Accesso libero

Competence of Carbonaceous Fibers/Nanofillers (Graphene, Carbon Nanotube) Reinforced Shape Memory Composites/Nanocomposites Towards Aerospace—Existent Status and Expansions

  
14 set 2024
INFORMAZIONI SU QUESTO ARTICOLO

Cita
Scarica la copertina

Kausar, A. and I. Ahmad, Leading-edge polymer/carbonaceous nano-reinforcement nanocomposites—opportunities for space sector. Advances in Materials Science, 2023. 23(4): p. 99-122. Search in Google Scholar

Kausar, A. and I. Ahmad, Nanocomposites of nanocarbon functionalized carbon fibers— manufacturing to methodological applications. Advances in Materials Science, 2024. 24(1): p. 46-71. Search in Google Scholar

Hassan, H., et al., A review of electro-active shape memory polymer composites: Materials engineering strategies for shape memory enhancement. European Polymer Journal, 2024: p. 112861. Search in Google Scholar

Luo, L., et al., Recent Advances in Shape Memory Polymers: Multifunctional Materials, Multiscale Structures, and Applications. Advanced Functional Materials, 2024. 34(14): p. 2312036. Search in Google Scholar

Haines-Gadd, M., F. Charnley, and A. Encinas-Oropesa, Self-healing materials: A pathway to immortal products or a risk to circular economy systems? Journal of Cleaner Production, 2021. 315: p. 128193. Search in Google Scholar

Singh, S.K., R. Kant, and S. Bhattacharya, Shape Memory Polymers and Their Emerging Applications. Trends in Applications of Polymers and Polymer Composites, 2022: p. 8-1-8-18. Search in Google Scholar

Prasad, S.S. and P.P. Kumari, Fabrication of Shape Memory Polymers, in Fabrication and Machining of Advanced Materials and Composites. 2022, CRC Press. p. 119-138. Search in Google Scholar

Zhang, Z., et al., Nanoindentation of multifunctional smart composites. Polymers, 2022. 14(14): p. 2945. Search in Google Scholar

Enew, A.M., et al., Effect of aramid and carbon fibers with nano carbon particles on the mechanical properties of EPDM rubber thermal insulators for solid rocket motors application. Polymer Testing, 2021. 103: p. 107341. Search in Google Scholar

Zende, R., V. Ghase, and V. Jamdar, A review on shape memory polymers. Polymer-Plastics Technology and Materials, 2023. 62(4): p. 467-485. Search in Google Scholar

Mhlanga, N. and K. Mphahlele, Self-healing Substrates: Fabrication, Properties and Applications, in Self-standing Substrates. 2020, Springer. p. 235-267. Search in Google Scholar

Luo, X. and P.T. Mather, Design strategies for shape memory polymers. Current Opinion in Chemical Engineering, 2013. 2(1): p. 103-111. Search in Google Scholar

Guo, W., et al., UV-triggered self-healing of a single robust SiO2 microcapsule based on cationic polymerization for potential application in aerospace coatings. ACS applied materials & interfaces, 2016. 8(32): p. 21046-21054. Search in Google Scholar

Lecce, L., Shape memory alloy engineering: for aerospace, structural and biomedical applications. 2014: Elsevier. Search in Google Scholar

Ghori, S.W., et al., The role of advanced polymer materials in aerospace, in Sustainable composites for aerospace applications. 2018, Elsevier. p. 19-34. Search in Google Scholar

Williams, G.J., I.P. Bond, and R.S. Trask, Compression after impact assessment of self-healing CFRP. Composites Part A: Applied Science and Manufacturing, 2009. 40(9): p. 1399-1406. Search in Google Scholar

Posada-Murcia, A., et al., Mechanism of Behavior of Two-Way Shape Memory Polymer under Constant Strain Conditions. Macromolecules, 2022. 55(5): p. 1680-1689. Search in Google Scholar

Garces, I., et al., Shape memory composites and braids. Handbook of Advances in Braided Composite Materials, 2024: p. 439-452. Search in Google Scholar

Yan, S., et al., Shape memory polymer composites: 4d printing, smart structures, and applications. Research, 2023. 6: p. 0234. Search in Google Scholar

