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<article xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance" xmlns:ali="http://www.niso.org/schemas/ali/1.0/" article-type="other" dtd-version="1.2" xml:lang="en"><front><journal-meta><journal-id journal-id-type="publisher-id">Theoretical Foundations of Chemical Engineering</journal-id><journal-title-group><journal-title xml:lang="en">Theoretical Foundations of Chemical Engineering</journal-title><trans-title-group xml:lang="ru"><trans-title>Теоретические основы химической технологии</trans-title></trans-title-group></journal-title-group><issn publication-format="print">0040-3571</issn><issn publication-format="electronic">3034-6053</issn><publisher><publisher-name xml:lang="en">The Russian Academy of Sciences</publisher-name></publisher></journal-meta><article-meta><article-id pub-id-type="publisher-id">652854</article-id><article-id pub-id-type="doi">10.31857/S0040357123050019</article-id><article-id pub-id-type="edn">MBMSQU</article-id><article-categories><subj-group subj-group-type="toc-heading" xml:lang="en"><subject>Articles</subject></subj-group><subj-group subj-group-type="toc-heading" xml:lang="ru"><subject>Статьи</subject></subj-group><subj-group subj-group-type="article-type"><subject>Unknown</subject></subj-group></article-categories><title-group><article-title xml:lang="en">Additive Technologies for Medicine, Pharmacy, and Chemical Industry: Applications and Outlook</article-title><trans-title-group xml:lang="ru"><trans-title>Аддитивные технологии для медицины, фармацевтики и химической промышленности: применение и перспективы</trans-title></trans-title-group></title-group><contrib-group><contrib contrib-type="author"><name-alternatives><name xml:lang="en"><surname>Abramov</surname><given-names>A. A.</given-names></name><name xml:lang="ru"><surname>Абрамов</surname><given-names>А. А.</given-names></name></name-alternatives><email>chemcom@muctr.ru</email><xref ref-type="aff" rid="aff1"/></contrib><contrib contrib-type="author"><name-alternatives><name xml:lang="en"><surname>Men’shutina</surname><given-names>N. V.</given-names></name><name xml:lang="ru"><surname>Меньшутина</surname><given-names>Н. В.</given-names></name></name-alternatives><email>chemcom@muctr.ru</email><xref ref-type="aff" rid="aff1"/></contrib></contrib-group><aff-alternatives id="aff1"><aff><institution xml:lang="en">Mendeleev University of Chemical Technology of Russia</institution></aff><aff><institution xml:lang="ru">Российский химико-технологический университет имени Д.И. Менделеева</institution></aff></aff-alternatives><pub-date date-type="pub" iso-8601-date="2023-09-01" publication-format="electronic"><day>01</day><month>09</month><year>2023</year></pub-date><volume>57</volume><issue>5</issue><fpage>532</fpage><lpage>544</lpage><history><date date-type="received" iso-8601-date="2025-02-02"><day>02</day><month>02</month><year>2025</year></date></history><permissions><copyright-statement xml:lang="en">Copyright ©; 2023, А.А. Абрамов, Н.В. Меньшутина</copyright-statement><copyright-statement xml:lang="ru">Copyright ©; 2023, А.А. Абрамов, Н.В. Меньшутина</copyright-statement><copyright-year>2023</copyright-year><copyright-holder xml:lang="en">А.А. Абрамов, Н.В. Меньшутина</copyright-holder><copyright-holder xml:lang="ru">А.А. Абрамов, Н.В. Меньшутина</copyright-holder></permissions><self-uri xlink:href="https://transsyst.ru/0040-3571/article/view/652854">https://transsyst.ru/0040-3571/article/view/652854</self-uri><abstract xml:lang="en"><p>The article discusses the main methods and technologies of three-dimensional printing. The basic principles are presented for technologies that are implemented in powder, polymerization, and extrusion methods of additive manufacturing. The main applications of additive technologies in medicine, pharmacy, and chemical engineering are considered. Based on the review made, conclusions were drawn about the existing problems and limitations that do not allow the integration of additive processes into industry. In addition, the prospects for the development of additive technologies in these applications are considered.