﻿<?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-2026051920</doi_batch_id><timestamp>20260519200941</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>1</month><day>1</day><year>2025</year></publication_date><journal_volume><volume>9</volume></journal_volume><issue>3</issue></journal_issue><journal_article publication_type="full_text"><titles><title>Investigating the impact of microplastics on the aquaculture industry</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Zeinab </given_name><surname>Salahshoor</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Farzad</given_name><surname>Mehrjo</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Ehsan </given_name><surname>Lashkari</surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>15</first_page><last_page>25</last_page></pages><doi_data><doi>10.66224/irdpt.48382.9.3.15</doi><resource>http://irdpt.ir/en/Article/48382</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48382</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48382</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1.	Chen, G. Li, Y. Wang, J. Occurrence and ecological impact of microplastics in aquaculture ecosystems. Chemosphere, 274, 129989, 2021.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2.	Ma, J. Niu, X. Zhang, D. Lu, L. Ye, X. Deng, W. ... Lin, Z. High levels of microplastic pollution in aquaculture water of fish ponds in the Pearl River Estuary of Guangzhou, China. Science of the total environment, 744, 140679, 2020.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3.	Bordos, G. Urbanyi, B. Micsinai, A. Kriszt, B. Palotai, Z. Szabo, I… Szoboszlay, S. Identification of microplastics in fish ponds and natural freshwater environments of the Carpathian basin, Europe. Chemosphere, 216, 110-116, 2019.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4.	Wang, C. Jiang, C. Gao, T. Peng, X. Ma, S. Sun, Q...  Zhuang, X. Improvement of fish production and water quality in a recirculating aquaculture pond enhanced with bacteria-microalgae association. Aquaculture, 547, 737420, 2022.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5.	Li, J. Yang, D. Li, L. Jabeen, K. Shi, H. Microplastics in commercial bivalves from China. Environmental pollution, 207, 190-195, 2015.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6.	Barange, M. Fishery and aquaculture statistics. FAO yearbook. Fishery and Aquaculture Statistics= FAO Annuaire. Statistiques des Peches et de l'Aquaculture= FAO Anuario. Estadisticas de Pesca y Acuicultura, I-82, 2018.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7.	Gewert, B. Plassmann, M.M. MacLeod, M. Pathways for degradation of plastic polymers floating in the marine environment. Environmental science: processes &amp; impacts, 17(9), 1513-1521, 2015.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8.	Do, A.T.N. Ha, Y. Kwon, J.H. Leaching of microplastic-associated additives in aquatic environments: a critical review. Environmental pollution, 305, 119258, 2022.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9.	Cao, L. Wang, W. Yang, Y. Yang, C. Yuan, Z. Xiong, S. Diana, J. Environmental impact of aquaculture and countermeasures to aquaculture pollution in China. Environmental science and pollution research-international, 14, 452-462, 2007.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10.	Pannetier, P. Morin, B. Le Bihanic, F. Dubreil, L. Clerandeau, C. Chouvellon, F...Cachot, J. Environmental samples of microplastics induce significant toxic effects in fish larvae. Environment international, 134, 105047, 2020.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11.	Tang, Y. Han, Y. Zhang, W. Yu, Y. Huang, L. Zhou, W…Liu, G. Bisphenol A and microplastics weaken the antimicrobial ability of blood clams by disrupting humoral immune responses and suppressing hemocyte chemotactic activity. Environmental pollution, 307, 119497, 2022.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12.	Tang, Y. Liu, Y. Chen, Y. Zhang, W. Zhao, J. He, S...Yang, Z. A review: Research progress on microplastic pollutants in aquatic environments. Science of the total environment, 766, 142572, 2021.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13.	Kuebler, W.M. Jordt, SE. Liedtke, W.B. Urgent reconsideration of lung edema as a preventable outcome in COVID-19: inhibition of TRPV4 represents a promising and feasible approach. American journal of physiology-lung cellular and molecular physiology, 318(6), L1239-L1243, 2020.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14.	Lim, D. Jeong, J. Song, K.S. Sung, J.H. Oh, S.M. Choi, J. Inhalation toxicity of polystyrene micro (nano) plastics using modified OECD TG 412. Chemosphere, 262, 128330, 2021.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15.	Zhang, D. Fraser, M. A. Huang, W. Ge, C. Wang, Y. Zhang, C. Guo, P. Microplastic pollution in water, sediment, and specific tissues of crayfish (Procambarus clarkii) within two different breeding modes in Jianli, Hubei province, China. Environmental pollution, 272, 115939, 2021.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16.	Zhou, A. Zhang, Y. Xie, S. Chen, Y. Li, X. Wang, J.nZou, J. Microplastics and their potential effects on the aquaculture systems: a critical review. Reviews in aquaculture, 13(1), 719-733, 2021.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17.	Zhou, W. Han, Y. Tang, Y. Shi, W. Du, X. Sun, S. Liu, G. Microplastics aggravate the bioaccumulation of two waterborne veterinary antibiotics in an edible bivalve species: potential mechanisms and implications for human health. Environmental science &amp; technology, 54(13), 8115-8122, 2020.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18.	Kusnierz, P.C. Jager, H.I. Todd, A.S. A call for collaboration among water quality and fisheries professionals. Fisheries, 45(3), 157-162, 2020.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19.	Kumar, R. Sharma, P. Manna, C. Jain, M. Abundance, interaction, ingestion, ecological concerns, and mitigation policies of microplastic pollution in riverine ecosystem: A review. Science of the total environment, 782, 146695, 2021.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20.	Deng, H. Wei, R. Luo, W. Hu, L. Li, B. Shi, H. Microplastic pollution in water and sediment in a textile industrial area. Environmental pollution, 258, 113658, 2020.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21.	Carney Almroth, B.M. Astrom, L. Roslund, S. Petersson, H. Johansson, M. Persson, N.K. Quantifying shedding of synthetic fibers from textiles; a source of microplastics released into the environment. Environmental science and pollution research, 25, 1191-1199, 2018.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>22.	Sun, J. Dai, X. Wang, Q. Van Loosdrecht, M.C. Ni, B.J. Microplastics in wastewater treatment plants: Detection, occurrence and removal. Water research, 152, 21-37, 2019.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23.	Ziajahromi, S. Neale, P.A. Silveira, I.T. Chua, A. Leusch, F.D. An audit of microplastic abundance throughout three Australian wastewater treatment plants. Chemosphere, 263, 128294, 2021.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>24.	Guerranti, C. Cannas, S. Scopetani, C. Fastelli, P. Cincinelli, A. Renzi, M. Plastic litter in aquatic environments of Maremma Regional Park (Tyrrhenian Sea, Italy): Contribution by the Ombrone river and levels in marine sediments. Marine pollution bulletin, 117(1-2), 366-370, 2017.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>25.	