﻿<?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>14050229195750</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>6</month><day>7</day><year>2023</year></publication_date><journal_volume><volume>8</volume></journal_volume><issue>1</issue></journal_issue><journal_article publication_type="full_text"><titles><title>Emerging and advanced membrane technology for wastewater treatment: A review</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Farzad</given_name><surname>Mehrjo</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>MohammadSaber</given_name><surname>Baghkhanipour</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Amir</given_name><surname>Alam</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>5</first_page><last_page>19</last_page></pages><doi_data><doi>10.66224/irdpt.42700.8.1.5</doi><resource>http://irdpt.ir/fa/Article/42700</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42700</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42700</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Kaushik G., Bioremediation of Industrial Effluents: Distillery Effluent in Applied Environmental Biotechnology Present Scenario and Future Trends, India: Springer, 1-167, 2015. </unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Bharagava R.N., Chowdhary P., Emerging and Ecofriendly Approaches for Waste Management, Singapore: Springer, 1-435, 2019.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Sen T.K., Review on Dye Removal from Its Aqueous Solution into Alternative Cost Effective and Non‐Conventional Adsorbents, Journal of Chemical Process Engineering, 1-11, 2014. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Fritzmann C., Lowenberg J., Wintgens T., Melin T., State of The Art of Reverse Osmosis Desalination, Desalination, 216, 1–76, 2007.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Sonune A., Ghate R., Developments in Wastewater Treatment Methods, Desalination, 167, 55-63, 2004. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. de Gisi S., Notarnicola M., Industrial Wastewater Treatment, Encyclopedia of sustainable technologies. 1 Ohio, United States: Elsevier, 23-42, 2017. </unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Ezugbe E.O., Rathilal S., Membrane Technologies in Wastewater Treatment: A Review, Membranes (Basel), 10, 89, 2020.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Radjenovic J., Petrovic M., Barcelo D., Membrane Bioreactor (MBR) As an Advanced Wastewater Treatment Technology Cytotreat View Project SEA‐On‐A‐CHIP View Project, Article Handbook Environmental Chemistry, 5, 37-101, 2008. </unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Gitis V., Hankins N., Water Treatment Chemicals: Trends and Challenges, Journal of Water Process Engineering, 25, 34-38, 2018. </unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Bolong N., Ismail A.F., Salim M.R., Matsuura T., A Review of The Effects of Emerging Contaminants in Wastewater and Options for Their Removal, Desalination, 239, 229-246, 2009.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Mulligan C.N., Yong R.N., Gibbs B.F., Surfactant‐Enhanced Remediation of Contaminated Soil: A Review, Engineering Geology, 60, 371-380, 2001.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Ahmadian M., Ravanchi M.T., Kaghazchi T., Kargari A., Application of Membrane Separation Processes in Petrochemical Industry: A Review, Desalination, 235, 199-244, 2009. </unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Abedini R., Nezhadmoghadam A., Application of Membrane in Gas Separation Processes: Its Suitability and Mechanisms. Petroleum and Coal, 52, 69-80, 2010.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Ghaly A.E., Ananthashankar R., Alhattab M.V., Ramakrishnan V.V., Production, Characterization and Treatment of Textile Effluents: A Critical Review, Journal of Chemical Engineering &amp; Process Technology, 5, 1-18, 2013.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Ismail A.F., Khulbe K.C., Matsuura T., Reverse Osmosis, Reverse Osmosis, 227, 395-405, 2018.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Singh G., Kumar Bulasara V., Preparation of Low‐Cost Microfiltration Membranes from Fly Ash, Desalination and Water Treatment, 53, 1204-1212, 2015.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Kazemimoghadam M., Mohammadi T., Chemical Cleaning of Ultrafiltration Membranes in The Milk Industry, Desalination, 204, 213-218, 2007. </unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Waite T., Fane A., Schafer A., Nanofiltration: Principles and Applications, Journal American Water Works Association, 1, 1-560, 2005.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Srinivasan A., Ahilan B., Divya C.M., Divya M., Aanand S., Srinivasan A., et al, Bioremediation an Ecofriendly Tool for Effluent Treatment: A Review, International Journal of Applied Research, 1, 530-537, 2015.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20. Elimelech M., Mi B., Organic Fouling of Forward Osmosis Membranes: Fouling Reversibility and Cleaning Without Chemical Reagents, Journal of Membrane Science, 348, 337-345, 2010.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Peters T., Membrane Technology for Water Treatment, Chemical Engineering &amp; Technology, 33, 1233-1240, 2010.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>22. Jyoti J., Alka D., Jitendra., Kumar S., Application of Membrane Bioreactor in Wastewater Treatment: A Review, International Journal of Chemistry and Chemical Engineering, 3, 155-122, 2013.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. Magara Y., Kunikane S, Advanced Membrane Technology for Application to Water Treatment, Water Science and Technology, 37, 91-99, 1998.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>24. Collivignarelli M.C., Abba A., Carnevale Miino M., Damiani S., Treatments for Color Removal from Wastewater: State of The Art, Journal of Environmental Management, 236, 727-745, 2019.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>25. Ahmad A., Mohammad‐Setapar S.H., Chuong C.S., Khatoon A., Wani V.A., Kumar R., et al., Recent Advances in New Generation Dye Removal Technologies: Novel Search for Approaches to Reprocess Wastewater, RSC Advances, 21, 182-188, 2015.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>26. Koc‐Jurczyk J., Removal of Refractory Pollutants from Landfill Leachate Using Two‐Phase System, Water Environment Research, 86, 74-80, 2014.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>27. Pavithra K.G., Sentil Kumar P., Jaikumar V., Sundar Rajan P., Removal of Colorants from Wastewater: A Review on Sources and Treatment Strategies, Journal of Industrial and Engineering Chemistry, 75, 1-19, 2019.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28. Zoubeik M., Ismail M., Salama A., Henni A., New Developments in Membrane Technologies Used in The Treatment of Produced Water: A Review, Arabian Journal for Science and Engineering, 43, 2093-2118, 2018.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>29. Jefferson B., Bixio D., Membrane Bioreactor Technology for Wastewater Treatment and Reuse, Desalination, 187, 271-282, 2006.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>30. Chang I.S., Le Clech P., Jefferson B., Judd S., Membrane Fouling in Membrane Bioreactors for Wastewater Treatment, Journal of Environmental Engineering, 128, 1018-1029, 2002.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>31. Valladares Linares R., Fortunato L., Farhat N.M., Bucs S.S., Staal M., Fridjonsson E.O., et al., Mini-Review: Novel Non-Destructive in Situ Biofilm Characterization Techniques in Membrane Systems, Desalination and Water Treatment, 57, 22894-22901, 2016. </unstructured_citation></citation><citation key="ref32"><unstructured_citation>32. Babuponnusami A., Muthukumar K., A Review on Fenton and Improvements to The Fenton Process for Wastewater Treatment, Journal of Environmental Chemical Engineering, 2, 557-572, 2014.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>33. Gao W., Liang H., Ma J., Han M., Chen Z., Han Z., et al., Membrane Fouling Control in Ultrafiltration Technology for Drinking Water Production: A Review, Desalination, 272, 1-8, 2011.