</p></abstract><trans-abstract xml:lang="ru"><p id="idm45181322634368">В статье рассмотрены основные методы и технологии трехмерной печати. Представлены основные принципы технологий, которые реализуются в порошковых, полимеризационных и экструзионных методах аддитивного производства. Рассмотрены основные применения аддитивных технологий в области медицины, фармацевтики и химической технологии. На основании проведенного обзора сделаны выводы о существующих проблемах и ограничениях, которые не позволяют интегрировать аддитивные процессы в промышленность. Кроме того, рассмотрены перспективы развития аддитивных технологий в данных областях применения.</p></trans-abstract><kwd-group xml:lang="en"><kwd>additive technologies</kwd><kwd>3D printing</kwd><kwd>powder methods</kwd><kwd>polymerization methods</kwd><kwd>extrusion methods</kwd><kwd>implants</kwd><kwd>drug delivery systems</kwd><kwd>catalyst production</kwd></kwd-group><kwd-group xml:lang="ru"><kwd>аддитивные технологии</kwd><kwd>3D-печать</kwd><kwd>порошковые методы</kwd><kwd>полимеризационные методы</kwd><kwd>экструзионные методы</kwd><kwd>импланты</kwd><kwd>системы доставки лекарственных средств</kwd><kwd>производство катализаторов</kwd></kwd-group></article-meta></front><body></body><back><ref-list><ref id="B1"><label>1.</label><mixed-citation>Valverde I., Gomez-Ciriza G., Hussain T., Suarez-Mejias C., Velasco-Forte M.N., Byrne N., Ordoñez A., Gonzalez-Calle A., Anderson D., Hazekamp M.G., Roest A.A.W., Rivas-Gonzalez J., Uribe S., El-Rassi I., Simpson J., Miller O., Ruiz E., Zabala I., Mendez A. et al. Three-dimensional printed models for surgical planning of complex congenital heart defects: an international multicentre study // European J. Cardio-Thoracic Surgery. 2017. V. 52. № 6. P. 1139–1148.</mixed-citation></ref><ref id="B2"><label>2.</label><mixed-citation>Ganguli A., Pagan-Diaz G.J., Grant L., Cvetkovic C., Bramlet M., Vozenilek J., Kesavadas T., Bashir R. 3D printing for preoperative planning and surgical training: a review // Biomedical Microdevices. 2018. V. 20. № 3. P. 1–24.</mixed-citation></ref><ref id="B3"><label>3.</label><mixed-citation>Chen G., Xu Y., Kwok P.C.L., Kang L. Pharmaceutical Applications of 3D Printing // Additive Manufacturing. 2020. V. 34. P. 101209.</mixed-citation></ref><ref id="B4"><label>4.</label><mixed-citation>Gao G., Ahn M., Cho W.W., Kim B.S., Cho D.W. 3D Printing of Pharmaceutical Application: Drug Screening and Drug Delivery // Pharmaceutics 2021. V. 13. P. 1373. 2021. V. 13. № 9. P. 1373.</mixed-citation></ref><ref id="B5"><label>5.</label><mixed-citation>Dhavalikar P., Lan Z., Kar R., Salhadar K., Gaharwar A.K., Cosgriff-Hernandez E. Biomedical Applications of Additive Manufacturing // Biomaterials Science: An Introduction to Materials in Medicine. 2020. P. 623–639.</mixed-citation></ref><ref id="B6"><label>6.</label><mixed-citation>Singh S., Ramakrishna S. Biomedical applications of additive manufacturing: Present and future // Current Opinion in Biomedical Engineering. 2017. V. 2. P. 105–115.</mixed-citation></ref><ref id="B7"><label>7.</label><mixed-citation>Zhang J., Vo A.Q., Feng X., Bandari S., Repka M.A. Pharmaceutical Additive Manufacturing: a Novel Tool for Complex and Personalized Drug Delivery Systems // AAPS PharmSciTech. 2018. V. 19. № 8. P. 3388–3402.</mixed-citation></ref><ref id="B8"><label>8.</label><mixed-citation>Borandeh S., van Bochove B., Teotia A., Seppälä J. Polymeric drug delivery systems by additive manufacturing // Advanced Drug Delivery Reviews. 2021. V. 173. P. 349–373.</mixed-citation></ref><ref id="B9"><label>9.</label><mixed-citation>Hock S., Rein C., Rose M. 3D-Printed Acidic Monolithic Catalysts for Liquid-Phase Catalysis with Enhanced Mass Transfer Properties // ChemCatChem. 2022. V. 14. № 8. P. e202101947.</mixed-citation></ref><ref id="B10"><label>10.</label><mixed-citation>Aghaei A., Firouzjaei M.D., Karami P., Aktij S.A., Elliott M., Mansourpanah Y., Rahimpour A., B. P. Soares J., Sadrzadeh M. The implications of 3D-printed membranes for water and wastewater treatment and resource recovery // The Canadian J. Chemical Engineering. 