﻿<?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>14050229195751</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>12</month><day>16</day><year>2020</year></publication_date><journal_volume><volume>5</volume></journal_volume><issue>3</issue></journal_issue><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Zohre</given_name><surname>Taherkhani</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>5</first_page><last_page>15</last_page></pages><doi_data><doi>10.66224/irdpt.27700.5.3.5</doi><resource>http://irdpt.ir/fa/Article/27700</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27700</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27700</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Shit S.C., Shah P., A Review on Silicone Rubber, Natural Academic Science Letter, 36, 355–365, 2013. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2. Tan X.M., Rodrigue D., A Review on Porous Polymeric Membrane Preparation. Part II: Production Techniques with Polyethylene, Polydimethylsiloxane, Polypropylene, Polyimide, and Polytetrafluoroethylene, Polymers, 11, 1310, 2019. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3. Liravi F., Toyserkani E., Additive Manufacturing of Silicone Structures: A Review and Prospective, Additive Manufacturing, 24, 232-242, 2018. </unstructured_citation></citation><citation key="ref4"><unstructured_citation> 
4. Noll W., Chemistry and Technology of Silicones, Academic Press, New York, 1968. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Yampolskii, Y., Finkelshtein, E., Membrane Materials for Gas and Vapor Separation: Synthesis and Application of Silicon‐Containing Polymers, John Wiley &amp;amp; Sons Ltd, USA, 2017. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6. Hiyama T., Oestreich M., Organosilicon Chemistry: Novel Approaches and Reactions, John Wiley &amp;amp; Sons, Germany, 2020. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. Jerome R., Henrioulle-Granville M., Robin J. J., Telechelic polymers: Synthesis, Characterization and Applications, Progress in Polymer Science, 16, 837-906, 1991. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8. Semsarzadeh M.A., Abdollahi M., Atom Transfer Radical Polymerization of Styrene and Methyl (Meth)Acrylates Initiated with Poly(Dimethylsiloxane) Macroinitiator: Synthesis and Characterization of Triblock Copolymers, Journal of Applied Polymer Science, 123, 2423–2430, 2012. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9. Limer A., Haddleton D.M., Amide Functional Initiators for Transition-Metal-Mediated Living Radical Polymerization, Macromolecules, 39, 1353-1358, 2006. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>
10. Peng H., Cheng S., Fen L., Fan Z., Synthesis of Block Copolymers from PDMS Macroinitiators, Polymer International, 53, 833-837, 2004. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11. Hec., Li z., Silicon Containing Hybrid Copolymers, Wiley‐VCH Verlag GmbH &amp;amp; Co. KGaA, Germany, 2020. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12. Neelova O.V., Panova T.A.,  Gazzaeva R. A.,  Koblova L.B., An Organosilicon Composition for Protection of Active Components of Electronic Products, Polymer Science, Series D, 12,  345–350, 2019. </unstructured_citation></citation><citation key="ref13"><unstructured_citation> 
13. Fu S., Zhu M., Zhu Y., Organosilicon Polymer-Derived Ceramics: An Overview, Journal of Advanced Ceramics, 8, 457–478, 2019. </unstructured_citation></citation><citation key="ref14"><unstructured_citation> 
14. Giuseppina M., Alberto B., Guerra D., Belcari N., Medical Applications of Silicon Photomultipliers, Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment,  926, 118-128, 2019. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
15. Robb W.L., Thin Silicone Membranes-Their Permeation Properties and Some Applications, Annals of the New York Academy of Sciences, 146, 119-137, 1968. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>
16. Merkel T.C., Bondar V.I., Nagai K., Freeman B.D., Pinnau I., Gas Sorption, Diffusion, and Permeation in Poly(Dimethylsiloxane), Journal of Polymer Science: Part B: Polymer Physics, 38, 415-434, 2000. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>
17. Ghadimi A., Sadrzadeh M., Shahidi K., Mohammadi T., Ternary Gas Permeation Through a Synthesized PDMS Membrane: Experimental and Modeling, Journal of Membrane Science, 344, 225–236, 2009. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
18. Ren L., Liu J., Synthesis and Gas Transport Properties of Polyamide Membranes Containing PDMS Groups, RSC Advances, 9, 9737-9744, 2019. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>
19. Park H.B., Kim J.K., Nam S.Y., Imide-Siloxane Block Copolymer/Silica Hybrid Membranes: Preparation, Characterization and Gas Separation Properties, Journal of Membrane Science, 220, 59-73, 2003. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>
20. Park H.B., Kim C.K., Lee Y.M., Gas Separation Properties of Polysiloxane /Polyether Mixed Soft Segment Urethane Urea Membranes, Journal of Membrane Science, 204, 257-269, 2002. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>
21. Vakili E., Semsarzadeh M.A., Ghalei1 B., Khoshbin M., Nasiri H., Characterization and Gas Permeation Properties of Synthesized Polyurethane-Polydimethylsiloxane / Polyamide 12-b-Polytetramethylene Glycol Blend Membranes, Silicon, 8, 75–85, 2016. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>
22. Madhavan K., Reddy B., Poly(dimethylsiloxane-urethane) Membranes: Effect of Hard Segment in Urethane on Gas Transport Properties, Journal of Membrane Science, 283, 357–365, 2006. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>
23. Kim H.J., Jeong Y.S. Lee Y.S., Membranes Composed of Carboxylated Poly (vinylchloride) and Poly(dimethylsiloxane)-graft-polystyrene: Preparation and Gas Permeability, Journal of Industrial and Engineering Chemistry, 5, 69-73, 1999. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>
24. Mirzaee H., Mirzaee F., Modeling and Simulation Gas Separation by Membrane of Poly Dimethyl Siloxane, Journal of King Saud University-Engineering Sciences, 24, 35–43, 2012. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>mitra</given_name><surname>tavakoli</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>17</first_page><last_page>29</last_page></pages><doi_data><doi>10.66224/irdpt.27701.5.3.17</doi><resource>http://irdpt.ir/fa/Article/27701</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27701</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27701</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Gesser H. D.,  Goswami P. C., “Aerogels and Related Porous Materials” Chemical Reviews, 89, 765-788, 1989. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>

