﻿<?xml version="1.0" encoding="utf-8"?><doi_batch xmlns="http://www.crossref.org/schema/4.3.7" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xsi:schemaLocation="http://www.crossref.org/schema/4.3.7 http://www.crossref.org/schema/deposit/crossref4.3.7.xsd"><head><doi_batch_id>irdpt-1405022919</doi_batch_id><timestamp>14050229195439</timestamp><depositor><depositor_name>CMV Verlag</depositor_name><email_address>khoffmann@cmv-verlag.com</email_address></depositor><registrant>CMV Verlag</registrant></head><body><journal><journal_metadata language="fa"><full_title>Iran Polymer Technology, Research and Development</full_title><abbrev_title>irdpt</abbrev_title><issn media_type="electronic">2538-3345</issn></journal_metadata><journal_issue><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><journal_volume><volume>9</volume></journal_volume><issue>2</issue></journal_issue><journal_article publication_type="full_text"><titles><title>Application of Aerogels in Wound Dressings</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Mohammad Hossein</given_name><surname>Karami</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Ali</given_name><surname>Zamanian</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>5</first_page><last_page>17</last_page></pages><doi_data><doi>10.66224/irdpt.47429.9.2.5</doi><resource>http://irdpt.ir/fa/Article/47429</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/47429</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/47429</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Alipour H., Koosha M., Sarraf Shirazi M.J., and Jebali A., Modern Commercial WoundDressings and Introducing New Wound Dressings for Wound Healing: A Review, Basparesh, 6,65-80, 2017.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Chouhan D., Dey N., Bhardwaj N., and Mandal B.B., Emerging and Innovative Approachesfor Wound Healing and Skin Regeneration: Current Status and Advances, Biomaterials, 216,119267, 2019.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Yang J.A., Yeom J., Hwang B.W., Hoffman A.S., and Hahn S.K., In Situ Forming InjectableHydrogels for Regenerative Medicine, Prog. Polym. Sci., 39, 1973-1986, 2014.4. Hosseini M. and Mobedi H., Injectable in-Situ Forming Drug Delivery Systems Based onBiodegradable Polymers, Basparesh, 6, 3-12, 2016.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Hosseini M. and Mobedi H., Injectable in-Situ Forming Drug Delivery Systems Based on Biodegradable Polymers, Basparesh, 6, 3-12, 2016. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Kamoun E.A., Kenawy E.-R.S., and Chen X., A Review on Polymeric Hydrogel Membranesfor Wound Dressing Applications: PVA-Based Hydrogel Dressings, J. Am. Acad. Derm., 8, 217-233, 2017.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Zahedi P., Rezaeian I., RanaeiSiadat S.O., Jafari S.H., and Supaphol P., A Review on WoundDressings with an Emphasis on Electrospun Nanofibrous Polymeric Bandages, Polym. Adv.Technol., 21, 77-95, 2010.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Wood R., Williams R., and Hughes L., Foam Elastomer Dressing in the Management of penGranulating Wounds: Experience with 250 Patients, J. Brit. Surg., 64, 554-557, 1977.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Ruel-Gariepy E. and Leroux J.-C., In Situ Forming Hydrogels-Review of TemperatureSensitive Systems, Europ. J. Pharm. Biopharm., 58, 409-426, 2004.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Dimatteo R., Darling N.J., and Segura T., In Situ Forming Injectable Hydrogels for DrugDelivery and Wound Repair, Adv. Drug. Deliv. Rev., 127, 167-184, 2018.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Sharma S., Madhyastha H., Laxmi Swetha K., Maravajjala K.S., Singh A., Madhyastha R.,Nakajima Y., and Roy A., Development of an In-Situ Forming, Self-Healing Scaffold for DermalWound Healing: in-Vitro and in-Vivo Studies, Mater. Sci. Eng -C, 128, 112263, 2021.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11.Castillo L., Castro-Alpízar J.A., Lopretti M., and Vega Baudrit J., Exploration ofBioengineered Scaffolds Composed of Thermo-Responsive Polymers for Drug Delivery inWound Healing, Int. J. Mol. Sci., 22, 1408, 2021.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12.Zakerikhoob M., Abbasi S., Yousefi G., Mokhtari M., and Noorbakhsh M.S., CurcuminIncorporated Crosslinked Sodium Alginate-g-Poly(N-Isopropyl Acrylamide) Thermo-Responsive Hydrogel as an In-Situ Forming Injectable Dressing for Wound Healing: In Vitro Characterization and in Vivo Evaluation, Carbohydr. Polym., 271, 118434, 2021.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13.Corrente F., Amara H.M.A., Pacelli S., Paolicelli P., and Casadei M.A., Novel Injectable and in Situ Cross-Linkable Hydrogels of Dextran Methacrylate and Scleroglucan Derivatives: Preparation and Characterization, Carbohydr. poly., 92, 1033-1039, 2013.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14.Eke G., Mangir N., Hasirci N., MacNeil S., and Hasirci V., Development of a UV Crosslinked  Biodegradable Hydrogel Containing Adipose Derived Stem Cells to Promote Vascularization for Skin Wounds and Tissue Engineering, Biomaterials, 129, 188-198, 2017.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15.Moradian A., Zandi M., Behzadnasab M., and Pezeshki-Modaress M., Synthesis Methods of in Situ Forming Injectable Hydrogels and Their Applications in Tissue Engineering: A Review, Iran. J. Polym. Sci. Technol., 33, 95-113, 2020.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Pratt A.B., Weber F.E., Schmoekel H.G., Müller R., and Hubbell J.A., Synthetic Extracellular Matrices for in Situ Tissue Engineering, Biotechnol. Bioeng., 86, 27-36, 2004. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Peng J., Zhao H., Tu C., Xu Z., Ye L., Zhao L., Gu Z., Zhao D., Zhang J., and Feng Z., In Situ Hydrogel Dressing Loaded with Heparin and Basic Fibroblast Growth Factor for Accelerating Wound Healing in Rat , Mater. Sci. Eng-C., 116, 111169, 2020.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18.Guo J., Sun W., Kim J.P., Lu X., Li Q., Lin M., Mrowczynski O., Rizk E.B., Cheng J., Qian G., and Yang J., Development of Tannin-Inspired Antimicrobial Bioadhesives, Acta Biomater., 72, 35-44, 2018.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19.Maia J., Ferreira L., Carvalho R., Ramos M.A., and Gil M.H., Synthesis and Characterization  of New Injectable and Degradable Dextran-Based Hydrogels, Polymer, 46, 9604-9614, 2005.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20.Qu J., Zhao X., Liang Y., Zhang T., Ma P.X., and Guo B., Antibacterial Adhesive Injectable Hydrogels with Rapid Self-Healing, Extensibility and Compressibility as Wound Dressing for Joints Skin Wound Healing, Biomaterials, 183, 185-199, 2018.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21.Xuan H., Wu S., Fei S., Li B., Yang Y., and Yuan H., Injectable Nanofiber-Polysaccharide Self-Healing Hydrogels for Wound Healing, Mater. Sci. Eng-C., 128, 112264, 2021.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>22.  Karami M.H., KalaeeM.R., KhajaviR., MoradiO., ZaareiD.,Thermal degradation kinetics of epoxy resin modified with elastomeric nanoparticles. Adv. Compos. Hybrid. Mater., 5,  390-401 ,2022.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. Karami M.H., KalaeeM.R., Mazinani S., Shakiba M., Shafiei Navid, S., Abdouss, M., Beig Mohammadi A., zhao A., Koosha M., Song Z .,Li T., Curing Kinetics Modeling of Epoxy Modified by Fully Vulcanized Elastomer Nanoparticles Using Rheometry Method, Molecules ., 27, 2870,2022.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>24. Karami M.H.,Abdouss M., Kalaee M.R., MoradiO.,  Application of Hydrogel Nanocomposites in Biotechnology:  A review study, Iran polymer technology, research and development, In Press,2023.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>25.Le Thi P., Lee Y., Tran D.L., Thi T.T.H., Kang J.I., Park K.M., and Park K.D., In Situ Forming and Reactive Oxygen Species-Scavenging Gelatin Hydrogels for Enhancing Wound Healing Efficacy, Acta biomater., 103, 142-152, 2020.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>26.Lih E., Lee J.S., Park K., and Park K., Rapidly Curable Chitosan-PEG Hydrogels as Tissue Adhesives for Hemostasis and Wound Healing, Acta biomater., 8, 3261-3269, 2012.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>27. Sakai S. and Nakahata M., Horseradish Peroxidase Catalyzed Hydrogelation for Biomedical, Biopharmaceutical, and Biofabrication Applications, Chem. Asian. J., 12, 3098-3109, 2017.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28.Jeon E.Y., Hwang B.H., Yang Y.J., Kim B.J., Choi B.-H., Jung G.Y., and Cha H.J., Rapidly Light-Activated Surgical Protein Glue Inspired by Mussel Adhesion and Insect Structural Crosslinking, Biomaterials, 67, 11-19, 2015.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>29.Liu C., Hua J., Ng P.F., and Fei B., Photochemistry of Bioinspired Dityrosine Crosslinking, J. Mater. Sci. Technol., 63, 182-191, 2021.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>30.Yu J., Huang T.R., Lim Z.H., Luo R., Pasula R.R., Liao L.D., Lim S., and Chen C.H., Production of Hollow Bacterial Cellulose Microspheres Using Microfluidics to Form an Injectable Porous Scaffold for Wound Healing, Adv. healthc. mater., 5, 2983-2992, 2016.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>31.Joseph S.M., Krishnamoorthy, S Paranthaman., R Moses, J.A Anandharamakrishnan, C. A., Review on Source-Specific Chemistry, Functionality, and Applications of Chitin and Chitosan. Carbohydr. Polym. Technol. Appl,  2, 100036,2021.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>32.Issera W.M.J.C.,Rathnayake S.I., Abeyrathne E.D.N.S., Nam K. C., An Improved Extraction and Purification Method for Obtaining High-Quality Chitin and Chitosan from Blue Swimmer (Portunus Pelagicus) Crab Shell Waste. Food Sci. Biotechnol, 30, 1645–1655,2021.