﻿<?xml version="1.0" encoding="utf-8" ?>
<XML>
  <ISCJOURNAL>
    <YEAR>2023</YEAR>
    <VOL>5</VOL>
    <NO>17</NO>
    <MOSALSAL>17</MOSALSAL>
    <PAGE_NO>6</PAGE_NO>
    <ARTICLES>
      <ARTICLE>
        <DOI>10.61186/jcc.5.4.3</DOI>
        <LANGUAGE_ID>1</LANGUAGE_ID>
        <TitleF/>        
        <TitleE>Smart biomaterial composites for controlled drug release: mechanisms and applications</TitleE>
        <ABSTRACTS>
          <ABSTRACT>
            <LANGUAGE_ID>1</LANGUAGE_ID>
            <CONTENT>Smart biomaterial composites signify an important progress for biomedical engineering, particularly in the area of measuring drug release. These innovative materials are engineered to respond to specific  stimuli  from  their  environment, enabling precise  andtargeted  delivery of  therapeutic compounds. The integration of smart biomaterials into medication systems is key to enhancing treatment efficacy and safety, as they can diminish side effects and improve patient adherence by maintaining drug levels within the therapeutic window. The aim of this article is to explore the mechanisms  and  applications  of  smart  biomaterial  composites  in  controlled  drug  release, highlighting their potential to revolutionize therapeutic strategies in biomedical engineering.</CONTENT>
          </ABSTRACT>
        </ABSTRACTS>
        <PAGES>
          <PAGE>
            <FPAGE>1</FPAGE>
            <TPAGE>6</TPAGE>
          </PAGE>
        </PAGES>
        <AUTHORS>
          <AUTHOR>
            <Name>Amaneh</Name>
            <MidName/>
            <Family>Bakhtiari</Family>
            <Organizations>
              <Organization>Department of Biology, Shahid Chamran University</Organization>
            </Organizations>
            <Countries>
              <Country>Iran</Country>
            </Countries>
            <EMAILS>
              <Email>info@jourcc.com</Email>
            </EMAILS>
          </AUTHOR>
          <AUTHOR>
            <Name>Lili</Name>
            <MidName/>
            <Family>Arabuli</Family>
            <Organizations>
              <Organization>Department of Natural Sciences, School of Science and Technology, University of Georgia</Organization>
              <Organization>Yildiz Technical University, Science and Art Faculty, Davutpasa Campus, 34220, Esenler</Organization>
            </Organizations>
            <Countries>
              <Country>Georgia</Country>
              <Country>Türkiye</Country>
            </Countries>
            <EMAILS>
              <Email>l.arabuli@ug.edu.ge</Email>
            </EMAILS>
          </AUTHOR>
          <AUTHOR>
            <Name>Farnaz</Name>
            <MidName/>
            <Family>Sadeghi</Family>
            <Organizations>
              <Organization>Department of Biomedical Engineering, Islamic Azad University, Central Tehran Branch</Organization>
            </Organizations>
            <Countries>
              <Country>Iran</Country>
            </Countries>
            <EMAILS>
              <Email>info@jourcc.com</Email>
            </EMAILS>
          </AUTHOR>
        </AUTHORS>
        <KEYWORDS>
          <KEYWORD>
            <KeyText>Drug Release</KeyText>
          </KEYWORD>
          <KEYWORD>
            <KeyText>Smart Biomaterial Composites</KeyText>
          </KEYWORD>
          <KEYWORD>
            <KeyText>Release Kinetics</KeyText>
          </KEYWORD>
        </KEYWORDS>
        <PDFFileName>Article3.pdf</PDFFileName>
        <REFERENCES>
          <REFERENCE>
            <REF>[1] R.A. Perez, J.-E. Won, J.C. Knowles, H.-W. Kim, Naturally and synthetic smart composite biomaterials for tissue regeneration, Advanced drug delivery reviews 65(4) (2013) 471-496.##[2] S.S. Das, P. Bharadwaj, M. Bilal, M. Barani, A. Rahdar, P. Taboada, S. Bungau,  G.Z.  Kyzas,  Stimuli-responsive  polymeric  nanocarriers  for  drug delivery, imaging, and theragnosis, Polymers 12(6) (2020) 1397.##[3] S. Municoy, M.I. Alvarez Echazu, P.E. Antezana, J.M. Galdopórpora, C. Olivetti, A.M. Mebert, M.L. Foglia, M.V. Tuttolomondo, G.S. Alvarez, J.G. Hardy, Stimuli-responsive materials for tissue engineering and drug delivery, International Journal of Molecular Sciences 21(13) (2020) 4724.