2022. V. 100. № 9. P. 2309–2321.</mixed-citation></ref><ref id="B11"><label>11.</label><mixed-citation>Balogun H.A., Sulaiman R., Marzouk S.S., Giwa A., Hasan S.W. 3D printing and surface imprinting technologies for water treatment: A review // J. Water Process Engineering. 2019. V. 31. P. 100786.</mixed-citation></ref><ref id="B12"><label>12.</label><mixed-citation>Lee W., Kwon D., Choi W., Jung G.Y., Au A.K., Folch A., Jeon S. 3D-Printed Microfluidic Device for the Detection of Pathogenic Bacteria Using Size-based Separation in Helical Channel with Trapezoid Cross-Section // Scientific Reports 2015 5:1. 2015. V. 5. № 1. P. 1–7.</mixed-citation></ref><ref id="B13"><label>13.</label><mixed-citation>W.H.C. Apparatus for Production of Three-Dimensional Objects by Stereolithography // United States Patent, Appl., No. 638905, Filed. 1984.</mixed-citation></ref><ref id="B14"><label>14.</label><mixed-citation>ГОСТ Р 57558-2017/ISO/ASTM 52900:2015 Аддитивные технологические процессы. Базовые принципы. Часть 1. Термины и определения (Переиздание) – docs.cntd.ru [Electronic resource]. URL: https://docs.cntd.ru/document/1200146332 (accessed: 22.03.2023).</mixed-citation></ref><ref id="B15"><label>15.</label><mixed-citation>Olakanmi E.O., Cochrane R.F., Dalgarno K.W. A review on selective laser sintering/melting (SLS/SLM) of aluminium alloy powders: Processing, microstructure, and properties // Progress in Materials Science. 2015. V. 74. P. 401–477.</mixed-citation></ref><ref id="B16"><label>16.</label><mixed-citation>Kruth J.P., Mercelis P., Van Vaerenbergh J., Froyen L., Rombouts M. Binding mechanisms in selective laser sintering and selective laser melting // Rapid Prototyping J. 2005. V. 11. № 1. P. 26–36.</mixed-citation></ref><ref id="B17"><label>17.</label><mixed-citation>Nouri A., Rohani Shirvan A., Li Y., Wen C. Additive manufacturing of metallic and polymeric load-bearing biomaterials using laser powder bed fusion: A review // J. Materials Science &amp; Technology. 2021. V. 94. P. 196–215.</mixed-citation></ref><ref id="B18"><label>18.</label><mixed-citation>Wei C., Li L. Recent progress and scientific challenges in multi-material additive manufacturing via laser-based powder bed fusion. 2021. V. 16. № 3. P. 347–371.https://doi.org/10.1080/17452759.2021.1928520</mixed-citation></ref><ref id="B19"><label>19.</label><mixed-citation>Charoo N.A., Barakh Ali S.F., Mohamed E.M., Kuttolamadom M.A., Ozkan T., Khan M.A., Rahman Z. Selective laser sintering 3D printing – an overview of the technology and pharmaceutical applications. 2020. V. 46. № 6. p. 869–877.https://doi.org/10.1080/03639045.2020.1764027</mixed-citation></ref><ref id="B20"><label>20.</label><mixed-citation>Tikhomirov E., Åhlén M., Di Gallo N., Strømme M., Kipping T., Quodbach J., Lindh J. Selective laser sintering additive manufacturing of dosage forms: Effect of powder formulation and process parameters on the physical properties of printed tablets // International J. Pharmaceutics. 2023. V. 635. P. 122780.</mixed-citation></ref><ref id="B21"><label>21.</label><mixed-citation>Jia H., Sun H., Wang H., Wu Y., Wang H. Scanning strategy in selective laser melting (SLM): a review // The International J. Advanced Manufacturing Technology 2021 113:9. 2021. V. 113. № 9. P. 2413–2435.</mixed-citation></ref><ref id="B22"><label>22.</label><mixed-citation>Nandhakumar R., Venkatesan K. A process parameters review on selective laser melting-based additive manufacturing of single and multi-material: Microstructure, physical properties, tribological, and surface roughness // Materials Today Communications. 2023. V. 35. P. 105538.</mixed-citation></ref><ref id="B23"><label>23.</label><mixed-citation>Xie F., He X., Cao S., Qu X. Structural and mechanical characteristics of porous 316L stainless steel fabricated by indirect selective laser sintering // J. Materials Processing Technology. 2013. v. 213. № 6. P. 838–843.</mixed-citation></ref><ref id="B24"><label>24.