2. Pajonk G.M.,“Catalytic aerogels” Catalysis Today, 35, 319-337, 1997. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>

3. Husing N., Schubert U., “Aerogels-Airy Materials: Chemistry, Structure, and Properties” Anorganic Chemistry, 37 , 22-45, 1998. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>

4. Lue G.Q., Zhao  X.S., “Nanoporus Materiallsscience and Engineering” Imperial College Press, United Kingdom, 2004. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Ma H. S., Roberts A.P., Prevost J.-H., JullienR., Scherer G.W., “Mechanical Structure, Property Relationship of Aerogels” Non Crystalline Solids, 277, 127-141, 2000. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6.Soleimani Dorcheh A.,Abbasi M.H., “Silica aerogel; Synthesis, Properties and Characterization” Material Processing Technology, 199, 10-26, 2007. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. Jaxel J., Markevicius G., Rigacci A., Budtova T., “Thermal Superinsulating Silica Aerogels Reinforced with Short Man-made Cellulose Fibers” Composites: Part A, 103, 113-121, 2017. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>

8. Matsuda H., Kobayashi N., Kobayashi T., Miyazawa K., Kuwabara M., “Room Temperature Synthesis of Crystalline Barium Titanate Thin Films by High-concentration Sol-gel Method” Non-Crystalline Solids, 271, 162-166, 2000. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>

9. Gurav J.L., Jung I.K., Park H.H., Kang E.S.,Nadargi D.Y., “Silica Aerogel: Synthesis and Applications” Nanomaterials, 2010, 1-11, 2010. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>

10. Brinker C.J. “Hydrolysis and Condensation of Silicates: Effects Structure” Non-Crystalline Solids, 100, 31-50, 1998. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11. Flory P. J. “Principles of Polymer Chemistry, Chapter 4” Cornell University Press, USA, 1953. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12. Kistler S. S., “Coherent Expanded Aerogels” Rubber Chemistry and Technology, 5, 600-603, 1932.
13. Teichner S. J.&amp;quot; Aerogels of Inorganic Oxides” springer, France, 1986. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>
14. Hosono H., Mishima Y., Takezoe H., Mac Kenzie K. J.D., “Nanomaterials: From Research to Applications” Elsevier, Japan, 2006. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>
15. Schubert U., Husing N., Lorenz A., “Hybrid Inorganic-Organic Materials by Sol-Gel Processing of Organofunctional Metal Alkoxides” Chemistry Material, 7, 2010-2027, 1995. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>

16. Schmidt H., “Chemistry of Material Preparation by Sol-gel process” Non-Crystalline Solids,100, 51-64, 1998. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>

17. Maleki H., Duraes L., Portugal A., “An Overview on Silica Aerogels Synthesis and Different Mechanical Reinforcing Strategies” Non Crystalline Solids, 385, 55-74, 2014. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>

18. 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, 44, 3966-3972, 2018. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
19. Pan Y., Hea S., Gonga L., Chenga X., Lia C., Lia Z., Liub Z., Zhang H., “Low Thermal-Conductivity and High Thermal Stablesilica Aerogelbased on” Materials and Design, 113, 246-253, 2017. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>

20. Ruben G.C., Pekala R.W., Tillotson T.M.,  Hrubesh L.W., “Imaging Aerogels at the Molecular Level” Material Science, 27, 4341-4349, 1992. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>

21. Husing N., Schubert U., “Aerogels” Ullmann&amp;#39;s Encyclopedia of Industrial Chemistry, 1060, 621-646, 2012. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>

22. Barrios E., Fox D., Li Sip Y.Y., Catarata R., Calderon J.E., Azim N., Afrin S., Zhang Z., Zhai L., “Nanomaterials in Advanced, High-Performance Aerogel Composites: A Review” Polymers, 11, 1-41, 2019. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>

23. وکیلی ح،. طالب پور ز،. ”توسعه روش‌های جداسازی به ‌وسیله‌ی ابزارهای پلیمری ساخته شده با چاپگر سه بعدی“ پژوهش و توسعه‌ی فناوری پلیمر ایران، 4، 18-5، 1398. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>

24. Brinker C.J., Scherer G.W.,  “ThePhysics and Chemistry of Sol-Gel Processing”Controlled Release, 15,1-18,1990. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>

25. Gross J., Coronado P.R., Hrubesh L.W. “Elastic Properties of Silica Aerogels From a New Rapid Supercritical Extraction Process” Non-Crystalline Solids, 225, 282-286, 1998. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>

26.Kirkbir F., Murata H., Meyers D., Chaudhuri S.R., “Drying of Aerogels in Different Solvents Between Atmospheric and Supercritical Pressures” Non-crystalline solids, 225, 14-18, 1998. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>

27. Gauthier B.M.,  Bakrania S.D.,  Anderson A.M., Carrollb M. K., “A Fast Supercritical Extraction Technique for Aerogel Fabrication” Non-crystalline solids, 350, 238-243, 2004. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>

