Thermally Active Medium-Density Fiberboard (MDF) with the Addition of Phase Change Materials for Furniture and Interior Design

被引:0
|
作者
Dasiewicz, Julia [1 ]
Wronka, Anita [2 ]
Jezo, Aleksandra [2 ]
Kowaluk, Grzegorz [2 ]
机构
[1] Warsaw Univ Life Sci SGGW, Fac Wood Technol, Nowoursynowska St 159, PL-02787 Warsaw, Poland
[2] Warsaw Univ Life Sci SGGW, Inst Wood Sci & Furniture, Nowoursynowska St 159, PL-02776 Warsaw, Poland
关键词
medium-density fiberboard; MDF; wood modification; thermal conductivity; PCMs; ENERGY STORAGE; BUILDING WALLS; COMPOSITE; PCM; STRENGTH;
D O I
10.3390/ma17164001
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
No matter where we reside, the issue of greenhouse gas emissions impacts us all. Their influence has a disastrous effect on the earth's climate, producing global warming and many other irreversible environmental impacts, even though it is occasionally invisible to the independent eye. Phase change materials (PCMs) can store and release heat when it is abundant during the day (e.g., from solar radiation), for use at night, or on chilly days when buildings need to be heated. As a consequence, buildings use less energy to heat and cool, which lowers greenhouse gas emissions. Consequently, research on thermally active medium-density fiberboard (MDF) with PCMs is presented in this work. MDF is useful for interior design and furniture manufacturing. The boards were created using pine (Pinus sylvestris L.) and spruce (Picea abies L.) fibers, urea-formaldehyde resin, and PCM powder, with a phase transition temperature of 22 degrees C, a density of 785 kg m-3, a latent heat capacity of 160 kJ kg-1, a volumetric heat capacity of 126 MJ m-3, a specific heat capacity of 2.2 kJ kgK-1, a thermal conductivity of 0.18 W mK-1, and a maximum operating temperature of 200 degrees C. Before resination, the wood fibers were divided into two outer layers (16%) and an interior layer (68% by weight). Throughout the resination process, the PCM particles were solely integrated into the inner layer fibers. The mats were created by hand. A hydraulic press (AKE, Mariannelund, Sweden) was used to press the boards, and its operating parameters were 180 degrees C, 20 s/mm of nominal thickness, and 2.5 MPa for the maximum unit pressing pressure. Five variants of MDF with a PCM additive were developed: 0%, 5%, 10%, 30%, and 50%. According to the study, scores at the MOR, MOE, IB, and screw withdrawal resistance (SWR) tests decreased when PCM content was added, for example, MOE from 3176 to 1057 N mm-2, MOR from 41.2 to 11.5 N mm-2, and IB from 0.78 to 0.27 N mm-2. However, the results of the thickness swelling and water absorption tests indicate that the PCM particles do not exhibit a substantial capacity to absorb water, retaining the dimensional stability of the MDF boards. The thickness swelling positively decreased with the PCM content increase from 15.1 to 7.38% after 24 h of soaking. The panel's thermal characteristics improved with the increasing PCM concentration, according to the data. The density profiles of all the variations under consideration had a somewhat U-shaped appearance; however, the version with a 50% PCM content had a flatter form and no obvious layer compaction on the panel surface. Therefore, certain mechanical and physical characteristics of the manufactured panels can be enhanced by a well-chosen PCM addition.
引用
收藏
页数:14
相关论文
共 50 条
  • [1] Challenges for recycling medium-density fiberboard (MDF)
    Zimmer, Andre
    Bachmann, Suyanne Angie Lunelli
    RESULTS IN ENGINEERING, 2023, 19
  • [2] Effect of silver nanoparticles on hardness in medium-density fiberboard (MDF)
    Taghiyari, Hamid Reza
    Norton, Jack
    IFOREST-BIOGEOSCIENCES AND FORESTRY, 2015, 8 : 677 - 680
  • [3] Analysis of the source of abnormal odor components in medium-density fiberboard (MDF)
    Xing, Xuefeng
    Kang, Shifei
    Li, Shanming
    Luo, Minxian
    WOOD MATERIAL SCIENCE & ENGINEERING, 2024,
  • [4] Effects of heat treatment on some properties of MDF (medium-density fiberboard)
    Ates, Saim
    Kara, Hasimet R.
    Olgun, Cagri
    Ozkan, Osman E.
    WOOD MATERIAL SCIENCE & ENGINEERING, 2017, 12 (03) : 158 - 164
  • [5] Facile surface hydrophobization of medium-density fiberboard (MDF) by silver deposition
    Ji, Xiaodi
    Guo, Minghui
    HOLZFORSCHUNG, 2017, 71 (04) : 337 - 340
  • [6] Impregnation of Medium-Density Fiberboard Residues with Phase Change Materials for Efficient Thermal Energy Storage
    Rodriguez, Gustavo E.
    Bustos Avila, Cecilia
    Romero, Romina
    Cloutier, Alain
    FORESTS, 2023, 14 (11):
  • [7] Life cycle assessment of medium-density fiberboard (MDF) manufacturing process in Brazil
    Piekarski, Cassiano Moro
    de Francisco, Antonio Carlos
    da Luz, Leila Mendes
    Kovaleski, Joao Luiz
    Lopes Silva, Diogo Aparecido
    SCIENCE OF THE TOTAL ENVIRONMENT, 2017, 575 : 103 - 111
  • [8] DURABILITY OF KITCHEN FURNITURE MADE FROM MEDIUM-DENSITY FIBREBOARD (MDF)
    Pinchevska, Olena
    Sedliacik, Jan
    Zavorotnuk, Olexandra
    Spirochkin, Andriy
    Hrabar, Ivan
    Oliynyk, Rostislav
    ACTA FACULTATIS XYLOLOGIAE ZVOLEN, 2021, 63 (01): : 119 - 130
  • [9] Resistance of Untreated and Torrefied Medium-Density Fiberboard (MDF) Residues to Xylophage Fungi
    Surdi, Paula Gabriella
    Castro, Vinicius Resende de
    Lima, Nidia Niela
    Portilho, Gabriel Reis
    Lopes, Nayara Franzini
    Andrade, Frances Alves
    Zanuncio, Antonio Jose Vinha
    Zanuncio, Jose Cola
    Carneiro, Angelica de Cassia Oliveira
    Araujo, Solange de Oliveira
    FORESTS, 2023, 14 (02):
  • [10] Potential Use of Wollastonite as a Filler in UF Resin Based Medium-Density Fiberboard (MDF)
    Taghiyari, Hamid R.
    Esmailpour, Ayoub
    Majidi, Roya
    Morrell, Jeffrey J.
    Mallaki, Mohammad
    Militz, Holger
    Papadopoulos, Antonios N.
    POLYMERS, 2020, 12 (07)