Lebreton, L.C. Van Der Zwet, J. Damsteeg, J.W. Slat, B. Andrady, A. Reisser, J. River plastic emissions to the world’s oceans. Nature communications, 8(1), 15611, 2017.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>26.	Liu, Q. Chen, Z. Chen, Y. Yang, F. Yao, W. Xie, Y. Microplastics and nanoplastics: emerging contaminants in food. Journal of agricultural and food chemistry, 69(36), 10450-10468, 2021.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>27.	Ta, A.T. Babel, S. Microplastics pollution with heavy metals in the aquaculture zone of the Chao Phraya River Estuary, Thailand. Marine pollution bulletin, 161, 111747, 2020.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28.	Worm, B. Lotze, H.K. Jubinville, I. Wilcox, C. Jambeck, J. Plastic as a persistent marine pollutant. Annual review of environment and resources, 42(1), 1-26, 2017.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>29.	Van Sebille, E. Wilcox, C. Lebreton, L. Maximenko, N. Hardesty, B.D. Van Franeker, J. A... Law, K.L. A global inventory of small floating plastic debris. Environmental research letters, 10(12), 124006, 2015.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>30.	Yang, H. Chen, G. Wang, J. Microplastics in the marine environment: Sources, fates, impacts and microbial degradation. Toxics, 9(2), 41, 2021.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>31.	Zhu, J. Zhang, Q. Huang, Y. Jiang, Y. Li, J. Michal, J.J… Lan, W. Long-term trends of microplastics in seawater and farmed oysters in the Maowei Sea, China. Environmental pollution, 273, 116450, 2021.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>32.	Hartmann, N.B. Huffer, T. Thompson, R.C. Hassellov, M. Verschoor, A. Daugaard, A.E.... Wagner, M. Are we speaking the same language? Recommendations for a definition and categorization framework for plastic debris, 2019.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>33.	Dong, H. Wang, L. Wang, X. Xu, L. Chen, M. Gong, P. Wang, C. Microplastics in a remote lake basin of the Tibetan Plateau: Impacts of atmospheric transport and glacial melting. Environmental science &amp; technology, 55(19), 12951-12960, 2021.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>34.	Priscilla, V. Patria, M.P. Comparison of microplastic abundance in aquaculture ponds of milkfish Chanos chanos (Forsskål, 1775) at Muara Kamal and Marunda, Jakarta Bay. In IOP conference series: earth and environmental science (Vol. 404, No. 1, p. 012027). IOP Publishing, 2020.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35.	Cai, L. Wang, J. Peng, J. Tan, Z. Zhan, Z. Tan, X. Chen, Q. Characteristic of microplastics in the atmospheric fallout from Dongguan city, China: preliminary research and first evidence. Environmental science and pollution research, 24, 24928-24935, 2017.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>36.	Wang, J. Lu, L. Wang, M. Jiang, T. Liu, X. Ru, S. Typhoons increase the abundance of microplastics in the marine environment and cultured organisms: a case study in Sanggou Bay, China. Science of the total environment, 667, 1-8, 2019.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>37.	Song, Y.K. Hong, S.H. Jang, M. Han, G.M. Jung, S.W. Shim, W.J. Combined effects of UV exposure duration and mechanical abrasion on microplastic fragmentation by polymer type. Environmental science &amp; technology, 51(8), 4368-4376, 2017.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>38.	Wright, L.S. Napper, I.E. &amp; Thompson, R.C. Potential microplastic release from beached fishing gear in Great Britain's region of highest fishing litter density. Marine pollution bulletin, 173, 113115, 2021.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>39.	Xiong, X. Liu, Q. Chen, X. Wang, R. Duan, M. Wu, C. Occurrence of microplastic in the water of different types of aquaculture ponds in an important lakeside freshwater aquaculture area of China. Chemosphere, 282, 131126, 2021.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>40.	Castelvetro, V. Corti, A. Bianchi, S. Giacomelli, G. Manariti, A. Vinciguerra, V. Microplastics in fish meal: contamination level analyzed by polymer type, including polyester (PET), polyolefins, and polystyrene. Environmental pollution, 273, 115792, 2021.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>41.	Du, F. Cai, H. Zhang, Q. Chen, Q. Shi, H. Microplastics in take-out food containers. Journal of hazardous materials, 399, 122969, 2020.</unstructured_citation></citation><citation key="ref42"><unstructured_citation>42.	Alak, G. Kokturk, M. Atamanalp, M. Evaluation of different packaging methods and storage temperature on MPs abundance and fillet quality of rainbow trout. Journal of hazardous materials, 420, 126573, 2021.</unstructured_citation></citation><citation key="ref43"><unstructured_citation>43.	Mohsen, M. Wang, Q. Zhang, L. Sun, L. Lin, C. Yang, H. Microplastic ingestion by the farmed sea cucumber Apostichopus japonicus in China. Environmental pollution, 245, 1071-1078, 2019.</unstructured_citation></citation><citation key="ref44"><unstructured_citation>44.	Rummel, C.D. Jahnke, A. Gorokhova, E. Kuhnel, D. Schmitt-Jansen, M. Impacts of biofilm formation on the fate and potential effects of microplastic in the aquatic environment. Environmental science &amp; technology letters, 4(7), 258-267, 2017.</unstructured_citation></citation><citation key="ref45"><unstructured_citation>45.	Jacob, H. Besson, M. Swarzenski, P.W. Lecchini, D. Metian, M. Effects of virgin micro-and nanoplastics on fish: trends, meta-analysis, and perspectives. Environmental science &amp; technology, 54(8), 4733-4745, 2020.</unstructured_citation></citation><citation key="ref46"><unstructured_citation>46.	Espinosa, C. Esteban, M.A. Cuesta, A. Dietary administration of PVC and PE microplastics produces histological damage, oxidative stress and immunoregulation in European sea bass (Dicentrarchus labrax L.). Fish &amp; shellfish immunology, 95, 574-583, 2019.</unstructured_citation></citation><citation key="ref47"><unstructured_citation>47.	Barboza, L.G.A. Vieira, L.R. Guilhermino, L. Single and combined effects of microplastics and mercury on juveniles of the European seabass (Dicentrarchus labrax): changes in behavioural responses and reduction of swimming velocity and resistance time. Environmental pollution, 236, 1014-1019, 2018.</unstructured_citation></citation><citation key="ref48"><unstructured_citation>48.	LeMoine, C.M. Kelleher, B.M. Lagarde, R. Northam, C. Elebute, O.O. Cassone, B.J. Transcriptional effects of polyethylene microplastics ingestion in developing zebrafish (Danio rerio). Environmental pollution, 243, 591-600, 2018.</unstructured_citation></citation><citation key="ref49"><unstructured_citation>49.	Schur, C. Rist, S. Baun, A. Mayer, P. Hartmann, N.B. Wagner, M. When fluorescence is not a particle: the tissue translocation of microplastics in Daphnia magna seems an artifact. Environmental toxicology and chemistry, 38(7), 1495-1503, 2019.</unstructured_citation></citation><citation key="ref50"><unstructured_citation>50.	Pitt, J.A. Kozal, J.S. Jayasundara, N. Massarsky, A. Trevisan, R. Geitner, N.... Di Giulio, R. (2018). Uptake, tissue distribution, and toxicity of polystyrene nanoparticles in developing zebrafish (Danio rerio). Aquatic toxicology, 194, 185-194, 2018.</unstructured_citation></citation><citation key="ref51"><unstructured_citation>51.	Phonphan, W. Diep, N.T.H. Korsem, T. Determination aquaculture area in Thanh Phu District, Ben Tre Province, Vietnam using remote sensing technology. Advanced science letters, 24(7), 5355-5358, 2018.