ANALYSIS OF WOOD DUST LEVELS, NASAL MUCOCILIARY TRANSPORT RATE (NMTR) AND WORKERS’ RESPIRATORY COMPLAINTS IN FURNITURE HOME INDUSTRY, SURABAYA CITY, INDONESIA

Authors

  • Farach Dilla Syarifa Department of Environmental Health, Faculty of Public Health, Universitas Airlangga, Campus C Mulyorejo, Surabaya, East Java, Indonesia Author

DOI:

https://doi.org/10.61841/942y2c47

Keywords:

Wood Dust,, Nasal Mucociliary Transport Rate (NMTR),, Respiratory Complaints,, Furniture Workers

Abstract

Background:This research showed that wood dust in furniture workplace can potentially cause disruption to the nasal mucosa or slowing Nasal Mucociliary Transport Rate (NMTR). Research Objectives:Measuring wood dust levels in workplace, measuring the Nasal Mucociliary Transport Rate (NMTR) of the exposed and unexposed groups, and analyzing respiratory complaints and the use of PPE in the exposed group. Research Method:Cross sectional design, total sample size of the population amounted to 12 respondents containg 6 exposed and 6 unexposed respondents. Measurement of wood dust levels was done with EPAM 5000. Nasal Mucociliary Transport Rate (NMTR) test was done with Saccharin Test by ENT Specialists, using saccharin tablets and methylene blue tablets. Data analysis was obtained from cross tabulation results (crosstab). Research time was March to November 2019. Research Results:From the measurement of wood dust levels in areas was exposed 100% during operation and not exceeding the TLV of 5mg/m3, but the results got higher during the operation. The exposed group was 33.34% and the unexposed group was 8.33% in the abnormal category. The average Nasal Mucociliary Transport Rate (NMTR) of the exposed group was 11 minutes 57 seconds, while the average Nasal Mucociliary Transport Rate (NMTR) of the unexposed group was 7 minutes 11 seconds which showed the Nasal Mucociliary Transport Rate (NMTR) of the exposed group is slower than the unexposed group. Based on the cross tabulation of respiratory complaints showed that there was a relation between respiratory complaints Nasal Mucociliary Transport Rate (NMTR) status with contingency coefficient value of 0,549. Conclusions andRecommendations:The wood dust levels in the work environment of the exposed area exceeded the threshold value. The exposed group of Nasal Mucociliary Transport Rate (NMTR) was not normal or slower than the unexposed group. The exposed group that did not use PPE mask 100% of the time the Nasal Mucociliary Transport Rate (NMTR) was slow and categorized as abnormal, because it was above the threshold limit value which was more than 10 minutes 55 seconds. Suggestions for furniture workers, further increase of compliance to use PPE masks when working. Whereas for furniture owners pay more attention to workers in the use of PPE namely masks. Furniture owners can provide masks at work for their workers and socialize the importance of using masks when working.

 

Downloads

Download data is not yet available.

References

1. Muryani S. 2000. Limestone Exposure and Visual Impairments of Workers on Limestone Burning Industry Sleman Regency. Master Thesis. Yogyakarta: Post Graduate Program Universitas Gadjah Mada; 65

2. Watelet, J.B., Bachert, C., Gevaert P., and Cauwenberge P.V. 2002.Wound Healing of The Nasal and Paranasal Mucosa; A Review, Am J Rhinol16: 77– 84.

3. Irawan P., 2004, Effects of Rhinosinusitis to Nasal Mucociliary Transport Rate Time, Science of Ear Nose Throat Diseases Faculty of Medicine Universitas Indonesia, Jakarta.