</label><mixed-citation>Xie F., He X., Lv Y., Wu M., He X., Qu X. Selective laser sintered porous Ti–(4–10)Mo alloys for biomedical applications: Structural characteristics, mechanical properties and corrosion behaviour // Corrosion Science. 2015. V. 95. P. 117–124.</mixed-citation></ref><ref id="B25"><label>25.</label><mixed-citation>Stoia D.I., Linul E., Marsavina L. Influence of Manufacturing Parameters on Mechanical Properties of Porous Materials by Selective Laser Sintering // Materials 2019. V. 12. P. 871. 2019. V. 12. № 6. P. 871.</mixed-citation></ref><ref id="B26"><label>26.</label><mixed-citation>Senthilkumaran K., Pandey P.M., Rao P.V.M. Influence of building strategies on the accuracy of parts in selective laser sintering // Materials &amp; Design. 2009. V. 30. № 8. P. 2946–2954.</mixed-citation></ref><ref id="B27"><label>27.</label><mixed-citation>AlMangour B., Yang J.M. Improving the surface quality and mechanical properties by shot-peening of 17-4 stainless steel fabricated by additive manufacturing // Materials &amp; Design. 2016. V. 110. P. 914–924.</mixed-citation></ref><ref id="B28"><label>28.</label><mixed-citation>Schmidt M., Merklein M., Bourell D., Dimitrov D., Hausotte T., Wegener K., Overmeyer L., Vollertsen F., Levy G.N. Laser based additive manufacturing in industry and academia // CIRP Annals. 2017. V. 66. № 2. P. 561–583.</mixed-citation></ref><ref id="B29"><label>29.</label><mixed-citation>Van Bael S., Chai Y.C., Truscello S., Moesen M., Kerckhofs G., Van Oosterwyck H., Kruth J.P., Schrooten J. The effect of pore geometry on the in vitro biological behavior of human periosteum-derived cells seeded on selective laser-melted Ti6Al4V bone scaffolds // Acta Biomaterialia. 2012. V. 8. № 7. P. 2824–2834.</mixed-citation></ref><ref id="B30"><label>30.</label><mixed-citation>Fukuda A., Takemoto M., Saito T., Fujibayashi S., Neo M., Pattanayak D.K., Matsushita T., Sasaki K., Nishida N., Kokubo T., Nakamura T. Osteoinduction of porous Ti implants with a channel structure fabricated by selective laser melting // Acta Biomaterialia. 2011. V. 7. № 5. P. 2327–2336.</mixed-citation></ref><ref id="B31"><label>31.</label><mixed-citation>Method of and apparatus for production of three dimensional objects by stereolithography. 1992.</mixed-citation></ref><ref id="B32"><label>32.</label><mixed-citation>Tetsuka H., Shin S.R. Materials and technical innovations in 3D printing in biomedical applications // J. Materials Chemistry B. 2020. V. 8. № 15. P. 2930–2950.</mixed-citation></ref><ref id="B33"><label>33.</label><mixed-citation>Stereolithography / Ed. Bártolo P.J. 2011.</mixed-citation></ref><ref id="B34"><label>34.</label><mixed-citation>Kuang X., Wu J., Chen K., Zhao Z., Ding Z., Hu F., Fang D., Qi H.J. Grayscale digital light processing 3D printing for highly functionally graded materials // Science Advances. 2019. V. 5. № 5.</mixed-citation></ref><ref id="B35"><label>35.</label><mixed-citation>Katseli V., Economou A., Kokkinos C. Smartphone-Addressable 3D-Printed Electrochemical Ring for Nonenzymatic Self-Monitoring of Glucose in Human Sweat // Analytical Chemistry. 2021. V. 93. № 7. P. 3331–3336.</mixed-citation></ref><ref id="B36"><label>36.</label><mixed-citation>Zuo Y., Su X., Li X., Yao Z., Yu T., Zhou J., Li J., Lu J., Ding J. Multimaterial 3D-printing of graphene/ Li0.35Zn0.3Fe2.35O4 and graphene/carbonyl iron composites with superior microwave absorption properties and adjustable bandwidth // Carbon. 2020. V. 167. P. 62–74.</mixed-citation></ref><ref id="B37"><label>37.</label><mixed-citation>Quan H., Zhang T., Xu H., Luo S., Nie J., Zhu X. Photo-curing 3D printing technique and its challenges // Bioactive Materials. 2020. V. 5. № 1. P. 110–115.</mixed-citation></ref><ref id="B38"><label>38.</label><mixed-citation>Douglass M., Douglass M.R. DMD reliability: a MEMS success story. 2003. V. 4980. № 16. P. 1–11.https://doi.org/10.1117/12.478212</mixed-citation></ref><ref id="B39"><label>39.</label><mixed-citation>Wang X., Jiang M., Zhou Z., Gou J., Hui D. 3D printing of polymer matrix composites: A review and prospective // Composites Part B: Engineering. 2017. V. 110. P. 442–458.</mixed-citation></ref><ref id="B40"><label>40.