</unstructured_citation></citation><citation key="ref52"><unstructured_citation>52.	Romano, N. Ashikin, M. Teh, J.C. Syukri, F. Karami, A. Effects of pristine polyvinyl chloride fragments on whole body histology and protease activity in silver barb Barbodes gonionotus fry. Environmental pollution, 237, 1106-1111, 2018.</unstructured_citation></citation><citation key="ref53"><unstructured_citation>53.	Colferai, A.S. Silva-Filho, R.P. Martins, A.M. Bugoni, L. Distribution pattern of anthropogenic marine debris along the gastrointestinal tract of green turtles (Chelonia mydas) as implications for rehabilitation. Marine pollution bulletin, 119(1), 231-237, 2017.</unstructured_citation></citation><citation key="ref54"><unstructured_citation>54.	Sussarellu, R. Suquet, M. Thomas, Y. Lambert, C. Fabioux, C. Pernet, M.E.J... Huvet, A. (2016). Oyster reproduction is affected by exposure to polystyrene microplastics. Proceedings of the national academy of sciences, 113(9), 2430-2435, 2016.</unstructured_citation></citation><citation key="ref55"><unstructured_citation>55.	Han, Y. Shi, W. Tang, Y. Zhou, W. Sun, H. Zhang, J.... Liu, G. Microplastics and bisphenol A hamper gonadal development of whiteleg shrimp (Litopenaeus vannamei) by interfering with metabolism and disrupting hormone regulation. Science of the total environment, 810, 152354, 2022.</unstructured_citation></citation><citation key="ref56"><unstructured_citation>56.	Bonfanti, P. Colombo, A. Saibene, M. Motta, G. Saliu, F. Catelani, T... &amp; Mantecca, P. Microplastics from miscellaneous plastic wastes: Physico-chemical characterization and impact on fish and amphibian development. Ecotoxicology and environmental safety, 225, 112775, 2021.</unstructured_citation></citation><citation key="ref57"><unstructured_citation>57.	Tongo, I. Erhunmwunse, N.O. Effects of ingestion of polyethylene microplastics on survival rate, opercular respiration rate and swimming performance of African catfish (Clarias gariepinus). Journal of hazardous materials, 423, 127237, 2022.</unstructured_citation></citation><citation key="ref58"><unstructured_citation>58.	Walkinshaw, C. Lindeque, P.K. Thompson, R. Tolhurst, T. Cole, M. Microplastics and seafood: lower trophic organisms at highest risk of contamination. Ecotoxicology and environmental safety, 190, 110066, 2020.</unstructured_citation></citation><citation key="ref59"><unstructured_citation>59.	Senathirajah, K. Attwood, S. Bhagwat, G. Carbery, M. Wilson, S. Palanisami, T. Estimation of the mass of microplastics ingested–A pivotal first step towards human health risk assessment. Journal of hazardous materials, 404, 124004, 2021.</unstructured_citation></citation><citation key="ref60"><unstructured_citation>60.	Tan, H. Yue, T. Xu, Y. Zhao, J. Xing, B. Microplastics reduce lipid digestion in simulated human gastrointestinal system. Environmental science &amp; technology, 54(19), 12285-12294, 2020.</unstructured_citation></citation><citation key="ref61"><unstructured_citation>61.	Guan, Q. Jiang, J. Huang, Y. Wang, Q. Liu, Z. Ma, X… Xia, Y. The landscape of micron-scale particles including microplastics in human enclosed body fluids. Journal of hazardous materials, 442, 130138, 2023.</unstructured_citation></citation><citation key="ref62"><unstructured_citation>62.	Kreyling, W.G. Semmler-Behnke, M. Seitz, J. Scymczak, W. Wenk, A. Mayer, P... Oberdörster, G. Size dependence of the translocation of inhaled iridium and carbon nanoparticle aggregates from the lung of rats to the blood and secondary target organs. Inhalation toxicology, 21(sup1), 55-60, 2009.</unstructured_citation></citation><citation key="ref63"><unstructured_citation>63.	Powell, J.J. Faria, N. Thomas-McKay, E. Pele, L.C. Origin and fate of dietary nanoparticles and microparticles in the gastrointestinal tract. Journal of autoimmunity, 34(3), J226-J233, 2010.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Heterostructural Covalent Polymer/Organic Framework Composites: Recent Advances and Applications</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Fatemeh</given_name><surname>Saravani</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Milad</given_name><surname>Ghani</surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>5</first_page><last_page>13</last_page></pages><doi_data><doi>10.66224/irdpt.48432.9.3.5</doi><resource>http://irdpt.ir/en/Article/48432</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48432</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48432</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1.	Ding S.Y., Gao J., Wang Q., Zhang Y., Song W. G., Su C. Y., Wang W., Construction of covalent organic framework for </unstructured_citation></citation><citation key="ref2"><unstructured_citation>catalysis: Pd/COF-LZU1 in Suzuki–Miyaura coupling reaction, Journal of the American Chemical Society, 133, 19816-19822, 2011.
2.	Geng K., He T., Liu R., Dalapati S., Tan K.T., Li Z., Jiang D., Covalent organic frameworks: design, synthesis, and functions, </unstructured_citation></citation><citation key="ref3"><unstructured_citation>Chemical reviews, 120, 8814-8933, 2020.
3.	Beagle L.K., Moore D.C., Kim G., Tran L.D., Miesle P., Nguyen C., Glavin N.R., Microwave facilitated covalent organic </unstructured_citation></citation><citation key="ref4"><unstructured_citation>framework/transition metal dichalcogenide heterostructures, ACS Applied Materials &amp; Interfaces, 14, 46876-46883, 2022.
4.	Zhang G., Hong Y.L., Nishiyama Y., Bai S., Kitagawa S., Horike S., Accumulation of glassy poly (ethylene oxide) anchored </unstructured_citation></citation><citation key="ref5"><unstructured_citation>in a covalent organic framework as a solid-state Li+ electrolyte, Journal of the American Chemical Society, 141, 1227-1234, 2018.
5.	Zhu C., Pang S., Chen Z., Bi L., Wang S., Liang C., Qin C., Synthesis of covalent organic frameworks (COFs)-nanocellulose </unstructured_citation></citation><citation key="ref6"><unstructured_citation>composite and its thermal degradation studied by TGA/FTIR, Polymers, 14, 3158, 2022.
6.	Xie Z., Wang B., Yang Z., Yang X., Yu X., Xing G., Chen L., Stable 2D heteroporous covalent organic frameworks for </unstructured_citation></citation><citation key="ref7"><unstructured_citation>efficient ionic conduction, Angewandte Chemie International Edition, 58, 15742-15746, 2019.
7.	Zhang G., Li X., Liao Q., Liu Y., Xi K., Huang W., Jia, X., Water-dispersible PEG-curcumin/amine-functionalized covalent </unstructured_citation></citation><citation key="ref8"><unstructured_citation>organic framework nanocomposites as smart carriers for in vivo drug delivery, Nature Communications, 9, 2785, 2018.
8.	Mulzer C.R., Shen L., Bisbey R.P., McKone J.R., Zhang N., Abruña H.D., Dichtel W.R., Superior charge storage and power </unstructured_citation></citation><citation key="ref9"><unstructured_citation>density of a conducting polymer-modified covalent organic framework. ACS central science, 2, 667-673, 2016.
9.	Yang J., Xie C., Yang Q., Wang S., Gao Y., Ji J., Sun D., PANa/Covalent organic framework composites with improved water </unstructured_citation></citation><citation key="ref10"><unstructured_citation>uptake and proton conductivity, Chemical Communications, 58, 1131-1134, 2022.
10.	Sun Q., Tang Y., Aguila B., Wang S., Xiao F.S., Thallapally P.K., Ma S., Reaction environment modification in covalent </unstructured_citation></citation><citation key="ref11"><unstructured_citation>organic frameworks for catalytic performance enhancement, Angewandte Chemie International Edition, 58, 8670-8675, 2019.
