工程竹加工的进展:材料转化与结构

Mohammad Khajouei-Nezhad , Kate Semple , Vahid Nasir , Yu’an Hu , Greg Marggraf , Jonas Hauptman , Chunping Dai
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引用次数: 0

摘要

由于竹子可再生性快、旋转周期短、多功能性强、力学性能好,工程竹复合材料发生了重大变化。本文考察了竹制品制造业的最新变化,从竹秆的整体分类开始,将其分解为过多的不同组成元素:全秆、扁竹、竹束、劈叉/条、席/帘和股。竹纤维中使用的高度开裂的扁平条的比表面积是无裂纹条的4-5倍,所需的树脂消耗量估计是层压竹的6-10倍。根据其结构,竹复合材料可分为三类:1)最小改性秆的层压,2)具有可控或半随机放置组成元素的层压垫结构,以及3)由细竹股组成的随机垫结构。复合材料的形成正从大而厚的板条的随机放置过渡到与缝合板条帘的次要元素的更可控的叠层,有助于最大限度地减少边到边的板条重叠,并通过较少的垫压实提高粘合效率。比较了各种工程竹与普通工程木制品的密度结构强度性能关系。其他技术进步包括无裂纹的扁平竹子和竹木混合产品。
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Advances in engineered bamboo processing: Material conversion and structure

With bamboo’s rapid renewability, short rotation period, versatility, and good mechanical properties, engineered bamboo composites have undergone significant evolution. This paper examines the recent changes in bamboo product manufacturing, starting with a wholistic classification of culm breakdown to the plethora of different constituent elements: full culm, flattened bamboo, bamboo bundles, splits/strips, mats/curtains, and strands. Highly cracked flattened strips used in bamboo scrimber are 4–5 times greater in specific surface area than crack-free strips, requiring an estimated 6–10 times higher resin consumption than laminated bamboo. Based on their structure, bamboo composites can be classified into three categories: 1) lamination of minimally modified culms, 2) laminated mat structures with controlled or semi-random placement of constituent elements and 3) random mat structures composed of thin bamboo strands. Composite formation is transitioning from random placement of large, thick strips to more controlled layup with secondary elements of stitched strip curtains, helping minimize edge-to-edge strip overlaps and improve bonding efficiency with less mat compaction. Density-structure-strength property relationships are also compared between various engineered bamboo and common engineered wood products. Other technical advancements include crack-free flattened bamboo and hybrid bamboo-wood products.

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