</label><mixed-citation>Chen X., Chen G., Wang G., Zhu P., Gao C. Recent Progress on 3D-Printed Polylactic Acid and Its Applications in Bone Repair // Advanced Engineering Materials. 2020. V. 22. № 4. P. 1901065.</mixed-citation></ref><ref id="B41"><label>41.</label><mixed-citation>Ghosh K., Pumera M. Free-standing electrochemically coated MoSx based 3D-printed nanocarbon electrode for solid-state supercapacitor application // Nanoscale. 2021. V. 13. № 11. P. 5744–5756.</mixed-citation></ref><ref id="B42"><label>42.</label><mixed-citation>Baich L., Manogharan G., Marie H. Study of infill print design on production cost-time of 3D printed ABS parts // International J. Rapid Manufacturing. 2015. V. 5. № 3/4. P. 308.</mixed-citation></ref><ref id="B43"><label>43.</label><mixed-citation>Mohamed O.A., Masood S.H., Bhowmik J.L. Optimization of fused deposition modeling process parameters: a review of current research and future prospects // Advances in Manufacturing. 2015. V. 3. № 1. P. 42–53.</mixed-citation></ref><ref id="B44"><label>44.</label><mixed-citation>Zhang Y.S., Haghiashtiani G., Hübscher T., Kelly D.J., Lee J.M., Lutolf M., McAlpine M.C., Yeong W.Y., Zenobi-Wong M., Malda J. 3D extrusion bioprinting // Nature Reviews Methods Primers 2021 1:1. 2021. V. 1. № 1. P. 1–20.</mixed-citation></ref><ref id="B45"><label>45.</label><mixed-citation>Zhang Z., Jin Y., Yin J., Xu C., Xiong R., Christensen K., Ringeisen B.R., Chrisey D.B., Huang Y. Evaluation of bioink printability for bioprinting applications // Applied Physics Reviews. 2018. V. 5. № 4. P. 041304.</mixed-citation></ref><ref id="B46"><label>46.</label><mixed-citation>Hussain S., Malakar S., Arora V.K. Extrusion-Based 3D Food Printing: Technological Approaches, Material Characteristics, Printing Stability, and Post-processing // Food Engineering Reviews. 2022. V. 14. № 1. P. 100–119.</mixed-citation></ref><ref id="B47"><label>47.</label><mixed-citation>Sodian R., Weber S., Markert M., Rassoulian D., Kaczmarek I., Lueth T.C., Reichart B., Daebritz S. Stereolithographic Models for Surgical Planning in Congenital Heart Surgery // The Annals of Thoracic Surgery. 2007. V. 83. № 5. P. 1854–1857.</mixed-citation></ref><ref id="B48"><label>48.</label><mixed-citation>Dho Y.-S., Lee D., Ha T., Ji S.Y., Kim K.M., Kang H., Kim M.-S., Kim J.W., Cho W.-S., Kim Y.H., Kim Y.G., Park S.J., Park C.-K. Clinical application of patient-specific 3D printing brain tumor model production system for neurosurgery // Scientific Reports|. 123AD. V. 11. P. 7014.</mixed-citation></ref><ref id="B49"><label>49.</label><mixed-citation>Yang M., Li C., Li Y., Zhao Y., Wei X., Zhang G., Fan J., Ni H., Chen Z., Bai Y., Li M. Application of 3D Rapid Prototyping Technology in Posterior Corrective Surgery for Lenke 1 Adolescent Idiopathic Scoliosis Patients // Medicine. 2015. V. 94. № 8. P. e582.</mixed-citation></ref><ref id="B50"><label>50.</label><mixed-citation>Lim S.H., Park S., Lee C.C., Ho P.C.L., Kwok P.C.L., Kang L. A 3D printed human upper respiratory tract model for particulate deposition profiling // International J. Pharmaceutics. 2021. V. 597. P. 120307.</mixed-citation></ref><ref id="B51"><label>51.</label><mixed-citation>Tellisi N., Ashammakhi N.A., Billi F., Kaarela O. Three dimensional printed bone implants in the clinic // J. Craniofacial Surgery. 2018. V. 29. № 8. P. 2363–2367.</mixed-citation></ref><ref id="B52"><label>52.</label><mixed-citation>Götze C., Steens W., Vieth V., Poremba C., Claes L., Steinbeck J. Primary stability in cementless femoral stems: custom-made versus conventional femoral prosthesis // Clinical Biomechanics. 2002. V. 17. № 4. P. 267–273.</mixed-citation></ref><ref id="B53"><label>53.</label><mixed-citation>Mehboob H., Tarlochan F., Mehboob A., Chang S.H., Ramesh S., Harun W.S.W., Kadirgama K. A novel design, analysis and 3D printing of Ti–6Al–4V alloy bio-inspired porous femoral stem // J. Materials Science: Materials in Medicine. 2020. V. 31. № 9. P. 1–14.</mixed-citation></ref><ref id="B54"><label>54.