REDUCING RISK FACTORS IN THE WORKPLACE OF THE LASER SYSTEM OPERATOR
Last modified: 07.05.2019
Abstract
Keywords
References
[1] Jakschik St., Blei St., Laser fumes in femtosecond laser processes – product, process and environment considerations, ULT AG, ILK Dresden, https://www.ult.de
[2] https://www.tbh.eu/en/shortlinks/downloads.html
[4] https://www.lzh.de/de/publikationen/lasersicherheit
[5] Laserbearbeitung,datenblatt/dbl_tb_laserbearbeitung_dbl_deutsch.pdf
[6] Meissner St., Why Extraction and Filtrationn tehnology is important; ULT GmbH https://www.ult.de
[7] https://www.tbh.eu/en/shortlinks/downloads.html
[8] VDMA, Allgemeine Lufttechnik, Erfassen luftfremder Stoffe, www.luftreinhaltung.vdma.org
[9] TRGS 900 Grenzwerte in der Luft am Arbeitsplatz – „Luftgrenzwerte
[10] TRGS 901 Begründungen und Erläuterungen zu Grenzwerten in der Luft am Arbeitsplatz,
[13] Jenkins, N.T., Pierce, W.M.-G., Eagar, T.W. (2005) Journal of Welding, October, 156-163.
[14] Lehnert, M., Pesch, B., Lotz, A., Pelzer, J., Kendzia, B., Gawrych, K., Heinze, E., Van Gelder, R., Punkenburg, E., Weiss, T., Mattenklott, M., Hahn, J.U., Möhlmann, C., Berges, M., Hartwig, A., Brüning, T.; Weldox Study Group. Ann Occup Hyg. (2012), 56(5), 557-567.
[15] Pavlovska, Z., Martinsone, Z., Vanadzins, I., Martinsone, I., Seile, A., Sudmalis, P.,2016. Occupational exposure parameters for characterization of nanoparticu-late matter toxicity: metal versus wood processing. Process Saf. Environ. Prot.102, 230–237.
[16] Peixe, T.S., de Souza Nascimento, E., Schofield, K.L., Arcurid, A.S.A., Bulcão, R.P., 2015. Nanotoxicology and Exposure in the Occupational Setting. Occup. Dis. Environ. Med. 3, 35–48
[17] O’Shaughnessy, P.T., 2013. Occupational Health risk to nanoparticulate exposure. Environ. Sci. Process. Impacts 15, 49–62.