11.	Liu Y., Zhou W., Teo W.L., Wang K., Zhang L., Zeng Y., Zhao Y., Covalent-organic-framework-based composite materials, </unstructured_citation></citation><citation key="ref12"><unstructured_citation>Chem, 6, 3172-3202, 2020.
12.	Wang Y., Xie M., Lan J., Yuan L., Yu J., Li J., Shi W., Radiation controllable synthesis of robust covalent organic framework </unstructured_citation></citation><citation key="ref13"><unstructured_citation>conjugates for efficient dynamic column extraction of 99TcO4−, Chem, 6, 2796-2809, 2020.
13.	Liu S., Wang M., He Y., Cheng Q., Qian T., Yan C., Covalent organic frameworks towards photocatalytic applications: </unstructured_citation></citation><citation key="ref14"><unstructured_citation>Design principles, achievements, and opportunities, Coordination Chemistry Reviews, 475, 214882, 2023.
14.	Li J., Cheng Z., Wang Z., Dong J., Jiang H., Wang W., Zhu G., Ultramicroporous covalent organic framework nanosheets </unstructured_citation></citation><citation key="ref15"><unstructured_citation>with functionality pair for membrane C2H2/C2H4 separation, Angewandte Chemie, 135, e202216675, 2023.
15.	DeBlase C.R., Hernández-Burgos K., Silberstein K.E., Rodríguez-Calero G.G., Bisbey R.P., Abruña H.D., Dichtel W.R., Rapid </unstructured_citation></citation><citation key="ref16"><unstructured_citation>and efficient redox processes within 2D covalent organic framework thin films, ACS nano, 9, 3178-3183, 2015.
16.	Zheng L., Song Q., Tan P., Wang S.T., Liu X.Q., Sun, L.B., Endowing covalent organic frameworks with photoresponsive </unstructured_citation></citation><citation key="ref17"><unstructured_citation>active sites for controllable propylene adsorption, Small, 19, 2207291, 2023.
17.	Xie Y., Chen Y., Sun X., Wang Y., Wang Y., Conducting polymer engineered covalent organic framework as a novel </unstructured_citation></citation><citation key="ref18"><unstructured_citation>electrochemical amplifier for ultrasensitive detection of acetaminophen, Chinese Chemical Letters, 32, 2061-2065, 2021.
18.	You J., Yuan F., Cheng S., Kong Q., Jiang Y., Luo X., Zhang C., AIEgen-based Sp2 carbon-conjugated covalent organic frameworks with high stability and emission for activatable imaging and ferroptosis in target tumor cells, Chemistry of </unstructured_citation></citation><citation key="ref19"><unstructured_citation>Materials, 34, 7078-7089, 2022.
19.	Chen H., Gu Z.G., Zhang J., Chiral-induced ultrathin covalent organic frameworks nanosheets with tunable circularly </unstructured_citation></citation><citation key="ref20"><unstructured_citation>polarized luminescence, Journal of the American Chemical Society, 144, 7245-7252, 2022.
20.	Guo X., Mao T., Wang Z., Cheng P., Chen Y., Ma S., Zhang Z., Fabrication of photoresponsive crystalline artificial muscles </unstructured_citation></citation><citation key="ref21"><unstructured_citation>based on pegylated covalent organic framework membranes, ACS Central Science, 6, 787-794, 2020.
21.	Huang Y., Feng D., Li X., Li W., Ren J., Zhong H., Covalent organic frameworks assisted for food safety analysis, Critical </unstructured_citation></citation><citation key="ref22"><unstructured_citation>Reviews in Food Science and Nutrition, 1-20, 2023.
22.	Hu K., Wang Y., Wang G., Wu Y., He Q., Research progress of the combination of COFs materials with food safety </unstructured_citation></citation><citation key="ref23"><unstructured_citation>detection, Food Chemistry, 136801, 2023.
</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A review of the application of polymeric porous membranes as a solid substrate in microextraction processes</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Zahra</given_name><surname>Mansour Lakoraj</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Milad</given_name><surname>Ghani</surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>37</first_page><last_page>46</last_page></pages><doi_data><doi>10.66224/irdpt.48463.9.3.37</doi><resource>http://irdpt.ir/en/Article/48463</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48463</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48463</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation> Ulbricht M., Advanced functional polymer membranes, Polymer, 47, 2217-2262, 2006.
2. Almeida M.I.G., Cattrall R.W., Kolev S.D., Polymer inclusion membranes (PIMs) in chemical       analysis-A       review, </unstructured_citation></citation><citation key="ref2"><unstructured_citation>Analytica chimica acta, 987, 1-14, 2017.
3. Rabiee N., Sharma R., Foorginezhad S., Jouyandeh M., Asadnia M., Rabiee M., Saeb M.R., Green and sustainable </unstructured_citation></citation><citation key="ref3"><unstructured_citation>membranes: a review, Environmental Research, 231, 116133, 2023.
4. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>Ulbricht M., Membrane separations using molecularly imprinted polymers, Journal of chromatography B, 804, 113-125, 2004.
5. Valappil R.S.K., Ghasem N., Al-Marzouqi M., Current and future trends in polymer membrane-based gas separation </unstructured_citation></citation><citation key="ref5"><unstructured_citation>technology: A comprehensive review, Journal of Industrial and Engineering Chemistry, 98, 103-129, 2021.
6. Abdelrasoul A., Doan H., Lohi A., Cheng C.H., Morphology control of polysulfone membranes in filtration processes: a </unstructured_citation></citation><citation key="ref6"><unstructured_citation>critical review, ChemBioEng Reviews, 2, 22-43, 2015.
7. Tanis-Kanbur M.B., Peinador R.I., Calvo J.I., Hernández A., Chew, J.W., Porosimetric membrane characterization </unstructured_citation></citation><citation key="ref7"><unstructured_citation>techniques: A review, Journal of Membrane Science, 619, 118750, 2021.
8. Sheng Z., Zhang J., Liu J., Zhang Y., Chen X., Hou X., Liquid-based porous membranes, Chemical Society Reviews, 49, 7907-</unstructured_citation></citation><citation key="ref8"><unstructured_citation>7928, 2020.
9. Sajid M., Woźniak M.K., Płotka-Wasylka J., Ultrasound-assisted solvent extraction of porous membrane packed solid </unstructured_citation></citation><citation key="ref9"><unstructured_citation>samples: A new approach for extraction of target analytes from solid samples, Microchemical Journal, 144, 117-123, 2019.
10. Pendergast M.M., Hoek E.M., A review of water treatment membrane nanotechnologies, Energy &amp; Environmental Science, </unstructured_citation></citation><citation key="ref10"><unstructured_citation>4, 1946-1971, 2011.
11. Tan X., Rodrigue D., A review on porous polymeric membrane preparation. Part I: production techniques with polysulfone </unstructured_citation></citation><citation key="ref11"><unstructured_citation>and poly (vinylidene fluoride), Polymers, 11, 1160, 2019.
12. Artusio F., Castellví A., Sacristán A., Pisano R., Gavira J.A., Agarose gel as a medium for growing and tailoring protein </unstructured_citation></citation><citation key="ref12"><unstructured_citation>crystals, Crystal Growth &amp; Design, 20, 5564-5571, 2020.
13. Tabani H., Alexovič M., Sabo J., Payán M.R., An overview on the recent applications of agarose as a green biopolymer in </unstructured_citation></citation><citation key="ref13"><unstructured_citation>micro-extraction-based sample preparation techniques, Talanta, 224, 121892, 2021.