Shi, M., et al., Reprocessed, shape-memory and self-healing robust epoxy resin by hindered urea bond. Polymer, 2024. 290: p. 126565. Search in Google Scholar

Unnikrishnan, T., et al., Shape memory epoxy foam-defense and aerospace applications, in Handbook of Thermosetting Foams, Aerogels, and Hydrogels. 2024, Elsevier. p. 367-380. Search in Google Scholar

Zhang, D., et al., Experimental study on nonlinearity of unidirectional carbon fibre-reinforced shape memory polymer composites. Composites Part A: Applied Science and Manufacturing, 2023. 166: p. 107372. Search in Google Scholar

Yadav, A., et al., Effect of dual dispersion of carbon fiber and silica nanoparticles on recovery performance of shape memory epoxy. Smart Materials and Structures, 2024. 33(6): p. 065044. Search in Google Scholar

Sudhin, A., et al., Comparison of properties of carbon fiber reinforced thermoplastic and thermosetting composites for aerospace applications. Materials today: proceedings, 2020. 24: p. 453-462. Search in Google Scholar

Chen, H., et al., Electrothermal shape memory behavior and recovery force of four-dimensional printed continuous carbon fiber/polylactic acid composite. Smart Materials and Structures, 2021. 30(2): p. 025040. Search in Google Scholar

Zeng, C., et al., 4D printed electro-induced continuous carbon fiber reinforced shape memory polymer composites with excellent bending resistance. Composites Part B: Engineering, 2020. 194: p. 108034. Search in Google Scholar

Wang, H., et al., Four-Dimensionally Printed Continuous Carbon Fiber-Reinforced Shape Memory Polymer Composites with Diverse Deformation Based on an Inhomogeneous Temperature Field. Polymers, 2023. 15(18): p. 3740. Search in Google Scholar

Akhoundi, B., An evaluation of the shape-memory behavior and mechanical properties of polylactic acid/Ni80Cr20 continuous wire composite produced by extrusion-based additive manufacturing and in-melt simultaneous impregnation method. Journal of Reinforced Plastics and Composites, 2024. 43(13-14): p. 783-797. Search in Google Scholar

Gong, Y., et al., A novel strategy for the design of cooperatively reinforced, shape-memory, recyclable ESO-based carbon fiber composites. Industrial Crops and Products, 2024. 209: p. 117984. Search in Google Scholar

Chamkouri, H. and M. Chamkouri, An analysis and assessment of the physical, mechanical, and thermal properties of carbon fiber/epoxy reinforced microparticles. Polymer Composites, 2021. 42(4): p. 2000-2009. Search in Google Scholar

Quadrini, F., et al., Shape memory composite sandwich structures with self-healing properties. Polymers, 2021. 13(18): p. 3056. Search in Google Scholar

Jang, J.H., et al., Long-term properties of carbon fiber-reinforced shape memory epoxy/polymer composites exposed to vacuum and ultraviolet radiation. Smart Materials and Structures, 2019. 28(11): p. 115013. Search in Google Scholar

Ding, R., et al., Damage-indicating and self-healing anticorrosion coatings based on fluorescence resonance energy transfer and photothermal shape memory mechanism. Journal of Vacuum Science & Technology A, 2024. 42(2). Search in Google Scholar

Parida, S., et al., Synthesis and Processing Techniques of Polymer Composites, in Polymer Composites: Fundamentals and Applications. 2024, Springer. p. 39-66. Search in Google Scholar

Dvorak, K., et al., 3D composite printing: study of carbon fiber incorporation to different construction thermoplastic matrices in regard to dilatation characteristics. Rapid Prototyping Journal, 2024. Search in Google Scholar

Liu, S., et al., 4D printing of shape memory epoxy for adaptive dynamic components. Advanced Materials Technologies, 2023. 8(12): p. 2202004. Search in Google Scholar

Tuo, Z., et al., High-performance shape memory epoxy resin with high strength and toughness: Prepared by introducing hydrogen bonds through polycaprolactone and low melting point alloy. Composites Science and Technology, 2024. 250: p. 110510. Search in Google Scholar

