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Augmentation of EFB Fiber Web by Nano-Scale Fibrous Elements

机译:通过纳米尺寸纤维元件增强EFB纤维网

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Treatment of the abundant oil palm empty fruit bunches with alkaline peroxide chemicals and subsequent fibrillation at varying mechanical energies resulted in favourable morphological changes of the generated fibers. The produced fibrous mass composed of intensely fibrillated elements ranging from micro to nano-diameter fibrils. Nano fibrils and webs of nano-fibrils were factors contributing to the functionality of the fibrous mass as fibre web augmentation elements. Profound improvement in fiber network is particularly attributable to the ability of the collected elements to fill up inter-fiber gaps and this was attributable to the micro elements in the form of micro fines, segmented micro-fibrils and webs of nano-fibrils. The uniquely generated thin layers of nano-fibril webs (TN-webs), were found to increase fiber web density by gluing multiple layers of fibers, together. Having landed on the surface of micro-fiber web, these TN-webs were identified as responsible for the masking effects of the underlying micro-fibres. Under such condition, fibers were observed to 'coalesce', suggesting also an augmented fiber network as evident from the 130% increase in tensile index and a 450% enhancement in burst index of the resultant fiber web relative to those formed with the basic alkaline peroxide chemical-mechanical refining (CMR) synergy. This reveals a great promise to EFB for application as super-strong fibre-web materials such as packaging and specialty paper-based products.
机译:用碱性过氧化物化学品处理丰富的油棕榈空果实束,随后在不同的机械能下的原纤化导致产生的纤维的形态变化。产生的纤维状物质由强烈的纤维化元素组成,该元素范围从微量到纳米直径的原纤维组成。纳米原纤维和纳米原纤维网是有助于纤维状物质作为纤维网增强元件的功能的因素。光纤网络的深刻改善特别归因于收集元件填充光纤间隙的能力,这可归因于微细胞形式的微粒,分段的微原纤维和纳米原纤维网。发现唯一产生的纳米纤维网(TN-Web)的薄层,通过将多层纤维一起粘合,增加纤维网密度。落在微纤维网的表面上,将这些TN纤维网鉴定为负责潜在的微纤维的掩蔽效果。在这种情况下,观察到纤维“聚结”,提出了一个增强的纤维网络,从拉伸指数增加130%的增加和所得纤维网的突发指数的增强相对于由碱性过氧化物形成的纤维网的450%增强化学机械精制(CMR)协同作用。这向EFB提供了适用于申请的最佳许可,作为诸如包装和专业纸质产品的超强纤维网材料。

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