##[4] R.-V. Kalaydina, K. Bajwa, B. Qorri, A. Decarlo, M.R. Szewczuk, Recent advances in “smart” delivery systems for extended drug release in cancer therapy, International journal of nanomedicine  (2018) 4727-4745.##[5] O.S. Fenton, K.N. Olafson, P.S. Pillai, M.J. Mitchell, R. Langer, Advances in biomaterials for drug delivery, Advanced Materials 30(29) (2018) 1705328.##[6] A.C. Anselmo, S. Mitragotri, An overview of clinical and commercial impact of drug delivery systems, Journal of Controlled Release 190 (2014) 15-28.##[7] M.I. Khan, M.I. Hossain, M.K. Hossain, M. Rubel, K. Hossain, A. Mahfuz, M.I. Anik, Recent progress in nanostructured smart drug delivery systems for cancer therapy: a review, ACS Applied Bio Materials 5(3) (2022) 971-1012.##[8] A.P. Singh, A. Biswas, A. Shukla, P. Maiti, Targeted therapy in chronic diseases using nanomaterial-based drug delivery vehicles, Signal transduction and targeted therapy 4(1) (2019) 33.##[9] C.M. Wells, M. Harris, L. Choi, V.P. Murali, F.D. Guerra, J.A. Jennings, Stimuli-Responsive Drug Release from Smart Polymers, J Funct Biomater 10(3) (2019)  DOI: 10.3390/jfb10030034.##[10]  S.G.  Reddy,  H.C.A.  Murthy,  Smart  Biomaterials  in  Drug  Delivery Applications, 2023, pp. 323-360.##[11]  O.S.  Fenton,  K.N.  Olafson,  P.S.  Pillai,  M.J.  Mitchell,  R.  Langer, Advances in Biomaterials for Drug Delivery, Adv Mater  (2018) e1705328 DOI: 10.1002/adma.201705328.##[12] A.  Pillai,  D.  Bhande,  V.  Pardhi,  Controlled  drug  delivery  system, Advanced drug delivery: Methods and applications, Springer2023, pp. 267-289.##[13] Q. Gao, J.-S. Lee, B.S. Kim, G. Gao, Three-dimensional printing of smart constructs  using  stimuli-responsive  biomaterials:  A  future  direction  of precision medicine, International Journal of Bioprinting 9(1) (2022) 638.##[14] N. Kamaly, B. Yameen, J. Wu, O.C. Farokhzad, Degradable controlled-release polymers and polymeric nanoparticles: mechanisms of controlling drug release, Chemical reviews 116(4) (2016) 2602-2663.##[15] M. Karimi, P. Sahandi Zangabad, A. Ghasemi, M. Amiri, M. Bahrami, H. Malekzad,  H.  Ghahramanzadeh  Asl,  Z.  Mahdieh,  M.  Bozorgomid,  A. Ghasemi,  Temperature-responsive  smart  nanocarriers  for  delivery  of therapeutic agents: applications and recent advances, ACS applied materials  interfaces 8(33) (2016) 21107-21133.##[16] M.J. Taylor, P. Tomlins, T.S. Sahota, Thermoresponsive gels, Gels 3(1) (2017) 4.##[17] J.S. Katz, J.A. Burdick, Light‐responsive biomaterials: development and applications, Macromolecular bioscience 10(4) (2010) 339-348.##[18] H.P. Lee, A.K. Gaharwar, Light‐responsive inorganic biomaterials for biomedical applications, Advanced science 7(17) (2020) 2000863.##[19] C. Montoya, Y. Du, A.L. Gianforcaro, S. Orrego, M. Yang, P.I. Lelkes, On the road to smart biomaterials for bone research: definitions, concepts, advances, and outlook, Bone Research 9(1) (2021) 12 DOI: 10.1038/s41413-020-00131-z.##[20] P.T. Wong, S.K. Choi, Mechanisms of drug release in nanotherapeutic delivery systems, Chemical reviews 115(9) (2015) 3388-3432.##[21]  M.V.  Varma,  A.M.  Kaushal,  A.  Garg,  S.  Garg,  Factors  affecting mechanism and kinetics of drug release from matrix-based oral controlled drug delivery systems, American Journal of drug delivery 2 (2004) 43-57.##[22] S. Lakshmanan, G.K. Gupta, P. Avci, R. Chandran, M. Sadasivam, A.E.S. Jorge,  M.R.  Hamblin,  Physical  energy  for  drug  delivery;  poration, concentration and activation, Advanced drug delivery reviews 71 (2014) 98-114.##[23] R. Blagoeva, A. Nedev, Monolithic controlled delivery systems: Part I. Basic characteristics and mechanisms, International Journal Bioautomation 4 (2006) 80.##[24] C.-C. Lin, A.T. Metters, Hydrogels in controlled release formulations: network design and mathematical modeling, Advanced drug delivery reviews 58(12-13) (2006) 1379-1408.##[25] I. Koutsamanis, A. Paudel, K. Nickisch, K. Eggenreich, E. Roblegg, S. Eder, Controlled-release from high-loaded reservoir-type systems—A case study of ethylene-vinyl acetate and progesterone, Pharmaceutics 12(2) (2020) 103.