Jing, X., et al., Deployment analysis of aramid fiber reinforced shape-memory epoxy resin composites. Engineered Science, 2020. 11(2): p. 44-53. Search in Google Scholar

Kisiel, M. and B. Mossety-Leszczak, The Effect of Nonterminal Liquid Crystalline Epoxy Resin Structure and Curing Agents on the Glass Transition of Polymer Networks. Polymers, 2024. 16(6): p. 857. Search in Google Scholar

Margoy, D., et al., Epoxy-based shape memory composite for space applications. Acta Astronautica, 2021. 178: p. 908-919. Search in Google Scholar

Nodehi, M., T. Ozbakkaloglu, and A. Gholampour, A systematic review of bacteria-based self-healing concrete: Biomineralization, mechanical, and durability properties. Journal of Building Engineering, 2022: p. 104038. Search in Google Scholar

Kontiza, A., et al., Double cantilever beam test and micro-computed tomography as evaluation tools for self-healing of CFRPs loaded with DCPD microcapsules. Composite Structures, 2022. 279: p. 114780. Search in Google Scholar

Wang, K., et al., Preface to the TRR Special Collection on Nanotechnology of Cement and Concrete. Transportation Research Record, 2021. 2675(9): p. 1-3. Search in Google Scholar

Zhang, H., et al., Composites of Layered Double Hydroxide Nanosheets, Hydroxy-Functionalized Carbon Nanotubes, and Hydroxyapatite Nanoparticles as Flame Retardants for Epoxy Resins. ACS Applied Nano Materials, 2021. 4(11): p. 11753-11762. Search in Google Scholar

Ma, H., M.A. Aravand, and B.G. Falzon, Influence on fracture toughness arising from controlled morphology of multiphase toughened epoxy resins in the presence of fibre reinforcement. Composites Science and Technology, 2022. 217: p. 109095. Search in Google Scholar

Xie, L., et al., A thermadapt epoxy based on borate ester crosslinking and its carbon fiber composite as rapidly processable prepreg. Composites Communications, 2021. 28: p. 100979. Search in Google Scholar

Luo, F., et al., Highly thermally conductive phase change composites for thermal energy storage featuring shape memory. Composites Part A: Applied Science and Manufacturing, 2020. 129: p. 105706. Search in Google Scholar

Paolillo, S., et al., Intrinsic Self-Healing Epoxies in Polymer Matrix Composites (PMCs) for Aerospace Applications. Polymers, 2021. 13(2): p. 201. Search in Google Scholar

Liu, J., et al., A novel graphene oxide/trans-1, 4-polyisoprene (GO/TPI) shape memory polymer nanocomposite and its multifunctional properties. Nanotechnology, 2019. 30(25): p. 255706. Search in Google Scholar

Li, Z., et al., Shape memory epoxy resin and its composite with good shape memory performance and high mechanical strength. Polymer Bulletin, 2023. 80(2): p. 1641-1655. Search in Google Scholar

Sánchez-Romate, X.F., et al., The addition of graphene nanoplatelets into epoxy/polycaprolactone composites for autonomous self-healing activation by Joule’s heating effect. Composites Science and Technology, 2021. 213: p. 108950. Search in Google Scholar

Poutrel, Q.-A., et al., Graphene functionalisations: Conserving vitrimer properties towards nanoparticles recovery using mild dissolution. Composites Science and Technology, 2021. 216: p. 109072. Search in Google Scholar

Lorwanishpaisarn, N., et al., Self-Healing Ability of Epoxy Vitrimer Nanocomposites Containing Bio-Based Curing Agents and Carbon Nanotubes for Corrosion Protection. Journal of Polymers and the Environment, 2021: p. 1-11. Search in Google Scholar

Zhou, Y., et al., A Fast-Responding Electro-Activated Shape Memory Polymer Composite with Embedded 3D Interconnected Graphene Foam. Micromachines, 2022. 13(10): p. 1589. Search in Google Scholar

Idowu, A., et al., Electrically and Thermally Triggered Three-Dimensional Graphene-Foam-Reinforced Shape Memory Epoxy Composites. Polymers, 2023. 15(13): p. 2903. Search in Google Scholar