</label><mixed-citation>Zhang G., Zhao P., Lin L., Qin L., Huan Z., Leeflang S., Zadpoor A.A., Zhou J., Wu L. Surface-treated 3D printed Ti–6Al–4V scaffolds with enhanced bone regeneration performance: an in vivo study // Annals of Translational Medicine. 2021. V. 9. № 1. P. 39–39.</mixed-citation></ref><ref id="B55"><label>55.</label><mixed-citation>Jetté B., Brailovski V., Simoneau C., Dumas M., Terriault P. Development and in vitro validation of a simplified numerical model for the design of a biomimetic femoral stem // J. Mechanical Behavior of Biomedical Materials. 2018. V. 77. P. 539–550.</mixed-citation></ref><ref id="B56"><label>56.</label><mixed-citation>Jia D., Li F., Zhang C., Liu K., Zhang Y. Design and simulation analysis of Lattice bone plate based on finite element method // https://doi.org/. 2019. V. 28. № 13. P. 1311–1321.https://doi.org/10.1080/15376494.2019.1665759</mixed-citation></ref><ref id="B57"><label>57.</label><mixed-citation>Du Y., Liu H., Yang Q., Wang S., Wang J., Ma J., Noh I., Mikos A.G., Zhang S. Selective laser sintering scaffold with hierarchical architecture and gradient composition for osteochondral repair in rabbits // Biomaterials. 2017. V. 137. P. 37–48.</mixed-citation></ref><ref id="B58"><label>58.</label><mixed-citation>Iglesias-Mejuto A., García-González C.A. 3D-printed alginate-hydroxyapatite aerogel scaffolds for bone tissue engineering // Materials Science and Engineering: C. 2021. V. 131. P. 112525.</mixed-citation></ref><ref id="B59"><label>59.</label><mixed-citation>Yeong W.Y., Sudarmadji N., Yu H.Y., Chua C.K., Leong K.F., Venkatraman S.S., Boey Y.C.F., Tan L.P. Porous polycaprolactone scaffold for cardiac tissue engineering fabricated by selective laser sintering // Acta Biomaterialia. 2010. V. 6. № 6. P. 2028–2034.</mixed-citation></ref><ref id="B60"><label>60.</label><mixed-citation>Demir A.G., Previtali B. Additive manufacturing of cardiovascular CoCr stents by selective laser melting // Materials &amp; Design. 2017. V. 119. P. 338–350.</mixed-citation></ref><ref id="B61"><label>61.</label><mixed-citation>Finazzi V., Demir A.G., Biffi C.A., Migliavacca F., Petrini L., Previtali B. Design and functional testing of a novel balloon-expandable cardiovascular stent in CoCr alloy produced by selective laser melting // J. Manufacturing Processes. 2020. V. 55. P. 161–173.</mixed-citation></ref><ref id="B62"><label>62.</label><mixed-citation>Flege C., Vogt F., Höges S., Jauer L., Borinski M., Schulte V.A., Hoffmann R., Poprawe R., Meiners W., Jobmann M., Wissenbach K., Blindt R. Development and characterization of a coronary polylactic acid stent prototype generated by selective laser melting // J. Materials Science: Materials in Medicine. 2013. V. 24. № 1. P. 241–255.</mixed-citation></ref><ref id="B63"><label>63.</label><mixed-citation>Gilon D., Cape E.G., Handschumacher M.D., Song J.K., Solheim J., VanAuker M., King M.E.E., Levine R.A. Effect of three-dimensional valve shape on the hemodynamics of aortic stenosis: Three-dimensional echocardiographic stereolithography and patient studies // J. American College of Cardiology. 2002. V. 40. № 8. P. 1479–1486.</mixed-citation></ref><ref id="B64"><label>64.</label><mixed-citation>Melhem M.R., Park J., Knapp L., Reinkensmeyer L., Cvetkovic C., Flewellyn J., Lee M.K., Jensen T.W., Bashir R., Kong H., Schook L.B. 3D Printed Stem-Cell-Laden, Microchanneled Hydrogel Patch for the Enhanced Release of Cell-Secreting Factors and Treatment of Myocardial Infarctions // ACS Biomaterials Science and Engineering. 2017. V. 3. № 9. P. 1980–1987.</mixed-citation></ref><ref id="B65"><label>65.</label><mixed-citation>Koh W.G., Revzin A., Pishko M.V. Poly(ethylene glycol) hydrogel microstructures encapsulating living cells // Langmuir. 2002. V. 18. № 7. P. 2459–2462.</mixed-citation></ref><ref id="B66"><label>66.</label><mixed-citation>Wang Z., Abdulla R., Parker B., Samanipour R., Ghosh S., Kim K. A simple and high-resolution stereolithography-based 3D bioprinting system using visible light crosslinkable bioinks // Biofabrication. 2015. V. 7. № 4. P. 045009.</mixed-citation></ref><ref id="B67"><label>67.