</unstructured_citation></citation><citation key="ref34"><unstructured_citation> 34. Qu F., Liang H., Zhou J., Nan J., Shao S., Zhang J., et al., Ultrafiltration Membrane Fouling Caused by Extracellular Organic Matter (EOM) From Microcystis Aeruginosa: Effects of Membrane Pore Size and Surface Hydrophobicity, Journal of Membrane Science, 449, 58-66, 2014.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35. Wang N., Li X., Yang Y., Zhou Z., Shang Y., Zhuang X., Photocatalysis‐Coagulation to Control Ultrafiltration Membrane Fouling Caused by Natural Organic Matter, Journal of Cleaner Production, 265, 121790, 2020.</unstructured_citation></citation><citation key="ref36"><unstructured_citation> 36. Wang H., Park M., Liang H., Wu S., Lopez I.J., Ji W., et al., Reducing Ultrafiltration Membrane Fouling During Potable Water Reuse Using Pre‐Ozonation, Water Research, 125, 42-51, 2017.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>37. Liao Y., Bokhary A., Maleki E., Liao B., A Review of Membrane Fouling and Its Control in Algal‐Related Membrane Processes, Bioresource Technology, 264, 343-358, 2018. </unstructured_citation></citation><citation key="ref38"><unstructured_citation>38. Liu T., Drews A., Membrane Fouling in Membrane Bioreactors‐Characterizations, Contradictions, Cause and Cures, Journal of Membrane Science, 363, 1-28, 2010. </unstructured_citation></citation><citation key="ref39"><unstructured_citation>39. Hilal N., Ogunbiyi O.O., Miles N.J., Nigmatullin R., Methods Employed for Control of Fouling in MF and UF Membranes: A Comprehensive Review, Separation Science and Technology, 40, 1957-2005, 2005.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>40. Vrouwenvelder J.S., van Paassen J.A.M., Wessels L.P., van Dam A.F., Bakker S.M., The Membrane Fouling Simulator: A Practical Tool for Fouling Prediction and Control, Journal of Membrane Science, 281, 316-324, 2006.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>41. Iorhemen O.T., Hamza R.A., Tay J.H., Membrane Fouling Control in Membrane Bioreactors (MBRs) Using Granular Materials, Bioresource Technology, 240, 9-24, 2017.</unstructured_citation></citation><citation key="ref42"><unstructured_citation>42. Peng N., Widjojo N., Sukitpaneenit P., Teoh M.M., Lipscomb G.G., Chung T.S., et al., Evolution of Polymeric Hollow Fibers as Sustainable Technologies: Past, Present, and Future, Progress in Polymer Science, 37, 1401-1424, 2012.</unstructured_citation></citation><citation key="ref43"><unstructured_citation>43. Mishima I., Nakajima J., Control of Membrane Fouling in Membrane Bioreactor Process by Coagulant Addition, Water Science and Technology, 59, 1255-1262, 2009. </unstructured_citation></citation><citation key="ref44"><unstructured_citation>44. Bagheri M., Akbari A., Mirbagheri S.A., Advanced Control of Membrane Fouling in Filtration Systems Using Artificial Intelligence and Machine Learning Techniques: A Critical Review, Process Safety and Environmental Protection, 123, 229-252, 2019.</unstructured_citation></citation><citation key="ref45"><unstructured_citation>45. Ahmad A., Mohd‐Setapar S.H., Chuong C.S., Khatoon A., Wani W.A., Kumar R., et al., Recent Advances in New Generation Dye Removal Technologies: Novel Search for Approaches to Reprocess Wastewater, RSC Advances, 5, 30801-30818, 2015. </unstructured_citation></citation><citation key="ref46"><unstructured_citation>46. Kimura K., Oki Y., Efficient Control of Membrane Fouling in MF by Removal of Biopolymers: Comparison of Various Pretreatments, Water Research, 115, 172-179, 2017.</unstructured_citation></citation><citation key="ref47"><unstructured_citation>47. Togo N., Nakagawa K., Shintani T., Yoshioka T., Takahashi T., Kamio E., et al., Osmotically Assisted Reverse Osmosis Utilizing Hollow Fiber Membrane Module for Concentration Process, ACS Publications, 58, 6721-6729, 2019.</unstructured_citation></citation><citation key="ref48"><unstructured_citation>48. Mbakop S., Nthunya L.N., Onyango M.S., Recent Advances in the Synthesis of Nanocellulose Functionalized–Hybrid Membranes and Application in Water Quality Improvement, Processes, 9, 611, 2021. </unstructured_citation></citation><citation key="ref49"><unstructured_citation>49. Bouhid de Aguiar I., Schroen K., Microfluidics Used as A Tool to Understand and Optimize Membrane Filtration Processes, Membranes, 10, 316, 2020.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Application of Bio-nanocomposites in Food Packaging</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Fatemeh</given_name><surname>Savojbolaghi</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Mahshid</given_name><surname>Maroufkhani</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>21</first_page><last_page>32</last_page></pages><doi_data><doi>10.66224/irdpt.42753.8.1.21</doi><resource>http://irdpt.ir/fa/Article/42753</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42753</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42753</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Qasim U., Osman A.I., AlMuhtaseb A.H., Farrell C., AlAbri M., Ali M., Vo D.N., Jamil F., Rooney D.W., Renewable Cellulosic Nanocomposites for Food Packaging to Avoid Fossil fuel Plastic Pollution: A Review, Environmental Chemistry Letters, 19, 1, 613-641, 2021.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Perera K.Y., Jaiswal S., Jaiswal A.K., A Review on NanoMaterials and Nanohybrids Based Bio-nanocomposites for Food Packaging, Food Chemistry, 376, 131912, 2022.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Braga L.R., Rangel E.T., Suarez P.A.Z.,  Machado F., Simple Synthesis of Active Films Based on PVC Incorporated with silver Nanoparticles: Evaluation of the Thermal, Structural and Antimicrobial Properties, Food Packaging and Shelf Life, 15, 122-129, 2018.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Ashfaq A., Khursheed N., Fatima S., Anjum Z., Younis K., Application of Nanotechnology in Food Packaging: Pros and Cons, Journal of Agriculture and Food Research, 7, 100270, 2022.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Chaudhary P., Fatima F., Kumar A., Relevance of Nanomaterials in Food Packaging and its Advanced Future Prospects, Journal of Inorganic and Organometallic Polymers and Materials, 30, 12, 5180-5192, 2020.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Youssefand A.M., El-Sayed S.M., Bionanocomposites Materials for Food Packaging ApplicationS: Concepts and Future OutlooK, Carbohydrate Polymers, 193, 19-27, 2018.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7.Taherimehr M., Yousefnia H., Tabatabaekoloor R., Trends and Challenges of Biopolymer‐based Nanocomposites in Food Packaging, Comprehensive Reviews in Food Science and Food Safety, 20, 6, 5321-5344, 2021.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Porta R., Sabbah M., Di Pierro P., Biopolymers as Food Packaging Materials, International Journal Molecular Science, 21, 4942, 2020.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Ramos O.L., Pereira R.N., Cerqueira M.A., Martins J.R., Teixeira J.A., Malcata F.X., Vicente A.A., Chapter 8- Bio-Based Nanocomposites for Food Packaging and Their Effect in Food Quality and Safety, Food Packaging and Preservation, 271-306, 2018.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Kausar A., A Review of High Performance Polymer NanoComposites for Packaging Applications in Electronics and Food Industries, Journal of Plastic Film &amp; Sheeting, 36, 1, 94-112, 2019.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Chausali N., Saxena J., Prasad R., Recent Trends in Nanotechnology Applications of Bio-based Packaging, Journal of Agriculture and Food Research, 7, 100257, 2022.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Basavegowda N., Baek K.H., Advances in Functional Biopolymer-based Nanocomposites for Active Food Packaging Applications, Polymers, 13, 23, 4198, 2021.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Sharma R., Jafari S.M., Sharma S., Antimicrobial Bio-nanoComposites and Their Potential Applications in Food Packaging, Food Control, 112, 107086, 2020.