Page 57 - 南京医科大学自然版
P. 57
第46卷第6期 曹文昕,王根庞,沈 冲,等. 基于PCL/PLGA共混材料的可降解食管支架:降解速率调控与
2026年6月 体外性能分析[J]. 南京医科大学学报(自然科学版),2026,46(6):832-839 ·839 ·
ble scaffolds:a strategy for tissue engineering[J]. J Bio⁃ fractory benign esophageal strictures[J]. Ann Gastroen⁃
mater Sci Polym Ed,2017,28(16):1797-1825 terol,2020,33(4):330-337
[12]PROFITILIOTIS T,KOLTSAKIDIS S,TSONGAS K,et al. [22]VAN BOECKEL P G A,VLEGGAAR F P,SIERSEMA P
Innovative design of a 3D printed esophageal stent in⁃ D. A comparison of temporary self⁃expanding plastic and
spired by nature:mitigating migration challenges in pallia⁃ biodegradable stents for refractory benign esophageal
tive esophageal cancer therapy[J]. Biomimetics,2024,9 strictures[J]. Clin Gastroenterol Hepatol,2011,9(8):
(6):359 653-659
[13]SHAN Q G,HUANG W,SHANG M Y,et al. Customiza⁃ [23]DUAN R P,WANG Y M,SU D N,et al. The effect of
tion of stent design for treating malignant airway stenosis blending poly(l⁃lactic acid)on in vivo performance of
with the aid of three⁃dimensional printing[J]. Quant Ima⁃ 3D⁃printed poly(l⁃lactide⁃co⁃caprolactone)/PLLA scaf⁃
ging Med Surg,2021,11(4):1437-1446 folds[J]. Biomater Adv,2022,138:212948
[14]SULTANA N,COLE A,STRACHAN F. Biocomposite scaf⁃ [24]DI SANTO M C,D’ANTONI C L,DOMÍNGUEZ RUBIO
folds for tissue engineering:materials,fabrication tech⁃ A P,et al. Chitosan ⁃ tripolyphosphate nanoparticles de⁃
niques and future directions[J]. Materials,2024,17(22): signed to encapsulate polyphenolic compounds for bio⁃
5577 medical and pharmaceutical applications ⁃ a review[J].
[15]MANDAL S,VIRAJ,NANDI S K,et al. Effects of multi⁃ Biomed Pharmacother,2021,142:111970
scale porosity and pore interconnectivity on in vitro and in [25]ZHAO J,SONG G,ZHAO Q H,et al. Development of
vivo degradation and biocompatibility of Fe⁃Mn⁃Cu scaf⁃ three⁃dimensionally printed vascular stents of bioresorb⁃
folds[J]. J Mater Chem B,2021,9(21):4340-4354 able poly(l⁃lactide⁃co⁃caprolactone)[J]. J Biomed Mater
[16]REZWAN K,CHEN Q Z,BLAKER J J,et al. Biodegrad⁃ Res B Appl Biomater,2023,111(3):656-664
able and bioactive porous polymer/inorganic composite [26]秦立昊,李静燕,张嘉伟,等. 生物 3D 打印丹酚酸 B⁃海
scaffolds for bone tissue engineering[J]. Biomaterials, 藻酸钠⁃明胶皮肤支架促进糖尿病大鼠创面愈合[J]. 南
2006,27(18):3413-3431 京医科大学学报(自然科学版),2024,44(3):297-304
[17]SINDEEVA O A,PRIKHOZHDENKO E S,SCHUROV I, QIN L H,LI J Y,ZHANG J W,et al. 3D bio⁃printed salvia⁃
et al. Patterned drug ⁃ eluting coatings for tracheal stents nolic acid B ⁃ sodium alginate ⁃ gelatin skin scaffold pro⁃
based on PLA,PLGA,and PCL for the granulation forma⁃ motes wound healing in diabetic rats[J]. Journal of Nan⁃
tion reduction:in vivo studies[J]. Pharmaceutics,2021, jing Medical University(Natural Sciences),2024,44(3):
13(9):1437 297-304
[18]RAHIMKHOEI V,PADERVAND M,HEDAYAT M,et al. [27]BACHTIAR E O,RITTER V C,GALL K. Structure⁃pro⁃
Biomedical applications of electrospun polycaprolactone⁃ perty relationships in 3D⁃printed poly(l⁃lactide⁃co⁃ε⁃cap⁃
based carbohydrate polymers:a review[J]. Int J Biol Mac⁃ rolactone)degradable polymer[J]. J Mech Behav Biomed
romol,2023,253(Pt 1):126642 Mater,2021,121:104650
[19]ROBERTS C T,GRUNLAN M A. Biodegradable polyes⁃ [28]杨祖坤,贾 璐,韩利萍,等. 3D打印PLGA支架修复大
ters:approaches to increase degradation rates for biomedi⁃ 鼠上颚骨缺损的实验研究[J]. 南京医科大学学报(自
cal applications[J]. ACS Macro Lett,2025,14(8):1221- 然科学版),2020,40(8):1125-1129
1240 ANG Z K,JIA L,HAN L P,et al. Effects of PLGA scaf⁃
[20]MAKADIA H K,SIEGEL S J. Poly lactic⁃co⁃glycolic acid fold fabricated by 3D printing on the repair of rat palate
( PLGA )as biodegradable controlled drug delivery bone defect[J]. Journal of Nanjing Medical University
carrier[J]. Polymers,2011,3(3):1377-1397 (Natural Sciences),2020,40(8):1125-1129
[21]GKOLFAKIS P,SIERSEMA P D,TZIATZIOS G,et al. (收稿:2025-09-27;修回:2026-04-08;录用:2026-04-18)
Biodegradable esophageal stents for the treatment of re⁃ (本文编辑:陈汐敏)

