Hot Incremental Forming of Biocomposites Developed from Linen Fibres and a Thermoplastic Matrix

IF 1.2 4区 工程技术 Q3 ENGINEERING, MECHANICAL
Sandino Torres, Roberto Ortega, P. Acosta, Edisson Caldeŕon
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引用次数: 10

Abstract

The use of biodegradable materials has a growing field of application due to environmental concerns, however, scientific research on incremental forming using biomaterials is scarce. Thus, this study focuses on the single point incremental forming (SPIF) process applied to a composite sheet that combines a biodegradable thermoplastic matrix (Solanyl) reinforced with natural fibres (flax). The influence of the process parameters on the final geometry is determined, evaluating the effect of the following factors: step depth, wall angle and temperature reached during the process. Additionally, a heated aqueous medium is incorporated which facilitates the formability of the composite sheets. This method is especially useful for materials that have poor formability at room temperature. The benefits of using controlled heat include the reduction of formation forces applied to the plate, improved accuracy due to the reduction of elastic recovery, and the manipulation of the samples remarkably close to the glass transition temperatures. Through this experimental study with the variables analysed, a maximum shaping depth of 310 mm is obtained. These results confirm that the single point shaping used with bioplastic materials is possible and has positive outcomes for incremental forming.
亚麻纤维和热塑性基质生物复合材料的热增量成形
由于对环境的关注,生物可降解材料的应用领域越来越广泛,然而,利用生物材料进行增量成型的科学研究却很少。因此,本研究的重点是将单点增量成形(SPIF)工艺应用于结合生物可降解热塑性基质(Solanyl)和天然纤维(亚麻)增强的复合材料板。确定了工艺参数对最终几何形状的影响,评估了以下因素的影响:台阶深度、壁角和过程中达到的温度。另外,加入了一种加热的水介质,其促进了复合片材的可成形性。这种方法特别适用于室温下成形性差的材料。使用受控热的好处包括减少施加在板上的形成力,由于弹性恢复的减少而提高了精度,并且样品的操作非常接近玻璃化转变温度。通过对实验变量的分析,得出最大成形深度为310 mm。这些结果证实了生物塑料材料的单点成形是可能的,并且对于增量成形具有积极的结果。
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来源期刊
CiteScore
3.00
自引率
17.60%
发文量
56
审稿时长
4.1 months
期刊介绍: The international journal publishes original and (mini)review articles covering the concepts of materials science, mechanics, kinematics, thermodynamics, energy and environment, mechatronics and robotics, fluid mechanics, tribology, cybernetics, industrial engineering and structural analysis. The journal follows new trends and progress proven practice in the mechanical engineering and also in the closely related sciences as are electrical, civil and process engineering, medicine, microbiology, ecology, agriculture, transport systems, aviation, and others, thus creating a unique forum for interdisciplinary or multidisciplinary dialogue.
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