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Coordination of European Research on Industrial Safety towards Smart and Sustainable Growth

Lithium-ion battery’s life cycle: safety risks and risk management at workplaces

2020-12 to 2022-12

  • Lithium-ion (Li-ion) batteries are widely used in vehicle industry. The  use of Li-ion batteries as an energy source of vehicles reduces harmful  emissions compared to combustion engines enabling the use of such  vehicles also indoors. Thus, the different applications utilizing Li-ion  batteries are considered as part of sustainable development of energy  storage systems.

    A solid regulatory framework for the  environmental aspects already exists but the occupational safety aspects  of the production chain are less explicit. Still, handling of and  operating with Li-ion batteries poses several occupational risks,  especially related to work and chemical safety. Therefore, it would be  highly beneficial to recognize the occupational safety risks in the  overall value chain of Li-ion battery, and to provide suitable risk  control methods.

  • The research hypothesis proposes that by studying safety we can point the issues that need to
    be enhanced in order to promote occupational safety and working environment.
    Research questions (RQ) focus on occupational safety, exposure and life-cycle assessment
    through Li-ion batteries’ value chain.

    • RQ1:  Which are current practices throughout the value chain to determine the  safety, sustainability and management measures of Li-ion batteries?

    • RQ2: Which are the impacts of a LI-ion battery identified by performing a life cycle assessment on an example case?

    • RQ3: What are critical occupational risks (including accidents) and how are they managed in Li-ion battery value chain?

  • The results of the study are expected to include:

    • Identification  of most significant occupational safety risks for the most relevant  supply chains and batteries, and identification of key supply chains and  materials, regarding flow of priority materials and their hazard.

    • Analysis  of main hazards for human health during the production, utilization and  end of life of Li-ion batteries, also in accidental events:  occupational safety (mainly through Risk Assessment) and potential  damage to human health and environment over the life cycle of batteries  (mainly through Life Cycle Assessment).

    • Analysis of the main environmental impacts associated to emissions of hazardous materials, focusing on the exemplary case.

    • Providing practical risk control methods to develop and improve work environments and the safety and well-being at work.

    • Generating specific guidance on the occupational safety issues to be provided to the industry and other stakeholders.

  • T.4.1 Developing guidance and best practices for occupational safety during the life cycle of Li-ion batteries

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.3.3 Safety risk assessment

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.3.2 Assessment of workers’ exposure to chemicals

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.3.1 Hazard assessment of materials

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.2.2 Life cycle assessment of li-ion batteries

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.2.1 Determination of the material flows over the life cycle

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.1.4 Overall picture of the Li-ion batteries

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.1.3 Identification of key materials in the production of Li-ion batteries

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.1.2 Description of the occupational safety risk management

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    T.1.1 Identifying the operators in the overall lifecycle of Li-ion batteries

    Publication date:

    08/02/23

    License:

    CC BY

    Type:

    Task report

    Presentation at SAF€RA's 2022 symposium

    Publication date:

    23/08/22

    License:

    Creative Commons Attribution

    Type:

    Presentation

    Lithium-ion battery’s life cycle: safety risks and risk management at workplaces

    Publication date:

    08/02/23

    License:

    Type:

    Final report

    The use of Li-ion batteries (LIBs) is increasing worldwide. Even though  this has numerous benefits, LIBs also pose specific risks to workers’  safety and health, especially in terms of chemical safety.  The objective of this study was to examine the occupational safety of  the LIB value chain and to determine the good practices and aspects that  need to be taken into account in the management of the safety risks  related to LIBs. In addition, Life Cycle Assessment (LCA) was used as  the tool for evaluating the environmental impacts throughout the value  chain of the LIB selected for the case study. The assessment also  considered the gaseous emissions occurring over the lifetime of the  battery. The study methods consisted of literature reviews, document  analysis and semi-structured interviews. The chemical hazards at all the  stages of the value chain were classified and accidents occurring  during the use and end-of-life phases were also considered. The  classification was based on the EU Classification, Labelling and  Packaging (CLP) system (EU regulation No 1272/2008), and on the  identification of gas emissions in accidents found in the LIB  literature. We used these classifications and LCA results to design  guidelines. The study looked at nine companies representing different  phases of the LIB value chain, located in Finland and Spain, and their  relevant stakeholders and authorities.  The most critical risks in the value chain and risk management measures  were elicited in the interviews. The safety management evaluation of the  value chain was modelled on the information gathered from the  interviews and from existing research. This safety management evaluation  model provides criteria for a three-level approach to safety. The  increasing amount of forklift trucks using LIBs as well as the variety  of the age and size of LIBs in use are expected to increase the risks  for safety. Companies manufacturing, using and handling LIBs place a  great effort into preparedness and competence. More co-operation with  fire and rescue authorities is highly recommended. As LIBs are becoming  more common, it is increasingly important in risk assessment to pay  attention to how they are transported, stored, handled and recharged.

  • Ingrid Raben

    TNO

    The Netherlands

    Anne Jansen

    TNO

    The Netherlands

    Steijn Wouter

    TNO

    The Netherlands

    Dolf Van der Beek

    TNO

    The Netherlands

    Gabriele Oliva

    Complex systems and security lab, University Campus Bio-Medico of Rome

    Italy

    Roberto Setola

    Complex systems and security lab, University Campus Bio-Medico of Rome

    Italy

    Alessandro Tugnoli

    Università di Bologna

    Italy

    Ernesto Salzano

    Università di Bologna

    Italy

    Minna Nissilä

    VTT, Technical Research Center of Finland

    Finland

    Jouko Heikkilä

    VTT, Technical Research Center of Finland

    Finland

    Nadezhda Gotcheva

    VTT, Technical Research Center of Finland

    Finland

    Marja Ylönen

    VTT, Technical Research Center of Finland

    Finland

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