28.Pope E.J.A., Mackenzie J.D.J., “Sol-gel Processing of Silica: II. The Role of the Catalyst” Non-Crystalline Solids, 87, 185-198, 1986. </unstructured_citation></citation><citation key="ref28"><unstructured_citation>

29. Tewari P.H., Hunt A.J., Lofftus K.D., “Ambienttemperature Supercritical Drying of Transparent Silica Aerogels” Materials Letters, 3, 363-367, 1985. </unstructured_citation></citation><citation key="ref29"><unstructured_citation>
30. Van Bommel M.J., Haan A.B., “Drying of Silica Aerogel with Supercritical Carbon Dioxide” Non-Crystalline Solids, 186, 78-82,1995. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>

31. Smith D. M., Steinb D., Andersonb J.M., Ackerman W., “Preparation of Low-density Xerogels at Ambient Pressure” Non-Crystalline Solids, 186, 104-112, 1995. </unstructured_citation></citation><citation key="ref31"><unstructured_citation>

32. Yoda S., Ohshima S., “Supercritical Drying Media Modification for Silica Aerogelpreparation &amp;quot;Non-Crystalline Solids, 248, 224-234, 1999. </unstructured_citation></citation><citation key="ref32"><unstructured_citation>

33. Dieudonne P.H., Alaoui A.H., Delord P., Phalippou J., “Transformation of Nanostructure of Silica Gels During Drying ” Non-Crystalline Solids, 262, 155-161, 2000. </unstructured_citation></citation><citation key="ref33"><unstructured_citation>
34. Tajiri K., Igarashi K., “The Effect of the Preparation Conditions on the Optical Properties of Transparent Silica Aerogels” SolarEnergy Materials and Solar Cells, 54, 189-195, 1998. </unstructured_citation></citation><citation key="ref34"><unstructured_citation>
35. Pierre A. C., Pajonk G. M., “Chemistry of Aerogels and Their Application” Chemical Reviews, 102, 4243-4266, 2002. </unstructured_citation></citation><citation key="ref35"><unstructured_citation>
36.Deshpande R., Hua D.W., Smith D.M., Brinkerab C. J., “Pore Structure Evolution in Silica Gel During Aging/drying. III. Effects of Surface Tension” Non-Crystalline, 144, 32-44, 1992. </unstructured_citation></citation><citation key="ref36"><unstructured_citation>
37. Ma H.S., Roberts A.P., Prevost J.H., Jullien R., Scherer W.G., “Mechanical Structure, Property Relationship of Aerogels”  Non Crystalline Solids, 277,127-141,2000. </unstructured_citation></citation><citation key="ref37"><unstructured_citation>
38. Yuan B., Ding S., Wang D., Wang G., Li H., “Heat Insulation Properties of Silicaero-Gel/glass Fiber Composites Fabricated by Press Forming”  Materials Letters 75, 204-206, 2012. </unstructured_citation></citation><citation key="ref38"><unstructured_citation>
39. Karout A., Buisson P., Perrard A., Pierre A.C., “Shaping and Mechanical Reinforcement of Silica Aerogel Biocatalysts with Ceramic Fiber Felts” Sol-Gel Science and Technology, 36, 163-17, 2005. </unstructured_citation></citation><citation key="ref39"><unstructured_citation>
40. Markevicius G., Ladj R., Niemeyer P., Budtova T., Rigacci A., &amp;quot;Ambient-dried Thermal Super Insulating Monolithic Silica-based Aerogels with Short Cellulosic Fiber&amp;quot; Materials Science, 52, 2210-2221, 2016. </unstructured_citation></citation><citation key="ref40"><unstructured_citation>
41. Sai H., Xing L., Xiang J., Cui L., Jiao J., Zhao C. “Flexible aerogels based on aninterpenetrating network of bacterial cellulose andby a non-supercritical drying process”, The Royal Society of Chemistry, 27, 7963-7970, 2013. </unstructured_citation></citation><citation key="ref41"><unstructured_citation>
42. Sai H.,Xing L., Xiang J., Cui Li., Jiao J., Zhao C., Li Z., Zhang F.L. “Flexible aerogels with interpenetrating network structure ofbacterial cellulose–silica composite fromsodium silicate precursor via freeze drying” The Royal Society of Chemistry, 57, 30453-30461, 2014. </unstructured_citation></citation><citation key="ref42"><unstructured_citation>
43. Cai M., Shafi S., Zhao Y. “Preparation of compressible silica aerogel reinforced by bacterial celluloseusing tetraethylorthosilicate and methyltrimethoxylsilanecoprecursor” Non Crystalline Solids, 481, 622-626, 2018. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>mohammad hadi</given_name><surname>aryaie monfared</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>31</first_page><last_page>39</last_page></pages><doi_data><doi>10.66224/irdpt.27702.5.3.31</doi><resource>http://irdpt.ir/fa/Article/27702</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27702</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27702</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Park J.Y., Melani L., Lee H., Kim H.J., Effect of chemical additives on softness components of hygiene paper, Nord. Pulp Pap. Res. J, 34, 173-181, 2019. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2. Thorn I., Au C.O., Applications of wet-end paper chemistry. Dordrecht: Springer, 2009. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3. Chauhan V.S., Bhardwaj N.K., Efficacy of carbohydrate polymers in filler preflocculation for use in papermaking, Arabian Journal of Chemistry, 12, 3087-3095, 2019. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4. Sakaemura T., Yamauchi T., Strength properties of paper containing polyacrylamide-based dry strength resin-effect of its Z-directional distribution, Appita: Technology, Innovation, Manufacturing, Environment, 64, 331, 2011. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Antunes E., Garcia F.A., Ferreira P., Blanco A., Negro C., Rasteiro M. G., Effect of water cationic content on flocculation, flocs resistance and reflocculation capacity of PCC induced by polyelectrolytes, Industrial &amp;amp; engineering chemistry research, 47, 6006-6013, 2008. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6. Wu M.R., Paris J., van de Ven T. G., Flocculation of papermaking fines by poly (ethylene oxide) and various cofactors: Effects of PEO entanglement, salt and fines properties, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 303, 211-218, 2007. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. Lan H., Qi S., Yang D., Wang X., Zhang P., Zhang H., Sun, Y., Treatment of White Water with Combined Predominant Bacteria and Immobilized Enzyme, BioResources, 15, 4016-4025, 2020. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8. Au C. O., Thorn I., Applications of wet-end paper chemistry, Springer Science &amp;amp; Business Media, 2013.
9. Fernandes S., Duarte A. P., Influence of wet-end variables on the sizing efficiency of ASA on fine papers produced with Eucalyptus globulus kraft pulps, Tappi journal, 5, 17, 2006. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>

