Knowledge Agora



Similar Articles

Title Sustainable development goals for advanced materials provided by industrial wastes and biomass sources
ID_Doc 30967
Authors Kobayashi, T; Nakajima, L
Title Sustainable development goals for advanced materials provided by industrial wastes and biomass sources
Year 2021
Published
Abstract The development of sustainable green technologies and processes becomes key to a sustainable society. Through sustainable development goals (SDGs) of the United Nations, the purpose is trying to achieve better human life under low carbon, circulation, and natural symbiosis societies. Concepts of green chemistry and sustainable green technologies for developing advanced materials are important, for example, the recycling processes of waste materials and bio-based industries. This review highlights the role of SDGs in material development and introduces examples for cases of recycling with plant wastes or uses of green chemicals for functionally advanced materials. Since such ways reduce the environmental load, the trends in recent surveys point to the views of SDGs for advanced materials and sustainable green technologies, as explained for industry, innovation, and infrastructure, especially for the 9 SDGs.
PDF

Similar Articles

ID Score Article
23623 Bontempi, E; Sorrentino, GP; Zanoletti, A; Alessandri, I; Depero, LE; Caneschi, A Sustainable Materials and their Contribution to the Sustainable Development Goals (SDGs): A Critical Review Based on an Italian Example(2021)Molecules, 26, 5
5711 Merchan, AL; Fischoeder, T; Hee, J; Lehnertz, MS; Osterthun, O; Pielsticker, S; Schleier, J; Tiso, T; Blank, LM; Klankermayer, J; Kneer, R; Quicker, P; Walther, G; Palkovits, R Chemical recycling of bioplastics: technical opportunities to preserve chemical functionality as path towards a circular economy(2022)Green Chemistry, 24, 24
22760 Lozano, FJ; Lozano, R; Freire, P; Jiménez-Gonzalez, C; Sakao, T; Ortiz, MG; Trianni, A; Carpenter, A; Viveros, T New perspectives for green and sustainable chemistry and engineering: Approaches from sustainable resource and energy use, management, and transformation(2018)
14947 Titirici, M; Baird, SG; Sparks, TD; Yang, SM; Brandt-Talbot, A; Hosseinaei, O; Harper, DP; Parker, RM; Vignolini, S; Berglund, LA; Li, YY; Gao, HL; Mao, LB; Yu, SH; Díez, N; Ferrero, GA; Sevilla, M; Szilágyi, PA; Stubbs, CJ; Worch, JC; Huang, YP; Luscombe, CK; Lee, KY; Luo, H; Platts, MJ; Tiwari, D; Kovalevskiy, D; Fermin, DJ; Au, H; Alptekin, H; Crespo-Ribadeneyra, M; Ting, VP; Fellinger, TP; Barrio, J; Westhead, O; Roy, C; Stephens, IEL; Nicolae, SA; Sarma, SC; Oates, RP; Wang, CG; Li, ZB; Loh, XJ; Myers, RJ; Heeren, N; Grégoire, A; Périssé, C; Zhao, XY; Vodovotz, Y; Earley, B; Finnveden, G; Björklund, A; Harper, GDJ; Walton, A; Anderson, PA The sustainable materials roadmap(2022)Journal Of Physics-Materials, 5, 3
3497 Vela, IC; Vilches, TB; Berndes, G; Johnsson, F; Thunman, H Co-recycling of natural and synthetic carbon materials for a sustainable circular economy(2022)
2293 Ambaye, TG; Djellabi, R; Vaccari, M; Prasad, S; Aminabhavi, TM; Rtimi, S Emerging technologies and sustainable strategies for municipal solid waste valorization: Challenges of circular economy implementation(2023)
7476 Martínez-Narro, G; Hassan, S; Phan, AN Chemical recycling of plastic waste for sustainable polymer manufacturing - A critical review(2024)Journal Of Environmental Chemical Engineering, 12, 2
504 Ncube, A; Mtetwa, S; Bukhari, M; Fiorentino, G; Passaro, R Circular Economy and Green Chemistry: The Need for Radical Innovative Approaches in the Design for New Products(2023)Energies, 16, 4
29807 Mohanty, AK; Wu, F; Mincheva, R; Hakkarainen, M; Raquez, JM; Mielewski, DF; Narayan, R; Netravali, AN; Misra, M Sustainable polymers(2022)Nature Reviews Methods Primers, 2.0, 1
6599 Keith, M; Koller, M; Lackner, M Carbon Recycling of High Value Bioplastics: A Route to a Zero-Waste Future(2024)Polymers, 16, 12
Scroll