</label><mixed-citation>Markstedt K., Mantas A., Tournier I., Martínez Ávila H., Hägg D., Gatenholm P. 3D bioprinting human chondrocytes with nanocellulose-alginate bioink for cartilage tissue engineering applications // Biomacromolecules. 2015. V. 16. № 5. P. 1489–1496.</mixed-citation></ref><ref id="B68"><label>68.</label><mixed-citation>Zhong C., Xie H.Y., Zhou L., Xu X., Zheng S. Sen. Human hepatocytes loaded in 3D bioprinting generate mini-liver // Hepatobiliary &amp; Pancreatic Diseases International. 2016. v. 15. № 5. P. 512–518.</mixed-citation></ref><ref id="B69"><label>69.</label><mixed-citation>Wu Y., Lin Z.Y. (William), Wenger A.C., Tam K.C., Tang X. (Shirley). 3D bioprinting of liver-mimetic construct with alginate/cellulose nanocrystal hybrid bioink // Bioprinting. 2018. V. 9. P. 1–6.</mixed-citation></ref><ref id="B70"><label>70.</label><mixed-citation>Kang H.W., Lee S.J., Ko I.K., Kengla C., Yoo J.J., Atala A. A 3D bioprinting system to produce human-scale tissue constructs with structural integrity // Nature Biotechnology 2016 34:3. 2016. V. 34. № 3. P. 312–319.</mixed-citation></ref><ref id="B71"><label>71.</label><mixed-citation>Lawlor K.T., Vanslambrouck J.M., Higgins J.W., Chambon A., Bishard K., Arndt D., Er P.X., Wilson S.B., Howden S.E., Tan K.S., Li F., Hale L.J., Shepherd B., Pentoney S., Presnell S.C., Chen A.E., Little M.H. Cellular extrusion bioprinting improves kidney organoid reproducibility and conformation // Nature Materials 2020 20:2. 2020. V. 20. № 2. P. 260–271.</mixed-citation></ref><ref id="B72"><label>72.</label><mixed-citation>Ramesh S., Harrysson O.L.A., Rao P.K., Tamayol A., Cormier D.R., Zhang Y., Rivero I.V. Extrusion bioprinting: Recent progress, challenges, and future opportunities // Bioprinting. 2021. V. 21. P. E00116.</mixed-citation></ref><ref id="B73"><label>73.</label><mixed-citation>Budtova T., Aguilera D.A., Beluns S., Berglund L., Chartier C., Espinosa E., Gaidukovs S., Klimek-kopyra A., Kmita A., Lachowicz D., Liebner F., Platnieks O., Rodríguez A., Navarro L.K.T., Zou F., Buwalda S.J. Biorefinery Approach for Aerogels // Polymers 2020. V. 12. P. 2779. 2020. V. 12. № 12. P. 2779.</mixed-citation></ref><ref id="B74"><label>74.</label><mixed-citation>Allahham N., Fina F., Marcuta C., Kraschew L., Mohr W., Gaisford S., Basit A.W., Goyanes A. Selective Laser Sintering 3D Printing of Orally Disintegrating Printlets Containing Ondansetron // Pharmaceutics 2020. V. 12. P. 110. 2020. V. 12. № 2. P. 110.</mixed-citation></ref><ref id="B75"><label>75.</label><mixed-citation>Sadia M., Arafat B., Ahmed W., Forbes R.T., Alhnan M.A. Channelled tablets: An innovative approach to accelerating drug release from 3D printed tablets // J. Controlled Release. 2018. V. 269. P. 355–363.</mixed-citation></ref><ref id="B76"><label>76.</label><mixed-citation>Economidou S.N., Lamprou D.A., Douroumis D. 3D printing applications for transdermal drug delivery // International J. Pharmaceutics. 2018. V. 544. № 2. P. 415–424.</mixed-citation></ref><ref id="B77"><label>77.</label><mixed-citation>Uddin M.J., Scoutaris N., Economidou S.N., Giraud C., Chowdhry B.Z., Donnelly R.F., Douroumis D. 3D printed microneedles for anticancer therapy of skin tumours // Materials Science and Engineering: C. 2020. V. 107. P. 110248.</mixed-citation></ref><ref id="B78"><label>78.</label><mixed-citation>Lahtinen E., Kukkonen E., Kinnunen V., Lahtinen M., Kinnunen K., Suvanto S., Vaïsänen A., Haukka M. Gold Nanoparticles on 3D-Printed Filters: From Waste to Catalysts // ACS Omega. 2019. v. 4. № 16. P. 16891–16898.</mixed-citation></ref><ref id="B79"><label>79.</label><mixed-citation>Lahtinen E., Turunen L., Hänninen M.M., Kolari K., Tuononen H.M., Haukka M. Fabrication of Porous Hydrogenation Catalysts by a Selective Laser Sintering 3D Printing Technique // ACS Omega. 2019. V. 4. № 7. P. 12012–12017.</mixed-citation></ref><ref id="B80"><label>80.</label><mixed-citation>Ambrosi A., Pumera M. Self-Contained Polymer/Metal 3D Printed Electrochemical Platform for Tailored Water Splitting // Advanced Functional Materials. 2018. V. 28. № 27. P. 1700655.</mixed-citation></ref><ref id="B81"><label>81.