Yoonessi, M., et al., Graphene polyimide nanocomposites; thermal, mechanical, and high-temperature shape memory effects. ACS nano, 2012. 6(9): p. 7644-7655. Search in Google Scholar

Krishnakumar, B., et al., Catalyst free self-healable vitrimer/graphene oxide nanocomposites. Composites Part B: Engineering, 2020. 184: p. 107647. Search in Google Scholar

Xia, Y., et al., Harnessing the power of carbon fiber reinforced liquid crystal elastomer composites for high-performance aerospace materials: A comprehensive investigation on reversible transformation and shape memory deformation. Composites Part A: Applied Science and Manufacturing, 2024. 177: p. 107943. Search in Google Scholar

Li, Z., Z. Guo, and Y. Yang, Development of cyanate ester‐based shape memory composite reinforced by multi‐walled carbon nanotube modified with silicon dioxide. Journal of Applied Polymer Science, 2023. 140(16): p. e53749. Search in Google Scholar

Wang, Y., et al., Sustainable self-healing at ultra-low temperatures in structural composites incorporating hollow vessels and heating elements. Royal Society open science, 2016. 3(9): p. 160488. Search in Google Scholar

Roman, J., et al., High-performance multifunctional shape memory epoxy with hybrid graphene oxide and carbon nanotube reinforcement. Journal of Materials Engineering and Performance, 2024. 33(7): p. 3465-3475. Search in Google Scholar

Slobodian, P., et al., Accelerated shape forming and recovering, induction, and release of adhesiveness of conductive carbon nanotube/epoxy composites by Joule heating. Polymers, 2020. 12(5): p. 1030. Search in Google Scholar

Guadagno, L., et al., Functional structural nanocomposites with integrated self-healing ability. Materials Today: Proceedings, 2021. 34: p. 243-249. Search in Google Scholar

He, J., et al., Ultra-high modulus epoxy resin reinforced by intensive hydrogen bond network: from design, synthesis, mechanism to applications. Composites Science and Technology, 2023. 231: p. 109815. Search in Google Scholar

Dey, D., et al., Circuit level modeling of electrically doped adenine–thymine nanotube based field effect transistor. IEEE Access, 2019. 8: p. 6168-6176. Search in Google Scholar

Guadagno, L., et al., Self-healing epoxy nanocomposites via reversible hydrogen bonding. Composites Part B: Engineering, 2019. 157: p. 1-13. Search in Google Scholar

Datta, S., et al., Carbon nanotube enhanced shape memory epoxy for improved mechanical properties and electroactive shape recovery. Polymer, 2021. 212: p. 123158. Search in Google Scholar

Liu, Y., et al., High performance shape memory epoxy/carbon nanotube nanocomposites. ACS applied materials & interfaces, 2016. 8(1): p. 311-320. Search in Google Scholar

Xu, P., et al., Dynamic characteristics and active vibration control effect for shape memory polymer composites. Composite Structures, 2023. 322: p. 117327. Search in Google Scholar

Karl, S. and T. Bykerk, Sustainable space technologies—Strategies toward a predictive aerothermal design of re-useable space transportation systems. Review of Scientific Instruments, 2024. 95(2). Search in Google Scholar

Tang, Q., Q. He, and X. Chen, Numerical simulation study on mesoscopic metallic foam core sandwich panels under hypervelocity impact. Thin-Walled Structures, 2024. 195: p. 111440. Search in Google Scholar

Chung, K.-M., K.-C. Su, and K.-C. Chang, The effect of vortex generators on shock-induced boundary layer separation in a transonic convex-corner flow. Aerospace, 2021. 8(6): p. 157. Search in Google Scholar

Yang, T., et al., Experiments and Simulations on the Shape Memory Process of Thermally-Induced Shape Memory Polymer Composite Thin-Wall Structure Considering Progressive Damage. Applied Composite Materials, 2023. 30(4): p. 1159-1183. Search in Google Scholar

Song, J., et al., An electromagnetic-pneumatic hybrid regenerative shock absorber for extended range of space exploration vehicles. Mechanical Systems and Signal Processing, 2024. 210: p. 111161. Search in Google Scholar