10. Juneja P.K., Chaturvedi M., Ray A.K., Yadav G., Modeling for headbox and associated wet end systems. In Proceedings of ICETIT 2019 (pp. 396-406). Springer, Cham, 2020. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>

11. Wu R., Wang Q., Wang G., Immobilized enzyme on pulp fiber through layer-by-layer technique using cationic polyacrylamide for whitewater treatment from papermaking, Bioprocess and Biosystems Engineering, 42, 1583-1589, 2019. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
12. Varnaseri M., Peyghambarzadeh S.M., Amiri M., Experimental study on optimum concentration of polyacrylamide for drag reduction and heat transfer performance in a compact heat exchanger, Heat and Mass Transfer, 55, 1503-1511, 2019. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
13. Gess J.M., Retention of fines and fillers during papermaking, TAPPI press, 1998. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>
14. Wiśniewska M., Polyacrylamide (PAM). High performance polymers and their nanocomposites, Scrivener Publishing LLC, 105-131, 2018. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>
15. Xiong B., Loss R.D., Shields D., Pawlik T., Hochreiter R., Zydney A.L., Kumar, M., Polyacrylamide degradation and its implications in environmental systems, NPJ Clean Water, 1, 1-9, 2018. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
16. Hubbe M.A., Nanko H., McNeal M.R., Retention aid polymer interactions with cellulosic surfaces and suspensions: A review, Bioresources, 4, 850-906, 2009. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>
17. Marandi G.B., Esfandiari K., Biranvand F., Babapour M., Sadeh S., Mahdavinia G.R., pH sensitivity and swelling behavior of partially hydrolyzed formaldehyde‐crosslinked poly (acrylamide) superabsorbent hydrogels, Journal of Applied Polymer Science, 109, 1083-1092, 2008. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>
18. Lu S., Liu, R., Sun X., A study on the synthesis and application of an inverse emulsion of amphoteric polyacrylamide as a retention aid in papermaking, Journal of applied polymer science, 84, 343-350, 2002. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
19. Yoon D.H., Jang  J.W., Cheong, I.W., Synthesis of cationic polyacrylamide/silica nanocomposites from inverse emulsion polymerization and their flocculation property for papermaking, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 411, 18-23, 2012. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>
20. Petzold G., Buchhammer H.M., Lunkwitz, K., The use of oppositely charged polyelectrolytes as flocculants and retention aids. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 119, 87-92, 1996. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>
21. Wang L., Zhang Y., Li G., Behavior of polyamine fixing agents on agglomeration of dissolved and colloidal substances in papermaking, Bioresources, 9, 472-481, 2014. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>

