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加工和粒径对以L.根茎制成的无胶刨花板的影响。

The Influence of Processing and Particle Size on Binderless Particleboards Made from L. Rhizome.

作者信息

Ferrandez-Villena Manuel, Ferrandez-Garcia Clara Eugenia, Garcia-Ortuño Teresa, Ferrandez-Garcia Antonio, Ferrandez-Garcia Maria Teresa

机构信息

Department of Engineering, Universidad Miguel Hernandez, 03300 Orihuela, Spain.

出版信息

Polymers (Basel). 2020 Mar 21;12(3):696. doi: 10.3390/polym12030696.

Abstract

The giant reed ( L.) is considered one of the world's 100 worst invasive species. The main method by which this species propagates is by growth of scattered fragments of rhizome, spreading without control with very strong, deep roots. Agricultural waste consists of lignocellulosic materials that can substitute natural wood and offer a suitable alternative with which to manufacture boards for furniture, packaging and building purposes. The objectives of this work were to obtain binderless particleboards using giant reed rhizome as the raw material, to evaluate their mechanical and physical properties according to the applicable European standards and to assess the self-binding mechanism of the particles in the board. Six types of boards (12 classes) were manufactured with giant reed rhizome biomass. They were manufactured with a temperature of 110 °C, a pressure of 2.5 MPa and pressing times of 7 and 15 min, applying one or two pressing cycles. The results achieved for modulus of rupture (14.2 N/mm), modulus of elasticity (2052.45 N/mm) and internal bonding strength (1.12 N/mm) show that the mechanical properties were improved by using a smaller rhizome particle size and two pressing cycles.

摘要

巨芦苇(Phragmites australis (Cav.) Trin. ex Steud.)被认为是世界上100种最严重的入侵物种之一。该物种的主要繁殖方式是通过根茎散落片段的生长,凭借其非常强壮且深入的根系无节制地蔓延。农业废弃物由木质纤维素材料组成,这些材料可以替代天然木材,并为制造用于家具、包装和建筑目的的板材提供合适的替代品。这项工作的目标是使用巨芦苇根茎作为原材料获得无胶刨花板,根据适用的欧洲标准评估其机械和物理性能,并评估板材中颗粒的自结合机制。用巨芦苇根茎生物质制造了六种类型的板材(12个等级)。它们在110°C的温度、2.5 MPa的压力以及7分钟和15分钟的压制时间下制造,采用一个或两个压制周期。所获得的抗折强度(14.2 N/mm)、弹性模量(2052.45 N/mm)和内结合强度(1.12 N/mm)的结果表明,使用较小的根茎颗粒尺寸和两个压制周期可改善机械性能。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ef90/7182863/6bba421e3cb3/polymers-12-00696-g001.jpg

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