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>33.Machałowski T., Wysokowski M., Tsurkan M.V., Galli R.; Schimpf C., Rafaja D., Brendler E., Viehweger C., Żółtowska-Aksamitowska S., Petrenko I.,et al. Spider Chitin: An Ultrafast Microwave-Assisted Method for Chitin Isolation from Caribena Versicolor Spider Molt Cuticle. Molecules, 24, 3736,2019.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>34.Ahmad S.I., Ahmad R., Shoeb Khan, M Kant., R Shahid., S Gautam., L Hasan., G. M Hassan., M.I. Chitin and Its Derivatives: Structural Properties and Biomedical Applications. Int. J. Biol. Macromol, 164, 526–539,2020.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35.Dave U., Somanader E., Baharlouei P., Pham L., Rahman, M.A. Applications of Chitin in Medical, Environmental, and Agricultural Industries. J. Mar. Sci. Eng, 9, 1173,2021.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>36. Parale V. G., Lee K., Jungn H., Nah H., Choi H., Kim T., Phadtare V. D., Park H., Facile Synthesis of Hydrophobic, Thermally Stable, and Insulative Organically Modified Silica Aerogels Using Coprecursor Method, Ceramics International,</unstructured_citation></citation><citation key="ref37"><unstructured_citation>44, 3966-3972, 2018.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>37. Ma H.S., Roberts A.P., Prevost J.H., Jullien R., Scher er W.G., Mechanical Structure, Property Relationship of Aero gels, Non-crystalline Solids, 141, 127-277, 2000.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>38. Yuan B., Ding S., Wang D., Wang G., Li H., Heat Insulation Properties of Silicaero-Gel/glass Fiber Composites Fabricated</unstructured_citation></citation><citation key="ref40"><unstructured_citation>by Press Forming, Materials Letters 75, 204-206, 2012.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>39. Karout A., Buisson P., Perrard A., Pierre A.C., “Shaping and Mechanical Reinforcement of Silica Aerogel Biocatalysts</unstructured_citation></citation><citation key="ref42"><unstructured_citation>with Ceramic Fiber Felts, Sol-Gel Science and Technology, 36, 61-63, 2005.</unstructured_citation></citation><citation key="ref43"><unstructured_citation>40. Markevicius G., Ladj R., Niemeyer P., Budtova T., Ri gac ci A., Ambient-dried Thermal Super Insulating Monolithic</unstructured_citation></citation><citation key="ref44"><unstructured_citation>Sili ca-based Aerogels with Short Cellulosic Fiber, Materials Science, 52, 2210-2221, 2016.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Polymeric Electrolytes based on Organosilicon Compounds for Novel Batteries </title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Yones</given_name><surname>Mosaei Oskoei</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Hamidreza</given_name><surname>Heidarnezhad</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>19</first_page><last_page>30</last_page></pages><doi_data><doi>10.66224/irdpt.47531.9.2.19</doi><resource>http://irdpt.ir/fa/Article/47531</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/47531</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/47531</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation> [1]	E. Quartarone and P. Mustarelli, Emerging trends in the design of electrolytes for lithium and post-lithium batteries, Journal of the Electrochemical Society, 167, 050508, 2020.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>
[2]	S. Randau, D. A. Weber, O. Kötz, R. Koerver, P. Braun, A. Weber, E. Ivers-Tiffée, T. Adermann, J. Kulisch, and W. G. Zeier, Benchmarking the performance of all-solid-state lithium batteries, Nature Energy, 5, 259-270, 2020.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>
[3]	L. Fan, S. Wei, S. Li, Q. Li, and Y. Lu, Recent progress of the solid‐state electrolytes for high‐energy metal‐based batteries, Advanced Energy Materials, 8, 1702657, 2018.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>
[4]	C.-Z. Zhao, B.-C. Zhao, C. Yan, X.-Q. Zhang, J.-Q. Huang, Y. Mo, X. Xu, H. Li, and Q. Zhang, Liquid phase therapy to solid electrolyte–electrode interface in solid-state Li metal batteries: a review, Energy Storage Materials, 24, 75-84, 2020.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>
[5]	Y. Yamada and A. Yamada, Superconcentrated electrolytes for lithium batteries, Journal of the Electrochemical Society, 162, A2406, 2015.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>
[6]	Y. Tang, C. Liu, H. Zhu, X. Xie, J. Gao, C. Deng, M. Han, S. Liang, and J. Zhou, Ion-confinement effect enabled by gel electrolyte for highly reversible dendrite-free zinc metal anode, Energy Storage Materials, 27, 109-116, 2020.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>
[7]	J. Zhu, Z. Zhang, S. Zhao, A. S. Westover, I. Belharouak, and P. F. Cao, Single‐ion conducting polymer electrolytes for solid‐state lithium–metal batteries: design, performance, and challenges, Advanced Energy Materials, 11, 2003836, 2021.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>
[8]	X. Yang, J. Luo, and X. Sun, Towards high-performance solid-state Li–S batteries: from fundamental understanding to engineering design, Chemical Society Reviews, 49, 2140-2195, 2020.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>
[9]	T. J. Lee, J. Soon, S. Chae, J. H. Ryu, and S. M. Oh, A bifunctional electrolyte additive for high-voltage LiNi0. 5Mn1. 5O4 positive electrodes, ACS Applied Materials &amp; Interfaces, 11, 11306-11316, 2019.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>
[10]	Y. Karatas, N. Kaskhedikar, M. Burjanadze, and H. D. Wiemhöfer, Synthesis of Cross‐Linked Comb Polysiloxane for Polymer Electrolyte Membranes, Macromolecular Chemistry and Physics, 207, 419-425, 2006.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>
[11]	N. S. Schauser, D. J. Grzetic, T. Tabassum, G. A. Kliegle, M. L. Le, E. M. Susca, S. Antoine, T. J. Keller, K. T. Delaney, and S. Han, The role of backbone polarity on aggregation and conduction of ions in polymer electrolytes, Journal of the American Chemical Society, 142, 7055-7065, 2020.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>
[12]	X. Zhan, J. Zhang, M. Liu, J. Lu, Q. Zhang, and F. Chen, Advanced polymer electrolyte with enhanced electrochemical performance for lithium-ion batteries: effect of nitrile-functionalized ionic liquid, ACS Applied Energy Materials, 2, 1685-1694, 2019.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>
[13]	M. Zhang, X. Ma, Y. Liu, J. Ma, F. Chen, and Q. Zhang, High-performance electrospun POSS-(PMMA 46) 8/PVDF hybrid gel polymer electrolytes with PP support for Li-ion batteries, Ionics, 25, 2595-2605, 2019.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>
[14]	B. Zhou, J. Jiang, F. Zhang, and H. Zhang, Crosslinked poly (ethylene oxide)-based membrane electrolyte consisting of polyhedral oligomeric silsesquioxane nanocages for all-solid-state lithium ion batteries, Journal of Power Sources, 449, 227541, 2020.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>
[15]	Z. Wojnarowska, H. Feng, M. Diaz, A. Ortiz, I. Ortiz, J. Knapik-Kowalczuk, M. Vilas, P. Verdía, E. Tojo, and T. Saito, Revealing the charge transport mechanism in polymerized ionic liquids: Insight from high pressure conductivity studies, Chemistry of Materials, 29, 8082-8092, 2017.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>
[16]	U. H. Choi, S. Liang, Q. Chen, J. Runt, and R. H. Colby, Segmental dynamics and dielectric constant of polysiloxane polar copolymers as plasticizers for polymer electrolytes, ACS Applied Materials &amp; Interfaces, 8, 3215-3225, 2016.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>
[17]	K. M. Kim, N. V. Ly, J. H. Won, Y.-G. Lee, W. I. Cho, J. M. Ko, and R. B. Kaner, Improvement of lithium-ion battery performance at low temperature by adopting polydimethylsiloxane-based electrolyte additives, Electrochimica Acta, 136, 182-188, 2014.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>
[18]	J. H. Won, H. S. Lee, L. Hamenu, M. Latifatu, Y. M. Lee, K. M. Kim, J. Oh, W. I. Cho, and J. M. Ko, Improvement of low-temperature performance by adopting polydimethylsiloxane-g-polyacrylate and lithium-modified silica nanosalt as electrolyte additives in lithium-ion batteries, Journal of industrial and engineering chemistry, 37, 325-329, 2016.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>
[19]	W. Na, A. S. Lee, J. H. Lee, S. M. Hong, E. Kim, and C. M. Koo, Hybrid ionogel electrolytes with POSS epoxy networks for high temperature lithium ion capacitors, Solid State Ionics, 309, 27-32, 2017.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>
[20]	G. B. Zhou, I. M. Khan, and J. Smid, Solvent-free cation-conducting polysiloxane electrolytes with pendant oligo (oxyethylene) and sulfonate groups, Macromolecules, 26, 2202-2208, 1993.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>
[21]	Z. Qiu, L. Shi, Z. Wang, J. Mindemark, J. Zhu, K. Edström, Y. Zhao, and S. Yuan, Surface activated polyethylene separator promoting Li+ ion transport in gel polymer electrolytes and cycling stability of Li-metal anode, Chemical Engineering Journal, 368, 321-330, 2019.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>
[22]	B. Liu, Y. Huang, L. Zhao, Y. Huang, A. Song, Y. Lin, M. Wang, X. Li, and H. Cao, A novel non-woven fabric supported gel polymer electrolyte based on poly (methylmethacrylate-polyhedral oligomeric silsesquioxane) by phase inversion method for lithium ion batteries, Journal of membrane science, 564, 62-72, 2018.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>
[23]	Q. Lu, L. Dong, L. Chen, J. Fu, L. Shi, M. Li, X. Zeng, H. Lei, and F. Zheng, Inorganic-organic gel electrolytes with 3D cross-linking star-shaped structured networks for lithium ion batteries, Chemical Engineering Journal, 393, 124708, 2020.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>
