Processing of tropical agro-industrial waste for particleboard manufacture: Dimensional stability and mechanical performance

Betené, Achille Désiré Omgba; Ndiwe, Benoit; Krishnan, G. Sai; Wedaïna, Achille Gnassiri; Manfouo Tchoupmene, Cheryle; Ngongang Djakou, Cabrer Bostel; Mbere Taoga, Michel; Betené, Fabien Ebanda; Atangana, Ateba

doi:10.1016/j.jobe.2023.107369

Cited by 7 publications

(2 citation statements)

References 41 publications

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“…After a long period of research by scholars, the raw materials for the base material of veneer panels have been expanded to a larger extent [8][9][10]. On the basis of traditional man-made panels, other non-biomass materials such as plant straw [11], bagasse or Agro-industrial byproduct shells have been developed [12,13]. In process research, scholars often start with the hot-pressing process parameters and investigate the effects of hot-pressing pressure, hot-pressing temperature and hot-pressing time on the surface bonding strength and mechanical properties of veneer panels [14,15].…”

Section: Introductionmentioning

confidence: 99%

The study on surface morphology and decorative properties of Magnesium-glass-board (MGB)

Song,

Wang,

et al. 2024

PLoS ONE

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In order to improve the decorative properties of Magnesium-Glass-Board (MGB), the surface morphology and decoration performance of MGB, are studied in detail by using profilometer, microscope and SEM, and the influence of its characterization, such as surface roughness, surface porosity and wettability, on decorative properties of MGB is analyzed by comparing with medium density fiberboard (MDF) and medium density particleboard (MDP). The results first showed that the surface of MGB has a porous structure, but MDF and MDP are not, resulting in a poor decorative performance of MGB. Second, it is found that the surface wettability of MGB is better than others. Third, the hot-pressing parameters including pressure, temperature and time have different influence on decorative performance of MGB during hot-pressing experiment. Finally, the surface bonding strength is positively correlated with pressure, but not with temperature and time. In general, a higher surface bonding strength led to a better decorative performance of MGB. The furthermore research can concentrate on the modification method of the MGB’s surface according to this paper’s conclusion to improve the lamination performance of melamine paper.

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Section: Introductionmentioning

confidence: 99%

The study on surface morphology and decorative properties of Magnesium-glass-board (MGB)

Song,

Wang,

et al. 2024

PLoS ONE

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“…Indeed, researchers have successfully fabricated particleboards using a diverse array of materials, including eucalyptus capsules (Rodrigues et al, 2023), pinecones, macadamia shells (Mirindi, 2022), mahogany leaves (Silva et al, 2021), and wheat straw (Silva et al, 2021), as representative instances of agricultural waste sources. Similarly, particleboards manufactured from waste materials such as eggshells (Adediran et al, 2019), rice husks (Chaydarreh et al, 2021), doum palm shells (Betené et al, 2023), and coconut shells (Atoyebi et al, 2021) demonstrate the innovative application of food industry residues in this context. It can alleviate the environmental impacts of deforestation and high wood demand, reduce the cost of raw materials, and contribute to sustainable development (Futuremarketinsights, 2024).…”

Section: Introductionmentioning

confidence: 99%

A Review of the Evolution and Performance of Particleboard from Different Types of Organic Waste and Adhesives

Mirindi,

Panthi,

Sanders Thach

et al.

EPiC Series in Built Environment

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The increasing demand and rising price of wood-based materials have led to a need for alternative raw materials in particleboard production. Agricultural waste, such as waste wood and recycled wood waste, as well as food waste, can serve as ideal alternatives to traditional wood chips, which account for more than half of the production cost. Utilizing agricultural waste, food waste, and industry materials is not only cost-effective but also a key principle of the circular economy, leading to reduced carbon dioxide emissions. Nevertheless, there is a lack of an updated, comprehensive assessment of the exploitation of these materials in particleboard production. This article reviews the current state-of-the-art particleboard production using environmentally friendly agricultural and food waste materials and recycled wood waste. The review categorizes particleboards into three groups: particleboards made with agricultural waste, food industry waste, and wood-based waste. The purpose is to compare the mechanical and physical properties of the resulting particleboards and establish their use in building construction according to various particleboard standards. This study demonstrates that wood-based, agricultural, and food waste can be transformed into high-quality, eco-friendly particleboards that surpass industry standards and are suitable for various applications such as construction, furniture, and laboratory equipment. The integration of these waste materials into mainstream production highlights the role of innovative recycling techniques in promoting sustainable urban development and construction practices. This approach significantly contributes to reducing deforestation, preserving natural habitats, and providing affordable housing, supporting a more sustainable and responsible approach to resource management. This review is undertaken to address the critical need for sustainable alternatives in particleboard production amidst environmental and economic challenges. It aims to consolidate recent advancements in using waste materials, providing a comprehensive assessment essential for future research and industry application. This effort aligns with global environmental objectives and advances the circular economy.

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Performance assessment of agricultural waste based eco‐friendly brake friction composites

Kılıç

2024

Polymer Composites

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There has been growing interest in using sustainable and eco‐friendly products to produce engineering materials. For this purpose, composite material applications obtained from agricultural wastes are gaining popularity. This study examines the synergistic effect of rice husk and rice stalk wastes on the fade and recovery performance of brake friction composites. Brake friction materials were developed using rice husk and rice stalk separately and in two different weight percentages as a 5–10 ratio in the formulation. For comparison purposes, a reference brake pad using copper as a substitute and a commercially available brake pad were used. Various physical, mechanical and thermal properties were analyzed. The tribological behavior of friction composites was evaluated on the Krauss test device in line with the ECE R90 procedure. The worn surface properties were analyzed using scanning electron microscopy. Tribo test results of friction composites were taken as criteria for performance optimization. While the importance weight of the criteria was determined by AHP, the VIKOR method was used in the sorting of alternatives. The experimental results have revealed that rice husk‐added friction composites had a good coefficient of friction value with better fade and recovery performance compared to rice stalk‐added ones. Increasing the amount of rice husk and rice stalk in the formulation tended to decrease the fade performance; however, it has increased the wear rate and recovery properties. Optimization results have shown that the brake friction composite containing 5 wt % rice husk ranks first in meeting the desired tribological criteria.Highlights Cu‐free rice husk and rice stalk‐added friction composites were developed. Fibrous structure in the matrix developed the contact plateaus. Rice husk‐based tribo‐layer protected the composite from further wear damage. The addition of agro‐waste to friction composites exhibited good potential.

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Processing of tropical agro-industrial waste for particleboard manufacture: Dimensional stability and mechanical performance

Cited by 7 publications

References 41 publications

The study on surface morphology and decorative properties of Magnesium-glass-board (MGB)

The study on surface morphology and decorative properties of Magnesium-glass-board (MGB)

A Review of the Evolution and Performance of Particleboard from Different Types of Organic Waste and Adhesives

Performance assessment of agricultural waste based eco‐friendly brake friction composites

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