Fosness, E., et al., Development of low shock deployment devices for aerospace applications using shape memory and elastic memory materials. Space 2003, 2003. Search in Google Scholar

Zhao, H., et al., Design and analysis of shockless smart releasing device based on shape memory polymer composites. Composite Structures, 2019. 223: p. 110958. Search in Google Scholar

Sohn, J.W., et al., Application of shape memory alloy actuators to vibration and motion control of structural systems: A review. Applied Sciences, 2023. 13(2): p. 995. Search in Google Scholar

Zhang, D., et al., World’s first application of a self-deployable mechanism based on shape memory polymer composites in Mars explorations: ground-based validation and on-Mars qualification. Smart Materials and Structures, 2022. Search in Google Scholar

Li, F., et al., Mechanical analysis of a tip-loaded deployable truss based on shape memory polymer composite. Composite Structures, 2020. 242: p. 112196. Search in Google Scholar

Cao, C., et al., Coupled models for propagation of explosive shock waves in cylindrical and spherical geometries. Physics of Plasmas, 2024. 31(2). Search in Google Scholar

Ostapiuk, M., et al., Interlaminar shear strength study of Mg and carbon fiber-based hybrid laminates with self-healing microcapsules. Composite Structures, 2021. 255: p. 113042. Search in Google Scholar

Pandey, S.K., et al., Self‐healing polymers for aviation applications and their impact on circular economy. Polymer Engineering & Science, 2024. 64(3): p. 951-987. Search in Google Scholar

Luan, C., et al., Integrated self-monitoring and self-healing continuous carbon fiber reinforced thermoplastic structures using dual-material three-dimensional printing technology. Composites Science and Technology, 2020. 188: p. 107986. Search in Google Scholar

Jamil, H., et al., Recent Advances in Polymer Nanocomposites: Unveiling the Frontier of Shape Memory and Self-Healing Properties—A Comprehensive Review. Molecules, 2024. 29(6): p. 1267. Search in Google Scholar

Grigorie, T.L. and R.M. Botez. A self–tuning intelligent controller for a smart actuation mechanism of a morphing wing based on shape memory alloys. in Actuators. 2023. MDPI. Search in Google Scholar

Abrantes, I., et al., The impact of revolutionary aircraft designs on global aviation emissions. Renewable Energy, 2024. 223: p. 119937. Search in Google Scholar

Liu, Y., et al., Shape memory polymers and their composites in aerospace applications: a review. Smart materials and structures, 2014. 23(2): p. 023001. Search in Google Scholar

Lan, X., et al., Smart Space Deployable Truss Based on Shape-Memory Releasing Mechanisms and Actuation Laminates. Journal of Spacecraft and Rockets, 2023. 60(4): p. 1085-1099. Search in Google Scholar

Liu, T.-W., et al., Thin-walled deployable composite structures: A review. Progress in Aerospace Sciences, 2024. 146: p. 100985. Search in Google Scholar

Jin, L., et al., Impact dynamic response of large aperture space deployable antenna supporting structures based on a dual-scale model. Thin-Walled Structures, 2024. 195: p. 111432. Search in Google Scholar

Ren, H., et al., Electro-activated shape memory behavior of a three-dimensional lightweight knitted tubular composite. Composites Communications, 2023. 38: p. 101517. Search in Google Scholar

Peng, K., et al., Ductile shape-memory polymer composite with enhanced shape recovery ability. ACS Applied Materials & Interfaces, 2020. 12(52): p. 58295-58300. Search in Google Scholar

Thamizh Selvan, R., et al., Recycling technology of epoxy glass fiber and epoxy carbon fiber composites used in aerospace vehicles. Journal of Composite Materials, 2021. 55(23): p. 3281-3292. Search in Google Scholar

Evers, C.E., et al., Scalable high tensile modulus composite laminates using continuous carbon nanotube yarns for aerospace applications. ACS applied nano materials, 2023. 6(13): p. 11260-11268. Search in Google Scholar