[24]	B. Liu, Y. Huang, H. Cao, L. Zhao, Y. Huang, A. Song, Y. Lin, X. Li, and M. Wang, A novel porous gel polymer electrolyte based on poly (acrylonitrile-polyhedral oligomeric silsesquioxane) with high performances for lithium-ion batteries, Journal of membrane science, 545, 140-149, 2018.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>
[25]	B. Liu, Y. Huang, Y. Huang, X. Deng, A. Song, Y. Lin, M. Wang, X. Li, Y. Wu, and H. Cao, A novel porous gel polymer electrolyte based on poly (acrylonitrile–maleic anhydride) composite by polyhedral oligomeric silsesquioxane for lithium-ion batteries, Journal of Applied Electrochemistry, 49, 1167-1179, 2019.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>
[26]	S. Wang and K. Min, Solid polymer electrolytes of blends of polyurethane and polyether modified polysiloxane and their ionic conductivity, Polymer, 51, 2621-2628, 2010.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>
[27]	L. C. Rodrigues, M. M. Silva, M. J. Smith, A. Gonçalves, and E. Fortunato, Preparation and characterization of hybrid oxyethylene/siloxane electrolyte systems, Electroanalysis, 25, 515-522, 2013.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>
[28]	E. Cznotka, S. Jeschke, P. Vettikuzha, and H.-D. Wiemhöfer, Semi-interpenetrating polymer network of poly (methyl methacrylate) and ether-modified polysiloxane, Solid State Ionics, 274, 55-63, 2015.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>
[29]	P. R. Chinnam, H. Zhang, and S. L. Wunder, Blends of pegylated polyoctahedralsilsesquioxanes (POSS-PEG) and methyl cellulose as solid polymer electrolytes for lithium batteries, Electrochimica Acta, 170, 191-201, 2015.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>
[30]	Q. Lu, J. Fu, L. Chen, D. Shang, M. Li, Y. Xu, R. Jia, S. Yuan, and L. Shi, Polymeric polyhedral oligomeric silsesquioxane ionic liquids based solid polymer electrolytes for lithium ion batteries, Journal of Power Sources, 414, 31-40, 2019.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>
[31]	J. Shim, D.-G. Kim, H. J. Kim, J. H. Lee, and J.-C. Lee, Polymer composite electrolytes having core–shell silica fillers with anion-trapping boron moiety in the shell layer for all-solid-state lithium-ion batteries, ACS Applied Materials &amp; Interfaces, 7, 7690-7701, 2015.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>
[32]	C. Ren, M. Liu, J. Zhang, Q. Zhang, X. Zhan, and F. Chen, Solid-state single-ion conducting comb-like siloxane copolymer electrolyte with improved conductivity and electrochemical window for lithium batteries, Journal of Applied Polymer Science, 135, 45848, 2018.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>
[33]	A. B. Puthirath, S. Patra, S. Pal, M. Manoj, A. P. Balan, and S. Jayalekshmi, Transparent flexible lithium ion conducting solid polymer electrolyte, Journal of Materials Chemistry A, 5, 11152-11162, 2017.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>
[34]	Q. Pan, D. M. Smith, H. Qi, S. Wang, and C. Li, Hybrid electrolytes with controlled network structures for lithium metal batteries, Adv. Mater, 27, 5995-6001, 2015.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>
[35]	J.-W. Jung, S.-H. Cho, J. S. Nam, and I.-D. Kim, Current and future cathode materials for non-aqueous Li-air (O2) battery technology–A focused review, Energy Storage Materials, 24, 512-528, 2020.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>
[36]	O. Crowther, B. Meyer, M. Morgan, and M. Salomon, Primary Li-air cell development, Journal of Power Sources, 196, 1498-1502, 2011.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>
[37]	X. Zou, K. Liao, D. Wang, Q. Lu, C. Zhou, P. He, R. Ran, W. Zhou, W. Jin, and Z. Shao, Water-proof, electrolyte-nonvolatile, and flexible Li-air batteries via O2-permeable silica-aerogel-reinforced polydimethylsiloxane external membranes, Energy Storage Materials, 27, 297-306, 2020.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>
[38]	Y. Ruan, J. Sun, S. Song, L. Yu, B. Chen, W. Li, and X. Qin, A perfluorocarbon–silicone oil oxygen–selective membrane for ambient operation of aprotic Li–air batteries, Electrochemistry Communications, 96, 93-97, 2018.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>
[39]	J.-H. Hong, J. W. Kim, S. Kumar, B. Kim, J. Jang, H.-J. Kim, J. Lee, and J.-S. Lee, Solid polymer electrolytes from double-comb Poly (methylhydrosiloxane) based on quaternary ammonium moiety-containing crosslinking system for Li/S battery, Journal of Power Sources, 450, 227690, 2020.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>
[40]	Y. Yang, W. Wang, L. Li, B. Li, and J. Zhang, Stable cycling of Li–S batteries by simultaneously suppressing Li-dendrite growth and polysulfide shuttling enabled by a bioinspired separator, Journal of Materials Chemistry A, 8, 3692-3700, 2020.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>


</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Butyl Rubber Market Analysis in the world: Current situation and future forecast</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Zohre</given_name><surname>Taherkhani</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>masume</given_name><surname>sajadian</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>fatemeh</given_name><surname>asadi</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>51</first_page><last_page>63</last_page></pages><doi_data><doi>10.66224/irdpt.47721.9.2.51</doi><resource>http://irdpt.ir/fa/Article/47721</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/47721</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/47721</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Waddell W. H., Tsou A.H., Butyl Rubbers, 1st Edition, CRC Press, 2004.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2. Sharma R.K., Mohanty S., Gupta V., Advances in Butyl Rubber Synthesis Via Cationic Polymerization: An Overview, Polymer Internatinal, 70, 1165-1175, 2021.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3. Rodgers, B. (Ed.), Rubber Compounding: Chemistry and Applications. CRC press, 2015.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4. S&amp;P Global Commodity Insights; IHS Markit, Chemical Economics Handbook: Butyl Elastomers, S&amp;P Global Inc., 2022.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Andrews L., Skinner D., Harding J., Lee P., Slater S., Schultz L., Final Report-Exploring Circular Economy for Rubber in Canada, Dillon Consulting Limited and Oakdene Hollins, 2021.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6. Mandlekar, N., Joshi, M., Butola, B. S., A Review on Specialty Elastomers Based Potential Inflatable Structures and Applications. Advanced Industrial and Engineering Polymer Research, 5(1), 33-45, 2022.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. S&amp;P Global Commodity Insights; IHS Markit, Process Economics Program Review: ExxonMobil Butyl Rubber Process, S&amp;P Global Inc., 2016.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8. Behera P. K., Kumar A., Mohanty S., V.K. Gupta, Overview on Post-Polymerization Functionalization of Butyl Rubber and Properties, Industrial &amp; Engineering Chemistry Research, 61, 16910–16923, 2022.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9. Zhongqiu A., Jin L., Wenzhong S., Li W., Comparative Analysis of Basic Performance of Self-made Butyl Rubber and Imported Butyl Rubber, Advances in Engineering Research, 166, 624-630, 2018.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Polymers and Solvents Used in Membrane Fabrication: A Review Focusing on Sustainable Membrane Development</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Farzad</given_name><surname>Mehrjo</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>31</first_page><last_page>49</last_page></pages><doi_data><doi>10.66224/irdpt.47996.9.2.31</doi><resource>http://irdpt.ir/fa/Article/47996</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/47996</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/47996</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Figoli, A. Marino, T. Simone, S. Di Nicolo, E. Li, X.-M. He, T. Tornaghi, S. Drioli, E. Towards non-toxic solvents for membrane preparation: A review. Green Chemistryistry, 16, 4034–4059, 2014.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Clark, J.H. Tavener, S.J. Alternative Solvents: Shades of Green. Organic Process Research &amp; Development, 11, 149–155, 2007.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Jessop, P.G. Searching for green solvents. Green Chemistry, 13, 1391–1398, 2011.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Capello, C. Fischer, U. Hungerbühler, K. What is a green solvent? A comprehensive framework for the environmental assessment of solvents. Green Chemistry, 9, 927–934, 2007.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Clark, J.H. Farmer, T.J. Hunt, A.J. Sherwood, J. Opportunities for Bio-Based Solvents Created as Petrochemical and Fuel Products Transition towards Renewable Resources. International Journal of Molecular Sciences, 16, 17101–17159, 2015.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Gu, Y. Jérôme, F. Bio-based solvents: An emerging generation of fluids for the design of eco-efficient processes in catalysis and organic chemistry. Chemical Society Reviews, 42, 9550–9570, 2013.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Nie, L. Chuah, C.Y. Bae, T. Lee, J. Graphene-Based Advanced Membrane Applications in Organic Solvent Nanofiltration. Advanced Functional Materials, 31, 2006949, 2021. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Lau, W.J. Ismail, A.F. Progress in interfacial polymerization technique on composite membrane preparation. In Proceedings of the 2011 2nd International Conference on Environmental Engineering and Applications (ICEEA 2011), Shanghai, China, 19–21 August 2011. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Wong, C.Y. Wong, W.Y. Loh, K.S. Daud, W.R.W. Lim, K.L. Khalid, M. Walvekar, R. Development of Poly(Vinyl Alcohol)-Based Polymers as Proton Exchange Membranes and Challenges in Fuel Cell Application: A Review. Polymer Reviews, 60, 171–202, 2020.