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Emamhadi M.A., Sarafraz M., Akbari M., Thai V.N., Fakhri Y., Linh N.T.T., Mousavi Khaneghah A., Nanomaterials for Food Packaging Applications: A Systematic Review, Food and Chemical Toxicology, 146, 111825, 2020.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Primožič M., Knez Ž., Leitgeb M., (Bio)nanotechnology in Food Science-food Packaging, Nanomaterials, 11, 2, 292, 2021.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Kim S.W., Cha S.H., Thermal, Mechanical, and Gas Barrier Properties of Ethylene–vinyl Alcohol Copolymer-based NanoComposites for Food Packaging Films: Effects of Nanoclay Loading, Journal of Applied Polymer Science, 131, 11, 2014.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Kuswandi B., Environmental Friendly Food Nano-packaging, Environmental Chemistry Letters, 15, 2, 205-221, 2017.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Huang J.Y., Li X., Zhou W., Safety Assessment of NanoComposite for Food Packaging Application, Trends in Food Science &amp; Technology, 45, 2, 187-199, 2015.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Shams R., Rizvi Q.H., Dar A.H., Majid I., Khan S., NanoComposite: Potential Nanofiller for Food Packaging Applications, Bio‐based Packaging, 119-131, 2021.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20. Omerović N., Djisalov M., Živojević K., Mladenović M., Vunduk J., Milenković I., Knežević N.Ž., Gadjanski I., Vidić J., Antimicrobial Nanoparticles and Biodegradable Polymer Composites for Active Food Packaging Applications, Food Science and Food Safety, 20, 3, 2428-2454, 2021.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Pramanik P.K.D., Solanki A., Debnath A., Nayyar A., El-sappagh S., Kwak K., Advancing Modern Healthcare with Nanotechnology, Nanobiosensors, and Internet of Nano Things: Taxonomies, Applications, Architecture, and Challenges, IEEE Access, 8, 65230-65266, 2020.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>22. Sharma C., Dhiman R., Rokana N., Panwar H., Nanotechnology: An Untapped Resource for Food Packaging, Frontiers in Microbiology, 8, 1735, 2017.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. Kr Deshwal G., Panjagari N.R., Singh A.K., Alam T., Performance Evaluation of a Biopolymer-based In-package UV Activated Colorimetric Oxygen Indicator with Modified</unstructured_citation></citation><citation key="ref24"><unstructured_citation>Atmosphere Packaged Mozzarella Cheese, Journal of Packaging Technology and Research, 5, 2, 51-57, 2021.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>24. Kr Deshwal G., Panjagari N.R., Badola1 R., Singh A.K., Minz P.S., Ganguly S., Alam T., Characterization of BioPolymer-based UV-activated Intelligent Oxygen Indicator for Food-packaging Applications, Journal of Packaging </unstructured_citation></citation><citation key="ref26"><unstructured_citation>Technology and Research, 2, 29-43, 2018.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>25. Abad E., Zampolli S., Marco S., Scorzoni A., Mazzolai B., Juarros A., Gomez D., Elmi I., Cardinali G.C., Gomez J.M., Palacio F., Cicioni M., Mondini A., Becker T., Sayhan I., </unstructured_citation></citation><citation key="ref28"><unstructured_citation>Flexible Tag Microlab Development: Gas Sensors Integration in RFID Flexible Tags for Food Logistic, Sensors and Actuators B: Chemical, 127, 1, 2-7, 2007.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>26. Nechita P., Roman M., Review on Polysaccharides Used in Coatings for Food Packaging Papers, Coatings, 10, 6, 566, 2020.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>27. Nesic A., Barjas G.C., Brankovic S.D., Davidovic S., </unstructured_citation></citation><citation key="ref31"><unstructured_citation>Radovanovic N., Delattre C., Prospect of Polysaccharide-based Materials as Advanced Food Packaging, Molecules, 25, 1, 135, 2019.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>28. Olayil R., Prabu V.A., DayaPrasad S., Naresh K., Rama Sreekanth P.S., A Review on the Application of Bio-nanocomposites for Food packaging, Materials Today: Proceedings, 56, 1302-1306, 2022.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>29. Park H.M., Lee W.K., Park C.Y., Cho W.J., Ha C.S., Environmentally Friendly Polymer Hybrids Part I Mechanical, Thermal, and Barrier Properties of Thermoplastic Starch/clay Nanocomposites, Journal of Materials Science, 38, 5, 909-915, 2003.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>30. Oliveira A.V., Silva A.P.M., Barros M.O., Souza Filho M.M., Rosa M.F., Azeredo H.M.C., Nanocomposite Films from Mango Kernel or Corn Starch with Starch Nanocrystals, Starch, 70, 1800028, 2018.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>31. Fortunati E., Luzi F., Yang W., Kenny J.M., Torre L., Puglia D., Chapter 4- Bio-Based Nanocomposites in Food Packaging, in Nanomaterials for Food Packaging, Elsevier, 71-110, 2018.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>32. Hooda R., Batra B., Kalra V., Singh Rana J., Sharma M., Chitosan-Based Nanocomposites in Food Packaging, in </unstructured_citation></citation><citation key="ref37"><unstructured_citation>Bio-based Materials for Food Packaging: Green and </unstructured_citation></citation><citation key="ref38"><unstructured_citation>Sustainable Advanced Packaging Materials, Springer, </unstructured_citation></citation><citation key="ref39"><unstructured_citation>Singapore 269-285, 2018. </unstructured_citation></citation><citation key="ref40"><unstructured_citation>33. Lin D., Yang Y., Wang J., Yana W., Wu Z., Chen H., Zhang Q., Wu D., Qin W., Tu Z., Preparation and Characterization of TiO2-Ag Loaded Fish Gelatin-chitosan Antibacterial Composite Film for Food Packaging, International Journal of Biological Macromolecules, 154, 123-133, 2020.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>34. Bumbudsanpharoke N., Choi J., Ko S., Applications of Nanomaterials in Food Packaging, Journal of Nanoscience and Nanotechnology, 15, 9, 6357-6372, 2015.</unstructured_citation></citation><citation key="ref42"><unstructured_citation>35. Sadegh-Hassani F., Mohammadi Nafchi A., Preparation and Characterization of Bionanocomposite Films Based on </unstructured_citation></citation><citation key="ref43"><unstructured_citation>Potato Starch/halloysite Nanoclay, International Journal of </unstructured_citation></citation><citation key="ref44"><unstructured_citation>Biological Macromolecules, 67, 458-462, 2014.</unstructured_citation></citation><citation key="ref45"><unstructured_citation>36. Oleyaei S.A., Almasi H., Ghanbarzadeh B., Moayedi A.A., Synergistic Reinforcing effect of TiO2 and Montmorillonite on Potato Starch Nanocomposite Films: Thermal, Mechanical and Barrier Properties, Carbohydrate Polymers, 152, 253-262, 2016.</unstructured_citation></citation><citation key="ref46"><unstructured_citation>37. Ilyas R.A., Sapuan S.M., Norrrahim M.F., Yasim-Anuar T.A.T., Kadier A., Kalil M.S., Atikah M.S.N., Ibrahim R., Asrofi M., Abral H., Nazrin A., Syafiq R., Aisyah H.A., Asyraf M.R.M., Nanocellulose/starch Biopolymer NanoComposites: Processing, Manufacturing and Applications, Advanced Processing, Properties, and Applications of Starch and Other Bio-based Polymers, Chapter 6, Elsevier, 65-88, 2020.</unstructured_citation></citation><citation key="ref47"><unstructured_citation>38. Marra A., Silvestre C., Duraccio D., Cimmino S., Polylactic acid/zinc Oxide Biocomposite Films for Food Packaging Application, International Journal of Biological Macromolecules, 88, 254-262, 2016.</unstructured_citation></citation><citation key="ref48"><unstructured_citation>39. Arora A., Padua G.W., Review: Nanocomposites in Food Packaging, Journal of Food Science, 75, 1, R43-R49, 2010.</unstructured_citation></citation><citation key="ref49"><unstructured_citation>40. Nekhamanurak B., Patanathabutr P., Hongsriphan N., Thermal–mechanical Property and Fracture Behaviour of Plasticised PLA–CaCO3 Nanocomposite, Plastics, Rubber and Composites, 41, 175-179, 2012.</unstructured_citation></citation><citation key="ref50"><unstructured_citation>41. Huang Y., Mei L., Chen X., Wang Q., Recent Developments in Food Packaging Based on Nanomaterials, Nanomaterials, 8, 10, 830, 2018.