In the paper, different types of polymers (rPLA, PETG, TPU) printed with a 3D printer are tested on textile material used for car interiors. The primary goal is to examine the possibility of 3D printing on textiles for the automotive industry, its adhesive and other mechanical properties. A further goal is to explore possibilities for new ways of designing and aesthetic efficiency of materials used in vehicles as well as potential ergonomically positive effects. The adhesion properties of the polymer-textile material, the strength printed on the surface using the tape method, the wear resistance of the polymer printed on the textile and the ageing of the polymer under simulated conditions are tested. The results are used to select a suitable polymer for the 3D printer and print it on the selected textile material for automotive industry.
In this study, microcapsules were prepared by solvent evaporation technique using ethyl cellulose component as wall and essential oil as core material. The synthesis of microcapsules was carried out using different oil masses. The analysis of the microcapsules was carried out using field emission scanning electron microscope (FE-SEM) and UV spectrophotometric analysis using absorption spectrophotometer. The obtained results confirm the regular spherical shape and size of the synthesized microcapsules. The qualitative and quantitative spectrophotometric analysis of the microencapsulated immortelle oil was measured at the wavelength of 265 nm. The calibration diagram was used to calculate the unknown concentrations of the microencapsulated oil. The obtained results confirm the application of the presented method as relevant for the possible determination of microencapsulated oil on textile materials.
The International Textile Machinery Association (ITMA) 2023, held in Milan, Italy, was a pivotal event showcasing the latest innovations in the textile and garment industry, with a particular focus on electrospinning and extrusion machines. This review provides an in-depth analysis of the advancements presented at the fair, drawing on promotional materials, press releases, and firsthand accounts from exhibitors and attendees. The event underscored several industry trends, including a strong focus on sustainability, digitization, and automation. The review delves into these trends, discussing their implications for the textile industry and how they reflect the industry's broader goals and challenges. The advancements in extrusion and electrospinning technologies presented at the fair were particularly noteworthy, promising to revolutionize various aspects of textile production. The fair's success underscores the importance of such events in driving innovation and fostering dialogue within the industry.
Investigations, which are related to plasma efficiency on the treated leather surface, are significant in the development of ecologically and economically friendly processes in obtaining material of desired functional properties. Through the pretreatments using plasma different chemical-physical reactions in the surface layer of treated leather are occurred resulting in improved reactivity. In this paper, modification and functionalization of bovine leather using 1,2,3,4-butantetracarboxylic acid and chitosan were explored. Pretreatments of leather samples were realised using argon and oxygen plasma to assess various influence of chemically reactive oxygen and inert argon gas. Two different bovine leathers -chrome tanned leather and leather tanned with synthetic tanning agent (Cr-free) were chosen for treatments. Analyse of the surface morphology was conducted with SEM microscopy, while the chemical changes using ATR-FTIR spectroscopy. Antimicrobial effectiveness of treated leather was tested with qualitative Agar diffusion plate test against two bacterial Staphylococcus aureus and Klebsiella pneumoniae. Obtained results indicated how applied oxygen and argon plasma pretreatments in optimized process conditions contribute to the improvement of tested functional properties. Achieved surface changes positively affected on leather surface reactivity and antimicrobial effectiveness, particularly Cr-free leather.
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