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Rosli, N.A.H. Loh, K.S. Wong, W.Y. Yunus, R.M. Lee, T.K. Ahmad, A. Chong, S.T. Review of Chitosan-Based Polymers as Proton Exchange Membranes and Roles of Chitosan-Supported Ionic Liquids. International Journal of Molecular Sciences, 21, 632, 2020.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Chen, M. Zhu, L. Chen, J. Yang, F. Tang, C.Y. Guiver, M.D. Dong, Y. Spinel-based ceramic membranes coupling solid sludge recycling with oily wastewater treatment. Water Research, 169, 115180, 2020.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Gao, N. Fan, W. Xu, Z.-K. Ceramic membrane with protein-resistant surface via dopamine/diglycolamine co-deposition. Separation and Purification Technology, 234, 116135, 2020.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Chong, J.Y. Wang, B. Li, K. High performance stainless steel-ceramic composite hollow fibres for microfiltration. Journal of Membrane Science, 541, 425–433, 2017.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Gao, X. Gao, B. Liu, H. Zhang, C. Zhang, Y. Jiang, J. Gu, X. Fabrication of stainless-steel hollow fiber supported NaA zeolite membrane by self-assembly of submicron seeds. Separation and Purification Technology. 2020, 234, 116121. Membranes, 11, 309, 21-25, 2021.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Filippov, A. Petrova, D. Falina, I. Kononenko, N. Ivanov, E. Lvov, Y. Vinokurov, V. Transport asymmetry of novel bi-layer hybrid perfluorinated membranes on the base of mf-4sc modified by halloysite nanotubes with platinum. Polymers, 10, 366, 2018.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Guillen, G.R. Pan, Y. Li, M. Hoek, E.M.V. Preparation and Characterization of Membranes Formed by Nonsolvent Induced Phase Separation: A Review. Industrial and Engineering Chemistry Research, 50, 3798–3817, 2011.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Hausman, R. Digman, B. Escobar, I.C. Coleman, M. Chung, T.-S. Chung, N.T.-S. Functionalization of polybenzimidizole membranes to impart negative charge and hydrophilicity. Journal of Membrane Science, 363, 195–203, 2010. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Staiti, P. Lufrano, F. Arico, A. Passalacqua, E. Antonucci, V. Sulfonated polybenzimidazole membranes—Preparation and physico-chemical characterization. Journal of Membrane Science, 188, 71–78, 2001.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Kim, J. van der Bruggen, B. The use of nanoparticles in polymeric and ceramic membrane structures: Review of manufacturing procedures and performance improvement for water treatment. Environmental Pollution, 158, 2335–2349, 2010.</unstructured_citation></citation><citation key="ref20"><unstructured_citation> 20. Mallevialle, J. Bersillon, J.L. Anselme, C. Aptel, P. Membrane Filtration in drinking-water treatment—A case story. In Influence and Removal of Organics in Drinking Water Mallevialle, J., Suffet, I.H., Chan, U.S., Eds. CRC Press: Boca Raton, FL, USA, 1992 pp. 299–310. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Pagliero, M. Bottino, A. Comite, A. Costa, C. Novel hydrophobic PVDF membranes prepared by nonsolvent induced phase separation for membrane distillation. Journal of Membrane Science, 596, 117575, 2020. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>22. Dong, X. Al-Jumaily, A. Escobar, I.C. Investigation of the Use of a Bio-Derived Solvent for Non-Solvent-Induced Phase Separation (NIPS) Fabrication of Polysulfone Membranes. Membranes, 8, 23, 2018.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. M’Barki, O. Hanafia, A. Bouyer, D. Faur, C. Sescousse, R. Delabre, U. Blot, C. Guenoun, P. Deratani, A. Quemener, D. et al. Greener method to prepare porous polymer membranes by combining thermally induced phase separation and crosslinking of poly(vinyl alcohol) in water. Journal of Membrane Science, 458, 225–235, 2014. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>24. Lei, B. Shin, K.-H. Noh, D.-Y. Jo, I.-H. Koh, Y.-H. Choi, W.-Y. Kim, H.-E. Nanofibrous gelatin—Silica hybrid scaffolds mimicking the native extracellular matrix (ECM) using thermally induced phase separation. Journal of Materials Chemistry, 22, 14133–14140, 2012. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>25. Zahid, M. Rashid, A. Akram, S. Rehan, Z.A. Razzaq, W. A Comprehensive Review on Polymeric Nano-Composite Membranes for Water Treatment. Journal of Membrane Science and Technology, 8, 1–20, 2018. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>26. Zhao, Q. Xie, R. Luo, F. Faraj, Y. Liu, Z. Ju, X.-J. Wang, W. Chu, L.-Y. Preparation of high strength poly(vinylidene fluoride) porous membranes with cellular structure via vapor-induced phase separation. Journal of Membrane Science, 549, 151–164, 2018.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>27. Pervin, R. Ghosh, P. Basavaraj, M.G. Tailoring pore distribution in polymer films via evaporation induced phase separation. RSC Advancesances, 9, 15593–15605, 2019.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28. Samuel, A.Z. Umapathy, S. Ramakrishnan, S. Functionalized and Postfunctionalizable Porous Polymeric Films through Evaporation-Induced Phase Separation Using Mixed Solvents. ACS Applied Materials &amp; Interfaces, 3, 3293–3299, 2011. </unstructured_citation></citation><citation key="ref29"><unstructured_citation>29. Ismail, N. Venault, A. Mikkola, J.-P. Bouyer, D. Drioli, E. Kiadeh, N.T.H. Investigating the potential of membranes formed by the vapor induced phase separation process. Journal of Membrane Science, 597, 117601, 2020.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>30. Lu, W. Yuan, Z. Zhao, Y. Zhang, H. Zhang, H. Li, X. Porous membranes in secondary battery technologies. Chemical Society Reviews, 46, 2199–2236, 2017. </unstructured_citation></citation><citation key="ref31"><unstructured_citation>31. Kim, J.F. Kim, J.H. Lee, Y.M. Drioli, E. Thermally induced phase separation and electrospinning methods for emerging membrane applications: A review. AIChE Journal, 62, 461–490, 2016. </unstructured_citation></citation><citation key="ref32"><unstructured_citation>32. Khare, V.P. Greenberg, A.R. Krantz, W.B. Vapor-induced phase separation—Effect of the humid air exposure step on membrane morphology: Part I. Insights from mathematical modeling. Journal of Membrane Science, 258, 140–156, 2005.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>33. Chen, Z. Deng, M. Chen, Y. He, G. Wu, M. Wang, J. Preparation and performance of cellulose acetate/polyethyleneimine blend microfiltration membranes and their applications. Journal of Membrane Science, 235, 73–86, 2004.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>34. Sivakumar, M. Mohan, D.R. Rangarajan, R. Studies on cellulose acetate-polysulfone ultrafiltration membranes: II. Effect of additive concentration. Journal of Membrane Science, 268, 208–219, 2006.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35. Kutowy, O. Sourirajan, S. Cellulose acetate ultrafiltration membranes. Journal of Applied Polymer Science, 19, 1449–1460, 1975.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>36. Haddada, R. Ferjani, E. Roudesli, M.S. Deratani, A. Properties of cellulose acetate nanofiltration membranes. Application to brackish water desalination. Desalination, 167, 403–409, 2004.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>37. Duarte, A.P. Cidade, M.T. Bordado, J.C. Cellulose acetate reverse osmosis membranes: Optimization of the composition. Journal of Applied Polymer Science, 100, 4052–4058, 2006. </unstructured_citation></citation><citation key="ref38"><unstructured_citation>38. Idris, A. Yet, L.K. The effect of different molecular weight PEG additives on cellulose acetate asymmetric dialysis membrane performance. Journal of Membrane Science, 280, 920–927, 2006.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>39. Zhao, C. Xue, J. Ran, F. Sun, S. Modification of polyethersulfone membranes—A review of methods. Progress in Materials Science, 58, 76–150, 2013.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>40. Otitoju, T.A. Ahmad, A.L. Ooi, B.S. Recent advances in hydrophilic modification and performance of polyethersulfone (PES) membrane via additive blending. RSC Advancesances, 8, 22710–22728, 2018.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>41. van der Bruggen, B. Chemical modification of polyethersulfone nanofiltration membranes: A review. Journal of Applied Polymer Science, 114, 630–642, 2009.</unstructured_citation></citation><citation key="ref42"><unstructured_citation>42. Liu, F. Hashim, N.A. Liu, Y. Abed, M.M. Li, K. Progress in the production and modification of PVDF membranes. Journal of Membrane Science, 375, 1–27, 2011.</unstructured_citation></citation><citation key="ref43"><unstructured_citation>43. Eykens, L. de Sitter, K. Dotremont, C. Pinoy, L. van der Bruggen, B. Membrane synthesis for membrane distillation: A review. Separation and Purification Technology, 182, 36–51, 2017.</unstructured_citation></citation><citation key="ref44"><unstructured_citation>44. Alkhudhiri, A. Darwish, N. Hilal, N. Membrane distillation: A comprehensive review. Desalinatio, 287, 2–18, 2012.</unstructured_citation></citation><citation key="ref45"><unstructured_citation>45. Kang, G.-D. Cao, Y.-M. Application and modification of poly(vinylidene fluoride) (PVDF) membranes—A review. Journal of Membrane Science, 463, 145–165, 2014.</unstructured_citation></citation><citation key="ref46"><unstructured_citation>46. Colburn, A. Vogler, R.J. Patel, A. Bezold, M. Craven, J. Liu, C. Bhattacharyya, D. Composite Membranes Derived from Cellulose and Lignin Sulfonate for Selective Separations and Antifouling Aspects. Nanomaterials, 9, 867, 2019.</unstructured_citation></citation><citation key="ref47"><unstructured_citation>47. Galiano, F. Briceño, K. Marino, T. Molino, A. Christensen, K.V. Figoli, A. Advances in biopolymer-based membrane preparation and applications. Journal of Membrane Science, 564, 562–586, 2018.