Banerjee, P., S. Kumar, and S. Bose, Thermoreversible Bonds and Graphene Oxide Additives Enhance the Flexural and Interlaminar Shear Strength of Self-Healing Epoxy/Carbon Fiber Laminates. ACS Applied Nano Materials, 2021. 4(7): p. 6821-6831. Search in Google Scholar

Olaniyan, O.T., et al., Biocomposites for aerospace engineering applications, in Advances in Biocomposites and their Applications. 2024, Elsevier. p. 285-298. Search in Google Scholar

Sharon, M., Stealth, Counter Stealth and Nanotechnology. Nanotechnology in the Defense Industry: Advances, Innovation, and Practical Applications, 2019: p. 37-88. Search in Google Scholar

Liu, X., et al., Impact response and crashworthy design of composite fuselage structures: An overview. Progress in Aerospace Sciences, 2024: p. 101002. Search in Google Scholar

Alhajahmad, A. and C. Mittelstedt, A novel grid-stiffening concept for locally reinforcing window openings of composite fuselage panels using streamline stiffeners. Thin-Walled Structures, 2022. 179: p. 109731. Search in Google Scholar

Bhagatji, J.D., et al., Effect of Post-Cured through Thickness Reinforcement on Disbonding Behavior in Skin–Stringer Configuration. Materials, 2024. 17(14): p. 3389. Search in Google Scholar

Barroso, A. and S. Sánchez-Carmona, Static and fatigue performance of non-circular rivet joints: Comparison between numerical modelling and preliminary testing. Engineering Failure Analysis, 2024. 162: p. 108364. Search in Google Scholar

Vijayamohanan, M.M., B.K. Karthikeyan, and M. John, An investigation into the joint performance of interference fit rivets and failure analysis of aircraft fuselage skin in aerospace applications. Journal of the Brazilian Society of Mechanical Sciences and Engineering, 2024. 46(1): p. 1. Search in Google Scholar

Klose, L., et al., Towards sustainable recycling of epoxy-based polymers: approaches and challenges of epoxy biodegradation. Polymers, 2023. 15(12): p. 2653. Search in Google Scholar

Mou, H., J. Xie, and Z. Feng, Research status and future development of crashworthiness of civil aircraft fuselage structures: an overview. Progress in Aerospace Sciences, 2020. 119: p. 100644. Search in Google Scholar

Lyu, Y.-T., et al., Evaluation of Laminated Composite Beam Theory Accuracy. Materials, 2022. 15(19): p. 6941. Search in Google Scholar

Wang, D. and S. Li, Collaborative optimization design of lightweight and crashworthiness of the front-end structures of automobile body using HW–GRA for Pareto mining. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, 2021: p. 0954406221992802. Search in Google Scholar

Lopena, J.D. and J.C. Millare. Assessment on the Potential Application of Salago Fiber Composite as an Alternative Material in Drone Airframe. in Materials Science Forum. 2022. Trans Tech Publ. Search in Google Scholar

Belkheir, M., et al., Effect of carbon nanotube (CNT)-reinforced polymers and biopolymer matrix on interface damage of nanocomposite materials. Emergent Materials, 2023. 6(5): p. 1589-1602. Search in Google Scholar

Hosseini, M., et al., A review of the performance of fibre-reinforced composite laminates with carbon nanotubes. Nanotechnology Reviews, 2023. 12(1): p. 20230164. Search in Google Scholar

Ikumapayi, O.M. and E.T. Akinlabi, Efficacy of α-β grade titanium alloy powder (Ti–6Al–2Sn– 2Zr–2Mo–2Cr–0.25 Si) in surface modification and corrosion mitigation in 3.5% NaCl on friction stir processed armour grade 7075-T651 aluminum alloys—insight in defence applications. Materials Research Express, 2019. 6(7): p. 076546. Search in Google Scholar

Karadimas, G. and K. Salonitis, Ceramic matrix composites for aero engine applications—a review. Applied Sciences, 2023. 13(5): p. 3017. Search in Google Scholar

Korniejenko, K., et al., Tackling the Circular Economy Challenges—Composites Recycling: Used Tyres, Wind Turbine Blades, and Solar Panels. Journal of Composites Science, 2021. 5(9): p. 243. Search in Google Scholar

