Morais Flávia P, Carta Ana M M S, Amaral Maria E, Curto Joana M R
Fiber Materials and Environmental Technologies Research Unit (FibEnTech-UBI), Universidade da Beira Interior, R. Marquês d'Ávila e Bolama, 6201-001 Covilhã, Portugal.
Forest and Paper Research Institute (RAIZ), R. José Estevão, Eixo, 3800-783 Aveiro, Portugal.
Polymers (Basel). 2021 Nov 18;13(22):3982. doi: 10.3390/polym13223982.
Tissue paper production frequently combines two main types of raw materials: cellulose fibers from renewable sources and polymer-based additives. The development of premium products with improved properties and functionalities depends on the optimization of both. This work focused on the combination of innovative experimental and computational strategies to optimize furnish. The main goal was to improve the functional properties of the most suitable raw materials for tissue materials and develop new differentiating products with innovative features. The experimental plan included as inputs different fiber mixtures, micro/nano fibrillated cellulose, and biopolymer additives, and enzymatic and mechanical process operations. We present an innovative tissue paper simulator, the , that we have developed, to establish the correlations between the tissue paper process inputs and the end-use paper properties. Case studies with industrial interest are presented in which the tissue simulator was used to design tissue paper materials with different fiber mixtures, fiber modification treatments, micro/nano fibrillated cellulose, and biopolymer formulations, and to estimate tissue softness, strength, and absorption properties. The was able to predict and optimize a broader range of formulations containing micro/nanocellulose fibers, biopolymer additives, and treated-fiber mixtures, saving laboratory and industrial resources.
可再生来源的纤维素纤维和聚合物基添加剂。具有改进性能和功能的优质产品的开发取决于两者的优化。这项工作专注于创新的实验和计算策略相结合以优化配料。主要目标是改善薄页纸材料最合适原材料的功能特性,并开发具有创新特性的新型差异化产品。实验计划包括不同的纤维混合物、微/纳米原纤化纤维素和生物聚合物添加剂,以及酶法和机械加工操作作为输入。我们展示了一种我们开发的创新型薄页纸模拟器,用于建立薄页纸工艺输入与最终使用纸张性能之间的相关性。展示了具有行业兴趣的案例研究,其中薄页纸模拟器用于设计具有不同纤维混合物、纤维改性处理、微/纳米原纤化纤维素和生物聚合物配方的薄页纸材料,并估计薄页纸的柔软度、强度和吸收性能。该模拟器能够预测和优化包含微/纳米纤维素纤维、生物聚合物添加剂和处理过的纤维混合物的更广泛配方,节省实验室和工业资源。