</unstructured_citation></citation><citation key="ref48"><unstructured_citation>48. Le Phuong, H.A. Ayob, N.A.I. Blanford, C.F. Rawi, N.F.M. Szekely, G. Nonwoven Membrane Supports from Renewable Resources: Bamboo Fiber Reinforced Poly(Lactic Acid) Composites. ACS Sustainable Chemistry &amp; Engineering, 7, 11885–11893, 2019.</unstructured_citation></citation><citation key="ref49"><unstructured_citation>49. Esfahani, M.R. Taylor, A. Serwinowski, N. Parkerson, Z.J. Confer, M.P. Kammakakam, I. Bara, J.E. Esfahani, A.R. Mahmoodi, S.N. Koutahzadeh, N. et al. Sustainable Novel Bamboo-Based Membranes for Water Treatment Fabricated by Regeneration of Bamboo Waste Fibers. ACS Sustainable Chemistry &amp; Engineering, 8, 4225–4235, 2020.</unstructured_citation></citation><citation key="ref50"><unstructured_citation>50. Clasen, C. Wilhelms, A.T. Kulicke, W.-M. Formation and Characterization of Chitosan Membranes. Biomacromolecules, 7, 3210–3222, 2006.</unstructured_citation></citation><citation key="ref51"><unstructured_citation>51. Ray, M. Pal, K. Anis, A. Banthia, A.K. Development and Characterization of Chitosan-Based Polymeric Hydrogel Membranes. Designed Monomers and Polymers, 13, 193–206, 2010.</unstructured_citation></citation><citation key="ref52"><unstructured_citation>52. Thakur, V.K. Voicu, S.I. Recent advances in cellulose and chitosan-based membranes for water purification: A concise review. Carbohydrate Polymers, 146, 148–165, 2016. </unstructured_citation></citation><citation key="ref53"><unstructured_citation>53. Gaur, S.S. Dhar, P. Sonowal, A. Sharma, A. Kumar, A. Katiyar, V. Thermo-mechanically stable sustainable polymer based solid electrolyte membranes for direct methanol fuel cell applications. Journal of Membrane Science, 526, 348–354, 2017.</unstructured_citation></citation><citation key="ref54"><unstructured_citation>54. Baig, M.I. Durmaz, E.N. Willott, J.D. De Vos, W.M. Sustainable Membrane Production through Polyelectrolyte Complexation Induced Aqueous Phase Separation. Advanced Functional Materials, 30, 1907344, 2019. </unstructured_citation></citation><citation key="ref55"><unstructured_citation>55. Goh, P.S. Wong, T.W. Lim, J.W. Ismail, A.F. Hilal, N. Innovative and Sustainable Membrane Technology for Wastewater Treatment and Desalination Application. In Innovation Strategies in Environmental Science Elsevier: Amsterdam, The Netherlands, pp. 291–319, 2020.</unstructured_citation></citation><citation key="ref56"><unstructured_citation>56. Zhu, Y. Romain, C. Williams, Y.Z.C.K. Sustainable polymers from renewable resources. Nature Cell Biology, 540, 354–362, 2016.</unstructured_citation></citation><citation key="ref57"><unstructured_citation>57. Lee, D.W. Lim, H. Na Chong, H. Shim, W.S. Advances in Chitosan Material and its Hybrid Derivatives: A Review. Open Biomaterials Journal, 1, 10–20, 2009.</unstructured_citation></citation><citation key="ref58"><unstructured_citation>58. Rathke, T.D. Hudson, S.M. Review of Chitin and Chitosan as Fiber and Film Formers. Journal of Macromolecular Science, Part C, 34, 375–437, 1994.</unstructured_citation></citation><citation key="ref59"><unstructured_citation>59. King, C. Shamshina, J.L. Gurau, G. Berton, P. Khan, N.F.A.F. Rogers, R.D. A platform for more sustainable chitin films from an ionic liquid process. Green Chemistry, 19, 117–126, 2016. </unstructured_citation></citation><citation key="ref60"><unstructured_citation>60. Silva, S.S. Mano, J.F. Reis, R.L. Ionic liquids in the processing and chemical modification of chitin and chitosan for biomedical applications. Green Chemistry, 19, 1208–1220, 2017. </unstructured_citation></citation><citation key="ref61"><unstructured_citation>61. Galvis-Sánchez, A.C. Sousa, A.M.M. Hilliou, L. Gonçalves, M.P. Souza, H.K.S. Thermo-compression molding of chitosan with a deep eutectic mixture for biofilms development. Green Chemistry, 18, 1571–1580, 2015.</unstructured_citation></citation><citation key="ref62"><unstructured_citation>62. Sanjari, A.J. Asghari, M. A Review on Chitosan Utilization in Membrane Synthesis. ChemBioEng Reviews, 3, 134–158, 2016.</unstructured_citation></citation><citation key="ref63"><unstructured_citation>63. Lieder, R. Darai, M. Orlygsson, G. Sigurjonsson, O.E. Solution casting of chitosan membranes for in vitro evaluation of bioactivity. Biological process, 15, 11, 2013.</unstructured_citation></citation><citation key="ref64"><unstructured_citation>64. Ma, B. Li, X. Qin, A. He, C. A comparative study on the chitosan membranes prepared from glycine hydrochloride and acetic acid. Carbohydrate Polymers, 91, 477–482, 2013. </unstructured_citation></citation><citation key="ref65"><unstructured_citation>65. Ratcliffe, A. Baker, A. Smith, D. Successful management of 70% acetic acid ingestion on the intensive care unit: A case report. Journal of the Intensive Care Society, 19, 56–60, 2018.</unstructured_citation></citation><citation key="ref66"><unstructured_citation>66. Cui, L. Gao, S. Song, X. Huang, L. Dong, H. Liu, J. Chen, F. Yu, S. Preparation and characterization of chitosan membranes. RSC Advances, 8, 28433–28439, 2018.</unstructured_citation></citation><citation key="ref67"><unstructured_citation>67. Smyth, H.F., Jr. Carpenter, C.P. Weil, C.S. Pozzani, U.C. Striegel, J.A. Nycum, J.S. Range-finding toxicity data: List VII. Am. American Industrial Hygiene Association Journal, 30, 470–476, 1996.</unstructured_citation></citation><citation key="ref68"><unstructured_citation>68. Smallwood, I. Handbook of Organic Solvent Properties Butterworth-Heinemann: Oxford, UK, 2012. 69. Gold, R. Phillips, J.T. Havrdova, E. Bar-Or, A. Kappos, L. Kim, N. Thullen, T. Valencia, P. Oliva, L. Novas, M. et al. Delayed-Release Dimethyl Fumarate and Pregnancy: Preclinical Studies and Pregnancy Outcomes from Clinical Trials and Postmarketing Experience. Neurology and Therapy, 4, 93–104, 2015.</unstructured_citation></citation><citation key="ref69"><unstructured_citation>70. Razali, M. Kim, J.F. Attfield, M.P. Budd, P.M. Drioli, E. Lee, Y.M. Szekely, G. Sustainable wastewater treatment and recycling in membrane manufacturing. Green Chemistry, 17, 5196–5205, 2015. </unstructured_citation></citation><citation key="ref70"><unstructured_citation>71. Medina-Gonzalez, Y. Aimar, P. Lahitte, J.-F. Remigy, J.-C. Towards green membranes: Preparation of cellulose acetate ultrafiltration membranes using methyl lactate as a biosolvent. International Journal of Sustainable Engineering, 4, 75–83, 2011.</unstructured_citation></citation><citation key="ref71"><unstructured_citation>72. AlQaheem, Y. Alomair, A. Alhendi, A. Alkandari, S. Tanoli, N. Alnajdi, N. Quesada-Perez, A. Preparation of polyetherimide membrane from non-toxic solvents for the separation of hydrogen from methane. Chemistry Central Journal, 12, 80, 2018.</unstructured_citation></citation><citation key="ref72"><unstructured_citation>73. Wang, J.-H. Zhang, Y.-H. Xu, Y.-Y. Zhu, B.-K. Xu, H. Fabrication of hydrophilic and sponge-like PVDF/brush-like copolymer blend membranes using triethylphosphate as solvent. Chinese Journal of Polymer Science, 32, 143–150, 2014.</unstructured_citation></citation><citation key="ref73"><unstructured_citation>74. Tao, M.-M. Liu, F. Ma, B.-R. Xue, L.-X. Effect of solvent power on PVDF membrane polymorphism during phase inversion. Desalination, 316, 137–145, 2013.</unstructured_citation></citation><citation key="ref74"><unstructured_citation>75. Chang, J. Zuo, J. Zhang, L. O’Brien, G.S. Chung, T.-S. Using green solvent, triethyl phosphate (TEP), to fabricate highly porous PVDF hollow fiber membranes for membrane distillation. Journal of Membrane Science, 539, 295–304, 2017.</unstructured_citation></citation><citation key="ref75"><unstructured_citation>76. Karkhanechi, H. Vaselbehagh, M. Jeon, S. Shaikh, A.R. Wang, D.-M. Matsuyama, H. Preparation and characterization of polyvinylidenedifluoride-co-chlorotrifluoroethylene hollow fiber membranes with high alkaline resistance. Polyme, 145, 310–323, 2018.</unstructured_citation></citation><citation key="ref76"><unstructured_citation>77. Paerl, H.W. Whitall, D.R. Anthropogenically-derived atmospheric nitrogen deposition, marine eutrophication and harmful algal bloom expansion: Is there a link? Ambio, 28, 307–311, 1999.</unstructured_citation></citation><citation key="ref77"><unstructured_citation>78. Heisler, J. Glibert, P. Burkholder, J. Anderson, D. Cochlan, W. Dennison, W. Dortch, Q. Gobler, C. Heil, C. Humphries, E. et al. Eutrophication and harmful algal blooms: A scientific consensus. Harmful Algae, 8, 3–13, 2008.</unstructured_citation></citation><citation key="ref78"><unstructured_citation>79. Ratti, R. Ionic Liquids: Synthesis and Applications in Catalysis. Advanced Chemistry, 2014, 729842, 2014.</unstructured_citation></citation><citation key="ref79"><unstructured_citation>80. Rogers, R.D. Seddon, K.R. Ionic liquids—Solvents of the future? Science, 302, 792–793, 2003. </unstructured_citation></citation><citation key="ref80"><unstructured_citation>81. Earle, M.J. Seddon, K.R. Ionic liquids: Green solvents for the future. In Pure and Applied Chemistry ACS Publications: Washington, DC, USA, p. 1391, 2000.</unstructured_citation></citation><citation key="ref81"><unstructured_citation>82. Heym, F. Haber, J. Korth, W. Etzold, B.J.M. Jess, A. Vapor Pressure of Water in Mixtures with Hydrophilic Ionic Liquids—A Contribution to the Design of Processes for Drying of Gases by Absorption in Ionic Liquids. Chemical Engineering and Technology, 33, 1625–1634, 2010.</unstructured_citation></citation><citation key="ref82"><unstructured_citation>83. Dai, C. Sui, X. Lei, Z. Vapor pressure measurements and predictions for the binary systems containing ionic liquid [EMIM][BF 4] and formic acid/acetic acid. Journal of Molecular Liquids, 256, 471–479, 2018. </unstructured_citation></citation><citation key="ref83"><unstructured_citation>84. Tomida, D. Tani, Y. Qiao, K. Yokoyama, C. Vapor pressure and liquid density of 1-butyl-3-methylimidazolium hexafluorophosphate and ammonia mixtures. High temperatures-high pressures, 47, 101–116, 2018.