              ##[26] M.-L. Laracuente, H.Y. Marina, K.J. McHugh, Zero-order drug delivery: State of the art and future prospects, Journal of Controlled Release 327 (2020) 834-856.##[27]  F.M.  Kashkooli,  M.  Soltani,  M.  Souri,  Controlled  anti-cancer  drug release through advanced nano-drug delivery systems: Static and dynamic targeting strategies, Journal of controlled release 327 (2020) 316-349.##[28] B.Z. Chen, Y.T. He, Z.Q. Zhao, Y.H. Feng, L. Liang, J. Peng, C.Y. Yang, H.  Uyama,  M.-A.  Shahbazi,  X.D.  Guo,  Strategies  to  develop  polymeric microneedles for controlled drug release, Advanced Drug Delivery Reviews 203 (2023) 115109.##[29] A. Samir, F.H. Ashour, A.A. Hakim, M. Bassyouni, Recent advances in biodegradable  polymers  for  sustainable  applications,  Npj  Materials Degradation 6(1) (2022) 68.##[30]  L.  Zhao,  J.  Zhao,  K.  Zhong,  A.  Tong,  D.  Jia,  Targeted  protein degradation: mechanisms, strategies and application, Signal transduction and targeted therapy 7(1) (2022) 113.##[31]  S.  Ghosal,  J.E.  Walker,  C.A. Alabi,  Predictive  Platforms  of  Bond Cleavage and Drug Release Kinetics for Macromolecule–Drug Conjugates, Annual Review of Chemical and Biomolecular Engineering 12(1) (2021) 241-261.##[32] S. Ahmadi, N. Rabiee, M. Bagherzadeh, F. Elmi, Y. Fatahi, F. Farjadian, N.  Baheiraei,  B.  Nasseri,  M.  Rabiee,  N.T.  Dastjerd,  Stimulus-responsive sequential release systems for drug and gene delivery, Nano today 34 (2020) 100914.##[33] A.H.  Karoyo,  L.D.  Wilson, A  review  on  the  design  and  hydration properties of natural polymer-based hydrogels, Materials 14(5) (2021) 1095.##[34]  Z.  Mazidi,  S.  Javanmardi,  S.M.  Naghib,  Z.  Mohammadpour,  Smart stimuli-responsive implantable drug delivery systems for programmed and on-demand  cancer  treatment:  An  overview  on  the  emerging  materials, Chemical Engineering Journal 433 (2022) 134569.##[35] A. Das, T. Ringu, S. Ghosh, N. Pramanik, A comprehensive review on recent  advances  in  preparation,  physicochemical  characterization,  and bioengineering applications of biopolymers, Polymer Bulletin 80(7) (2023) 7247-7312.##[36]  M. Arefian,  M.  Hojjati,  I. Tajzad, A.  Mokhtarzade,  M.  Mazhar, A. Jamavari,  A  review  of  Polyvinyl  alcohol/Carboxymethyl  cellulose (PVA/CMC) composites for various applications, Journal of Composites and Compounds 2(3) (2020) 69-76.##[37] E.M. Pritchard, D.L. Kaplan, Silk fibroin biomaterials for controlled release drug delivery, Expert opinion on drug delivery 8(6) (2011) 797-811.##[38] M.S. Reza, M.A. Quadir, S.S. Haider, Comparative evaluation of plastic, hydrophobic and hydrophilic polymers as matrices for controlled-release drug delivery, J Pharm Pharm Sci 6(2) (2003) 282-291.##[39] A. Chaudhary, U. Nagaich, N. Gulati, V. Sharma, R. Khosa, Enhancement of solubilization and bioavailability of poorly soluble drugs by physical and chemical  modifications: A  recent  review,  Journal  of Advanced  Pharmacy Education and Research 2(1-2012) (2012) 32-67.