EFFECT OF PANEL AREA-VOLUME RATIO ON TVOC RELEASED FROM DECORATIVE PARTICLEBOARDS

Authors

  • Shao Yali Northeast Forestry University
  • Shen Jun
  • Xiwei Shen
  • Qin Jiankun

Keywords:

VOCs, loading rate, particleboard, small environmental test chamber

Abstract

Home renovation can improve our living environment, but it can cause pollution and endanger human health. Wood-based panels are a main source of polluting volatile organic compounds (VOCs). This article studied the VOC concentration of different types of decorative particleboards (PBs) and different panel area–volume ratio, and the effect of panel area–volume ratio on release of various substances. In this study, the main experimental conditions are as follows: the temperature was controlled at 230.5°C; the humidity was controlled at 50%3%; and the rate of ventilation was controlled at once 1 h. And a 15-L small–environmental chamber was used to test the VOC emission. The experimental material was PB with different decorative materials (water-based paint, melamine-impregnated paper, polyvinyl chloride, and PB with no decorative material), and VOC emission was collected under different panel area–volume ratios (1, 1.5, 2, and 2.5m2/m3). The result showed that the VOCs were present, with the trend of decreasing with time. The decline velocity of water-based paint (WP) was the fastest, whereas that of the PB with no decorative material was the slowest. Increase of panel area–volume ratio could cause the VOC concentration to increase, but the panel area–volume ratio does not have a linear relationship with VOC concentration. Surface decoration can reduce the release of various kinds of material inside the plate to a certain extent. Melamine impregnated paper (MI) and polyvinyl chloride (PVC) can reduce the release of aromatic hydrocarbons in panels, and PVC can inhibit the release of esters in panels.

 

References

Baumann MGD, Batterman SA, Zhang GZ (2000) Terpene

emissions from particleboard and medium-density fiberboard

products. For Prod J 50(9):75-82.

Chen F, Shen J (2010) Study on the release characteristics

and influence factors of volatile organic compounds

emissions from surface finishing particleboard. MS thesis.

Northeast Forestry University, Harbin, China (in Chinese).

GB/T (2002) 18883-2002. Indoor air quality standard.

General administration of quality supervision, inspection

and quarantine. State Environmental Protection Administration, Ministry of Health, Beijing, China.

Kelly TJ, Smith DL, Satola J (1999) Emission rates of

formaldehyde from materials and consumer products found

in california homes. Environ Sci Technol 33(1):81-88.

Kim S, Kim JA, Kim HJ, Kim SD (2006) Determination of

formaldehyde and TVOC emission factor from woodbased

composites by small chamber method. Polym

Test 25(5):605-614.

Kim YM, Harrad S, Harrison RM (2001) Concentrations and

sources of VOCs in urban domestic and public microenvironments.

Environ Sci Technol 35(6):997-1004.

Liu WJ, Shen J (2016) Developing a rapid test method for

measuring volatile organic compounds from three-layer

parquet with microchamber. Wood Fiber Sci 49(2):168-176.

Liu Y, Shen J, Zhu XD (2010) Effect of temperature, relative

humidity and ach on the emission of volatile organic

compounds from particleboard. Adv Mat Res 113-116:

-1877.

Park JY, Lee SM, Park BD, Lim JY, Jang SG, Kim S (2013)

Effect of surface laminate type on the emission of volatile

organic compounds from wood-based composite panels.

J Adhes Sci Technol 27(5-6):620-631.

Tuomainen M, Pasanen AL, Tuomainen A, Liesivuori J,

Juvonen P (2001) Usefulness of the finnish classification of

indoor climate, construction and finishing materials:

Comparison of indoor climate between two new blocks of

flats in finland. Atmos Environ 35(2):305-313.

Wang JX, Shen J, Lei CS, Qi F (2014) Volatile organic

compound and formaldehyde emissions from Populus

davidiana wood trested with low molecular weight ureaformaldehyde resin. J Environ Biol 35:989-994.

Wolkoff P (1998) Impact of air velocity, temperature, humidity,

and air on long-term VOC emissions from building

products. Atmos Environ 32(14-15):2659-2668.

Wolkoff P, Clausen PA, Nielsen PA, Mølhave L (1991) The

danish twin apartment study; part i: Formaldehyde and

long-term VOC measurements. Indoor Air 1(4):478-490.

Wolkoff P, Nielsen GD, Hansen LF, Albrechtsen O, Johnsen

CR, Heinig JH, Franck C, Nielsen PA (2010) A study of

fuman reactions to emissions from building materials in

climate chambers. Part ii: VOC measurements, mouse

bioassay, and decipol evaluation in the 1-2 mg/m3 TVOC

range. Indoor Air 1(4):389-403.

WHO (2003) World Health Organization Regional Office for

Europe—WHO/Europe. World Health Organization, Geneva,

Switzerland.

Yu C, Crump D (1998) A review of the emission of VOCs

from polymeric materials used in buildings. Build Environ

(6):357-374.

Zhang J, Smith KR (2003) Indoor air pollution: A global

health concern. Br Med Bull 68(1):209.

Zhang WC, Shen, J (2011) Research in characteristics of

VOC release from interior overlaid particleboard. DOC

thesis. Northeast Forestry University, Harbin, China (in

Chinese).

Zhang WC. Shen J, Chen F. (2010) Study on the volatile

organic compounds (VOC) emission of wood composites.

Adv Mater Res 113-116:474-478.

Downloads

Published

2018-04-18

Issue

Section

Research Contributions