Fang, G., X. Gao, and Y. Song, A review on ceramic matrix composites and environmental barrier coatings for aero-engine: material development and failure analysis. Coatings, 2023. 13(2): p. 357. Search in Google Scholar

Cui, H., et al., A critical study on impact damage simulation of IM7/8552 composite laminate plate. International Journal of Impact Engineering, 2019. 127: p. 100-109. Search in Google Scholar

Huang, D., et al., Nonlinear dynamics of graphene-reinforced aluminum matrix composite aero-engine blade in thermal environment. Composite Structures, 2024. 331: p. 117900. Search in Google Scholar

Zhang, X. and F. Yu, Damage prediction and failure mode analysis of composite aeroengine blade impacted by the breakstone. Aerospace Systems, 2024: p. 1-7. Search in Google Scholar

Castaing, V., et al., Photochromism and Persistent Luminescence in Ni-Doped ZnGa2O4 Transparent Glass-Ceramics: Toward Optical Memory Applications. The Journal of Physical Chemistry C, 2021. 125(18): p. 10110-10120. Search in Google Scholar

Wei, J., et al., Advances in resin matrix composite fan blades for aircraft engines: A review. Thin-Walled Structures, 2024: p. 112058. Search in Google Scholar

Schmid, T., et al. Optimization of a carbon-fiber composite blade of a counter-rotating fan for aircraft engines. in 13 th European Conference on Turbomachinery Fluid dynamics & Thermodynamics. 2019. European Turbomachinery Society. Search in Google Scholar

Zhang, L.M., et al., Self‐Healing, Adhesive, and Highly Stretchable Ionogel as a Strain Sensor for Extremely Large Deformation. Small, 2019. 15(21): p. 1804651. Search in Google Scholar

Greil, P., Self‐Healing Engineering Ceramics with Oxidation‐Induced Crack Repair. Advanced Engineering Materials, 2020. 22(9): p. 1901121. Search in Google Scholar

Lin, H., C. Shao, and D. Cao, Nonlinear flutter and random response of composite panel embedded in shape memory alloy in thermal-aero-acoustic coupled field. Aerospace Science and Technology, 2020. 100: p. 105785. Search in Google Scholar

Ozair, H., et al., Shape Memory Hybrid Composites. ACS Omega, 2022. Search in Google Scholar

Jony, B., et al., Repeatable self-healing of thermosetting fiber reinforced polymer composites with thermoplastic healant. Smart Materials and Structures, 2019. 28(2): p. 025037. Search in Google Scholar

Kausar, A., et al., Shape Memory Graphene Nanocomposites—Fundamentals, Properties, and Significance. Processes, 2023. 11(4): p. 1171. Search in Google Scholar

Yang, H., et al., Properties and mechanism of two-way shape memory polyurethane composite under stress-free condition. Advanced Composites and Hybrid Materials, 2023. 6(1): p. 1. Search in Google Scholar

Wang, F., et al., 3D Printing photo-induced lignin nanotubes/polyurethane shape memory composite. Polymer Testing, 2023. 119: p. 107934. Search in Google Scholar

Wan, L., et al., Strong, self-healing, shape memory PAA-PANI/PVA/PDA/AOP conductive hydrogels with interpenetrating network and hydrogen bond interaction. European Polymer Journal, 2023. 191: p. 112034. Search in Google Scholar

Aberoumand, M., et al., 4D printing of polyvinyl chloride (PVC): A detailed analysis of microstructure, programming, and shape memory performance. Macromolecular Materials and Engineering, 2023: p. 2200677. Search in Google Scholar

Scalet, G. Two-Way and Multiple-Way Shape Memory Polymers for Soft Robotics: An Overview. in Actuators. 2020. Multidisciplinary Digital Publishing Institute. Search in Google Scholar

Jose, S., et al., Introduction to Shape-Memory Polymers, Polymer Blends and Composites: State of the Art, Opportunities, New Challenges and Future Outlook, in Shape Memory Polymers, Blends and Composites. 2020, Springer. p. 1-19. Search in Google Scholar