22. Ord&amp;#243;&amp;#241;ez R., Hermosilla D., de la Fuente E., Blanco &amp;#193;., Influence of water quality on the efficiency of retention aids systems for the paper industry, Industrial &amp;amp; engineering chemistry research, 48, 10247-10252, 2009. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>
23. Hubbe M., Mini-Encyclopedia of Papermaking Wet-End Chemistry: Additives and Ingredients, their Composition, Functions, Strategies for Use. Retrieved online on Jun, 4, 2011. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>
24. Hubbe M.A., Gill R.A., Fillers for papermaking: a review of their properties, usage practices, and their mechanistic role, Bioresources, 11, 2886-2963, 2016. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>
25. Zhang X., Huang Y., Fu K., Yuan S., Huang C., Li H., Preparation and performance of cationic flocculant for papermaking based on the graft polymerization of cationic chains from colloidal silica particles, Colloids and Surfaces A: Physicochemical and Engineering Aspects, 491, 29-36, 2016. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>
26. Bharti S., Mishra S., Controlled drug release behavior of 5-aminosalicylic acid using polyacrylamide grafted oatmeal (OAT-g-PAM): a pH-sensitive drug carrier, Polymer Bulletin, 76, 813-824, 2019. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>
27. Asselman T., Alince B., Garnier G., van de Ven T.G., Mechanism of polyacrylamide-bentonite–microparticulate retention aids, Nord. Pulp Pap. Res. J, 15, 515-519, 2000. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>
28. Ibrahem A.A., Nada A.M.A., El‐Saied H., El‐Ashmawy A.E., Polyacrylamide as a filler retention aid for bagasse paper pulp, Die Angewandte Makromolekulare Chemie: Applied Macromolecular Chemistry and Physics, 127, 89-102, 1984. </unstructured_citation></citation><citation key="ref28"><unstructured_citation>
29. Yang K., Chen J., Fu Q., Dun X., Yao C., Preparation of novel amphoteric polyacrylamide and its synergistic retention with cationic polymers, e-Polymers, 20, 162-170, 2020. </unstructured_citation></citation><citation key="ref29"><unstructured_citation>
30. Li, H., Wu, S., Du, C., Zhong, Y., &amp;amp; Yang, C., Preparation, performances, and mechanisms of microbial flocculants for wastewater treatment, International Journal of Environmental Research and Public Health, 17, 1360, 2020. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>
31. Wong S.S., Teng T.T., Ahmad A.L., Zuhairi A., Najafpour G., 2006. Treatment of pulp and paper mill wastewater by polyacrylamide (PAM) in polymer induced flocculation, Journal of Hazardous Materials, 135, 378-388, 2006. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>morteza</given_name><surname>naghib</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>41</first_page><last_page>50</last_page></pages><doi_data><doi>10.66224/irdpt.27703.5.3.41</doi><resource>http://irdpt.ir/fa/Article/27703</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27703</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27703</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Patra J.K., Das G., Fraceto L.F., Campos E.V., del Pilar Rodriguez-Torres M., Acosta-Torres LS., Diaz-Torres LA., Grillo R., Swamy MK., Sharma S., Habtemariam S., Nano Based Drug Delivery Systems: Recent Developments and Future Prospects, campos EVR, 16, 1-33, 2018. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2. Xie X., Zhang Y., Li F., Lv T., Li Z., Chen H., Jia L., Gao Y., Challenges and Opportunities from Basic Cancer Biology for Nanomedicine for Targeted Drug Delivery., Current Cancer Drug Targets, 19, 257-276, 2019. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3. Pattni B.S., Chupin V.V., Torchilin V.P., New Developments in Liposomal Drug Delivery., Chem. Rev., 115, 10938–10966, 2015. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4. Abu-Thabit N.Y., Makhlouf A.S., Historical Development of Drug Delivery Systems: From Conventional Macroscale to Controlled, Targeted, and Responsive Nanoscale Systems., Woodhead Publishing, 1, 3-41, 2018. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5. Weinberg B.D., Blanco E., Gao J., Polymer Implants for Intratumoral Drug Delivery and Cancer Therapy, Journal of pharmaceutical sciences, 97, 1681–1702, 2008. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6. Jia X., He J., Shen L., Chen J., Wei Z., Qin X., Niu D., Li Y., Shi J., Gradient Redox-Responsive and Two-Stage Rocket-Mimetic Drug Delivery System for Improved Tumor Accumulation and Safe Chemotherapy, Nano Lett., 19, 8690–8700, 2019. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7. Yin Q., Shen J., Zhang Z., Yu H., Li Y., Reversal of Multidrug Resistance by Stimuli-Responsive Drug Delivery Systems for Therapy of Tumor,  Adv. Drug Deliv. Rev., 65, 1699–1715, 2013. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8. Shahriari M., Zahiri M., Abnous K., Taghdisi SM., Ramezani M., Alibolandi M., , Enzyme Responsive Drug Delivery Systems in Cancer Treatment, J. Control. Release, 308, 172–189, 2019. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9. Zhu Y.J., Chen F., pH-Responsive Drug-Delivery Systems, Chem. - An Asian J., 10, 284–305, 2015. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>
10. Ding Y., Liu J., Li X., Xu L., Li C., Ma L., Liu J., Ma R., An Y., Huang F., Liu Y., Jianfeng L., Rational Design of Drug Delivery Systems for Potential Programmable Drug Release and Improved Therapeutic Effect, Mater. Chem. Front., 3, 1159–1167, 2019. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11. Staruch R., Chopra R., Hynynen K., Localised Drug Release Using MRI-Controlled Focused Ultrasound Hyperthermia, 27, 156–171, 2011. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12. Zhao Y.Z., Du LN., Lu C.T., Jin Y.G., Ge S.P., Potential and Problems in Ultrasound-Responsive Drug Delivery Systems, Int. J. Nanomedicine, 8, 1621–1633, 2013. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>