</unstructured_citation></citation><citation key="ref84"><unstructured_citation>85. Cichowska-Kopczy nska, I. Joskowska, M. D ˛ebski, B. Luczak, J. Aranowski, R. Influence of Ionic Liquid Structure on Supported Ionic Liquid Membranes Effectiveness in Carbon Dioxide/Methane Separation. Journal of Chemistry, 932863, 2013. </unstructured_citation></citation><citation key="ref85"><unstructured_citation>86. Xing, D.Y. Chan, S.Y. Chung, T.-S. Molecular interactions between polybenzimidazole and [EMIM]OAc, and derived ultrafiltration membranes for protein separation. Green Chemistry, 14, 1405–1412, 2012.</unstructured_citation></citation><citation key="ref86"><unstructured_citation>87. Xing, D.Y. Dong, W.Y. Chung, T.-S. Effects of Different Ionic Liquids as Green Solvents on the Formation and Ultrafiltration Performance of CA Hollow Fiber Membranes. Industrial &amp; Engineering Chemistry Research, 55, 7505–7513, 2016.</unstructured_citation></citation><citation key="ref87"><unstructured_citation> 88. Colburn, A. Wanninayake, N. Kim, D. Bhattacharyya, D. Cellulose-graphene quantum dot composite membranes using ionic liquid. Journal of Membrane Science, 556, 293–302, 2018.</unstructured_citation></citation><citation key="ref88"><unstructured_citation>89. Romero, A. Santos, A. Tojo, J. Rodriguez, A. Toxicity and biodegradability of imidazolium ionic liquids. Journal of Hazardous Materials, 151, 268–273, 2008.</unstructured_citation></citation><citation key="ref89"><unstructured_citation>90. Docherty, K.M. Kulpa, J.C.F. Toxicity and antimicrobial activity of imidazolium and pyridinium ionic liquids. Green Chemistry, 7, 185–189, 2005.</unstructured_citation></citation><citation key="ref90"><unstructured_citation>91. Pham, T.P.T. Cho, C.-W. Yun, Y.-S. Environmental fate and toxicity of ionic liquids: A review. Water Research, 44, 352–372, 2010.</unstructured_citation></citation><citation key="ref91"><unstructured_citation>92. Ventura, S.P.M. Gonçalves, A.M.M. Sintra, T. Pereira, J.L. Gonçalves, F. Coutinho, J.A.P. Designing ionic liquids: The chemical structure role in the toxicity. Ecotoxicology, 22, 1–12, 2012.</unstructured_citation></citation><citation key="ref92"><unstructured_citation>93. Rasool, M.A. Pescarmona, P.P. Vankelecom, I.F.J. Applicability of Organic Carbonates as Green Solvents for Membrane Preparation. ACS Sustainable Chemistry &amp; Engineering, 7, 13774–13785, 2019.</unstructured_citation></citation><citation key="ref93"><unstructured_citation>94. Hassankiadeh, N.T. Cui, Z. Kim, J.H. Shin, D.W. Lee, S.Y. Sanguineti, A. Arcella, V. Lee, Y.M. Drioli, E. Microporous poly(vinylidene fluoride) hollow fiber membranes fabricated with PolarClean as water-soluble green diluent and additives. Journal of Membrane Science, 479, 204–212, 2015. </unstructured_citation></citation><citation key="ref94"><unstructured_citation>95. Jung, J.T. Kim, J.F. Wang, H.H. di Nicolo, E. Drioli, E. Lee, Y.M. Understanding the non-solvent induced phase separation (NIPS) effect during the fabrication of microporous PVDF membranes via thermally induced phase separation (TIPS). Journal of Membrane Science, 514, 250–263, 2016.</unstructured_citation></citation><citation key="ref95"><unstructured_citation>96. Marino, T. Blasi, E. Tornaghi, S. Di Nicolo, E. Figoli, A. Polyethersulfone membranes prepared with Rhodiasolv®Polarclean as water soluble green solvent. Journal of Membrane Science, 549, 192–204, 2018. </unstructured_citation></citation><citation key="ref96"><unstructured_citation>97. Randová, A. Bartovská, L. Morávek, P. Matˇejka, P. Novotná, M. Matˇejková, S. Drioli, E. Figoli, A. Lanˇc, M. Friess, K. A fundamental study of the physicochemical properties of Rhodiasolv®Polarclean: A promising alternative to common and hazardous solvents. Journal of Molecular Liquids, 224, 1163–1171, 2016.</unstructured_citation></citation><citation key="ref97"><unstructured_citation>98. Alonso, D.M. Wettstein, S.G. Dumesic, J.A. Gamma-valerolactone, a sustainable platform molecule derived from lignocellulosic biomass. Green Chemistry, 15, 584–595, 2013.</unstructured_citation></citation><citation key="ref98"><unstructured_citation>99. Girisuta, B. Janssen, A.L.P.B.M. Heeres, H.J. Kinetic Study on the Acid-Catalyzed Hydrolysis of Cellulose to Levulinic Acid. Industrial and Engineering Chemistry Research, 46, 1696–1708, 2007.</unstructured_citation></citation><citation key="ref99"><unstructured_citation>100. Girisuta, B. Janssen, L.P.B.M. Heeres, H.J. A kinetic study on the decomposition of 5-hydroxymethylfurfural into levulinic acid. Green Chemistry, 8, 701–709, 2006.</unstructured_citation></citation><citation key="ref100"><unstructured_citation>101. Rasool, M.A. Vankelecom, I.F. Use of γ-valerolactone and glycerol derivatives as bio-based renewable solvents for membrane preparation. Green Chemistry, 21, 1054–1064, 2019.</unstructured_citation></citation><citation key="ref101"><unstructured_citation>102. Dong, X. Shannon, H.D. Escobar, I.C. Investigation of Polarclean and Gamma-Valerolactone as Solvents for Polysulfone Membrane Fabrication. In Green Polymer Chemistry: New Products, Processes, and Applications American Chemical Society: Washington, DC, USA, pp. 385–403, 2018.</unstructured_citation></citation><citation key="ref102"><unstructured_citation>103. Dong, X. Shannon, H.D. Parker, C. De Jesus, S. Escobar, I.C. Comparison of two low-hazard organic solvents as individual and cosolvents for the fabrication of polysulfone membranes. AIChE Journal, 66, 16790, 2020.</unstructured_citation></citation><citation key="ref103"><unstructured_citation>104. Hołda, A.K. Vankelecom, I.F. Understanding and guiding the phase inversion process for synthesis of solvent resistant nanofiltration membranes. Journal of Applied Polymer Science, 132, 2015.</unstructured_citation></citation><citation key="ref104"><unstructured_citation>105. Hołda, A.K. Aernouts, B. Saeys, W. Vankelecom, I.F. Study of polymer concentration and evaporation time as phase inversion parameters for polysulfone-based SRNF membranes. Journal of Membrane Science, 442, 196–205, 2013.</unstructured_citation></citation><citation key="ref105"><unstructured_citation>106. Hendrix, K. Koeckelberghs, G. Vankelecom, I.F. Study of phase inversion parameters for PEEK-based nanofiltration membranes. Journal of Membrane Science, 452, 241–252, 2014.</unstructured_citation></citation><citation key="ref106"><unstructured_citation>107. Ren, J. Zhou, J. Deng, M. Morphology transition of asymmetric flat sheet and thickness-gradient membranes by wet phaseinversion process. Desalination, 253, 1–8, 2010.</unstructured_citation></citation><citation key="ref107"><unstructured_citation>108. Chede, S. Griffiths, P. Escobar, I.C. Harris, T.A.L. Does casting method matter in filtration membranes? A comparison in performance between doctor blade and slot-die extruded polymeric membranes. Journal of Applied Polymer Science, 135, 45563, 2018.</unstructured_citation></citation><citation key="ref108"><unstructured_citation>109. Bucher, T. Filiz, V. Abetz, C. Abetz, V. Formation of Thin, Isoporous Block Copolymer Membranes by an Upscalable Profile Roller Coating Process—A Promising Way to Save Block Copolymer. Membrane, 8, 57, 2018.</unstructured_citation></citation><citation key="ref109"><unstructured_citation>110. Lakshmi, D.S. Cundari, T. Furia, E. Tagarelli, A. Fiorani, G. Carraro, M. Figoli, A. Preparation of Polymeric Membranes and Microcapsules Using an Ionic Liquid as Morphology Control Additive. Macromolecular Symposia, 357, 159–167, 2015.</unstructured_citation></citation><citation key="ref110"><unstructured_citation>111. Dong, X. Jeong, T.J. Kline, E. Banks, L. Grulke, E. Harris, T. Escobar, I.C. Eco-friendly solvents and their mixture for the fabrication of polysulfone ultrafiltration membranes: An investigation of doctor blade and slot die casting methods. Journal of Membrane Science, 614, 118510, 2020. </unstructured_citation></citation><citation key="ref111"><unstructured_citation>112. Soroko, I. Lopes, M.P. Livingston, A. The effect of membrane formation parameters on performance of polyimide membranes for organic solvent nanofiltration (OSN): Part A. Effect of polymer/solvent/non-solvent system choice. Journal of Membrane Science, 381, 152–162, 2011.</unstructured_citation></citation><citation key="ref112"><unstructured_citation>113. Ayman, E.G. Heba, A. Sahar, A. Construction of ternary phase diagram and membrane morphology evaluation for polyamide/formic acid/water system. Australian Journal of Basic and Applied Sciences, 6, 62–68, 2012.</unstructured_citation></citation><citation key="ref113"><unstructured_citation>114. Wang, H.H. Jung, J.T. Kim, J.F. Kim, S. Drioli, E. Lee, Y.M. A novel green solvent alternative for polymeric membrane preparation via nonsolvent-induced phase separation (NIPS). Journal of Membrane Science, 574, 44–54, 2019.</unstructured_citation></citation><citation key="ref114"><unstructured_citation>115. Mazinani, S. Darvishmanesh, S. Ehsanzadeh, A. van der Bruggen, B. Phase separation analysis of Extem/solvent/non-solvent systems and relation with membrane morphology. Journal of Membrane Science, 526, 301–314, 2017.</unstructured_citation></citation><citation key="ref115"><unstructured_citation>116. Kahrs, C. Gühlstorf, T. Schwellenbach, J. Influences of different preparation variables on polymeric membrane formation via nonsolvent induced phase separation. Journal of Applied Polymer Science, 137, 48852, 2020.</unstructured_citation></citation><citation key="ref116"><unstructured_citation>117. Yadav, P. Ismail, N. Essalhi, M. Tysklind, M. Athanassiadis, D. Tavajohi, N. Assessment of the environmental impact of polymeric membrane production. Journal of Membrane Science, 622, 118987, 2021.