Yang, D., H. Zhang, and H. Zeng, Programmable shape memory polymers: Intermolecular and interfacial interaction mechanisms. Science China Materials, 2023: p. 1-2. Search in Google Scholar

Elwaleed, A. Shape Memory Alloys: identification of the parameters necessary for constitutive models. in IOP Conference Series: Materials Science and Engineering. 2018. IOP Publishing. Search in Google Scholar

Fujii, K., Progress and future prospects of CFD in aerospace—Wind tunnel and beyond. Progress in Aerospace Sciences, 2005. 41(6): p. 455-470. Search in Google Scholar

Satnami, G., et al., Characterization of Composite Materials Using Natural and Synthetic Fiber: A Review. Advances in Manufacturing and Processing of Materials, 2024: p. 37-47. Search in Google Scholar

Singh, A.S., et al., High Temperature Resistant Thermosetting Resin Materials. Novel Defence Functional and Engineering Materials (NDFEM) Volume 1: Functional Materials for Defence Applications, 2024: p. 37-71. Search in Google Scholar

Clyne, T. and D. Hull, An introduction to composite materials. 2019: Cambridge university press. Search in Google Scholar

Anthony, D.B., et al., Applying a potential difference to minimise damage to carbon fibres during carbon nanotube grafting by chemical vapour deposition. Nanotechnology, 2017. 28(30): p. 305602. Search in Google Scholar

Battisti, A., et al., Single fiber push-out characterization of interfacial properties of hierarchical CNT-carbon fiber composites prepared by electrophoretic deposition. Composites science and technology, 2014. 95: p. 121-127. Search in Google Scholar

Zakaria, M.R., et al., Improving flexural and dielectric properties of carbon fiber epoxy composite laminates reinforced with carbon nanotubes interlayer using electrospray deposition. Nanotechnology Reviews, 2020. 9(1): p. 1170-1182. Search in Google Scholar

Rong, H., et al., Comparison of chemical vapor deposition and chemical grafting for improving the mechanical properties of carbon fiber/epoxy composites with multi-wall carbon nanotubes. Journal of Materials Science, 2013. 48(14): p. 4834-4842. Search in Google Scholar

Yasin, G., et al., Metallic nanocomposite coatings, in Corrosion protection at the nanoscale. 2020, Elsevier. p. 245-274. Search in Google Scholar

Zhang, Y., et al., Exploring the interlaminar toughening potential of carbon nanoparticles: Structural and size effects. Composites Communications, 2024. 47: p. 101859. Search in Google Scholar

Rashid, A.B., et al., Nanotechnology-enhanced fiber-reinforced polymer composites: Recent advancements on processing techniques and applications. Heliyon, 2024. Search in Google Scholar

Chen, H., et al., Evaluation of new nano-cutting fluids for the processing of carbon fiber-reinforced composite materials. Journal of Cleaner Production, 2024. 437: p. 140771. Search in Google Scholar

Ogundare, K.J., et al. Assessment of Carbon Fibre Composites for Product Development in Aerospace and Transportation Industries. in 2024 International Conference on Science, Engineering and Business for Driving Sustainable Development Goals (SEB4SDG). 2024. IEEE. Search in Google Scholar

Jiménez Duarte, E., Study of the Boeing 787-8 structure and reproduction of a 1: 80 scale model. 2024, Universitat Politècnica de Catalunya. Search in Google Scholar

Ahmad, J., et al., A step towards sustainable concrete with substitution of plastic waste in concrete: Overview on mechanical, durability and microstructure analysis. Crystals, 2022. 12(7): p. 944. Search in Google Scholar

Jaf, D.K.I., et al., Machine learning techniques and multi-scale models to evaluate the impact of silicon dioxide (SiO2) and calcium oxide (CaO) in fly ash on the compressive strength of green concrete. Construction and Building Materials, 2023. 400: p. 132604. Search in Google Scholar

Emad, W., et al. Prediction of concrete materials compressive strength using surrogate models. Structures. 2022. Elsevier. Search in Google Scholar

Lingua:
Inglese
Frequenza di pubblicazione:
4 volte all'anno
Argomenti della rivista:
Scienze materiali, Materiali funzionali ed intelligenti