The Contribution of the Pore Size of Titanium DC (Direct Current) Sputtered Condensation Polymer Materials to Electromagnetic Interruption and Thermal Properties
Affiliation:
1. Department of Beauty Art Care, Graduate School of Dongguk University, Seoul 04620, Republic of Korea
Abstract
Using special materials has been in the spotlight, along with their multifunctional demands, research on electromagnetic interruption, thermal characteristics, biosignal sensors, secondary batteries, etc. In this study, titanium was sputtered into a condensation polymer material and considered in depth in terms of electromagnetic interruption, thermal properties, infrared blocking, etc. As a result of observing the electromagnetic wave shielding effect, the electromagnetic wavelength value decreased from 168.0 to 42.7 to 64.0 when titanium DC sputtered film samples were placed in front of the electromagnetic wave source. The titanium DC sputtered samples significantly reduced electrical resistance compared to the untreated samples. In addition, the IR transmittances of the titanium sputtered specimens were decreased compared to the untreated specimens. When only the cross-section was treated with titanium sputtering and the titanium surface was directed toward the infrared irradiator, the infrared permeability was 64.3 to 0.0%. After taking an infrared thermal image, ΔH, ΔV, ΔS, ΔY, ΔCr, and ΔCb values were calculated. It is believed that the titanium DC sputtered polyamide materials produced in this study can be used for high-functional protective clothing, sensors by applying electromagnetic interruption, IR blocking, and stealth functions.
Subject
Materials Chemistry,Surfaces, Coatings and Films,Surfaces and Interfaces
Reference33 articles.
1. Chen, H., Feng, R., Xia, T., Wen, Z., Li, Q., Qiu, X., Huang, B., and Li, Y. (2023). Progress in Surface Modification of Titanium Implants by Hydrogel Coatings. Gels, 9. 2. Chumaevskii, A., Amirov, A., Ivanov, A., Rubtsov, V., and Kolubaev, E. (2023). Friction Stir Welding/Processing of Various Metals with Working Tools of Different Materials and Its Peculiarities for Titanium Alloys: A Review. Metals, 13. 3. Guo, A.X.Y., Cao, B., Wang, Z., Ma, X., and Cao, S.C. (2023). Fabricated High-Strength, Low-Elastic Modulus Biomedical Ti-24Nb-4Zr-8Sn Alloy via Powder Metallurgy. Materials, 16. 4. Jażdżewska, M., Bartmański, M., Zieliński, A., and Kwidzińska, D.B. (2023). Effect of Laser Treatment on Intrinsic Mechanical Stresses in Titanium and Some of Its Alloys. Appl. Sci., 13. 5. Kovács, Á.É., Csernátony, Z., Csámer, L., Méhes, G., Szabó, D., Veres, M., Braun, M., Harangi, B., Serbán, N., and Zhang, L. (2023). Comparative Analysis of Bone Ingrowth in 3D-Printed Titanium Lattice Structures with Different Patterns. Materials, 16.
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