</unstructured_citation></citation><citation key="ref51"><unstructured_citation>42. Mohammadi sadati S.M., Shahgholian-Ghahfarrokhi N., Shahrousvand E., Mohammadi-Rovshandeh J., Shahrousvand M., Edible Chitosan/cellulose Nanofiber Nanocomposite Films for Potential Use as Food Packaging, Materials Technology, 37, 10, 1276-1288, 2022.</unstructured_citation></citation><citation key="ref52"><unstructured_citation>43. Malik G.K., Mitra J., Zinc Oxide Nanoparticle Synthesis, Characterization, and Their effect on Mechanical, Barrier, and Optical Properties of Hpmc-based Edible Film, Food and Bioprocess Technology, 14, 3, 441-456, 2021.</unstructured_citation></citation><citation key="ref53"><unstructured_citation>44. De Moura M.R., Avena-Bustillos R.J., Mchugh T.H., Krochta J.M., Mattoso L.H.C., Properties of Novel Hydroxypropyl Methylcellulose Films Containing Chitosan Nanoparticles, Journal of Food Science, 73, 7, N31-N37, 2008.</unstructured_citation></citation><citation key="ref54"><unstructured_citation>45. Xiong F., Wu Y., Li G., Han Y., Xiang F., Transparent nanoComposite Films of Lignin Nanospheres and Poly(vinyl alcohol) for UV-absorbing, Industrial &amp; Engineering Chemistry Research, 57, 4, 1207-1212, 2018.</unstructured_citation></citation><citation key="ref55"><unstructured_citation>46. Sarwar M.S., Niazi M.B.K., Jahan Z., Ahmad T., Hussain A., Preparation and characterization of PVA/nanocellulose/Ag Nanocomposite Films for Antimicrobial Food Packaging, Carbohydrate Polymers, 184, 453-464, 2018.</unstructured_citation></citation><citation key="ref56"><unstructured_citation>47. Idumah C.I., Hassan A., Ihuoma D.E., Recently Emerging trends in Polymer Nanocomposites Packaging Materials, Polymer-Plastics Technology and Materials, 10, 58, 1054-1109, 2019.</unstructured_citation></citation><citation key="ref57"><unstructured_citation>48. Garcia C.V., Shin G.H., Kim J.T., Metal oxide-based NanoComposites in Food Packaging: Applications, Migration, and Regulations, Trends in Food Science &amp; Technology, 82, 21-31, 2018.</unstructured_citation></citation><citation key="ref58"><unstructured_citation>49. Echegoyen Y., Nerín C., Nanoparticle Release from </unstructured_citation></citation><citation key="ref59"><unstructured_citation>Nano-silver Antimicrobial Food Containers, Food and Chemical Toxicology, 62, 16-22, 2013.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A Review of Hydrogels Containing Fibers in Drug Delivery Systems</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>Majid</given_name><surname>Abdouss</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Mohammadreza</given_name><surname>Kalaee</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Omid</given_name><surname>Moradi</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>33</first_page><last_page>41</last_page></pages><doi_data><doi>10.66224/irdpt.42754.8.1.33</doi><resource>http://irdpt.ir/fa/Article/42754</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42754</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42754</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Tang J.D., Mura C., Lampe K.J., Stimuli-Responsive, Pentapeptide, Nanofiber Hydrogel for Tissue Engineering, Journal of the American Chemical Society, 141, 4886-99, 2019.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Khorasani MT., Joorabloo A., Adeli H., Mansoori-Moghadam Z, Moghaddam A., Design and Optimization of Process Parameters of Polyvinyl (alcohol)/ Chitosan/Nano Zinc Oxide Hydrogels as Wound Healing Materials, Carbohydrate Polymers, 207, 542-554, 2019.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Ali A., Ahmed S., A Review on Chitosan and its Nanocomposites in Drug Delivery, International Journal of Biology Macromolecule, 109, 273-286, 2018.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Haraguchi K., Nanocomposite Hydrogels, Current Opinion Solid State Material Science, 11, 47–54, 2017.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Satarkar NS., Biswal D., Hilt JZ., Hydrogel Nanocomposites: A Review of Applications as Remote Controlled Biomaterials, Soft Matter, 6, 2364, 2371, 2010.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Gooneh-Farahani S., Naimi-Jamal MR., Naghib SM., Stimuliresponsive Grapheme Incorporated Multifunctional Chitosan for Drug Delivery Applications: A Review, Expert Opinion Drug Delivery, 16, 79–99, 2019.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Kaur R., Kaur S., Roles of Polymers in Drug Delivery, Journal of Drug Delivery, 4, 32, 2014.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. LaftahWA., Hashim S., Ibrahim AN., Polymer Hydrogels: A Review, Polymer-Plastics Technology and Materials, 50,1475–1486, 2011.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Zhao F., Yao D., Guo R., Deng L., Dong A., Zhang J., Composites of Polymer Hydrogels and Nanoparticulate Systems for Biomedical and Pharmaceutical Applications, Nanomaterial, 5, 2054-2130, 2015.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Sannino A., Demitri C., Madaghiele M., Biodegradable Cellulose Based Hydrogels: Design and Applications. Material, 2, 353-373, 2019.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Ma J., Li X., Bao Y., Advances in Cellulose-based Superabsorbent Hydrogels, RSC Advanves, 5,59745- 59757, 2015.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Gholamali I., Stimuli-Responsive Polysaccharide Hydrogels for Biomedical Applications: A Review, Regenerative Engineering and Translational Medicine, 1-24, 2019.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. HeM., Zhao Y., Duan J.,Wang Z., ChenY., Zhang L., Fast Contact of Solid-Liquid Interface Created High Strength Multi-layered Cellulose Hydrogels with Controllable Size, ACS Applies Material Interfaces, 6, 1872–8,2014.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Qiu X., Hu S.,Smart., Materials Based on Cellulose: A Review of the Preparations, Properties and Applications. Material,</unstructured_citation></citation><citation key="ref15"><unstructured_citation>6, 738- 81, 2013.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>15. Barkhordari S., Yadollahi M., Carboxymethyl Cellulose Capsulated Layered Double Hydroxides/Drug Nanohybrids for Cephalexin Oral Delivery, Applied Clay Science,121, 77-85, 2016.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>16. Yadollahi M., Gholamali I., Namazi H., Aghazadeh M., Synthesis and Characterization of Antibacterial Carboxymethyl Cellulose/ZnO Nanocomposite Hydrogels, International Journal of Biological Macromolecules, 74, 136–141, 2015.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>17. Yadollahi M., Namazi H., Aghazadeh M., Antibacterial Carboxymethyl Cellulose/Ag Nanocomposite Hydrogels Crosslinked with Layered Double Hydroxides ,International Journal of Biological Macromolecules, 79, 269-277, 2015.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>18. Yadollahi M., Gholamali I., Namazi H., Aghazadeh M., Synthesis and Characterization of Antibacterial Carboxymethyl Cellulose/CuO Bio-Nanocomposite Hydrogels, International Journal of Biological Macromolecules, 73, 109-114, 2014.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>19. Gholamali I., Facile Preparation of Carboxymethyl Cellulose/Cu Bio-Nanocomposite Hydrogels for Controlled Release of Ibuprofen, Regenerative Engineering and Translational Medicine, 6, 115-124, 2020.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>20. Foroutan R., Ahmadlouydarab M., Ramavandi B., Mohammadi R.,Studying the Physicochemical Characteristics and Metals Adsorptive Behavior of CMC-g-HAp/Fe3O4 Nanobiocomposite., The Journal of Environmental Chemical Engineering, 6, 6049-6058,2018.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>21. Shen J., Song Z., Qian X., Yang F., Carboxymethyl Cellulose, Journal of Non-Crystalline Solids, 511, 201–211,2019.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>22. Che Nan NF., Zainuddin N., Ahmad M.,Preparation and Swelling Study of CMC Hydrogel as Potential Superabsorbent, Journal of Science &amp; Technology, 27, 489-498, 2019.