories, it is important to bear in mind the energy-intensive laboratory features, thus facilitating the implementation of strategies for energy conservation and sustainability. Additionally, laboratory buildings have a substantial embodied carbon that significantly affects their functional environmental impact. In recent years, many initiatives, tools, and methods that address the environmental sustainability of health research have been developed. Many of them are applicable and are used in clinical laboratory settings even though they are not developed specifically for it. Recently, the European Federation of Clinical Chemistry and Laboratory Medicine generated educational material that aims to both raise awareness of medical laboratories carbon footprint, and to guide them on how to decrease it. This review aims to give an overview of the current efforts to improve the sustainability of medical laboratories in the sense of energy conservation. We will present the extent of the environmental impact of healthcare structures and medical laboratories, identify the major contributors to their carbon footprint, focus on energy consumption, and finally, offer strategies that could mitigate it.

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来源期刊
CiteScore
20.00
自引率
0.00%
发文量
25
审稿时长
>12 weeks
期刊介绍: Critical Reviews in Clinical Laboratory Sciences publishes comprehensive and high quality review articles in all areas of clinical laboratory science, including clinical biochemistry, hematology, microbiology, pathology, transfusion medicine, genetics, immunology and molecular diagnostics. The reviews critically evaluate the status of current issues in the selected areas, with a focus on clinical laboratory diagnostics and latest advances. The adjective “critical” implies a balanced synthesis of results and conclusions that are frequently contradictory and controversial.
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