4. Ballenger JJ. 1994. Nasal dan Paranasal Sinuses, Clinical Application of Nasal and Paranasal Sinuses Anatomy and Physiology.In: Ear Nose Throat Diseases,Head and Neck 1st Edition: 18-25

5. Munkholm M, Mortensen J. 2014. Mucociliary clearence: Pathophisiological aspects. Department of Clinical Physiology, Nuclear Medicine and PET, Rigshospitalet, Copenhagen University Hospital, Copenhagen, Denmark. Clin Physiol Funct Imaging

6. Darmawan Anton Budhi, Aprilia Rizki, Santosa Qodri.2008. Speed Differences of Nasal Mucociliary Transport Rate Time of Limestone Processing Workers Compared to Non Workers [Online]. Cited 19Oktober 2018. Available from : http://www.perhati.org/wp-content/uploads/2011/11

7. ILO, (2005)Deadly Dust. China LabourBulletine.

8. Soeripto,. 2008. Industrial Hygiene. Faculty of Medicine Universitas Indonesia. Jakarta

9. Suma’mur,. 2009. Company HygieneandOccupational Health (Hiperkes). SagungSeto. Jakarta.

10. Regulation of Manpower and Transmigration Minister Number Per.13/Men/X/2011. Threshold Limit Value of Physical and Chemical Factors in Workplace. 2011. [Online]. Cited 19 Oktober 2018.Available at: betterwork.org/in-labourguide/wp-content/.../PERMENA.pdf.

11. SoemadiRochmat, SamihardjaYuslam, HaryatiRiece. 2009.Relationship of Wood Dust Exposure to Nasal Mucociliary Transport Rate(NMTR) Time on Furniture Company Workers CV. Citra JeparaFurniture, Semarang. Medical Science, Vol. 1, No.1. [Online]. Cited 7 Oktober 2018. Available from: http://www.sainsmedika.fkunissula.ac.id/index.php/sainsmedika/article/viewFile/32/17

12. Syahrizal. 2008. Comparation of Nasal Mucociliary Transport Rate Time on Chronic Rhinosinusitis Patients Before and After Functional Endoscopy Sinus Surgery Conducted. Master Thesis. Medan: ENT Specialist Doctor Academic Program FK USU.

13. Khumaidah. 2009. Analysis of Factors Related to Pulmonary Function Impairments on Furniture Workers PT Kota JatiFurnindoSuwawal Village Milonggo District Jepara Regency. Master Thesis of Environmental Health Magister, Post Graduate Program, UniversitasDiponegoro Semarang.

14. Zein DF, Bahrudin M, Setiawan I. Differences of Nasal Mucociliary Transport Rate Time on Leather Tanning Industry Workers and Non Workers. Faculty of Medicine Universitas Muhammadiyah Malang; 2015. [Online]. Cited 19 Oktober 2018. Available at: http://ejournal.umm.ac.id/index.php/sainmed/article/download/4196/4559

15. Dermawan R. 2010. Perbedaan Waktu Mukosiliar Hidung pada Perokok dan Bukan Perokok. Program Pendidikan Dokter Spesialis Bidang Ilmu Kesehatan Telinga Hidung Tenggorok Bedah Kepala Leher Fakultas Kedokteran universitas Sumatra Utara. Medan

16. Suherman. 2013. Correlation between Work Period and Nasal Mucociliary Transport Rate Time on Silver Craft Workers in Production Section Kota Gede Yogyakarta. S2 Ked.Klinik/MS-PPDS UGM Yogyakarta Universitas Gadjah Mada

17. Bratawidjaja, Karnen. 2004. Allergy and Immunology on Occupational Diseases. Mirror of Medicine World, pp. 8-9.

18. Anggraini D, Wardani RS, Irawati N, Mansyur M, Dharmaningsih R, Wang D-Y.2014. Diagnosis of occupational rhinitis to dust and gasses using peak nasal inspiratory flow. Oto Rhino Laryngologica Indonesiana;44(2):104-10.

19. Zhao YA, Shusterman D. 2012. Occupational rhinitis and other work-related upper respiratory tract conditions. Clin Chest Med,33:637-47.

20. Bohadana, A.B, et al. 2015. Symptoms Airway Responsiveness and Exposure to Dust in Beech and Oak Wood Workers. Occup Environ Med Journal,57:268-273.

21. Milanowski J, Góra A, Skorska C, Krysińska TE, Mackiewicz B, Sitkowska J, et al. 2002.Workrelated symptoms among furniture factory workers in Lublin region (Eastern Poland). Ann Agric Environ Med;9(1):99-103.

