TY - JOUR
T1 - Bio-Based Polymers for Engineered Green Materials
AU - Tondi, G.
AU - Schnabel, T.
N1 - Cited By :10
Export Date: 14 December 2023
Correspondence Address: Tondi, G.; Department of Land, Viale dell'Università 16, Italy; email: [email protected]
References: Zhou, H., Li, J., Ma, E., Multiscale Modification of Populus cathayana by Alkali Lignin Combined with Heat Treatment (2018) Polymers, 10, p. 1240; Wu, Y., Wu, J., Yang, F., Tang, C., Huang, Q., Effect of H2O2 Bleaching Treatment on the Properties of Finished Transparent Wood (2019) Polymers, 11, p. 776; Wagner, K., Musso, M., Kain, S., Willfor, S., Petutschnigg, A., Schnabel, T., Larch Wood Residues Valorization through Extraction and Utilization of High Value-Added Products (2020) Polymers, 12, p. 359; Ben, H., Wu, Z., Han, G., Jiang, W., Ragauskas, A., Pyrolytic behavior of major biomass components in waste biomass (2019) Polymers, 11, p. 324; Abushammala, H., Mao, J., A Review on the Partial and Complete Dissolution and Fractionation of Wood and Lignocelluloses Using Imidazolium Ionic Liquids (2020) Polymers, 12, p. 195; Bian, H., Wu, X., Luo, J., Qiao, Y., Fang, G., Dai, H., Valorization of alkaline peroxide mechanical pulp by metal chloride-assisted hydrotropic pretreatment for enzymatic saccharification and cellulose nanofibrillation (2019) Polymers, 11, p. 331; Balea, A., Blanco, A., Negro, C., Nanocelluloses: Natural-based materials for fiber-reinforced cement composites. A critical review (2019) Polymers, 11, p. 518; Nie, K., Song, Y., Liu, S., Han, G., Ben, H., Ragauskas, A.J., Jiang, W., Preparation and Characterization of Microcellulose and Nanocellulose Fibers from Artemisia Vulgaris Bast (2019) Polymers, 11, p. 907; Jun, S.H., Park, S.G., Kang, N.G., One-Pot Method of Synthesizing TEMPO-Oxidized Bacterial Cellulose Nanofibers Using Immobilized TEMPO for Skincare Applications (2019) Polymers, 11, p. 1044; Slusarczyk, C., Fryczkowska, B., Structure-Property Relationships of Pure Cellulose and GO/CEL Membranes Regenerated from Ionic Liquid Solutions (2019) Polymers, 11, p. 1178; Kim, Y., Jeong, D., Park, K.H., Yu, J.H., Jung, S., Efficient adsorption on benzoyl and stearoyl cellulose to remove phenanthrene and pyrene from aqueous solution (2018) Polymers, 10, p. 1042; Zhang, W., Gu, J., Tu, D., Guan, L., Hu, C., Efficient Hydrophobic Modification of Old Newspaper and Its Application in Paper Fiber Reinforced Composites (2019) Polymers, 11, p. 842; Bátori, V., Lundin, M., Akesson, D., Lennartsson, P.R., Taherzadeh, M.J., Zamani, A., The Effect of Glycerol, Sugar, and Maleic Anhydride on Pectin-Cellulose Thin Films Prepared from Orange Waste (2019) Polymers, 11, p. 392; Wang, X., Jia, Y., Liu, Z., Miao, J., Influence of the lignin content on the properties of poly (lactic acid)/lignin-containing cellulose nanofibrils composite films (2018) Polymers, 10, p. 1013; Sousa, S., Costa, A., Silva, A., Simoes, R., Poly (lactic acid)/cellulose films produced from composite spheres prepared by emulsion-solvent evaporation method (2019) Polymers, 11, p. 66; Park, J.W., Shin, J.H., Shim, G.S., Sim, K.B., Jang, S.W., Kim, H.J., Mechanical strength enhancement of polylactic acid hybrid composites (2019) Polymers, 11, p. 349; Kabir, A., Dunlop, M.J., Acharya, B., Bissessur, R., Ahmed, M., Polymeric composites with embedded nanocrystalline cellulose for the removal of iron (II) from contaminated water (2018) Polymers, 10, p. 1377; Root, W., Wright, T., Caven, B., Bechtold, T., Pham, T., Flexible Textile Strain Sensor Based on Copper-Coated Lyocell Type Cellulose Fabric (2019) Polymers, 11, p. 784; Ng, K., Azari, P., Nam, H.Y., Xu, F., Pingguan-Murphy, B., Electrospin-Coating of Paper: A Natural Extracellular Matrix Inspired Design of Scaffold (2019) Polymers, 11, p. 650; Al-Rudainy, B., Galbe, M., Arcos Hernandez, M., Jannasch, P., Wallberg, O., Impact of lignin content on the properties of hemicellulose hydrogels (2019) Polymers, 11, p. 35; Paiva, D., Pereira, A.M., Pires, A.L., Martins, J., Carvalho, L.H., Magalháes, F.D., Reinforcement of thermoplastic corn starch with crosslinked starch/chitosan microparticles (2018) Polymers, 10, p. 985; Shen, X., Huang, P., Li, F., Wang, X., Yuan, T., Sun, R., Compressive Alginate Sponge Derived from Seaweed Biomass Resources for Methylene Blue Removal from Wastewater (2019) Polymers, 11, p. 961; Shojaeiarani, J., Bajwa, D.S., Rehovsky, C., Bajwa, S.G., Vahidi, G., Deterioration in the Physico-Mechanical and Thermal Properties of Biopolymers Due to Reprocessing (2019) Polymers, 11, p. 58; Cheng, L., Tong, X., Li, Z., Liu, Z., Huang, H., Zhao, H., Dai, F., Natural Silkworm Cocoon Composites with High Strength and Stiffness Constructed in Confined Cocooning Space (2018) Polymers, 10, p. 1214; Kim, M., Jee, S.C., Shinde, S.K., Mistry, B.M., Saratale, R.G., Saratale, G.D., Ghodake, G.S., Kadam, A.A., Green-Synthesis