</label><mixed-citation>Chang S., Huang X., Aaron Ong C.Y., Zhao L., Li L., Wang X., Ding J. High loading accessible active sites via designable 3D-printed metal architecture towards promoting electrocatalytic performance // J. Materials Chemistry A. 2019. V. 7. № 31. P. 18338–18347.</mixed-citation></ref><ref id="B82"><label>82.</label><mixed-citation>Zhou X., Liu C.-J., Zhou X.T., Liu C.-J. Three-dimensional Printing for Catalytic Applications: Current Status and Perspectives // Advanced Functional Materials. 2017. V. 27. № 30. P. 1701134.</mixed-citation></ref><ref id="B83"><label>83.</label><mixed-citation>Chen L., Zhou S., Li M., Mo F., Yu S., Wei J. Catalytic Materials by 3D Printing: A Mini Review // Catalysts 2022. V. 12. P. 1081. 2022. V. 12. № 10. P. 1081.</mixed-citation></ref><ref id="B84"><label>84.</label><mixed-citation>Zhu J., Wu P., Chao Y., Yu J., Zhu W., Liu Z., Xu C. Recent advances in 3D printing for catalytic applications // Chemical Engineering J. 2022. V. 433. P. 134341.</mixed-citation></ref><ref id="B85"><label>85.</label><mixed-citation>Lee J.H., Ko K.H., Park B.O. Electrical and optical properties of ZnO transparent conducting films by the sol–gel method // J. Crystal Growth. 2003. V. 247. № 1–2. P. 119–125.</mixed-citation></ref><ref id="B86"><label>86.</label><mixed-citation>Miyauchi M., Li Y., Shimizu H. Enhanced degradation in nanocomposites of TiO2 and biodegradable polymer // Environmental Science and Technology. 2008. V. 42. № 12. P. 4551–4554.</mixed-citation></ref><ref id="B87"><label>87.</label><mixed-citation>Vunain E., Mishra A.K., Krause R.W. Fabrication, Characterization and Application of Polymer Nanocomposites for Arsenic(III) Removal from Water // J. Inorganic and Organometallic Polymers and Materials. 2013. V. 23. № 2. P. 293–305.</mixed-citation></ref><ref id="B88"><label>88.</label><mixed-citation>Castles F., Isakov D., Lui A., Lei Q., Dancer C.E.J., Wang Y., Janurudin J.M., Speller S.C., Grovenor C.R.M., Grant P.S. Microwave dielectric characterisation of 3D-printed BaTiO3/ABS polymer composites // Scientific Reports 2016 6:1. 2016. V. 6. № 1. P. 1–8.</mixed-citation></ref><ref id="B89"><label>89.</label><mixed-citation>Parra-Cabrera C., Achille C., Kuhn S., Ameloot R. 3D printing in chemical engineering and catalytic technology: structured catalysts, mixers and reactors // Chemical Society Reviews. 2018. V. 47. № 1. P. 209–230.</mixed-citation></ref><ref id="B90"><label>90.</label><mixed-citation>Rossi S., Porta R., Brenna D., Puglisi A., Benaglia M. Stereoselective Catalytic Synthesis of Active Pharmaceutical Ingredients in Homemade 3D-Printed Mesoreactors // Angewandte Chemie. 2017. V. 129. № 15. P. 4354–4358.</mixed-citation></ref><ref id="B91"><label>91.</label><mixed-citation>Vlachova J., Tmejova K., Kopel P., Korabik M., Zitka J., Hynek D., Kynicky J., Adam V., Kizek R. A 3D Microfluidic Chip for Electrochemical Detection of Hydrolysed Nucleic Bases by a Modified Glassy Carbon Electrode // Sensors 2015 V. 15. P. 2438–2452. 2015. V. 15. № 2. P. 2438–2452.</mixed-citation></ref><ref id="B92"><label>92.</label><mixed-citation>Chaloeipote G., Prathumwan R., Subannajui K., Wisitsoraat A., Wongchoosuk C. 3D printed CuO semiconducting gas sensor for ammonia detection at room temperature // Materials Science in Semiconductor Processing. 2021. V. 123. P. 105546.</mixed-citation></ref><ref id="B93"><label>93.</label><mixed-citation>Feng Y., Chang J., Chen X., Zhang Q., Wang Z., Sun J., Zhang Z. Application of TDM and FDM methods in TDLAS based multi-gas detection // Optical and Quantum Electronics. 2021. V. 53. № 4. P. 1–11.</mixed-citation></ref><ref id="B94"><label>94.</label><mixed-citation>Iglesias-Mejuto A., García-González C.A. 3D-printed alginate-hydroxyapatite aerogel scaffolds for bone tissue engineering // Materials Science and Engineering: C. 2021. V. 131. P. 112525.</mixed-citation></ref><ref id="B95"><label>95.</label><mixed-citation>Nocera A.D., Comín R., Salvatierra N.A., Cid M.P. Development of 3D printed fibrillar collagen scaffold for tissue engineering // Biomedical Microdevices. 2018. V. 20. № 2. P. 1–13.</mixed-citation></ref></ref-list></back></article>