</unstructured_citation></citation><citation key="ref117"><unstructured_citation>118. Martins, A.A. Caetano, N.S. Mata, T.M. LCA for Membrane Processes. In Green Chemistryistry and Sustainable Technology Springer: Singapore, pp. 23–66, 2017.</unstructured_citation></citation><citation key="ref118"><unstructured_citation>119. Xie, W. Li, T. Chen, C. Wu, H. Liang, S. Chang, H. Liu, B. Drioli, E. Wang, Q. Crittenden, J.C. Using the Green Solvent Dimethyl Sulfoxide to Replace Traditional Solvents Partly and Fabricating PVC/PVC-g-PEGMA Blended Ultrafiltration Membranes with High Permeability and Rejection. Journal of Industrial and Engineering Chemistry, 58, 6413–6423, 2019.</unstructured_citation></citation><citation key="ref119"><unstructured_citation>120. Bhamidipati, K.L. Didari, S. Harris, T.A. Slot die coating of polybenzimiazole based membranes at the air engulfment limit. Journal of Power Sources, 239, 382–392, 2013.</unstructured_citation></citation><citation key="ref120"><unstructured_citation>121. Phillips, A. Ulsh, M. Mackay, J. Harris, T. Shrivastava, N. Chatterjee, A. Porter, J. Bender, G. The effect of membrane casting irregularities on initial fuel cell performance. Fuel Cells 2020, 20, 60–69. </unstructured_citation></citation><citation key="ref121"><unstructured_citation>122. Ding, X. Liu, J. Harris, T.A.L. A review of the operating limits in slot die coating processes. AIChE Journal, 62, 2508–2524, 2016.</unstructured_citation></citation><citation key="ref122"><unstructured_citation>123. Huang, B.-J. Guan, C.-K. Huang, S.-H. Su, W.-F. Development of once-through manufacturing machine for large-area Perovskite solar cell production. Solar Energy, 205, 192–201, 2020. </unstructured_citation></citation><citation key="ref123"><unstructured_citation>124. Aegerter, M.A. Mennig, M. (Eds.) Doctor blade. In Sol-Gel Technologies for Glass Producers and Users Springer: Berlin/Heidelberg, Germany, pp. 89–92, 2004.</unstructured_citation></citation><citation key="ref124"><unstructured_citation>125. de Kergommeaux, A. Fiore, A. Faure-Vincent, J. Pron, A. Reiss, P. Colloidal CuInSe 2 nanocrystals thin films of low surface roughness. Advances in Natural Sciences: Nanoscience and Nanotechnology, 4, 015004, 2013.</unstructured_citation></citation><citation key="ref125"><unstructured_citation>126. Wang, C.F. An, Y. Li, Q.H. Wan, S.J. Chen, W.X. Liu, X.D. Nonsolvent Effects on Morphology of Cellulose Acetate Films Prepared by Dry-Cast Process. Journal of Macromolecular Science, Part B, 51, 2266–2275, 2012.</unstructured_citation></citation><citation key="ref126"><unstructured_citation>127. Bhamidipati, K. Didari, S. Harris, T.A. Experimental Study on Air Entrainment in Slot Die Coating of High-Viscosity, ShearThinning Fluids. Chemical Engineering Science, 80, 195–204, 2012.</unstructured_citation></citation><citation key="ref127"><unstructured_citation>128. Chede, S. Anaya, N.M. Oyanedel-Craver, V. Gorgannejad, S. Harris, T.A. Al-Mallahi, J. Abu-Dalo, M. Abu Qdais, H. Escobar, I.C. Desalination using low biofouling nanocomposite membranes: From batch-scale to continuous-scale membrane fabrication. Desalinatio, 451, 81–91, 2019.</unstructured_citation></citation><citation key="ref128"><unstructured_citation>129. Ruschak, K.J. Limiting flow in a pre-metered coating device. Chemical Engineering Science, 31, 1057–1060, 1976.</unstructured_citation></citation><citation key="ref129"><unstructured_citation>130. Bhamidipati, K.L. Detection and Elimination of Defects during Manufacture of high-Temperature Polymer Electrolyte Membranes. Ph.D. Thesis, Georgia Institute of Technology, Atlanta, GA, USA, 2011.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A Review of the Most Advanced Green Polymeric Inhibitors for Controlling Scale Formation in Cooling Circuits</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Majid</given_name><surname>Mirzaee</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Abbas</given_name><surname>Yousefpour</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>65</first_page><last_page>75</last_page></pages><doi_data><doi>10.66224/irdpt.48090.9.2.65</doi><resource>http://irdpt.ir/fa/Article/48090</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/48090</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/48090</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>[1]	I. Rashid, "Evaluation of effectiveness of phosphate and zinc as scale inhibitor in delaying precipitation of caco3," 2020.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>[2]	M. M. Reddy and A. R. Hoch, "Calcite crystal growth rate inhibition by polycarboxylic acids," Journal of colloid and interface science, vol. 235, no. 2, pp. 365-370, 2001.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>[3]	T. R. Bott, Understanding heat exchanger fouling and its mitigation. Begell House, 1999.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>[4]	H. Füredi-Milhofer and S. Sarig, "Interactions between polyelectrolytes and sparingly soluble salts," Progress in Crystal Growth and Characterization of materials, vol. 32, no. 1-3, pp. 45-74, 1996.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>[5]	Z. He, L. Zhang, L. Wang, Q. Zhang, and L. Luan, "Anti-Scale Performance and Mechanism of Valonia Tannin Extract for Calcium Carbonate in Circulating Cooling Water System," Sustainability, vol. 15, no. 11, p. 8811, 2023.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>[6]	P. Zhang, L. Wang, W. Sun, Z. Yang, W. Gao, and G. Liu, "Anti-scale performance degradation of carboxylic acid scale inhibitors under corrosion conditions," Corrosion Science, vol. 222, p. 111423, 2023.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>[7]	N. Tsiourtis, "Desalination and the environment," Desalination, vol. 138, no. 1-3, p. 1, 2001.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>[8]	R. A. Gross and B. Kalra, "Biodegradable polymers for the environment," Science, vol. 297, no. 5582, pp. 803-807, 2002.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>[9]	A. Ketsetzi, A. Stathoulopoulou, and K. D. Demadis, "Being “green” in chemical water treatment technologies: issues, challenges and developments," Desalination, vol. 223, no. 1-3, pp. 487-493, 2008.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>[10]	F. A. Ansari and H. K. Sharma, "Industrially Useful Corrosion Inhibitors: Grafted Biopolymers as Ideal Substitutes," Grafted Biopolymers as Corrosion Inhibitors: Safety, Sustainability, and Efficiency, pp. 417-463, 2023.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>[11]	A. G. Pervov, A. P. Andrianov, and M. N. Danilycheva, "Preliminary evaluation of new green antiscalants for reverse osmosis water desalination," Water Science and Technology: Water Supply, vol. 18, no. 1, pp. 167-174, 2018.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>[12]	K. D. Demadis, E. Neofotistou, E. Mavredaki, M. Tsiknakis, E.-M. Sarigiannidou, and S. D. Katarachia, "Inorganic foulants in membrane systems: chemical control strategies and the contribution of “green chemistry”," Desalination, vol. 179, no. 1, pp. 281-295, 2005/07/10/ 2005, doi: https://doi.org/10.1016/j.desal.2004.11.074.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>[13]	E. Mavredaki, A. Stathoulopoulou, E. Neofotistou, and K. D. Demadis, "Environmentally benign chemical additives in the treatment and chemical cleaning of process water systems: Implications for green chemical technology," Desalination, vol. 210, no. 1, pp. 257-265, 2007/06/10/ 2007, doi: https://doi.org/10.1016/j.desal.2006.05.050.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>[14]	E. Neofotistou and K. D. Demadis, "Use of antiscalants for mitigation of silica (SiO2) fouling and deposition: fundamentals and applications in desalination systems," Desalination, vol. 167, pp. 257-272, 2004.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>[15]	K. D. Demadis and A. Stathoulopoulou, "Solubility enhancement of silicate with polyamine/polyammonium cationic macromolecules: relevance to silica-laden process waters," Industrial &amp; engineering chemistry research, vol. 45, no. 12, pp. 4436-4440, 2006.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>[16]	A. Stathoulopoulou and K. D. Demadis, "Enhancement of silicate solubility by use of “green” additives: linking green chemistry and chemical water treatment," Desalination, vol. 224, no. 1-3, pp. 223-230, 2008.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>[17]	D. Zhou, W. Yu, A. Wu, W. Shu, and Y. Zhang, "Optimization of preparation conditions of medium and highly substituted carboxymethyl inulin through response surface methodology," Carbohydrate Research, vol. 536, p. 109009, 2024.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>[18]	K. D. Demadis and A. Stathoulopoulou, "Multifunctional, environmentally friendly additives for control of inorganic foulants in industrial water and process applications," Materials performance, vol. 45, no. 1, pp. 40-44, 2006.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>[19]	D.-J. Choi, S.-J. You, and J.-G. Kim, "Development of an environmentally safe corrosion, scale, and microorganism inhibitor for open recirculating cooling systems," Materials Science and Engineering: A, vol. 335, no. 1-2, pp. 228-235, 2002.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>[20]	H.-Y. Li, W. Ma, L. Wang, R. Liu, L.-S. Wei, and Q. Wang, "Inhibition of calcium and magnesium-containing scale by a new antiscalant polymer in laboratory tests and a field trial," Desalination, vol. 196, no. 1-3, pp. 237-247, 2006.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>[21]	A. Martinod, M. Euvrard, A. Foissy, and A. Neville, "Progressing the understanding of chemical inhibition of mineral scale by green inhibitors," Desalination, vol. 220, no. 1-3, pp. 345-352, 2008.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>[22]	D. Hasson, H. Shemer, and A. Sher, "State of the art of friendly “green” scale control inhibitors: a review article," Industrial &amp; Engineering Chemistry Research, vol. 50, no. 12, pp. 7601-7607, 2011.