13. Duan L., Yang L., Jin J., Yang F., Liu D., Hu K., Wang Q., Yue Y., Gu N., Theranostics Micro / Nano-Bubble-Assisted Ultrasound to Enhance the EPR Effect and Potential Theranostic Applications, 10, 462-483, 2020. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>
14. Lin A., Truong B., Patel S., Kaushik N., Choi EH., Fridman G., Fridman A., Miller V., Nanosecond-Pulsed DBD Plasma-Generated Reactive Oxygen Species Trigger Immunogenic Cell Death in a549 Lung Carcinoma Cells Through Intracellular Oxidative Stress, Int. J. Mol. Sci., 18, 18-23,  2017. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
15. van den Bijgaart R.J., Eikelenboom D.C., Hoogenboom M., F&amp;#252;tterer J.J., den Brok M.H, Adema G.J., Thermal and Mechanical High ‑ Intensity Focused Ultrasound : Perspectives on Tumor Ablation , Immune Effects and Combination Strategies, Cancer Immunol. Immunother., 66, 247–258, 2017. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>
16. Indermun S., Govender M., Kumar P., Choonara Y.E., Pillay V., Stimuli-Responsive Polymers as Smart DrugDelivery Dystems: Classifications Based on Carrier Type and Triggered-Release Mechanism. Elsevier Ltd., 1, 43-58, 2018. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>
17. Pedacchia A., Adrover A., Swelling Kinetics of HPMC Tablets, Chemical Engineering Communications, 202, 37–41, 2014. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
18. Das P., Singh K.K., Dutta S., Insight into Emerging Applications of Forward Osmosis Systems, J. Ind. Eng. Chem., 72, 1–17, 2019. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>
19. Rabin C.R., Siegel S.J., Delivery Systems and Dosing for Antipsychotics., Current Antipsychotics. Springer, Berlin, Heidelberg, 267-298, 2012. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>
20. Wilhelm S., Tavares A.J., Dai Q., Ohta S., Audet J., Dvorak H.F., Chan W.C., Analysis of Nanoparticle Delivery to Tumours, Nat. Rev. Mater., 1, 16014-16020, 2016. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>
21. Talebian S., Foroughi J., Wade S.J., Vine K.L., Dolatshahi‐Pirouz A., Mehrali M., Conde J., Wallace G.G., Biopolymers for Antitumor Implantable Drug Delivery Systems: Recent Advances and Future Outlook, Adv. Mater., 30, 1–31, 2018. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>
22. Jacob J., Haponiuk J.T., Thomas S., Gopi S., Biopolymer based Nanomaterials in Drug Delivery Systems: A review, Mater. Today Chem., 9, 43–55, 2018. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>
23. Sepantafar M., Maheronnaghsh R., Mohammadi H., Radmanesh F., Hasani-Sadrabadi M.M., Ebrahimi M., Baharvand H., Engineered Hydrogels in Cancer Therapy and Diagnosis, Trends Biotechnol., 35, 11, 1074–1087, 2017. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>
24. Bahram M., Mohseni N., Moghtader M., An Introduction to Hydrogels and Some Recent Applications, IntechOpen, 2016. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>
25. Li J., de &amp;#193;vila B.E., Gao W., Zhang L., Wang J., Micro/Nanorobots for Biomedicine: Delivery, Surgery, Sensing, and Detoxification,” Sci. Robot., 2, 1–10, 2017. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>
26. Sutradhar K.B., Sumi C.D., Implantable Microchip: The Futuristic Controlled Drug Delivery System, Drug Deliv., 23, 1–11, 2016. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>
27. Pan C., Zhou Z., Yu X., Coatings as the Useful Drug Delivery System for the Prevention of Implant-Related Infections, J. Orthop. Surg. Res., 13, 1–11, 2018. </unstructured_citation></citation><citation key="ref28"><unstructured_citation>
28. Damodaran V.B., Murthy N.S., Bio-Inspired Strategies for Designing Antifouling Biomaterials, Biomater. Res., 20, 1–11, 2016. </unstructured_citation></citation><citation key="ref29"><unstructured_citation>
29. Rong F., Tang Y., Wang T., Feng T., Song J., Li P., Huang W., Nitric Oxide-Releasing Polymeric Materials for Antimicrobial Applications: A review, Antioxidants, 8, 2019. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>
30. Hasan S., Thomas N., Thierry B., Prestidge C.A., Biodegradable Nitric Oxide Precursor-Loaded Micro- and Nanoparticles for the Treatment of Staphylococcus Aureus Biofilms, J. Mater. Chem. B, 5, 1005–1014, 2017. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>nariman</given_name><surname>Rajabifar</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>51</first_page><last_page>64</last_page></pages><doi_data><doi>10.66224/irdpt.27704.5.3.51</doi><resource>http://irdpt.ir/fa/Article/27704</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27704</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27704</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1.	Kinloch, A.J., Adhesion and Adhesives: Science and Technology, Chapman and Hall Ltd: 282, 1987. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
2.	Wake, W.C., Adhesion and the Formulation of Adhesive, Applied SciencePub, London, 1982. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>
3.	Irwin G.R., Structural Aspects of Brittle Fracture, Applied Materials Research, 3, 65-81, 1964. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>
4.	Akovali G., Sipahi-Saglam E., Kaynak C., A Fractographic Study on Toughening of Epoxyresin Usingground Tire Rubber, Polymer, 42, 4393-4399, 2001. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
5.	Wang G.T., Mai Y.W., Zeng Y.,Liu H.Y., On Fracturetoughness of Nanoparticle Modified Epoxy, Com Posites,42, 2170-2175, 2011. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
6.	Jayan J.S., Saritha A., Joseph K..,Innovative Materials of This era for Toughening the Epoxy Matrix: A Review, Polymer Composites, 39, E1959, 2018. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