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>23. Behzadi Nia S., Pooresmaeil M., Namazi H., Carboxymethyl Cellulose/ Layered Double Hydroxides Bio-Nanocomposite Hydrogel: A Controlled Amoxicillin Nanocarrier for Colonic Bacterial Infections Treatment, International Journal of Biological Macromolecules,155, 1401–1409, 2020.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>24. Youssef AM., El-Sayed SM., Bionanocomposites Materials for Food Packaging Applications: Concepts and Future Outlook, Carbohydrate Polymers, 193, 19-27, 2018.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>25. Rakhshaei R., Namazi H. A., Potential Bioactive Wound Dressing Based on Carboxymethyl Cellulose/ ZnO Impregnated MCM-41 Nanocomposite Hydrogel, Materials Science and Engineering: C, 73, 456–464, 2017.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>26. Javanbakht S., Shaabani A., Carboxymethyl Cellulose-based Oral Delivery Systems, International Journal of Biological Macromolecules, 133, 9–21, 2019.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>27. Farhoudian S., Yadollahi M., Namazi H., Facile Synthesis of Antibacterial Chitosan/CuO Bio-Nanocomposite Hydrogel Beads ,International Journal of Biological Macromolecules, 82, 837–843, 2016.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>28. Upadhyaya L., Singh J., Agarwal V., Tewari RP.,The Implications of Recent Advances in Carboxymethyl Chitosan Based Targeted Drug Delivery and Tissue Engineering Applications, Journal of Control Release, 186,54–87, 2014.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>29. Yamada M., Foote M., Prow TW., Therapeutic Gold, Silver, and Platinum Nanoparticles, Wires Nanomed Nanobiotechnology, 428, 445-447, 2015.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>30. Khorasani MT., Joorabloo A., Moghaddam A., Shamsi H., Mansoori MZ., Incorporation of ZnO Nanoparticles into Heparinised Polyvinyl Alcohol/Chitosan Hydrogels for Wound Dressing Application, International Journal of Biological Macromolecules, 114, 1203–1215, 2018.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>31. Chen R., Chen Q., Huo D., Ding Y., Hu Y., Jiang X., In situ Formation of Chitosan-gold Hybrid Hydrogel and Its Application For Drug Delivery, Colloid Surface B: Biointerfac, 132,  1377-1397, 2012. </unstructured_citation></citation><citation key="ref33"><unstructured_citation>32. Li T., Zhang M., Wang J., Wang T., Yao Y., Zhang X., Thermosensitive Hydrogel Co-loaded with Gold Nanoparticles and Doxorubicin for Effective Chemoradiotherapy, Journal of the American Association of Pharmaceutical Scientists, 18, 146–55, 2016.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>33. Zhang Z., He Z., Liang R., Ma Y., Huang W., Jiang R., Fabrication of a Micellar Supramolecular Hydrogel for Ocular Drug Delivery, Biomacromolecules, 17, 798-807, 2016.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>34. Satarkar NS., Biswal D., Hilt JZ., Hydrogel Nanocomposites: A Review of Applications as Remote Controlled Biomaterials, Soft Matter, 6, 2364–2371, 2010.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>35.Sun X., Liu C., Omer AM., Lu W., Zhang S., Jiang X., pH Sensitive ZnO/Carboxymethyl Cellulose/Chitosan Bionanocomposite Beads for Colon-specific Release of 5-fluorouracil, International Journal of Biological Macromolecules, 128, 468–479, 2019.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>36. Gholamali I., Hosseini SN., Alipour E., Yadollahi M., Preparation and Characterization of Oxidized Starch/CuO Nanocomposite Hydrogels Applicable in a Drug Delivery System, Starch/Stärke, 71, 1800118, 2019.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>37. Karami M. H., KalaeeM. R.,Investigation of Curing Kinetics Modeling of Epoxy Nanocomposites in the Presence of Nano Graphene Oxide: A Review Study, Iranian Chemical Engineering Journal, 21, 71-83, 2022.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>38. Karami M. H., Kalaee M.R ., Khajavi R., Moradi O., Zaarei D., Effect of Nano Diamond on Thermal Behavior and Thermal Stability of Epoxy Resin, Nano World, 18, 11-19, 2022.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>39. Lombardo D., Kiselev MA., Caccamo MT., Smart Nanoparticles for Drug Delivery Application: Development of Versatile Nanocarrier Platforms in Biotechnology and Nanomedicine, International Journal of Nanomedicin, 1-29, 2019.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>40. Karami M.H., Abdouss M., KalaeeM.R., MoradiO., Investigating the Antibacterial Properties of Chitosan Nanocomposites Containing Metal Nanoparticles for Using in Wound Healings: A Review Study, Basparesh, In Press, 2023. </unstructured_citation></citation><citation key="ref42"><unstructured_citation>41. Qiu X., Hu S., Smart materials Based on Cellulose: A Review of the Preparations, Properties, and Applications, Materials, 6, 738–781, 2013.</unstructured_citation></citation><citation key="ref43"><unstructured_citation>42. Karami M.H., Kalaee M.R., Khajavi R., Moradi O., Zaarei D.,Thermal Degradation Kinetics of Epoxy Resin Modified with Elastomeric Nanoparticles, Advanced Composite and Hybrid Materials, 5, 390-401, 2022. </unstructured_citation></citation><citation key="ref44"><unstructured_citation>43 Karami M.H., Kalaee M.R., Mazinani S., Shakiba M., Shafiei N .S., Abdouss M., Beig Mohammadi A.,Zhao W.,KooshaM., Song Z., Li T., Curing Kinetics Modeling of Epoxy Modified by Fully Vulcanized Elastomer Nanoparticles Using Rheometry Method, Molecules, 27, 2870, 2022.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>Self-Healing Polymer Electrolytes used in Lithium-Ion Batteries</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Maral</given_name><surname>Ghahramani</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Mobina</given_name><surname>Razani</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>43</first_page><last_page>56</last_page></pages><doi_data><doi>10.66224/irdpt.42755.8.1.43</doi><resource>http://irdpt.ir/fa/Article/42755</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42755</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42755</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Ezeigwe E. R., Dong L., Manjunatha R., Tan M., Yan W., Zhang J., A Review of Self-healing Electrode and Electrolyte Materials and Their Mitigating Degradation of Lithium Batteries, Nano Energy, 84, 105907, 2021.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Zhou B., Jo YH., Wang R., He D., Zhou X., Xie X., Xue Zh., Self-healing Composite Polymer Electrolyte Formed via Supramolecular Networks for High-performance Lithium-ion Batteries, Journal of  Materials Chemistry A, 7, 10354-10362, 2019.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Budde-Meiwes H., Drillkens J., Lunz B., Muennix J., Rothgang S., Kowal J., Uwe Sauer D., A Review of Current Automotive Battery Technology and Future Prospects, Proceedings of the Institution of Mechanical Engineers, Part D: Journal of Automobile Engineering, 227, 761-776, 2013.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Deng D., Li-ion Batteries: Basics, Progress, and challenges, Energy Science &amp; Engineering, 3, 385-418, 2015.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Lu J., Chen Z., Pan F., Cui Y., Amine K., High-performance Anode Materials for Rechargeable Lithium-ion Batteries, Electrochemical Energy Reviews, 1, 35-53, 2018.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Voelker P., Scientific T., Trace Degradation Analysis of Lithium-ion Battery Components, R&amp;D Magazinde, 2014.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Jaumaux P., Liu Q., Zhou D., Xu X., Wang T., Wang Y., :ang F., Li B., Wang G., Deep-eutectic Solvent Based Self-healing Polymer Electrolyte for Safe and Long-life Lithium-metal Batteries, Angewandte Chemie International Edition, 59, 9134-9142, 2020.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Aziz SB., Woo TJ., Kadir M., Ahmed H.M., A Conceptual Review on Polymer Electrolytes and Ion Transport Models, Journal of Science: Advanced Materials and Devices, 3, 1-17, 2018.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Gan H., Zhang Y., Li S., Yu L., Wang J., Xue Z., Self-healing Single-ion Conducting Polymer Electrolyte Formed via Supramolecular Networks for Lithium Metal Batteries, ACS Applied Energy Materials, 4, 482-491, 2020.