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>[23]	M.-L. Zhang et al., "Controllable synthesis of polyaspartic acid: Studying into the chain length effect for calcium scale inhibition," Desalination, vol. 570, p. 117080, 2024.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>[24]	M. Schweinsberg, W. Hater, and J. Verdes, "New stable biodegradable scale inhibitor formulations for cooling water: development and field tests," in 64th International Water Conference, Pittsburgh, PA, 2003, vol. 23: Citeseer. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>[25]	R. J. Ross, K. Low, and J. E. Shannon, "Polyaspartate scale inhibitors-biodegradable alternatives to polyacrylates," in NACE CORROSION, 1996: NACE, pp. NACE-96162. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>[26]	Z. Quan, Y. Chen, X. Wang, C. Shi, Y. Liu, and C. Ma, "Experimental study on scale inhibition performance of a green scale inhibitor polyaspartic acid," Science in China Series B: Chemistry, vol. 51, no. 7, pp. 695-699, 2008.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>[27]	W. Girasa and M. De Wispelaere, "Polyaspartate, a new alternative for the conditioning of cooling water," in 14th International Conference on the Properties of Water and Steam, Kyoto, Japan, 2004, vol. 29. </unstructured_citation></citation><citation key="ref28"><unstructured_citation>[28]	S. M. Thombre and B. D. Sarwade, "Synthesis and biodegradability of polyaspartic acid: a critical review," Journal of macromolecular science, part A, vol. 42, no. 9, pp. 1299-1315, 2005.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>[29]	W. Hater, "Environmental compatible scale inhibitor for the mining industry," in NACE CORROSION, 1998: NACE, pp. NACE-98213. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>[30]	L. Ni, A. Chiriac, C. Popescu, and I. Neam, "Possibilities for poly (aspartic acid) preparation as biodegradable compound," J. Optoelectr. Adv Mater, vol. 8, pp. 663-666, 2006.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Polymer-Based Triboelectric Nanogenerators</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Sara</given_name><surname>Tarashi</surname></person_name></contributors><publication_date media_type="online"><month>10</month><day>9</day><year>2024</year></publication_date><pages><first_page>77</first_page><last_page>88</last_page></pages><doi_data><doi>10.66224/irdpt.48651.9.2.77</doi><resource>http://irdpt.ir/fa/Article/48651</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/48651</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/48651</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1.	Zhu Q., Sun E., Zhao Z., Wu T., Meng S., Ma Z., Shoaib M., Ur Rehman H., Cao X., and Wang N., Biopolymer Materials in Triboelectric Nanogenerators: A Review, Polymers, 16, 1304, 2024.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2.	 Fan FR., Tian ZQ., and Lin Wang Z., Flexible Triboelectric Generator, Nano Energy, 1, 328–334, 2012.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3.	Xie X., Zhang Y., Chen C., Chen X., Yao T., Peng M., Chen X., Nie B., Wen Z., and Sun X., Frequency-independent Self-Powered Sensing Based on Capacitive Impedance Matching Effect of Triboelectric Nanogenerator, Nano Energy, 65, 103984, 2019.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4.	Shanbedi M., Ardebili H., and Alamgir K., Polymer-based Triboelectric Nanogenerators: Materials, Characterization, And Applications, Progress in Polymer Science, 144, 101723, 2023.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5.	Wang Z.L., Triboelectric Nanogenerators as New Energy Technology for Self-powered Systems and As Active Mechanical and Chemical Sensors, ACS Nano, 7, 9533–9557, 2013.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6.	Zhang Z., Zhang Q., Zhou Z., Wang J., Kuang H., Shen Q., and Yang H., High-power Triboelectric Nanogenerators by Using In-situ Carbon Dispersion Method for Energy Harvesting and Self-powered Wireless Control, Nano Energy, 101, 107561, 2022.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7.	Chen M., Zhou Y., Lang J., Li L., and Zhang Y., Triboelectric Nanogenerator and Artificial Intelligence to Promote Precision Medicine for Cancer, Nano Energy, 92, 106783, 2022.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8.	Sun H., Zhao Y., Jiao S., Wang C., Jia Y., Dai K., Zheng G., Liu C., Wan P., and Shen C., Environment Tolerant Conductive Nanocomposite Organ Hydrogels as Flexible Strain Sensors and Power Sources for Sustainable Electronics, Adv. Funct. Mater., 31, 2101696, 2021.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9.	Cheng J., Ding W., Zi Y., Lu Y., Ji L., Liu F., Wu C., and Wang Z.L., Triboelectric Micro Plasma Powered by Mechanical Stimuli, Nat. Commun., 9, 3733, 2018.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>
10.	Harnchana V., Van Ngoc H., He W., Rasheed A., Park H., and Amornkitbamrung V., Enhanced Power Output of a Triboelectric Nanogenerator Using Poly(dimethylsiloxane) Modified with Graphene Oxide and Sodium Dodecyl Sulfate, ACS Appl Mater Interfaces, 10, 25263, 2018.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11.	Long Y., Chen Y., Liu Y., Chen G., Guo W., Kang X., Pu X., Hu W., and Wang Z.L., A Flexible Triboelectric Nanogenerator Based on a Super-Stretchable and Self-Healable Hydrogel as the Electrode, Nanoscale, 12, 12753, 2020.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12.	Cui N., Gu L., Lei Y., Liu J., Qin Y., Ma X., Hao Y., and Wang Z. L., Dynamic Behavior of the Triboelectric Charges and Structural Optimization of the Friction Layer for a Triboelectric Nanogenerator, ACS Nano, 10, 6131, 2016.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>
13.	Luo X., Zhu L., Wang C., Li J., Nie J., and Wang Z.L., A Flexible Multifunctional Triboelectric Nanogenerator based on Mxene/PVA Hydrogel, Adv. Funct. Mater., 31, 2104928, 2021.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>
14.	Chen G., Xu L., Zhang P., Chen B., Wang G., Ji J., Pu X., and Wang Z.L., Seawater Degradable Triboelectric Nanogenerators for Blue Energy, Adv. Mater. Technol., 5, 2000455, 2020.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>
15.	Liang S., Wang Y., Liu Q., Yuan T., and Yao C., The Recent Progress in Cellulose Paper-Based Triboelectric Nanogenerators, Adv. Sustain. Syst., 5, 2100034, 2021.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>
16.	Li Y., Chen S., Yan H., Jiang H., Luo J., Zhang C., Pang Y., and Tan Y., Biodegradable, Transparent, and Antibacterial Alginate-based Triboelectric Nanogenerator for Energy Harvesting and Tactile Sensing, Chem. Eng. J., 468, 143572, 2023.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>
17.	Kang M., Bin M.S., Kim Y., Kim B., Park B.J., Hyun I., Imani I.M., Choi B., and Kim S., Nature-Derived Highly Tribo-positive κ-Carrageenan-Agar Composite-based Fully Biodegradable Triboelectric Nanogenerators, Nano Energy,100, 107480, 2022.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>
18.	Han Y., Han Y., Zhang X., Li L., Zhang C., Liu J., Lu G., Yu H.D., and Huang W., Fish Gelatin based Triboelectric Nanogenerator for Harvesting Biomechanical Energy and Self-Powered Sensing of Human Physiological Signals, ACS Appl. Mater. Interfaces, 12, 16442–16450, 2020.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>
19.	Chen K., Li Y., Yang G., Hu S., Shi Z., and Yang G., Fabric-based TENG Woven with Bio-Fabricated Superhydrophobic Bacterial Cellulose Fiber for Energy Harvesting and Motion Detection, Adv. Funct. Mater., 33, 2304809, 2023.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>
20.	Guan Q., Lin G., Gong Y., Wang J., Tan W., Bao D., Liu Y., You Z., Sun X., Wen Z., and Pan Y., Highly Efficient Self-Healable and Dual Responsive Hydrogel-based Deformable Triboelectric Nanogenerators for Wearable Electronics, J. Mater. Chem. A, 7,13948–13955, 2019.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>
21.	Chen B., Tang W., Jiang T., Zhu L., Chen X., He C., Xu L., Guo H., Lin P., Li D., Shao J., and Wang Z.L., Three-Dimensional Ultra flexible Triboelectric Nanogenerator Made by 3D Printing, Nano Energy, 45, 380–389, 2018.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>
22.	Wang S., He M., Weng B., Gan L., Zhao Y., Li N., and Xie Y., Stretchable and Wearable Triboelectric Nanogenerator Based on Kinesio Tape for Self-Powered Human Motion Sensing, Nanomaterials, 8, 657, 2018.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>
23.	Sayam A., Rahman M.M., Sayem A.S.M., Ahmed A.T.M.F., and Alimuzzaman S., Carbon-Based Textile-Structured Triboelectric Nanogenerators for Smart Wearables, Adv. Energy Sustainability Res., 5, 2400127, 2024.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>
24.	Nie S., Cai C., Lin X., Zhang C., Lu Y., Mo J., and Wang S., Chemically Functionalized Cellulose Nanofibrils for Improving Triboelectric Charge Density of a Triboelectric Nanogenerator, ACS Sustain. Chem. Eng., 8, 18678–18685, 2020.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>
25.	Shi X., Wei Y., Yan R., Hu L., Zhi J., Tang B., Li Y., Yao Z., Shi C., and Yu H., Leaf Surface-Microstructure Inspired Fabrication of Fish Gelatin-Based Triboelectric Nanogenerator, Nano Energy, 109, 108231, 2023.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>
26.	Wang T., Li S., Tao X., Yan Q., Wang X., Chen Y., Huang F., Li H., Chen X., and Bian Z., Fully Biodegradable Water-Soluble Triboelectric Nanogenerator for Human Physiological Monitoring, Nano Energy, 93, 106787, 2022.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>
27.	Kim J., Lee J., Lee H., and Oh I., Stretchable and Self-Healable Catechol-Chitosan-Diatom Hydrogel for Triboelectric Generator and Self-Powered Tremor Sensor Targeting at Parkinson Disease, Nano Energy, 82, 105705, 2021.</unstructured_citation></citation></citation_list></journal_article></journal></body></doi_batch>