7.	Zhang H., Tang L.C., Zhang Z., Friedrich K., Sprenger S., Fracture Behaviors of in Situ Silica Nanoparticle-filled Epoxy at Different Temperature, Polymer, 49, 3816-3825, 2008. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>
8.	Johnsen B.B., Kinloch A.J., Mohammed R.D., Taylor A.C., Sprenger S., Toughening Mechanisms of Nanoparticle- modified Epoxy Polymers, Polymer, 48, 530-541, 2007. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>
9.	Hsieh T.H., Kinloch A.J., Masania K., Taylor A.C., Sprenger S., The Mechanisms and Mechanics of the Toughening of Epoxy Polymers Modified with Silica Nanoparticles, Polymer, 51, 6284-6294, 2010. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>
10.	Dittanet P., Pearson R.A., Effect of Silica Nanoparticle Size on Toughening Mechanisms of Filled Epoxy, Polymer, 53, 1890-1905, 2012. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
11.	Sprenger S., Nanosilica Toughened Epoxy Resins, Polymers, 12, 1777, 2020. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
12.	Jin F.L., Park S.J., Interfacial Toughness Properties of Trifunctional Epoxy Resins/calcium Carbonate Nanocomposites, Mater. Sci. Eng. A, 475, 190-193, 2008. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>
13.	Yang G., Heo Y.J., Park S.J. Effect of Morphology of Calcium Carbonate on Toughness Behavior and Thermal Stability of Epoxy-based Composites, Processes, 7, 178, 2019. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>
14.	Wang K., Chen L., Wu J., Toh M.L., He C., Yee A.F., Epoxy Nanocomposites with Highly Exfoliated Clay: Mechanical Properties and Fracture Mechanisms, Macromolecules, 38, 788-800, 2005. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
15.	Prolongo S.G., Gude M.R, Ure&amp;#241;a A., Rheological Behavior of Nanoreinforced Epoxy Adhesives of Low Electrical Resistivity for Joining Carbon Fiber/epoxy Laminates, J Adhes Sci Technol, 24,1097–1112, 2010. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>
16.	Gojny F.H., Wichmann M.H.G., Fiedler B., Schulte K.. Influence of Different Carbon Nanotubes on the Mechanical Properties of Epoxy Matrix Composites:Acomparative study, Compos Sci Technol, 65, 2300–2313, 2005. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>
17.	Geim A.K., Graphene: Status and Prospects, Science, 324,1530-1534, 2009. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
18.	Tang L.C, Wan Y.J., Yan D., Pei Y.B., Zhao L., Li Y.B, Wu L.B, Jiang J.X, Lai G.Q., The Effect of Graphene Dispersion on the Mechanical Properties of Graphene/epoxy Composites, Carbon, 60,16–27, 2013. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>
19.	Nemati Giv A., Ayatollahi M.R., Ghaffari S.H., Da Silva L.F., Effect of  Reinforcements at Different Scales on Mechanical Properties of Epoxy Adhesives and Adhesive Joints: A Review, J Adhes, 94, 1082–1121, 2018. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>
20.	Jojibabu P., Jagannatham M., Haridoss P., Ram G.D.J., Deshpande A.P., Bakshi S.R., Effect of Different Carbon Nano-fillers on Rheological Properties and Lap Shear Strength of Epoxy Adhesive Joints, Compos Appl Sci Manuf, 82, 53–64, 2016. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>
21.	Rafiee M.A., Rafiee J., Wang Z., Song H., Yu Z., and Koraktar N., Enhanced Mechanical Properties of Nanocomposites at Low Graphene Content, ACS Nano, 3, 3884-3890, 2009. </unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>hamed</given_name><surname>jamshidi aval</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>65</first_page><last_page>74</last_page></pages><doi_data><doi>10.66224/irdpt.27705.5.3.65</doi><resource>http://irdpt.ir/fa/Article/27705</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27705</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27705</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>[1]	Wan Z., et al., &amp;quot;Low Resistance–integrated all‐solid‐state Battery Achieved by Li7La3Zr2O12 Nanowire Upgrading Polyethylene Oxide (PEO) Composite Electrolyte and PEO Cathode Binder,&amp;quot; Advanced Functional Materials., 29, 1805301, 2019. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
[2]	Yang M., and Hou J., &amp;quot;Membranes in Lithium ion Batteries,&amp;quot; Membranes, 2, 367-383, 2012. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>
[3]	Liu W., et al., &amp;quot;Enhancing Ionic Conductivity in Composite Polymer Electrolytes with Well-aligned Ceramic Nanowires,&amp;quot; Nature energy, 2, 1-7, 2017. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>
[4]	Zhu L., Zhu P., Yao S., Shen X., and Tu F., &amp;quot;High‐performance Solid PEO/PPC/LLTO‐nanowires Polymer Composite Electrolyte for Solid‐state Lithium Battery,&amp;quot; International Journal of Energy Research, 43, 4854-4866, 2019. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>
[5]	Liu J., Wu X., He J., Li J., and Lai Y., ’’Preparation and Performance of a Novel Gel Polymer Electrolyte Based on Poly (Vinylidene Fluoride)/Graphene Separator for Lithium ion Battery,&amp;quot; Electrochimica Acta, 235, 500-507, 2017. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>
[6]	Long L., Wang S., Xiao M., and Meng Y., &amp;quot;Polymer Electrolytes for Lithium Polymer Batteries,&amp;quot; Journal of Materials Chemistry A, 4, 10038-10069, 2016. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>
[7]	Kammoun M., Berg S., and Ardebili H., &amp;quot;Flexible Thin-film Battery Based on Graphene-oxide Embedded in Solid Polymer Electrolyte,&amp;quot; Nanoscale, 7, 41, 17516-17522, 2015. </unstructured_citation></citation><citation key="ref8"><unstructured_citation>
[8]	Zhang S.S., &amp;quot;A Review on the Separators of Liquid Electrolyte Li-ion Batteries,&amp;quot; Journal of power sources, 164, pp. 351-364, 2007. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>
