Application of 3D Bioprinting Technology for Tissue Regeneration, Drug Evaluation, and Drug Delivery

다국어 초록 (Multilingual Abstract)

To overcome the limitation of two-dimensional cell culture not being able to mimic the in vivo microenvironment, three-dimensional (3D) bioprinting technology for 3D cell culture has emerged as an innovative culture platform. 3D bioprinting technologies can be divided into five types: inkjet-based bioprinting, extrusion-based bioprinting, stereolithography bioprinting, laser-assisted bioprinting and digital laser processing-based bioprinting technology. The 3D printing strategies achieved through a combination of these technologies can be applied to develop tissue regeneration, drug evaluation and drug delivery systems. In addition, the choice of cells and biomaterials is an important factor in fabricating tissue/organ models. Biomaterials for 3D bioprinting can be divided into natural polymers (alginate, gelatin, collagen, chitosan, agarose, and hyaluronic acid) and synthetic polymers (polylactic acid, polyvinyl alcohol, polycaprolactone, polyethylene oxide and thermoplastic polyurethane). Depending on the goals of 3D bioprinting experiments, biomaterials can be used alone or in combination with various polymers. 3D bioprinting technology has the potential to be applied for personalized medicine, precision medicine and the fabrication of artificial tissue/organs.

참고문헌 (Reference)

1 O. Habanjar, 22 : 12200-, 2021

2 H. Herrada-Manchon, 587 : 119687-, 2020

3 D. V. LaBarbera, 7 : 819-, 2012

4 C. S. Szot, 32 : 7905-, 2011

5 L. Hutchinson, 8 : 189-, 2011

6 S. Breslin, 18 : 240-, 2013

7 X. Cui, 14 : 20160877-, 2017

8 K. Duval, 32 : 266-, 2017

9 W. Kim, 19 : 50-, 2022

10 M. W. Laschke, 35 : 133-, 2017

11 H. Shen, 12 : 96-, 2021

12 J. J. Yu, 12 : 2958-, 2020

13 S. V. Murphy, 32 : 773-, 2014

14 E. C. Costa, 34 : 1427-, 2016

15 Y. Mei, 7 : 418-, 2021

16 J. Jang, 2 : 1722-, 2016

17 F. Koch, 20 : e00094-, 2020

18 K. Muldoon, 13 : 642-, 2022

19 I. Donderwinkel, 8 : 4451-, 2017

20 H. G. Yi, 14 : 177-, 2021

21 B. Grigoryan et al., 364 : 458-, 2019

22 X. Ma et al., 113 : 2206-, 2016

23 B. K. Gu, 20 : 12-, 2016

24 X. Ma, 132 : 235-, 2018

25 J. M. Lee, 5 : 2856-, 2016

26 F. Guillemot, 2 : 010201-, 2010

27 M. Guvendiren, 2 : 1679-, 2016

28 I. Matai, 226 : 119536-, 2020

29 K. Y. Lee, 37 : 106-, 2012

30 Z. U. Arif, 218 : 930-, 2022

31 J. Dumbleton, 9 : 277-, 2016

32 E. O. Osidak et al., 30 : 31-, 2019

33 N. Diamantides, 11 : 045016-, 2019

34 M. Hospodiuk, 35 : 217-, 2017

35 D. F. D. Campos, 21 : 740-, 2015

36 W. K. Lee, 164 : 23-, 2017

37 L. Schaefer, 339 : 237-, 2010

38 C. E. Schanté, 85 : 469-, 2011

39 S. -L. Bee, 58 : 495-, 2018

40 E. Marin, 8 : 674-, 2014

41 T. S. Gaaz, 20 : 22833-, 2015

42 R. Raj, 1225 : 012009-, 2022

43 T. Xu, 12 : 3010-, 2020

44 Q. Chen, 9 : 4015-, 2017

45 F. Zhou et al., 258 : 120287-, 2020

46 D. Kang, 2022

47 M. R. Jamalpour et al., 38 : 1316-, 2022

48 S. Y. Hann, 123 : 263-, 2021

49 C. Antich, 106 : 114-, 2020

50 J. Nie, 9 : e1901773-, 2020

51 S. Hong, 138 : 228-, 2022

52 A. Gebeyehu et al., 11 : 372-, 2021

53 K. P. U. N’deh, 10 : 529-, 2020

54 G. J. Kim, 22 : 6997-, 2021

55 Y. S. Zhang et al., 110 : 45-, 2016

56 S. Beg et al., 25 : 1668-, 2020

57 S. Mohapatra, 3 : 100146-, 2022

58 S. N. Economidou, 102 : 743-, 2019

59 C. Farias, 5 : 59-, 2018

60 J. H. Lee, 8 : 163-, 2022

61 서갑양, "소프트 리소그라피를 이용한 마이크로유체 채널 내의 단백질 및 세포 패터닝" 한국진공학회 16 (16): 65-73, 2007

62 김계원 ; 김용준 ; 김한기, "Review of Brush Painting for Cost-efficient Paintable Electronics" 한국진공학회 30 (30): 1-5, 2021