14. Yadav P., Ismail N., Essalhi M., Tysklind M., Athanassiadis D., Tavajohi N., Assessment of the environmental impact of </unstructured_citation></citation><citation key="ref14"><unstructured_citation>polymeric membrane production, Journal of Membrane Science, 622, 118987, 2021.
15. Huijbregts M.A., Steinmann Z.J., Elshout P.M., Stam G., Verones F., Vieira M., Van Zelm R., ReCiPe2016: a harmonised life cycle impact assessment method at midpoint and endpoint level, The International Journal of Life Cycle Assessment, 22, 138-</unstructured_citation></citation><citation key="ref15"><unstructured_citation>147, 2017.
16. Prosen H., Applications of hollow-fiber and related microextraction techniques for the determination of pesticides in </unstructured_citation></citation><citation key="ref16"><unstructured_citation>environmental and food samples—a mini review, Separations, 6, 57, 2019.
17. Tajik M., Yamini Y., Esrafili A., Ebrahimpour B., Automated hollow fiber microextraction based on two immiscible organic </unstructured_citation></citation><citation key="ref17"><unstructured_citation>solvents for the extraction of two hormonal drugs, Journal of Pharmaceutical and Biomedical Analysis, 107, 24-31, 2015.
18. Chaikhan P., Udnan Y., Ampiah-Bonney R.J., Chaiyasith, W.C., Deep eutectic solvent-based electromembrane hollow fiber liquid phase microextraction for determining Pb in water and food samples, Journal of Food Composition and Analysis, 118, </unstructured_citation></citation><citation key="ref18"><unstructured_citation>105214, 2023.
19. Gjelstad A., Jensen H., Rasmussen K.E., Pedersen-Bjergaard S., Kinetic aspects of hollow fiber liquid-phase </unstructured_citation></citation><citation key="ref19"><unstructured_citation>microextraction and electromembrane extraction, Analytica Chimica Acta, 742, 10-16, 2012.
20. Vakh C., Likanov G., Bulatov A., Stir flat sheet membrane liquid phase microextraction for the selective </unstructured_citation></citation><citation key="ref20"><unstructured_citation>chemiluminescence determination of ofloxacin and fleroxacin in human urine, Microchemical Journal, 163, 105913, 2021.
 21. Shishov A., Terno P., Besedovsky M., Bulatov A., Stir membrane liquid-phase microextraction based on milk fats </unstructured_citation></citation><citation key="ref21"><unstructured_citation>hydrolysis and deep eutectic solvent formation: determination of bisphenols, Food Chemistry, 403, 134408, 2023.
22. Sánchez-González J., Tabernero M.J., Bermejo A.M., Bermejo-Barrera P., Moreda-Piñeiro A., Porous membrane-protected molecularly imprinted polymer micro-solid-phase extraction for analysis of urinary cocaine and its metabolites using liquid </unstructured_citation></citation><citation key="ref22"><unstructured_citation>chromatography–Tandem mass spectrometry, Analytica Chimica Acta, 898, 50-59, 2015.
23. Sajid M., Basheer C., Mansha M., Membrane protected micro-solid-phase extraction of organochlorine pesticides in milk </unstructured_citation></citation><citation key="ref23"><unstructured_citation>samples using zinc oxide incorporated carbon foam as sorbent, Journal of Chromatography A, 1475, 110-115, 2016.
24. Tan F., Deng M., Liu X., Zhao H., Li X., Quan X., Chen J., Evaluation of a novel microextraction technique for aqueous samples: porous membrane envelope filled with multiwalled carbon nanotubes coated with molecularly imprinted polymer, </unstructured_citation></citation><citation key="ref24"><unstructured_citation>Journal of separation science, 34, 707-715, 2011.
25. Mao X., He M., Chen B., Hu B., Membrane protected C18 coated stir bar sorptive extraction combined with high performance liquid chromatography-ultraviolet detection for the determination of non-steroidal anti-inflammatory drugs in </unstructured_citation></citation><citation key="ref25"><unstructured_citation>water samples, Journal of Chromatography A, 1472, 27-34, 2016.
</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A review of the physical mixing method to prevent fouling in polymer membranes</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Amir </given_name><surname>Kholghi</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Morteza</given_name><surname>Nasiri</surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>27</first_page><last_page>36</last_page></pages><doi_data><doi>10.66224/irdpt.48518.9.3.27</doi><resource>http://irdpt.ir/en/Article/48518</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48518</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48518</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Baker, R. Membrane Technology and Applications, 2nd ed.; John Wiley &amp; Sons, Ltd.: Hoboken, NJ, USA, 2004.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2. Ezugbe, E.O.; Rathilal, S. Membrane Technologies in Wastewater Treatment: A Review. Membranes, 10, 89,2020.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3. Zhang, R.; Liu, Y.; He, M.; Su, Y.; Zhao, X.; limelech, M.; Jiang, Z. Antifouling membranes for sustainable water purification: Strategies and mechanisms. Chem. Soc. Rev., 45, 5888–5924,2016.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4. Li, Chengcai, et al. "Graphene oxide incorporated thin film nanocomposite nanofiltration membrane to enhance permeation and antifouling properties." Desalination and Water Treatment 317، 2024.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Desiriani, Ria, et al. "Preparation of polyethersulfone ultrafiltration membrane coated natural additives toward antifouling
 and antimicrobial agents for surface water filtration." Journal of Environmental Chemical Engineering, 12, 111797, 2024.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6. Yuan, X.S.; Liu, W.; Zhu, W.Y.; Zhu, X.X. Enhancement in Flux and Antifouling Properties of Polyvinylidene Fluoride/Polycarbonate Blend Membranes for Water Environmental Improvement. ACS Omega, 5, 30201–30209,2020.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. Mu, Y.; Feng, H.; Wang, S.; Zhang, S.; Luan, J.; Zhang, M.; Yu, Z.; Wang, G. Combined strategy of blending and surface modification as an effective route to prepare antifouling ultrafiltration membranes.J. Colloid Interface Sci., 589, 1–12, 2021.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8. Li, X.; Cao, Y.; Kang, G.; Yu, H.; Jie, X.; Yuan, Q. Surface modification of polyamide nanofiltration membrane by grafting zwitterionic polymers to improve the antifouling property. J. Appl. Polym. Sci., 131, 1–9, 2014.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9. Danner, Joseph T., et al. "2-Methylpyrazine: A Greener Solvent for Nonsolvent Induced Phase Separation (NIPS) Membrane Fabrication." Industrial &amp; Engineering Chemistry Research (2024).</unstructured_citation></citation><citation key="ref10"><unstructured_citation>
10. Li K, Krantz W, Greenberg A, Sani R, Membrane formation via thermally induced phase separation (TIPS): model development and validation. J Membr Sci 279:50–60, 2006.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11. GHASEMI, S.M; KHOLGHI, A. Porous films prepared from poly (styrene-co-acrylonitrile)/dichloromethane system via evaporation induced phase separation: Structure-thermodynamic aspects. Progress in Organic Coatings, 168: 106885, 2022.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12. Venault A, Chang Y, Wang D-M, Bouyer D A review on polymeric membranes and hydrogels prepared by vapor induced phase separation process. Polym Rev 53(4):568–626, 2013.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>
13. Figoli A, Marino T, Galiano F In: Figoli A, Cassano A, Basile A (eds) Membrane technologies for biorefining. Woodhead Publishing, Cambridge, pp 29–59, 2016.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>