##[40] N.M. AlSawaftah, N.S. Awad, W.G. Pitt, G.A. Husseini, pH-responsive nanocarriers in cancer therapy, Polymers 14(5) (2022) 936.##[41]  M.  Askarizadeh,  N.  Esfandiari,  B.  Honarvar,  S.A.  Sajadian,  A. Azdarpour, Kinetic modeling to explain the release of medicine from drug delivery systems, ChemBioEng Reviews 10(6) (2023) 1006-1049.##[42] Y.-S. Lin, R.-Y. Tsay, Drug release from a spherical matrix: theoretical analysis for a finite dissolution rate affected by geometric shape of dispersed drugs, Pharmaceutics 12(6) (2020) 582.##[43] N.R. Richbourg, N.A. Peppas, The swollen polymer network hypothesis: Quantitative  models  of  hydrogel  swelling,  stiffness,  and  solute  transport, Progress in Polymer Science 105 (2020) 101243.##[44] E.A. Chacin Ruiz, K.E. Swindle-Reilly, A.N. Ford Versypt, Experimental and mathematical approaches for drug delivery for the treatment of wet age-related macular degeneration, Journal of Controlled Release 363 (2023) 464-483##[45]  T.  Pires,  J.W.  Dunlop,  P.R.  Fernandes, A.P.  Castro,  Challenges  in computational  fluid  dynamics  applications  for  bone  tissue  engineering, Proceedings of the Royal Society A 478(2257) (2022) 20210607.##[46] T.C. Ezike, U.S. Okpala, U.L. Onoja, C.P. Nwike, E.C. Ezeako, O.J. Okpara, C.C. Okoroafor, S.C. Eze, O.L. Kalu, E.C. Odoh, U.G. Nwadike, J.O. Ogbodo, B.U. Umeh, E.C. Ossai, B.C. Nwanguma, Advances in drug delivery systems, challenges and future directions, Heliyon 9(6) (2023) e17488 DOI: 10.1016/j.heliyon.2023.e17488.##[47] X. Dai, Y. Chen, Computational biomaterials: computational simulations for biomedicine, Advanced Materials 35(7) (2023) 2204798.##[48]  J.C.  Schuh,  K.A.  Funk,  Compilation  of  international  standards  and regulatory  guidance  documents  for  evaluation  of  biomaterials,  medical devices, and 3-D printed and regenerative medicine products, Toxicologic pathology 47(3) (2019) 344-357.##[49] H.M. Khan, X. Liao, B.A. Sheikh, Y. Wang, Z. Su, C. Guo, Z. Li, C. Zhou, Y. Cen, Q. Kong, Smart biomaterials and their potential applications in tissue engineering, Journal of Materials Chemistry B 10(36) (2022) 6859-6895.##[50] A. Manero, K.E. Crawford, H. Prock‐Gibbs, N. Shah, D. Gandhi, M.J. Coathup, Improving disease prevention, diagnosis, and treatment using novel bionic technologies, Bioengineering  Translational Medicine 8(1) (2023) e10359.##[51] A.B.  Shodeinde, A.C.  Murphy,  H.F.  Oldenkamp, A.S.  Potdar,  C.M. Ludolph,  N.A.  Peppas,  Recent  advances  in  smart  biomaterials  for  the detection  and  treatment  of  autoimmune  diseases,  Advanced  functional materials 30(37) (2020) 1909556.</REF>
          </REFERENCE>
        </REFERENCES>
      </ARTICLE>
    </ARTICLES>
  </ISCJOURNAL>
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