Percorrer por autor "Scheepers, Paul T.J."
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- Framework for developing an exposure science curriculum as part of the European Exposure Science Strategy 2020-2030Publication . Connolly, Alison; Scheepers, Paul T.J.; Coggins, Marie A.; Vermeire, Theo; van Tongeren, Martie; Heinemeyer, Gerhard; Bridges, James W.; Bredendiek-Kämper, Susanne; de Bruin, Yuri Bruinen; Clayson, Anne; Gerding, Johannes; McCourt, Josephine; Urbanus, Jan; Viegas, Susana; von Goetz, Natalie; Zare-Jeddi, Maryam; Fantke, PeterBackground: Evaluating and managing exposures to chemical, physical, and biological stressors, which frequently interplay with psychological stressors as well as social and behavioural aspects, is crucial for protecting human and environmental health and transitioning towards a sustainable future. Advances in our understanding of exposure rely on input from well-trained exposure scientists. However, no education programmes in Europe are currently explicitly dedicated to covering the broader range of exposure science approaches, applications, stressors, and receptors. Objective: To address this challenge, a curriculum is needed that yields credible, well-defined career pathways in exposure science. Methods: Needs and conditions for advancing exposure to science education in Europe were identified. As a starting point for a way forward, harmonised learning outcomes for exposure science were defined at each level of the European Qualifications Framework. The course programme coordinators were recruited for three varying courses, with respect to the course level and the proportion of the curriculum dedicated to exposure science. These courses were assessed via our systematic course review procedure. Finally, strategic objectives and actions are proposed to build exposure science education programmes. Results: The ISES Europe ‘Education, Training and Communication’ expert working group developed a framework for creating a viable exposure science curriculum. Harmonised learning outcomes were structured under eight learning levels, categorised by knowledge, skills, and competence. Illustrative case studies demonstrated how education providers integrated these learning outcomes for their educational context and aligned the overall exposure science curriculum. Conclusions: The international recognition and adoption of exposure science education will enable advances in addressing global exposure science challenges for various stressors, from behavioural aspects from individual to population scale, and effective communication between exposure scientists and relevant stakeholders and policymakers, as part of the European Exposure Science Strategy 2020–2030.
- HBM4EU chromates study: overall results and recommendations for the biomonitoring of occupational exposure to hexavalent chromiumPublication . Santonen, Tiina; Porras, Simo P.; Bocca, Beatrice; Bousoumah, Radia; Duca, Radu Corneliu; Galea, Karen S.; Godderis, Lode; Göen, Thomas; Hardy, Emilie; Iavicoli, Ivo; Janasik, Beata; Jones, Kate; Leese, Elizabeth; Leso, Veruscka; Louro, Henriqueta; Majery, Nicole; Ndaw, Sophie; Pinhal, Hermínia; Ruggieri, Flavia; Silva, Maria J.; van Nieuwenhuyse, An; Verdonck, Jelle; Viegas, Susana; Wasowicz, Wojciech; Sepai, Ovnair; Scheepers, Paul T.J.; Aimonen, Kukka; Antoine, Guillaume; Anzion, Rob; Burgart, Manuella; Castaño, Argelia; Cattaneo, Andrea; Cavallo, Domenico Maria; De Palma, Giuseppe; Denis, Flavien; Gambelunghe, Angela; Gomes, Bruno; Hanser, Ogier; Helenius, Riikka; Ladeira, Carina; López, Marta Esteban; Lovreglio, Piero; Marsan, Philippe; Melczer, Mathieu; Nogueira, Ana; Pletea, Elisabeta; Poels, Katrien; Remes, Jouko; Ribeiro, Edna; Santos, Sílvia Reis; Schaefers, Françoise; Spankie, Sally; Spoek, Robert; Rizki, Mohamed; Rousset, Davy; van Dael, Maurice; Veijalainen, HennaExposure to hexavalent chromium [Cr(VI)] may occur in several occupational activities, e.g., welding, Cr(VI) electroplating, and other surface treatment processes. The aim of this study was to provide EU-relevant data on occupational Cr(VI) exposure to support the regulatory risk assessment and decision-making. In addition, the capability and validity of different biomarkers for the assessment of Cr(VI) exposure were evaluated. The study involved nine European countries and involved 399 workers in different industry sectors with exposures to Cr(VI) such as welding, bath plating, applying or removing paint, and other tasks. We also studied 203 controls to establish a background in workers with no direct exposure to Cr(VI). We applied a cross-sectional study design and used chromium in urine as the primary biomonitoring method for Cr(VI) exposure. Additionally, we studied the use of red blood cells (RBC) and exhaled breath condensate (EBC) for biomonitoring of exposure to Cr(VI). Personal measurements were used to study exposure to inhalable and respirable Cr(VI) by personal air sampling. Dermal exposure was studied by taking hand wipe samples. The highest internal exposures were observed in the use of Cr(VI) in electrolytic bath plating. In stainless steel welding, the internal Cr exposure was clearly lower when compared to plating activities. We observed a high correlation between chromium urinary levels and air Cr(VI) or dermal total Cr exposure. Urinary chromium showed its value as a first approach for the assessment of total, internal exposure. Correlations between urinary chromium and Cr(VI) in EBC and Cr in RBC were low, probably due to differences in kinetics and indicating that these biomonitoring approaches may not be interchangeable but rather complementary. This study showed that occupational biomonitoring studies can be conducted successfully by multi-national collaboration and provide relevant information to support policy actions aiming to reduce occupational exposure to chemicals.