14. Padaki M, Surya Murali R, Abdullah MS, Misdan N, Moslehyani A, Kassim MA, Hilal N, Ismail AF Membrane technology enhancement in oil–water separation. A review. Desalination,357:197–207, 2015.  </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
15. Koros WJ, Ma YH, Shimidzu T Terminology for membranes and membrane processes (IUPAC Recommendations1996). Pure Appl Chem, 1996.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>
16. Saleh TA, Gupta VK Membrane fouling and strategies for cleaning and fouling control. In: Saleh TA, Gupta VK (eds) Nanomaterial and polymer membranes. Elsevier, Amsterdam, pp 25–53, 2016.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>
17. Alvarado C, Farris K, Kilduff J Membrane fouling, modelling and recent developments for mitigation. In: Hankins NP, Singh R (eds) Emerging membrane technology for sustainable water treatment. Elsevier, Amsterdam, pp 433–462, 2016.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>
18. Guo W, Ngo H-H, Li J A mini-review on membrane fouling. Biores Technol 122:27–34, 2012.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>
19. Iritani E A review on modeling of pore-blocking behaviors of membranes during pressurized membrane filtration, Drying Technol 31(2):146–162, 2013.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>
20. Castro-Muñoz R, Boczkaj G, Gontarek E, Cassano A, Fíla V Membrane technologies assisting plant-based and agrofood by-products processing: a comprehensive review. Trends Food Sci Technol 95:219–232, 2020.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>
21. Cassano A, Conidi C, Ruby-Figueroa R, Castro-Muñoz R Nanofiltration and tight ultrafiltration membranes for the recovery of polyphenols from agro-food by-products. Int J Mol Sci, 2018.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>
22. Pichardo-Romero DG-A, Garcia-Arce ZP, Zavala-Ramírez A, Castro-Muñoz R Current advances in biofouling mitigation in membranes for water treatment: an overview. Processes8:182, 2020.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>
23. Wu, Zixuan, et al. "Nanocelluloses fine-tuned polyvinylidene fluoride (PVDF) membrane for enhanced separation and antifouling." Carbohydrate Polymers 323, 121383, 2024.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>
24. Febriasari, A., Huriya, Ananto, A. H., Suhartini, M., &amp; Kartohardjono, S., Polysulfone–polyvinyl pyrrolidone blend polymer composite membranes for batik industrial wastewater treatment. Membranes, 11(1), 66, 2021.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>
25. Wen, Xin, et al. "Fabrication of an antifouling PES ultrafiltration membrane via blending SPSF." RSC advances 12.3، 1460-1470, 2022.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>
26. Khan, Raja Muhammad Asif, et al. "Ultrafiltration polyanionic poly (3‐sulfopropyl methacrylate) membranes with enhanced antifouling and water flux." Polymers for Advanced Technologies 35, e6350, 2024.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>
27. Yong, Ming, et al. "Properties of polyvinyl chloride (PVC) ultrafiltration membrane improved by lignin: Hydrophilicity and antifouling." Journal of membrane science 575،50-59, 2019.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>
28. Khosroshahi, M. Monsefi, et al. "Novel polyvinyl chloride ultrafiltration membranes blended with amphiphilic polyethylene glycol-block-poly (1, 2-dichloroethylene) copolymer for oily wastewater treatment." Journal of Water Process Engineering 56, 104433, 2023.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>
 
</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Investigating the Mechanical and Thermal Properties of Epoxy  Nanocomposites Containing Mxene Nanoparticles</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>Omid</given_name><surname>Moeini Jazni </surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>47</first_page><last_page>57</last_page></pages><doi_data><doi>10.66224/irdpt.48560.9.3.47</doi><resource>http://irdpt.ir/en/Article/48560</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48560</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48560</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Blanco, I. and Oliveri, L., Effects of Novel Reactive Toughening Agent on Thermal Stability of Epoxy Resin, J. Therm. Anal. Calorim., 108, 685–693, 2012. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Capricho, J.C. and Fox, B., Multifunctionality in Epoxy Resins, Polym. Rev., 60, 1–41, 2020. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Jin, F.L. and Li, X., Synthesis and Application of Epoxy Resins: A Review, J. Ind. Eng. Chem., 29, 1–11, 2015. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Taloub, N. and Henniche, A., Improving the Mechanical Properties, UV and Hydrothermal Aging Resistance of PIPD Fiber Using MXene (Ti3C2(OH)2) Nanosheets, Compos. Part B: Eng., 163, 260–271, 2019. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Wazalwar, R. and Sahu, M., Mechanical Properties of Aerospace Epoxy Composites Reinforced with 2D Nano-Fillers: Current Status and Road to Industrialization, Nanoscale Adv., 3, 2741–2776, 2021. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Govindaraj, P. and Sokolova, A., Distribution States of Graphene in Polymer Nanocomposites: A Review, Compos. Part B: Eng., 226, 109353, 2021. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Rasul, M.G. and Kiziltas, A., 2D Boron Nitride Nanosheets for Polymer Composite Materials, npj 2d Mater. Appl., 5, 56, 2021. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Huo, S. and Song, P., Phosphorus-Containing Flame Retardant Epoxy Thermosets: Recent Advances and Future Perspectives, Prog. Polym. Sci., 114, 101366, 2021. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Naguib, M. and Kurtoglu, M., Two-Dimensional Nanocrystals Produced by Exfoliation of Ti3AlC2, Adv. Mater., 23, 4248–4253, 2011.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Naguib, M. and Barsoum, M.W., Ten Years of Progress in the Synthesis and Development of MXenes, Adv. Mater., 33, 2103393, 2021. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Sun, S. and Liao, C., Two-Dimensional MXenes for Energy Storage, Chem. Eng. J., 338, 27–45, 2018. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Sun, Y. and Li, Y., Potential Environmental Applications of MXenes: A Critical Review, Chemosphere, 271, 129578, 2021. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Song, P. and Liu, B., MXenes for Polymer Matrix Electromagnetic Interference Shielding Composites: A Review, Compos. Commun., 24, 100653, 2021. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Naguib, M. and Mochalin, V.N., 25th Anniversary Article: MXenes: A New Family of Two-Dimensional Materials, Adv. Mater., 26, 992–1005, 2014.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Naguib, M. and Mashtalir, O., Two-Dimensional Transition Metal Carbides, ACS Nano, 6, 1322–1331, 2012. 16. Dong, M. and Zhang, H., Multifunctional Epoxy Nanocomposites Reinforced by Two-Dimensional Materials: A Review, Carbon, 185, 57–81, 2021. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>17. Yuan, S. and Linas, S., Pure &amp; Crystallized 2D Boron Nitride Sheets Synthesized via a Novel Process Coupling Both PDCs and SPS Methods, Sci. Rep., 6, 20388, 2016. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>18. Krishnan, U. and Kaur, M., A Synoptic Review of MoS2: Synthesis to Applications, Superlattices Microstruct., 128, 274–297, 2019. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>19. Verger, L. and Xu, C., Overview of the Synthesis of MXenes and Other Ultrathin 2D Transition Metal Carbides and Nitrides, Curr. Opin. Solid State Mater. Sci., 23, 149–163, 2019. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>20. Shekhirev, M. and Shuck, C.E., Characterization of MXenes at Every Step, from Their Precursors to Single Flakes and Assembled Films, Prog. Mater. Sci., 120, 100757, 2021. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>21. Meshkian, R. and Näslund, L.-Å., Synthesis of Two-Dimensional Molybdenum Carbide, Mo2C, from the Gallium Based Atomic Laminate Mo2Ga2C, Scr. Mater., 108, 147–150, 2015. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>22. Yang, S. and Zhang, P., Fluoride-Free Synthesis of Two-Dimensional Titanium Carbide (MXene) Using A Binary Aqueous System, Angew. Chem., 130, 15717–15721, 2018.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>23. Zhou, J. and Zha, X., A Two-Dimensional Zirconium Carbide by Selective Etching of Al3C3 from Nanolaminated Zr3Al3C5, Angew. Chem. Int. Ed., 55, 5008–5013, 2016. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>24. Sun, W. and Shah, S.A., Electrochemical Etching of Ti2AlC to Ti2CTx (MXene) in Low-Concentration Hydrochloric Acid Solution, J. Mater. Chem. A, 5, 21663–21668, 2017.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>25. Wang, L. and Chen, L., Fabrication on the Annealed Ti3C2Tx MXene/Epoxy Nanocomposites for Electromagnetic Interference Shielding Application, Compos. Part B: Eng., 171, 111–118, 2019. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>26. Mashtalir, O. and Naguib, M., Intercalation and Delamination of Layered Carbides and Carbonitrides, Nat. Commun., 4, 1716, 2013. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>27. Lv, G. and Wang, J., Intercalation and Delamination of Two-Dimensional MXene (Ti3C2Tx) and Application in Sodium-Ion Batteries, Mater. Lett., 219, 45–50, 2018. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>28. Kang, R. and Zhang, Z., Enhanced Thermal Conductivity of Epoxy Composites Filled with 2D Transition Metal Carbides (MXenes) with Ultralow Loading, Sci. Rep., 9, 9135, 2019.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>29. Liu, L. and Ying, G., Functionalization with MXene (Ti3C2) Enhances the Wettability and Shear Strength of Carbon Fiber-Epoxy Composites, ACS Appl. Nano Mater., 2, 5553–5562, 2019. </unstructured_citation></citation><citation key="ref29"><unstructured_citation>30. Seyedin, S. and Zhang, J., Facile Solution Processing of Stable MXene Dispersions towards Conductive Composite Fibers, Glob. Chall., 3, 1900037, 2019. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>31. Szeluga, U. and Pusz, S., Effect of Graphene Filler Structure on Electrical, Thermal, Mechanical, and Fire Retardant Properties of Epoxy-Graphene Nanocomposites—A Review, Crit. Rev. Solid State Mater. Sci., 46, 152–187, 2021. </unstructured_citation></citation><citation key="ref31"><unstructured_citation>32. Ji, Z.J. and Zhang, L., Mechanical and tribological properties of nanocomposites incorporated with two-dimensional materials, Friction, 8, 813–846, 2020.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>33. Zhang, H. and Wang, L., Effects of 2-D Transition Metal Carbide Ti2CT:X on Properties of Epoxy Composites, RSC Adv., 6, 87341–87352, 2016. </unstructured_citation></citation><citation key="ref33"><unstructured_citation>34. Carey, M.S. and Sokol, M., Water Transport and Thermomechanical Properties of Ti3C2T z MXene Epoxy Nanocomposites, ACS Appl. Mater. Interfaces, 11, 39143–39149, 2019. </unstructured_citation></citation><citation key="ref34"><unstructured_citation>35. Hatter, C.B. and Shah, J., Micromechanical Response of Two-Dimensional Transition Metal Carbonitride (MXene) Reinforced Epoxy Composites, Compos. Part B Eng., 182, 107603, 2020. </unstructured_citation></citation><citation key="ref35"><unstructured_citation>36. Feng, A. and Hou, T., Preparation and Characterization of Epoxy Resin Filled with Ti3C2Tx MXene Nanosheets with Excellent Electric Conductivity, Nanomaterials, 10, 162, 2020. </unstructured_citation></citation><citation key="ref36"><unstructured_citation>37. Liu, L. and Ying, G., Aqueous Solution-Processed MXene (Ti3C2Tx) for Non-Hydrophilic Epoxy Resin-Based Composites with Enhanced Mechanical and Physical Properties, Mater. Des., 197, 109276, 2021. </unstructured_citation></citation><citation key="ref37"><unstructured_citation>38. Liu, L. and Ying, G., Attapulgite–Mxene Hybrids with Ti3c2tx Lamellae Surface Modified by Attapulgite as a Mechanical Reinforcement for Epoxy Composites, Polymers, 13, 1820, 2021. </unstructured_citation></citation><citation key="ref38"><unstructured_citation>39. Zhao, X. and Qi, S., Preparation and Mechanical Performances of Carbon Fiber Reinforced Epoxy Composites by Mxene Nanosheets Coating, J. Mater. Sci. Mater. Electron., 30, 10516–10523, 2019. </unstructured_citation></citation><citation key="ref39"><unstructured_citation>40. Ding, R. and Sun, Y., Enhancing Interfacial Properties of Carbon Fiber Reinforced Epoxy Composites by Grafting MXene Sheets (Ti2C), Compos. Part B: Eng., 207, 108580, 2021. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A review on the self-healing  polyurethanes based on dynamic physical and chemical bonds</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Mahmoud</given_name><surname>Heydari</surname></person_name></contributors><publication_date media_type="online"><month>1</month><day>1</day><year>2025</year></publication_date><pages><first_page>59</first_page><last_page>72</last_page></pages><doi_data><doi>10.66224/irdpt.48875.9.3.59</doi><resource>http://irdpt.ir/en/Article/48875</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item><item crawler="google"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item><item crawler="msn"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item><item crawler="altavista"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item><item crawler="scirus"><resource>http://irdpt.ir/en/Article/Download/48875</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/en/Article/Download/48875</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Akindoyo J.Beg M.Ghazali S.Islam M.Jeyaratnam N.,Yuvaraj A., Polyurethane Types, Synthesis and Applications–a Review. Rsc Adv 6: 114453–114482. 2016.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Jiang R.Zheng X.Zhu S.Li W.Zhang H.Liu Z.,Zhou X., Recent Advances in Functional Polyurethane Chemistry: From Structural Design to Applications, ChemistrySelect, 8(11), e202204132, 2023.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Ke R.Lin Z.Zhang H.,Zhou S. Research Progress in Intrinsic Self-Healing Polyurethane Materials Based on Dynamic Reversible Non-Covalent Bonds. in Journal of Physics: Conference Series. 2022. IOP Publishing.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Willocq B.Odent J.Dubois P.,Raquez J.-M., Advances in Intrinsic Self-Healing Polyurethanes and Related Composites, RSC advances, 10(23), 13766-13782, 2020.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Dhas A.M.Ghosh K.,Banerjee S., Self‐Healing of Htpb Based Polyurethane Binder Via Ring Opening Metathesis Polymerization, Propellants, Explosives, Pyrotechnics, 47(10), e202100383, 2022.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Li Y.Jin Y.Fan W.,Zhou R., A Review on Room-Temperature Self-Healing Polyurethane: Synthesis, Self-Healing Mechanism and Application, Journal of Leather Science and Engineering, 4(1), 24, 2022.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Otsuka H.J.P.J., Reorganization of Polymer Structures Based on Dynamic Covalent Chemistry: Polymer Reactions by Dynamic Covalent Exchanges of Alkoxyamine Units, 45(9), 879-891, 2013.