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Deng K., Zhou S., Xu Z., Xiao M., Meng Y., A High Ion-conducting, Self-healing and Nonflammable Polymer Electrolyte with Dynamic Imine Bonds for Dendrite-free Llithium Metal Batteries, Chemical Engineering Journal, 428, 131224, 2022.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Fuchs Y., Brown S., Gorenc T., Rodriguez J., Fuchs E., Steller H., Sept4/ARTS Regulates Stem Cell Apoptosis and Skin Regeneration, Science, 341, 6143, 286-289, 2013.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Driskell RR., Lichtenberger BM., Hoste E., Kretzschmar K., Simons BD., Charalambous M., Ferron SR., Herault Y., Pavlovic G., Fergosun-Smih AC., Watt FM., Distinct Fibroblast Lineages Determine Dermal Architecture in Skin Development and Repair, Nature, 504, 7479, 277-281, 2013.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Chou WC., Takeo M., Rabbani P., Hu H., Lee W., Chung YR., Carucci J., Overbeek P., Ito M., Direct Migration of Follicular Melanocyte Stem Cells to the Epidermis After Wounding or UVB Irradiation is Dependent on Mc1r Signaling,</unstructured_citation></citation><citation key="ref14"><unstructured_citation> Nature Medicine, 19, 924-929, 2013.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>14. Ying H., Zhang Y., Cheng J., Dynamic Urea Bond for the Design of Reversible and Self-healing Polymers, Nature Communications, 5, 1-9, 2014.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>15. Li C.H., Wang C., Keplinger C., Zuo J-L., Jin L., Sun Y., Zheng P., Cao Y., Lissel F., Linder C., You W-Z., Bao Z., A Highly Stretchable Autonomous Self-healing Elastomer, Nature Chemistry, 8, 618-624, 2016.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>16. Kakuta T., Takashima Y., Nakahata M., Otsubo M., Yamaguchi H. Harada A., Hydrogels: Preorganized Hydrogel: Self-Healing Properties of Supramolecular Hydrogels Formed by Polymerization of Host–Guest Monomers that Contain Cyclodextrins and Hydrophobic Guest Groups, Advanced Materials, 25, 2758-2758, 2013.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>17. Wang C., Liu N., Allen R., Tok JBH., Wu Y., Zhang F.Chen Y., Bao Z., A Rapid and Efficient Self-healing Thermo-reversible Elastomer Crosslinked with Graphene Oxide, Advanced Materials, 25, 5785-5790, 2013.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>18. Yang Y., Urban M. W., Self Repairable Polyurethane Networks by Atmospheric Carbon Dioxide and Water, Angewandte Chemie, 126, 12338-12343, 2014.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>19. Chen X., Dam MA., Ono K., Mal A., Shen H., Nutt SR., Sheran K., Wudl F., A Thermally Re-mendable Cross-linked Polymeric Material, Science, 295, 1698-1702, 2002.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>20. Ghosh B., Urban MW., Self-repairing Oxetane-substituted Chitosan Polyurethane Networks, Science, 323, 1458-1460, 2009.</unstructured_citation></citation><citation key="ref22"><unstructured_citation>21. Imato K., Nishihara M., Kanehara T., Amamoto Y., Takahara A., Otsuka H., Self-healing of Chemical Gels Cross-linked by Diarylbibenzofuranone-based Trigger-free Dynamic Covalent Bonds at Room Temperature, Angewandte Chemie, 124, 1164-1168, 2012.</unstructured_citation></citation><citation key="ref23"><unstructured_citation>22. Chen Y., Kushner AM., Williams GA., Guan Z., Multiphase Design of Autonomic Self-healing Thermoplastic Elastomers, Nature Chemistry, 4, 467-472, 2012.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>23. Cordier P., Tournilhac F., Soulié-Ziakovic C., Leibler L., Self-healing and Thermoreversible Rubber from Supramolecular Assembly, Nature, 451, 977-980, 2008.</unstructured_citation></citation><citation key="ref25"><unstructured_citation>24. Burnworth M., Tang L., Kumpfer JR., Duncan AJ., Beyer FL., Fiore GL., Rowan SJ., Weder C., Optically Healable Supramolecular Polymers, Nature, 472, 334-337, 2011.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>25. Nakahata M., Takashima Y., Yamaguchi H., Harada A., Redox-responsive Self-healing Materials Formed from Host–guest Polymers, Nature Communications, 2, 1-6, 2011.</unstructured_citation></citation><citation key="ref27"><unstructured_citation>26. Wang S., Urban MW., Self-healing Polymers, Nature Reviews Materials, 5, 562-583, 2020.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>27. Binder W. H., Self-healing Polymers: from Principles to Applications, John Wiley &amp; Sons, 211, USA, 2013.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>28. Cha H., Kim J., Lee Y., Cho J., Park M., Issues and Challenges Facing Flexible Lithium-ion Batteries for Practical Application, Small, 14, 1702989, 2018.</unstructured_citation></citation><citation key="ref30"><unstructured_citation>29. Tao T., Lu S., Chen Y., A Review of Advanced Flexible Lithium-ion Batteries, Advanced Materials Technologies, 3, 1700375, 2018.</unstructured_citation></citation><citation key="ref31"><unstructured_citation>30. Tian X., Yang P., Yi Y., Liu P., Wang T., Shu C., Qu L., Tang W., Zhang Y., Li M., Yang B., Self-healing and High Stretchable Polymer Electrolytes Based on Ionic Bonds with High Conductivity for Lithium Batteries, Journal of Power Sources, 450, 227629, 2020.</unstructured_citation></citation><citation key="ref32"><unstructured_citation>31. Zhou B., Yang M., Zuo C., Chen G., He D., Zhou X., Liu C., Xie X., Xue Z., Flexible, Self-healing, and Fire-resistant Polymer Electrolytes Fabricated via Photopolymerization for All-solid-state Lithium Metal Batteries, ACS Macro Letters, 9, 525-532, 2020.</unstructured_citation></citation><citation key="ref33"><unstructured_citation>32. Zhou B., He D., Hu J., Ye Y., Peng H., Zhou X., Xie X., Xue Z., A flexible, Self-healing and Highly Stretchable Polymer Electrolyte via Quadruple Hydrogen Bonding for Lithium-ion Batteries, Journal of Materials Chemistry A, 6, 11725-11733, 2018.</unstructured_citation></citation><citation key="ref34"><unstructured_citation>33. Ahmed F., Choi I., Rahman MM., Jang H., Ryu T., Yoon S., Jin L., Jin Y., Kim W., Remarkable Conductivity of a Self-healing Single-ion Conducting Polymer Electrolyte, Poly (ethylene-Co-Acrylic Lithium (Fluoro Sulfonyl) Imide), for All-solid-state Li-ion Batteries, ACS Applied Materials &amp; Interfaces, 11, 34930-34938, 2019.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>34. D’Angelo AJ., Panzer MJ., Design of Stretchable and Self-healing Gel Electrolytes via Fully Zwitterionic Polymer Networks in Solvate Ionic Liquids for Li-based Batteries, Chemistry of Materials, 31, 2913-2922, 2019.</unstructured_citation></citation><citation key="ref36"><unstructured_citation>35. Wang C., Li R., Chen P., Fu Y., Ma X., Shen T., Zhou B., Chen K., Fu J., Bao X., Yan W., Yong Y., Highly Stretchable, Non-flammable and Notch-insensitive Intrinsic Self-healing Solid-state Polymer Electrolyte for Stable and Safe Flexible Lithium Batteries, Journal of Materials Chemistry A, 9, 4758-4769, 2021.</unstructured_citation></citation><citation key="ref37"><unstructured_citation>36. Wang P., Yang L., Dai B., Yang Z., Guo S., Gao G., Xu L., Sun M., Yao K., Zhu J., A Self-Healing Transparent Polydimethylsiloxane Elastomer Based on Imine Bonds, European Polymer Journal, 123, 109382, 2020.</unstructured_citation></citation><citation key="ref38"><unstructured_citation>37. Cao X., Zhang P., Guo N., Tong Y., Xu Q., Zhou D., Feng Z., Self-healing Solid Polymer Electrolyte Based on Imine Bonds for High Safety and Stable Lithium Metal Batteries, RSC Advances, 11, 2985-2994, 2021.</unstructured_citation></citation><citation key="ref39"><unstructured_citation>38. Liang F., Wang T., Fan H., Xiang J., Chen Y., A Leather Coating with Self-healing Characteristics, Leather Science and Engineering Journal, 2, 1, 2020.</unstructured_citation></citation><citation key="ref40"><unstructured_citation>39. Jo Y. H., Li Sh., Zho C., Zhang Y., Gan H., Li S., Yu L., He D., Xie X., Xue Z., Self-healing Solid Polymer Electrolyte Facilitated by a Dynamic Cross-linked Polymer Matrix for Lithium-ion Batteries, Macromolecules,53, 1024-1032, 2020.