Effect of waste melamine impregnated paper on properties of oriented strand board

Çavdar, Ayfer Dönmez; Yel, Hüsnü; Kalaycıoğlu, Hülya; Hızıroǧlu, Salim

doi:10.1016/j.matdes.2013.04.052

Cited by 14 publications

(4 citation statements)

References 8 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…As the filler participation increased, the FM values also increased. Lignocellulosic fillers positively influenced the FM values, as has been reported(Varga et al 2004;Alpar and Winkler 2006;Ayrılmış 2012;Çavdar 2013). It should be noted that 50% and 75% MIP and WFfilled composites provided FS and FM values of over 6.9 MPa and 340 MPa, respectively.…”

supporting

confidence: 75%

Utilization of melamine impregnated paper waste as a filler in thermoplastic composites

Bozkurt

Avci

Mengeloğlu

2021

BioRes

View full text Add to dashboard Cite

The potential utilization of melamine impregnated paper (MIP) waste in thermoplastic composites was investigated. Composites were also manufactured utilizing wood flour (WF) at the same filler rates for comparison. The composites were manufactured using a compression molding method. The effects of filler type and filler rate on the mechanical properties of low-density polyethylene (LDPE)-based composites were evaluated. Mechanical properties, such as tensile and flexural strengths, were determined in accordance with ASTM D638 (2001) and ASTM D790 (2003), respectively. Results showed that filler type and filler content had significant effects on all mechanical properties investigated. Both fillers improved all mechanical properties except for tensile strength and elongation at break of LDPE. In conclusion, MIP waste has a potential to be utilized in thermoplastic-based composite manufacturing and might generate some economic and environmental benefits.

show abstract

supporting

confidence: 75%

Utilization of melamine impregnated paper waste as a filler in thermoplastic composites

Bozkurt

Avci

Mengeloğlu

2021

BioRes

View full text Add to dashboard Cite

show abstract

“…The test results were evaluated based on the relationship between the proportion of fibers, the thickness of the samples (5, 2.5, 1.8 cm), and their influence on the density. The latter has a directly proportional relationship to the strength characteristics of the prototypes (Dönmez Çavdar et al, 2013).…”

Section: Methodsmentioning

confidence: 99%

Reuse of banana fiber and peanut shells for the design of new prefabricated products for buildings

Echeverría-Maggi

Alés²,

Martín-del-Río³

2022

rdlc

View full text Add to dashboard Cite

This work presents a sustainable panel elaboration for housing interiors through banana fiber and peanut shells gathered from crop residues, consolidated with a polyester resin binder. A material characterization process was defined by forming three prototypes with different dosages. The prototypes performed physical and mechanical tests following recommendations from previous research and the standards. The results obtained were favorable regarding thermal transmittance percentages, achieving an average resistance comparable to non-structural medium density particleboard (MDP). Performance comparisons were also established, which depict the potential of these prototypes to contribute to the building industry, including the development of thermally comfortable environments.

show abstract

“…[ 8–10 ] Second, even if using water‐resistant phenolic or MUF adhesives, the surface of uncoated wood composite is directly exposed and is susceptible to water, heat, UV, acid rain, fire, and mold when applied outdoors. Nowadays, melamine‐impregnated paper, [ 11–13 ] phenolic resin flame‐resistant paper, [ 14–16 ] and thin panels [ 17–19 ] are mainly used for the surface of coated wood‐based composites. The problem of cracking occurs when Melamine‐impregnated paper was used on the surface of the plywood.…”

Section: Introductionmentioning

confidence: 99%

Multifunctional wood composites based on Camellia oleifera shell with harsh‐weather and self‐mildew resistance

et al. 2022

View full text Add to dashboard Cite

Camellia oleifera shell is rich in lignin and tea saponin and other natural active substances, and it is used to directly prepare fuel and biochar, which are low‐value applications. Inspired by the tea oil fruit shell, a new type of wood‐based composite was designed, which was bonded between inner layers and coated on the surface with Camellia oleifera shell‐based phenolic resin through a one‐step manufacturing process. The acid catalyst type, reaction time, and substitution ratios (Camellia oleifera shell/phenol) were used to optimize the formulation and process of Camellia oleifera shell phenolic resin. The chemical structure, wet bonding strength, harsh‐weather resistance, thermal properties, and flame resistance of the composites (Camellia oleifera shell phenolic resin surface coated plywood [CSPCPs]) were evaluated. The results indicated that the CSPCPs showed better‐wet bonding strength and thermal properties and harsh‐weather resistance compared with the common uncoated plywood. CSPCP‐3 presented the maximum wet bonding strength of 1.63 MPa. The limiting oxygen indexes of the CSPCPs were all higher than that of common plywood. All CSPCPs displayed excellent acid rain corrosion resistance, with little mass loss under simulated acid rain conditions. Grayscale was used to compare the samples' color to assess their self‐mildew resistance. As the amount of shell increased, the mold resistance of CSPCPs increased. CSPCP‐3 showed excellent comprehensive performance and can be a multifunctional wood composite suitable for outdoor applications.

show abstract

Effect of waste melamine impregnated paper on properties of oriented strand board

Cited by 14 publications

References 8 publications

Utilization of melamine impregnated paper waste as a filler in thermoplastic composites

Utilization of melamine impregnated paper waste as a filler in thermoplastic composites

Reuse of banana fiber and peanut shells for the design of new prefabricated products for buildings

Multifunctional wood composites based on Camellia oleifera shell with harsh‐weather and self‐mildew resistance

Contact Info

Product

Resources

About