[9]	Kang G.d., and Cao Y.m., &amp;quot;Application and Modification of Poly (Vinylidene Fluoride)(PVDF) Membranes–a Review,&amp;quot; Journal of Membrane Science, 463, 145-165, 2014. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>
[10]	Raghavan P., et al., &amp;quot;Electrochemical Performance of Electrospun Poly (Vinylidene Fluoride-co-Hexafluoropropylene)-based Nanocomposite Polymer Electrolytes Incorporating Ceramic Fillers and Room Temperature Ionic Liquid,&amp;quot; Electrochimica Acta, 55, 1347-1354, 2010. </unstructured_citation></citation><citation key="ref11"><unstructured_citation>
[11]	Zhu Y., et al., &amp;quot;Modification and Characterization of Electrospun Poly (Vinylidene Fluoride)/Poly (Acrylonitrile) Blend Separator Membranes,&amp;quot; Composites Part B: Engineering, 112, 31-37, 2017. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>
[12]	Iijima T., Toyoguchi Y., and Eda N., &amp;quot;Quasi-solid Organic Electrolytes Gelatinized with Polymethyl-methacrylate and their Applications for Lithium Batteries,&amp;quot; Denki Kagaku, 53, 8, 619-623, 1985. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>
[13]	Elashmawi I., Alatawi N. S., and Elsayed N. H., &amp;quot;Preparation and Characterization of Polymer Nanocomposites Based on PVDF/PVC Doped with Graphene Nanoparticles,&amp;quot; Results in physics, 7, 636-640, 2017. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>
[14]	Abasipour M., Khajavi R., Yousefi A.A., M. Yazdanshenas I., and Razaghian F., &amp;quot;Different Methods of Changing Piezoelectric Properties in Poly (Vinylidene Fluoride): A Review,&amp;quot; 2019. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>
[15]	Jin C., et al., &amp;quot;Metal Oxide Nanoparticles Induced Step-edge Nucleation of Stable Li Metal Anode Working Under an Ultrahigh Current Density of 15 mA cm− 2,&amp;quot; Nano Energy, 45, 203-209, 2018. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>
[16]	Zhu Y., Wang F., Liu L., Xiao S., Chang Z., and Wu Y., &amp;quot;Composite of a Nonwoven Fabric with Poly (Vinylidene Fluoride) as a Gel Membrane of high Safety for Lithium ion Battery,&amp;quot; Energy &amp;amp; Environmental Science, 6, 2, 618-624, 2013. </unstructured_citation></citation><citation key="ref17"><unstructured_citation>
[17]	ناجی، فولادوند، مارال، جوانبخت، مهران، &amp;quot;بررسی عملکرد الکترولیت‌های پلیمری بر پایه پلی‌وینیلیدن‌ فلوئورید (PVDF) در باتری‌هاییون لیتیم,&amp;quot; فصلنامه علمی بسپارش، 2،   26-15، 1398. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>
[18]	Zhang P., Yang L., Li L., M. Ding., Wu Y., and Holze R., &amp;quot;Enhanced Electrochemical and Mechanical Properties of P (VDF-HFP)-based Composite Polymer Electrolytes with SiO2 Nanowires,&amp;quot; Journal of Membrane Science, 379, 80-85, 2011. </unstructured_citation></citation><citation key="ref19"><unstructured_citation>
[19]	Liu W., et al., &amp;quot;Ionic Conductivity Enhancement of Polymer Electrolytes with Ceramic Nanowire Fillers,&amp;quot; Nano letters, 15, 2740-2745, 2015. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>
[20]	Lupu N., Nanowires: Science and Technology. BoD–Books on Demand, 2010. </unstructured_citation></citation><citation key="ref21"><unstructured_citation>
[21]	Cao G., Nanostructures &amp;amp; Nanomaterials:Synthesis, Properties &amp;amp; Applications. Imperial College Press, 2004. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>
[22]	Liu Y., et al., &amp;quot;Metal or Metal-Containing Nanoparticle@ MOF Nanocomposites as a Promising Type of Photocatalyst,&amp;quot; Coordination Chemistry Reviews, 388, 63-78, 2019. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>
[23]	Kwon S.J., et al., &amp;quot;Influence of Al2O3 Nanowires on ion Transport in Nanocomposite Solid Polymer Electrolytes,&amp;quot; Macromolecules, 51, pp. 10194-10201, 2018. </unstructured_citation></citation><citation key="ref24"><unstructured_citation>
[24]	Yoo H., et al., &amp;quot;Si Nanocrystal-Embedded SiO x Nanofoils: Two-Dimensional Nanotechnology-Enabled High Performance Li Storage Materials,&amp;quot; Scientific Reports, 8, 1-9, 2018. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>
[25]	Sun Y., Guan P., Liu Y., Xu H., Li S., and Chu D., &amp;quot;Recent Progress in Lithium Lanthanum Titanate Electrolyte towards All Solid-State Lithium Ion Secondary Battery,&amp;quot; Critical Reviews in Solid State and Materials Sciences, 44, 265-282, 2019. </unstructured_citation></citation><citation key="ref26"><unstructured_citation>
[26]	Yang T., Li Y., and Chan C.K., &amp;quot;Enhanced Lithium ion Conductivity in Lithium Lanthanum Titanate Solid Electrolyte Nanowires Prepared by Electrospinning,&amp;quot; Journal of Power Sources, 287, 164-169, 2015. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>
[27]	Yang H., et al., &amp;quot;Chemical Interaction and Enhanced Interfacial ion Transport in a Ceramic Nanofiber–Polymer Composite Electrolyte for all-solid-state Lithium Metal Batteries,&amp;quot; Journal of Materials Chemistry A, 8, 7261-7272, 2020. </unstructured_citation></citation><citation key="ref28"><unstructured_citation> 


</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>-</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>hoori</given_name><surname>mivechi</surname></person_name></contributors><publication_date media_type="online"><month>12</month><day>16</day><year>2020</year></publication_date><pages><first_page>75</first_page><last_page>81</last_page></pages><doi_data><doi>10.66224/irdpt.27706.5.3.75</doi><resource>http://irdpt.ir/fa/Article/27706</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/27706</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/27706</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>Macromol. Symp.2015, 355, 82–89 </unstructured_citation></citation><citation key="ref2"><unstructured_citation>
DOI: 10.1002/masy.201500038 </unstructured_citation></citation></citation_list></journal_article></journal></body></doi_batch>