</unstructured_citation></citation><citation key="ref41"><unstructured_citation>40. Ehrhardt D., Van Durme K., Jansen J. F., Van Mele B., Van den Brande N., Self-healing UV-Curable Polymer Network with Reversible Diels-Alder Bonds for Applications in Ambient Conditions, Polymer, 203, 122762, 2020. </unstructured_citation></citation><citation key="ref42"><unstructured_citation>41. Chen L., Cai X., Sun Z., Zhang B., Bao Y., Liu Z., Han D., Niu L., Self-Healing of a Covalently Cross-Linked Polymer Electrolyte Membrane by Diels-Alder Cycloaddition and Electrolyte Embedding for Lithium Ion Batteries, Polymers, 13, 4155, 2021.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>A review of methods for determining contact stress in polymer base gears</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Rasool</given_name><surname>Molhsenzadeh</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>57</first_page><last_page>62</last_page></pages><doi_data><doi>10.66224/irdpt.42756.8.1.57</doi><resource>http://irdpt.ir/fa/Article/42756</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42756</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42756</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Johnson K., A Review of the Theory of Rolling Contact Stresses, Wear, 9, 4-19, 1966.</unstructured_citation></citation><citation key="ref2"><unstructured_citation>2. Dutt K.A., Soni S., Patel D., Hertzian Contact Stress Analysis in Roller Power Transmission One-way Clutch by Using Finite Element Analysis, Advanced Engineering Optimization Through Intelligent Techniques, 621-630, 2020.</unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. He Y., Numerical Simulation-based Optimization of Contact Stress Distribution and Lubrication Conditions in the Straight Worm Drive, Strength of Materials, 50, 157-165, 2018.</unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Hertz H., On the Contact of Rigid Elastic Solids and on Hardness, Chapter 6: Assorted Papers, MacMillan, New York, 1882.</unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Liu, C.P., Effect of Pre-wear on the Rolling Contact Fatigue Property of D2 Wheel Steel, Wear, 442, 203154, 2020.</unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Lin Y., Zhou Z., Li K.Y., Improved Wear Resistance at High Contact Stresses of Hydrogen-free Diamond-like Carbon Coatings by Carbon/carbon Multilayer Architecture, Applied Surface Science, 477, 137-146, 2019.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Medina R., Deep Learning-based Gear Pitting Severity Assessment Using Acoustic Emission, Vibration and Currents Signals, 2019 Prognostics and System Health Management Conference (PHM-Paris), IEEE, 2019.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Wright D.H., Testing Automotive Materials and Components, Society of Automotive Engineers, 251- 254, 1993.</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Dudley D.W., Handbook of Practical Gear Design, McGraw-Hill Book Company, 656, 1984.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Mohsenzadeh R., Wear and Failure of Polyoxymethylene/calcium Carbonate Nanocomposite Gears, Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology, 1350650119867530, 2019.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Li J., A Novel Method for Early Gear Pitting Fault Diagnosis Using Stacked SAE and GBRBM, Sensors, 19, 758, 2019.</unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Hassan A.R., Contact Stress Analysis of Spur Gear Teeth Pair, World Academy of Science, Engineering and Technology,  58, 597-602, 2009.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Mohsenzadeh R., Gear Life and Failure Mode Versus Meshing Stress in Polyacetal/carbon Black Nanocomposite Gears, Engineering Failure Analysis, 131, 105859, 2022.</unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. MohsenzadehR., Development of Stress Distribution of Composite Gear Tooth Reinforced by Nano-CaCo3, Using Finite Element Analysis and its Correlation with Experience, Journal of Failure Analysis and Prevention, 1-9, 2022.</unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Sukumaran J., Modelling Gear Contact with Twin-disc Setup, Tribology International, 49, 1-7, 2012.</unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Colbourne J.R., The geometry of involute gearsm, Springer Science &amp; Business Media, 173-197, 2012.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Litvin F.L., and Alfonso F., Gear geometry and applied theory, Cambridge university press, 251-253, 2004.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Mohsenzadeh R., Soudmand B., and Shelesh-Nezhad K., Failure Analysis of POM Ternary Nanocomposites for Gear Applications: Experimental and Finite Element Study, Engineering Failure Analysis, 140, 106606, 2022.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Mohsenzadeh R., Soudmand V., Shelesh-Nezhad K., A Combined Experimental-numerical Approach for Life Analysis and Modeling of Polymer-based Ternary Nanocomposite Gears, Tribology International, 107654, 2022.</unstructured_citation></citation><citation key="ref20"><unstructured_citation>20. Mohsenzadeh R., Analysis and Stress Distribution in Polymer Gears, Iran Polymer Technology, Research and Development, 2, 71-77, 1399.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Li W., An Investigation on the Wear Behaviour of Dissimilar Polymer Gear Engagements, Wear,  271, 2176-2183, 2011.</unstructured_citation></citation></citation_list></journal_article><journal_article publication_type="full_text"><titles><title>studing two important technologies of propane dehydrogenation technology and the necessity of using this technology in the Iranian petrochemical industry</title></titles><contributors><person_name contributor_role="author" sequence="first"><given_name>Mohammad Mehdi</given_name><surname>Barjesteh</surname></person_name><person_name contributor_role="author" sequence="additional"><given_name>Hossein</given_name><surname>Zamani</surname></person_name></contributors><publication_date media_type="online"><month>6</month><day>7</day><year>2023</year></publication_date><pages><first_page>63</first_page><last_page>73</last_page></pages><doi_data><doi>10.66224/irdpt.42757.8.1.63</doi><resource>http://irdpt.ir/fa/Article/42757</resource><collection property="crawler-based"><item crawler="iParadigms"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item><item crawler="google"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item><item crawler="msn"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item><item crawler="altavista"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item><item crawler="yahoo"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item><item crawler="scirus"><resource>http://irdpt.ir/fa/Article/Download/42757</resource></item></collection><collection property="text-mining"><item><resource mime_type="application/pdf">http://irdpt.ir/fa/Article/Download/42757</resource></item></collection></doi_data><citation_list><citation key="ref1"><unstructured_citation>1. Sahebdelfar S., Tahriri Zangeneh F., Dehydrogenation of Propane to Propylene Over Pt-Sn/-Al2O3 Catalysts: The Influence of Operating Conditions on Product Selectivity, Iranian Journal of Chemical Engineering, 7, 51-57, 2010.</unstructured_citation></citation><citation key="ref2"><unstructured_citation> 2. Chen S., Chang X., Sun G., Zhang T., Xu Y., Wang Y., Peiab C., Gong J., Propane Dehydrogenation: Catalyst Development New Chemistry, and Emerging Technologies, Chemical Society Reviews Journal, 50, 3315-3354, 2021. </unstructured_citation></citation><citation key="ref3"><unstructured_citation>3. Fattahi M., Khorasheha F., Sahebdelfar S., Tahriri Zangeneh F.,Ganji K., Saeedizad M., The effect of Oxygenate Additives on the Performance of Pt–Sn/γ -Al2O3 Catalyst in the Propane Dehydrogenation Process, Scientia Iranica, 18, 1377-1383, 2011. </unstructured_citation></citation><citation key="ref4"><unstructured_citation>4. Martino M., Meloni E., Festa G., Palma V., Propylene Synthesis: Recent Advances in the Use of Pt-based Catalysts for Propane Dehydrogenation Reaction, Catalysts, 11, 1070, 2021. </unstructured_citation></citation><citation key="ref5"><unstructured_citation>5. Moghimpour Bijani P., Sahebdelfar S., Modeling of a Radial-flow Moving-bed Reactor for Dehydrogenation of Isobutane, Kinetics and Catalysis, 49, 599–605, 2008. </unstructured_citation></citation><citation key="ref6"><unstructured_citation>6. Yee C.S., Prasetiawan H., Hisyam A., Azahari A., Maharon I.H., Sensitivity Study of the Propane Dehydrogenation Process in an Industrial Radial Moving Bed Reactor, Journal of Engineering Science and Technology, 21, 62–74, 2015.