Abstract

ObjectivesWork and research with nanomaterials (NMs) has primarily focused on innovation, toxicity, governance, safety management tools, and public perceptions. The aim of this study was to identify academia and industry occupational safety and health (OSH) managers’ perceptions and handling of NMs, in relation to safety culture.MethodsSemistructured interviews were carried out with OSH managers at six academic institutions and six industrial companies. The interview statements were coded into five topics regarding NMs: risk comprehension, information gathering, actions, communication, and compliance. The statements were then coded according to a five-step safety culture maturity model reflecting increasing occupational safety maturity from passive, to reactive, active, proactive, and exemplary occupational safety.ResultsThe safety culture maturity of the academic institutions were primarily active and proactive, whereas the industry group were primarily active and reactive. None of the statements were rated as exemplary, with the majority reflecting an active safety culture. The topics varied from a passive approach of having no focus on NMs and regarding risks as a part of the job, to applying proactive measures in the design, production, application, and waste management phases. Communication and introduction to OSH issues regarding NMs as well as compliance provided challenges in both academia and industry, given the increasing cultural and linguistic diversity of students/staff and employees. Workplace leaders played a crucial role in establishing a legitimate approach to working safely with NMs, however, the currently available OSH information for NMs were described as insufficient, impractical, and inaccessible. There was an embedded problem in solely relying on safety data sheets, which were often not nanospecific, as this may have led to underprotection.ConclusionsThere is a need for more structured, up-to-date, easily accessible, and user-friendly tools and information regarding toxicity and threshold limit values, relevant OSH promotion information, legislation, and other rules. The study underscores the need for politicians and engineers to collaborate with communication experts and both natural and social scientists in effectively framing information on NMs. Such a collaboration should allow for flexible deployment of multilevel and integrated safety culture initiatives to support sustainable nanotechnology and operational excellence.

Highlights

  • Nanotechnology is cutting-edge science, and a fast-growing applied technology (Khan and Asmatulu, 2013)

  • The interview statements were coded into five topics regarding NMs: risk comprehension, information gathering, actions, communication, and compliance

  • The study underscores the need for politicians and engineers to collaborate with communication experts and both natural and social scientists in effectively framing information on NMs. Such a collaboration should allow for flexible deployment of multilevel and integrated safety culture initiatives to support sustainable nanotechnology and operational excellence

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Summary

Introduction

Nanotechnology is cutting-edge science, and a fast-growing applied technology (Khan and Asmatulu, 2013) It is one of six key enabling technologies that can lead to sustainable economic and social development covering almost all economic sectors on a global scale (EUON, 2019; European-Commission, 2019). Nanomaterials (NMs) are natural, engineered, and process-generated materials containing over 50% nanosized particles (1–100 nm; 1 × 10−9 m) (EU, 2018b). Due to their smaller size, higher specific surface area, and changes in properties (e.g. higher reactivity), NMs can be more hazardous than larger sized particles of the same composition (Berges et al, 2014; Stone et al, 2017; EUON, 2019). The implications of NMs on people, animals, and the environment may last throughout the life cycle (value chain) of NMs, from research and design, manufacturing, handling, application/use, to recycling and disposal (Read et al, 2014; Bekker et al, 2015; Fadeel et al, 2017; Khan and Asmatulu, 2017; Trybula and Newberry, 2017)

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