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Kim S.M., et al., Superior Toughness and Fast Self‐Healing at Room Temperature Engineered by Transparent Elastomers, Advanced Materials, 30(1), 1705145, 2018.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Ciaccia M. ,Di Stefano S., Mechanisms of Imine Exchange Reactions in Organic Solvents, Organic &amp; biomolecular chemistry, 13(3), 646-654, 2015.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Fan W.Jin Y.Shi L.Zhou R.,Du W., Developing Visible-Light-Induced Dynamic Aromatic Schiff Base Bonds for Room-Temperature Self-Healable and Reprocessable Waterborne Polyurethanes with High Mechanical Properties, Journal of materials chemistry A, 8(14), 6757-6767, 2020.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Li X., et al., Water-Stable Boroxine Structure with Dynamic Covalent Bonds, 15(1), 1207, 2024.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Guo Z., et al., Room-Temperature Healable, Recyclable and Mechanically Super-Strong Poly (Urea-Urethane) S Cross-Linked with Nitrogen-Coordinated Boroxines, Journal of Materials Chemistry A, 9(17), 11025-11032, 2021.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Xie Z.Hu B.-L.Li R.-W.,Zhang Q., Hydrogen Bonding in Self-Healing Elastomers, ACS omega, 6(14), 9319-9333, 2021.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Yanagisawa Y.Nan Y.Okuro K.,Aida T., Mechanically Robust, Readily Repairable Polymers Via Tailored Noncovalent Cross-Linking, Science, 359(6371), 72-76, 2018.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Wang D.Xu J.Chen J.Hu P.Wang Y.Jiang W.,Fu J., Transparent, Mechanically Strong, Extremely Tough, Self‐Recoverable, Healable Supramolecular Elastomers Facilely Fabricated Via Dynamic Hard Domains Design for Multifunctional Applications, Advanced Functional Materials, 30(3), 1907109, 2020.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Yan X., et al., Quadruple H-Bonding Cross-Linked Supramolecular Polymeric Materials as Substrates for Stretchable, Antitearing, and Self-Healable Thin Film Electrodes, Journal of the American Chemical Society, 140(15), 5280-5289, 2018.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Pan Y.Hu J.Yang Z.,Tan L., From Fragile Plastic to Room-Temperature Self-Healing Elastomer: Tuning Quadruple Hydrogen Bonding Interaction through One-Pot Synthesis, ACS Applied Polymer Materials, 1(3), 425-436, 2019.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Daemi H.Rajabi-Zeleti S.Sardon H.Barikani M.Khademhosseini A.,Baharvand H., A Robust Super-Tough Biodegradable Elastomer Engineered by Supramolecular Ionic Interactions, Biomaterials, 84, 54-63, 2016.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Jing T.Heng X.Guifeng X.Ling C.Pingyun L.,Xiaode G., Highly Stretchable, High Efficiency Room Temperature Self-Healing Polyurethane Adhesive Based on Hydrogen Bonds–Applicable to Solid Rocket Propellants, Polymer Chemistry, 12(31), 4532-4545, 2021.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20. Gai G.Liu L.Li C.H.Bose R.K.Li D.Guo N.,Kong B., A Tough Metal‐Coordinated Elastomer: A Fatigue‐Resistant, Notch‐Insensitive Material with an Excellent Self‐Healing Capacity, ChemPlusChem, 84(4), 432-440, 2019.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Jing T.Heng X.Guifeng X.Li L.Li P.,Guo X., Rapid Self-Healing and Tough Polyurethane Based on the Synergy of Multi-Level Hydrogen and Disulfide Bonds for Healing Propellant Microcracks, Materials Chemistry Frontiers, 6(9), 1161-1171, 2022.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>22. Jing T.Heng X.Jingqing T.Haozhe L.Li L.Pingyun L.,Xiaode G., Construction of a Strong, Fast Self-Healing Adhesive for Propellants Based on the Synergy of Weak Hydrogen Bond Array Reorganization and Disulfide Exchange Reactions, Polymer, 265, 125590, 2023.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. Jian X.Hu Y.Zhou W.,Xiao L., Self‐Healing Polyurethane Based on Disulfide Bond and Hydrogen Bond, Polymers for Advanced Technologies, 29(1), 463-469, 2018.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>24. Chen J., et al., Phase-Locked Constructing Dynamic Supramolecular Ionic Conductive Elastomers with Superior Toughness, Autonomous Self-Healing and Recyclability, Nature Communications, 13(1), 4868, 2022.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>25. Guo H.Han Y.Zhao W.Yang J.,Zhang L., Universally Autonomous Self-Healing Elastomer with High Stretchability, Nature communications, 11(1), 2037, 2020.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>26. Cai Y., et al., A Room Temperature Self-Healing and Thermally Reprocessable Cross-Linked Elastomer with Unprecedented Mechanical Properties for Ablation-Resistant Applications, Chemical Engineering Journal, 436, 135156, 2022.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>27. Khatib M.Zohar O.Saliba W.Srebnik S.,Haick H., Highly Efficient and Water‐Insensitive Self‐Healing Elastomer for Wet and Underwater Electronics, Advanced Functional Materials, 30(22), 1910196, 2020.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28. Dong F., et al., Self-Healing Polyurethane with High Strength and Toughness Based on a Dynamic Chemical Strategy, Journal of Materials Chemistry A, 10(18), 10139-10149, 2022.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>29. Xie H., et al., Novel Titin-Inspired High-Performance Polyurethanes with Self-Healing and Recyclable Capacities Based on Dual Dynamic Network, Polymer, 230, 124096, 2021.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>30. Dai X.Huang L.B.Du Y.Han J.Zheng Q.Kong J.,Hao J., Self‐Healing, Flexible, and Tailorable Triboelectric Nanogenerators for Self‐Powered Sensors Based on Thermal Effect of Infrared Radiation, Advanced Functional Materials, 30(16), 1910723, 2020.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>31. Wang M.Zhou J.Jiang X.Sheng Y.Xu M.,Lu X., Preparation of Mechanically Robust and Autonomous Self-Healable Elastomer Based on Multiple Dynamic Interactions, European Polymer Journal, 146, 110257, 2021.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>32. Lin C., et al., Coordination Bonds and Diels–Alder Bonds Dual Crosslinked Polymer Networks of Self‐Healing Polyurethane, Journal of Polymer Science Part A: Polymer Chemistry, 57(22), 2228-2234, 2019.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>33. Peng W.L.Zhang Z.P.Rong M.Z.,Zhang M.Q., Reversibly Interlocked Macromolecule Networks with Enhanced Mechanical Properties and Wide Ph Range of Underwater Self-Healability, ACS applied materials &amp; interfaces, 12(24), 27614-27624, 2020.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>34. Xia N.N.Rong M.Z.,Zhang M.Q., Stabilization of Catechol–Boronic Ester Bonds for Underwater Self-Healing and Recycling of Lipophilic Bulk Polymer in Wider Ph Range, Journal of Materials Chemistry A, 4(37), 14122-14131, 2016.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35. Zhang L., et al., A Highly Efficient Self‐Healing Elastomer with Unprecedented Mechanical Properties, Advanced Materials, 31(23), 1901402, 2019.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>36. Heo Y. ,Sodano H.a.J.a.F.M., Self‐Healing Polyurethanes with Shape Recovery, 24(33), 5261-5268, 2014.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>37. Hornat C.C.Yang Y.,Urban M.W.J.a.M., Quantitative Predictions of Shape‐Memory Effects in Polymers, 29(7), 1603334, 2017.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>38. Xu Y. ,Chen D., Shape Memory-Assisted Self-Healing Polyurethane Inspired by a Suture Technique, Journal of Materials Science, 53, 10582-10592, 2018.</unstructured_citation></citation></citation_list></journal_article></journal></body></doi_batch>