</unstructured_citation></citation><citation key="ref7"><unstructured_citation>7. Maddah H.A., A Comparative Study between Propane Dehydrogenation (PDH) Technologies and Plants in Saudi Arabia, American Scientific Research Journal for Engineering, Technology, and Sciences, 45, 49–63, 2018.</unstructured_citation></citation><citation key="ref8"><unstructured_citation>8. Zuo C., Su Q., Research Progress on Propylene Preparation by Propane Dehydrogenation, Molecules, 28, 3594, 2023..</unstructured_citation></citation><citation key="ref9"><unstructured_citation>9. Baldwin S.F.,Quadrennial Technology Review: An Assessment of Energy Technologies and Research Opportunities, Technical Report, US Department of energy, Washington DC, 2015.</unstructured_citation></citation><citation key="ref10"><unstructured_citation>10. Alper J., National Academies of Sciences, Engineering, and Medicine, The National Academies Press, Washington, DC, Section 4, 37–50, 2016.</unstructured_citation></citation><citation key="ref11"><unstructured_citation>11. Nawaz Z., Light Alkane Dehydrogenation to Light Olefin Technologies: A Comprehensive Review, Reviews in Chemical Engineering, 31,413-436, 2015. </unstructured_citation></citation><citation key="ref12"><unstructured_citation>12. Stevens D., Propane Dehydrogenation–Reactor and Product Recovery, Application Report, 1-5, 2016.</unstructured_citation></citation><citation key="ref13"><unstructured_citation>13. Xiao L., Ma F., Zhu Y., Sui Z., Zhou J., Zhou X., Improved Selectivity and Coke Resistance of Core-shell Alloy Catalysts for Propane Dehydrogenation from First Principles and Microkinetic Analysis, Chemical Engineering Journal, 377, 120049, 2019. </unstructured_citation></citation><citation key="ref14"><unstructured_citation>14. Farsi M., Dynamic Modelling, Simulation and Control of Isobutane Dehydrogenation in a Commercial Oleflex Process Considering Catalyst Deactivation, Journal of the Taiwan Institute of Chemical Engineers, 57, 18-25, 2015. </unstructured_citation></citation><citation key="ref15"><unstructured_citation>15. Trirahayu D. A., Process Simulation of Propylene Production from Prude Palm Oil by Hydrodeoxygenation and Propane Dehydrogenation, Journal of Physics: Conference Series, 1450, 012009, 2020. </unstructured_citation></citation><citation key="ref16"><unstructured_citation>16. Gupta P., The Profitable Path to Olefins Using UOP Oleflex™ Process, Elite Petrochemical Conference, Mumbai, India, October 11-12, 2017.</unstructured_citation></citation><citation key="ref17"><unstructured_citation>17. Millard M., Petrochemical Technology:Vision 2030, 16th International Conference Indian Petrochem, Mumbai, India October 30, 2014.</unstructured_citation></citation><citation key="ref18"><unstructured_citation>18. Agarwal A., A Design Approach for On-purpose Propylene Production with Safety and Sustainability Considerations, Master of Science Thesis,  Texas A&amp;M University, 2018.</unstructured_citation></citation><citation key="ref19"><unstructured_citation>19. Yang X., Liu G., Li Y., Zhang L., Wang X., Liu Y., Novel Pt–Ni Bimetallic Catalysts Pt(Ni)–LaFeO3/SiO2 via Lattice Atomic Confned Reduction for Highly Efcient Isobutane Dehydrogenation, Transactions of Tianjin University, 25, 245-257, 2019. </unstructured_citation></citation><citation key="ref20"><unstructured_citation>20. Walker K., Techno-economic Feasibility of Propane Dehydrogenation in Novel Membrane Reactors, Master Thesis, Eindhoven University of Technology, Department of Chemical Engineering, 2020.</unstructured_citation></citation><citation key="ref21"><unstructured_citation>21. Wang G., Lu K., Yin C., Meng F., Zhang Q., Yan X., Bing L., Wang F., Han D., One-step Fabrication of PtSn/-Al2O3 Catalysts with la Post-modification for Propane Dehydrogenation, Catalysts, 10, 1042, 2020. </unstructured_citation></citation><citation key="ref22"><unstructured_citation>22. Carter J.H., Bere T.,  Pitchers J.R., Hewes D.G., Vandegehuchte B.D., Kiely C.J., Taylor S.H., Hutchings G.J., Direct and Oxidative Dehydrogenation of Propane: From Catalyst Design to Industrial Application, Green Chemistry, 23, 9747, 2021. </unstructured_citation></citation><citation key="ref23"><unstructured_citation>23. Fernandez J.H., Guerra Y.,Polo E.P., Marquez E., Effects of Different Concentrations of Arsine on the Synthesis and Final Properties of Polypropylene, Polymers, 14,3123, 2022.</unstructured_citation></citation><citation key="ref24"><unstructured_citation>24. Grande C. A., Advances in Pressure Swing Adsorption for Gas Separation, International Scholarly Research Network, ISRN Chemical Engineering, 2012, 982934, 2012. </unstructured_citation></citation><citation key="ref25"><unstructured_citation>25.The Line Group, www.linde-engineering.com, Hydrogen Recovery by Pressure Swing Adsorption, 23942_LCS_0816.</unstructured_citation></citation><citation key="ref26"><unstructured_citation>26. Luberti M., Ahn H., Review of Polybed Pressure Swing Adsorption for Hydrogen Purification, International Journal of Hydrogen Energy, 47, 10911-10933, 2022. </unstructured_citation></citation><citation key="ref27"><unstructured_citation>27. Luberti M., Ahn H., Review of Polybed Pressure Swing Adsorption for Hydrogen Purification, International Journal of Hydrogen Energy, 47, 10911-10933, 2022.</unstructured_citation></citation><citation key="ref28"><unstructured_citation>28. Monai M., Gambino M., Wannakao S., Weckhuysen B.M., Propane to Olefins Tandem Catalysis: A Selective Route toWards Light Olefins Production, Chemical Society Reviews, 50, 11503-11529, 2021.</unstructured_citation></citation><citation key="ref29"><unstructured_citation>29. Won W., Lee K. S., Lee S., Jung C., Repetitive Control and Online Optimization of Catofin Propane Process, Computers and Chemical Engineering, 34, 508-517, 2010. </unstructured_citation></citation><citation key="ref30"><unstructured_citation>30. Hu R., Li X., Sui Z., Ye G., Zhou X., Process Simulation and Optimization of Propane Dehydrogenation Combined with Selective Hydrogen Combustion, Chemical Engineering and Processing-Process Intensification, 143:107608, 2019. </unstructured_citation></citation><citation key="ref31"><unstructured_citation>31. Oudi A., Hajatipour M., Yarmohammadian S., Modeling and Simulation of Propane Dehydrogenation Radial Flow Reactors and Investigating the Effect of Coke Formation, Journal of Petroleum Research, 32, 131-141, 2022. </unstructured_citation></citation><citation key="ref32"><unstructured_citation>32. Monai M., Gambino M., Wannakao S., Weckhuysen B.M., Propane to Olefins Tandem Catalysis: A Selective Route Towards Light Olefins Production, Chemical Society Reviews, 50, 11503, 2021. </unstructured_citation></citation><citation key="ref33"><unstructured_citation>33. Seo S.T., Won W., Lee K.S., Jung C., Lee S., Repetitive Control of CATOFIN Process, Korean Journal of Chemical Engineering, 24, 921-926, 2007. </unstructured_citation></citation><citation key="ref34"><unstructured_citation>34. Won W., Lee K.S, Seo S., Online Optimization of CATOFIN Process, International Conference on Control, Automation and Systems, October 17-20, Seoul, South Korea, 250-255 2007.</unstructured_citation></citation><citation key="ref35"><unstructured_citation>35. Brune A., Morgenstern A.S., Hamel C., Analysis and Model-based Description of the Total Process of Periodic Deactivation and Regeneration of a VOx Catalyst for Selective Dehydrogenation of Propane, Catalysts, 10, 1374, 2020, </unstructured_citation></citation></citation_list></journal_article></journal></body></doi_batch>