of anisotropic peptone-silver nanoparticles and its potential application as anti-bacterial agent (2019) Polymers, 11, p. 271; Cabrera, F., Torres, A., Campos, J.L., Jeison, D., Effect of Operational Conditions on the Behaviour and Associated Costs of Mixed Microbial Cultures for PHA Production (2019) Polymers, 11, p. 191; García-Quiles, L., Valdés, A., Cuello, A.F., Jiménez, A., Garrigós, M.D.C., Castell, P., Reducing off-Flavour in Commercially Available Polyhydroxyalkanoate Materials by Autooxidation through Compounding with Organoclays (2019) Polymers, 11, p. 945; García-Quiles, L., Fernández Cuello, A., Castell, P., Sustainable materials with enhanced mechanical properties based on industrial polyhydroxyalkanoates reinforced with organomodified sepiolite and montmorillonite (2019) Polymers, 11, p. 696; Liu, C., Wu, Q., An, R., Shang, Q., Feng, G., Hu, Y., Jia, P., Lei, W., Synthesis and Properties of Tung Oil-Based Unsaturated Co-Ester Resins Bearing Steric Hindrance (2019) Polymers, 11, p. 826; He, X., Xu, X., Wan, Q., Bo, G., Yan, Y., Solvent-and Catalyst-free Synthesis, Hybridization and Characterization of Biobased Nonisocyanate Polyurethane (NIPU) (2019) Polymers, 11, p. 1026; Ibrahim, S., Othman, N., Sreekantan, S., Tan, K.S., Mohd Nor, Z., Ismail, H., Preparation and Characterization of Low-Molecular-Weight Natural Rubber Latex via Photodegradation Catalyzed by Nano TiO2 (2018) Polymers, 10, p. 1216; Yu, J., Ren, Z., Gao, Z., Wu, Q., Zhu, Z., Yu, H., Recycled heavy bio oil as performance enhancer for rubberized bituminous binders (2019) Polymers, 11, p. 800; Sepperer, T., Neubauer, J., Eckardt, J., Schnabel, T., Petutschnigg, A., Tondi, G., Pollutant Absorption as a Possible End-Of-Life Solution for Polyphenolic Polymers (2019) Polymers, 11, p. 911; Lin, C., Gong, F., Yang, Z., Zhao, X., Li, Y., Zeng, C., Li, J., Guo, S., Core-Shell Structured HMX@ Polydopamine Energetic Microspheres: Synergistically Enhanced Mechanical, Thermal, and Safety Performances (2019) Polymers, 11, p. 568
PY - 2020/4/1
Y1 - 2020/4/1
N2 - Every. Single. Carbon atom oxides to CO2 at the end. Every. Single. One.
The more we pump petroleum-fixed carbon into the carbon cycle, the higher will be the concentration of CO2 in the atmosphere. The higher the CO2, the greater will be the temperature of the planet. This increase in temperature will also raise the concentration of water in air. Water and CO2 are the molecules that contribute the most to the greenhouse effect. The planet is subject to daily warming, and the later we take account of it and act, the more difficult will the battle against global warming be.
It is time to change our views and make this problem a priority. Consumer demands need to care about the carbon neutrality of products so that the market and industry are forced to offer alternative and more sustainable solutions.
In polymer science, this message means that we are to exploit as much as possible the materials that nature synthesizes, process them in a sustainable way, and eventually modify them to give the new materials the high-performing properties we are used to. We aim to zealously maintain the carbon atoms that are fixed in solid phase.
This is what our scientific community is trying to do on a daily basis—taking important steps to produce carbon-neutral, bio-based, high-performing materials.
AB - Every. Single. Carbon atom oxides to CO2 at the end. Every. Single. One.
The more we pump petroleum-fixed carbon into the carbon cycle, the higher will be the concentration of CO2 in the atmosphere. The higher the CO2, the greater will be the temperature of the planet. This increase in temperature will also raise the concentration of water in air. Water and CO2 are the molecules that contribute the most to the greenhouse effect. The planet is subject to daily warming, and the later we take account of it and act, the more difficult will the battle against global warming be.
It is time to change our views and make this problem a priority. Consumer demands need to care about the carbon neutrality of products so that the market and industry are forced to offer alternative and more sustainable solutions.
In polymer science, this message means that we are to exploit as much as possible the materials that nature synthesizes, process them in a sustainable way, and eventually modify them to give the new materials the high-performing properties we are used to. We aim to zealously maintain the carbon atoms that are fixed in solid phase.
This is what our scientific community is trying to do on a daily basis—taking important steps to produce carbon-neutral, bio-based, high-performing materials.
UR - https://www.mendeley.com/catalogue/1cf36533-0f12-350e-9fa8-adbf48cc31fd/
U2 - 10.3390/POLYM12040775
DO - 10.3390/POLYM12040775
M3 - Editorial
SN - 2073-4360
VL - 12
JO - Polym.
JF - Polym.
IS - 4
ER -