22. Deborah S, Prathibha KM. 2014.Measurement of Nasal Mucociliary Clearance. Clinical Research in Pulmonology ;2(2)(1019):1-4

23. Wguespack R. 1995. Mucociliary Clearance patterns following Endoscopic Sinus Surgery. Laryngoscope (supplement) ;105:1-40

24. OpenStax College.2013. The William and Flora Hewlett Foundation, Bill & Melinda Gates Foundation and The Maxfield Foundation Anatomy & Physiology, Rice University, Texas.

25. Punagi AQ, Ahmad A. 2014. Local Immunity System on Sinonasal Mucus, Department of Health Sciences, Ear Nose Throat (ENT), Head and Neck Surgery. Faculty of Medicine UniversitasHasanuddin/RSUP Dr. Wahidin Sudirohusodo, Makassar. Review article. Wadi Husada Medical and Health Journal. Vol.1 No.3.

26. Pisaniello DL, Connell KE, Muriale L .1991. Wood dust exposure during furniture manufacture - results From an Australian survey and considerations for threshold limit value development. Am. Ind. Hyg. Assoc. J. 52(11): 485-492.

27. Alwis, Kuruppuge U.1998. Occupational Exposure Wood Dust. Department of Public health And Community Medicine Faculty of Medicine The University of Sydney New South Wales. Australia[Internet]. Available from::https://www.researchgate.net/publication/277245873

28. Schlünssen V, Schaumburg I, Andersen NT, Sigsgaard T, Pedersen OF.2002. Nasal Patency is Related to Dust Exposure in Woodworkers. Occup Environ Med ;59:23–9.

29. Hursthouse A, Allen F, Rowley L, Smith F. 2004. A Pilot Study of Personnel Exposure to Respirable and Inhalable Dust During the Sanding and Sawing of Medium Density Fibreboard (MDF) and Soft Wood. Int J Environ Health Res ;14(4):323–6.

30. Mandryk J., Alwis K.U., Hocking A.D.2000. Effects of personal exposures on pulmonary function and work-related symptoms among sawmill workers. Journal of Occupational Medicine - Elsevier Science Ltd., 44(4), 281-289.

31. Pellegrini A., 2002. Esposizioneprofessionale a polveri di legno duro: aspettitecnico-scientifici e normativi. GiornaledegliIgienistiIndustriali, 27(2), 123-133.

32. W. C. Hinds. 1998. “Basis for particle size-selective sampling for wood dust,” Applied Industrial Hygiene, vol. 3, no. 3, pp. 67– 72.

33. D. L. Pisaniello, K. E. Connell, and L. Muriale.1991. “Wood dust exposure during furniture manufacture—results from an Australian survey and considerations for threshold limit value development,” American Industrial Hygiene Association Journal, vol. 52, no. 11, pp. 485–492.

34. Dostbilt Z,Cahit P,Ismail O,et al. 2011.Evaluation of Nasal Mucociliary Transport Rate Rate byTc- Macroaggregated Albumin Rhinoscintigraphy in Woodworkers Hindawi Publishing Corporation International Journal of Molecular Imaging Volume 2011, Article ID 620482, 4 pages[Internet]. Available from:https://www.researchgate.net/publication/51536190

35. K, m. S. K., alias, . M. & r., . S. K. (2018) a review on novel uses of vitamin e. Journal of Critical Reviews, 5 (2), 10-14. doi:10.22159/jcr.2018v5i2.24282

36. Lachiusa, I.C. The transformation of Ashtanga Yoga: Implicit memory, dreams, and consciousness for survivors of complex trauma (2016) NeuroQuantology, 14 (2), pp. 255-271.

37. Reddy, J.S.K. Could ‘biophoton emission’ be the reason for mechanical malfunctioning at the moment of death? (2016) NeuroQuantology, 14 (4), pp. 806-809.

Downloads

Published

30.06.2020

How to Cite

Syarifa, F. D. (2020). ANALYSIS OF WOOD DUST LEVELS, NASAL MUCOCILIARY TRANSPORT RATE (NMTR) AND WORKERS’ RESPIRATORY COMPLAINTS IN FURNITURE HOME INDUSTRY, SURABAYA CITY, INDONESIA. International Journal of Psychosocial Rehabilitation, 24(4), 1190-1201. https://doi.org/10.61841/942y2c47