Torsion modulus with CaCO3 fillers in unsaturated polyester resin - mechanical spectroscopy
Carlos Alberto Fonzar Pintão; Airton Baggio; Lucas Pereira Piedade; Luiz Eduardo de Angelo Sanchez; Gilberto de Magalhães Bento Gonçalves
Abstract
Keywords
References
1 Costa, A. P., Botelho, E. C., Costa, M. L., Narita, N. E., & Tarpani, J. R. (2012). A review of welding technologies for thermoplastic composites in aerospace applications.
2 Bochenek, K., & Basista, M. (2015). Advances in processing of NiAl intermetallic alloys and composites for high temperature aerospace applications.
3 Delogu, M., Zanchi, L., Maltese, S., Bonoli, A., & Pierini, M. (2016). Environmental and economic life cycle assessment of a lightweight solution for an automotive component: A comparison between talc-filled and hollow glass microspheres-reinforced polymer composites.
4 Mouritz, A. P., Gellert, E., Burchill, P., & Challis, K. (2001). Review of advanced composite structures for naval ships and submarines.
5 Francklin, H. M., Motta, L. A. C., Cunha, J., Santos, A. C., & Landim, M. V. (2019). Study of epoxy composites and sisal fibers as reinforcement of reinforced concrete structure.
6 Araque, L. M., Morais, A. C. L., Alves, T. S., Azevedo, J. B., Carvalho, L. H., & Barbosa, R. (2019). Preparation and characterization of poly(hydroxybutyrate) and hollow glass microspheres composite films: Morphological, thermal, and mechanical properties.
7 Yang, H., Jiang, Y., Liu, H., Xie, D., Wan, C., Pan, H., & Jiang, S. (2018). Mechanical, thermal, and fire performance of an inorganic-organic insulation material composed of hollow glass microspheres and phenolic resin.
8 Shrivastava, P., Dalai, S., Sudera, P., Vijayalakshmi, S., & Sharma, P. (2014). Hollow glass microspheres as potential adjunct with orthopaedic metal implants.
9 Kaur, M., & Singh, K. (2019). Review on titanium and titanium-based alloys as biomaterials for orthopaedic applications.
10 Ku, H., Wang, H., Pattarachaiyakoop, N., & Trada, M. (2011). A review on the tensile properties of natural fiber reinforced polymer composites.
11 Dhand, V., Mittal, G., Rhee, K. Y., Park, S.-J., & Hui, D. (2015). A short review on basalt fiber reinforced polymer composites.
12 Sarikaya, E., Çallioğlu, H., & Demirel, H. (2019). Production of epoxy composites reinforced by different natural fibers and their mechanical properties.
13 Yang, H., Wang, X., Yu, B., Yuan, H., Song, L., Hu, Y., Yuen, R. K. K., & Yeoh, G. H. (2013). A novel polyurethane prepolymer as toughening agent: Preparation, characterization, and its influence on mechanical and flame retardant properties of phenolic foam.
14 Kumar, N., Mireja, S., Khandelwal, V., Arun, B., & Manik, G. (2017). Lightweight high-strength hollow glass microspheres and bamboo fiber based hybrid polypropylene composite: A strength analysis and morphological study.
15 Bartczak, Z., Argon, A. S., Cohen, R. E., & Weinberg, M. (1999). Toughness mechanism in semi-crystalline polymer blends: II. High-density polyethylene toughened with calcium carbonate filler particles.
16 Sun, S., Li, C., Zhang, L., Du, H. L., & Burnell-Gray, J. S. (2006). Effects of surface modification of fumed silica on interfacial structures and mechanical properties of poly(vinyl chloride) composites.
17 Zheng, J., Ozisik, R., & Siegel, R. W. (2005). Disruption of self-assembly and altered mechanical behavior in polyurethane/zinc oxide nanocomposites.
18 Zuiderduin, W. C. J., Westzaan, C., Huétink, J., & Gaymans, R. J. (2003). Toughening of polypropylene with calcium carbonate particles.
19 He, P., Gao, Y., Lian, J., Wang, L., Qian, D., Zhao, J., Wang, W., Schulz, M. J., Zhou, X. P., & Shi, D. (2006). Surface modification and ultrasonication effect on the mechanical properties of carbon nanofiber/polycarbonate composites.
20 Morales, E., & White, J. R. (1988). Residual stresses and molecular orientation in particulate-filled polypropylene.
21 Herrera-Ramírez, L. C., Cano, M., & Guzman de Villoria, R. (2017). Low thermal and high electrical conductivity in hollow glass microspheres covered with carbon nanofiber–polymer composites.
22 Zhang, Q.-X., Yu, Z.-Z., Xie, X. L., & Mai, Y.-W. (2004). Crystallization and impact energy of polypropylene/CaCO3 nanocomposites with nonionic modifier.
23 Xie, X.-L., Liu, Q.-X., Li, R. K.-Y., Zhou, X.-P., Zhang, Q.-X., Yu, Z.-Z., & Mai, Y.-W. (2004). Rheological and mechanical properties of PVC/CaCO3 nanocomposites prepared by in situ polymerization.
24 Truell, R., Elbaum, C., & Chic, B. B. (1969).
25 Nowick, A. S., & Berry, B. S., editors (1972).
26 Pintão, C. A. F. (2014). Measurement of the rotational inertia of bodies by using mechanical spectroscopy.
27 Timoshenko, S. P., & Gere, J. M. (1972).
28 Pintão, C. A. F., Correa, D. R. N., & Grandini, C. R. (2017). Torsion modulus using the technique of mechanical spectroscopy in biomaterials.
29 Majumdar, P., Singh, S. B., & Chakraborty, M. (2008). Elastic modulus of biomedical titanium alloys by nano-indentation and ultrasonic techniques-A comparative study.
30 Piedade, L. P., Pintão, C. A. F., Foschini, C. R., Silva, M. R., & Azevedo, N. F., No. (2020). Alternative dynamic torsion test to evaluate the elastic modulus of polymers.
31 Pintão, C. A. F., Souza, M. P., Fo., Grandini, C. R., & Hessel, R. (2004). Experimental study of the conventional equation to determine a plate’s moment of inertia.
32 Amrani, D. (2006). Computerized rotational system to study the moment of inertia of different objects.
33 Dedavid, B. A., Gomes, C. I., & Machado, G. (2007).
34 Hibbeler, R. C. (2010).
35 Pintão, C. A. F., Correa, D. R. N., & Grandini, C. R. (2019). Torsion modulus as a tool to evaluate the role of thermo-mechanical treatment and composition of dental Ti-Zr alloys.
36 Alarcon, R. T., Gaglieri, C., Santos, G. C., Roldao, J. C., Magdalena, A. G., Silva-Filho, L. C., & Bannach, G. (2021). A deep investigation into the thermal degradation of urethane dimethacrylate polymer.
Facebook
Google+
Twitter
LinkedIn
Mendeley
StumbleUpon
CiteULike
Reddit
Email