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DMN 传递至小鼠角膜,这种联合用药又比单独用药的                          [ 7 ]  LIU L C,CHEN Y H,LU D W. Overview of recent ad‐
          角膜新生血管面积更小,且干预后未发现角膜不良反                                 vances  in  nano-based  ocular  drug  delivery[J].  Int  J  Mol
                         [44]
          应。Savinainen 等 将抗肿瘤药物 AU-011 通过微针注                      Sci,2023,24(20):1535.
          射到兔的SCS来干预脉络膜黑色素瘤,显示出良好的干                          [ 8 ]  VARELA-FERNÁNDEZ  R,DÍAZ-TOMÉ  V,LUACES-
          预效果和很少的副作用。                                             RODRÍGUEZ A,et al. Drug delivery to the posterior seg‐
                                                                  ment  of  the  eye:biopharmaceutic  and  pharmacokinetic
          4 总结与展望
                                                                  considerations[J]. Pharmaceutics,2020,12(3):269.
              眼部特有的生理屏障导致常规眼科用药在眼球表
                                                             [ 9 ]  BORA K,KUSHWAH N,MAURYA M,et al. Assessment
          面被快速清除,使得药物生物利用度低,且到达眼后节
                                                                  of inner blood-retinal barrier:animal models and methods
          困难。玻璃体注射虽然能使药物到达眼后节,但存在感                                [J]. Cells,2023,12(20):244.
          染、损伤等相关操作并发症,患者耐受性差。眼用微针                           [10]  GLOVER K,MISHRA D,GADE S,et al. Microneedles
          突破了眼内外屏障,使药物能够精准到达治疗部位且能                                for  advanced  ocular  drug  delivery[J].  Adv  Drug  Deliv
          持续释放,延长了治疗时间,减少了全身副作用,很大程                               Rev,2023,201:11508.
          度地避免了眼内感染和损伤,提高了药物的生物利用                            [11]  PARIS J L,VORA L K,TORRES M J,et al. Microneedle
          度。其作为眼部药物输送工具存在着明显的优势,目前                                array  patches  for  allergen-specific  immunotherapy[J].
          已在动物实验(部分疾病已有临床试验)中取得满意的                                Drug Discov Today,2023,28(5):103556.
          效果。但目前眼用微针仍存在一些挑战和缺点。今后                            [12]  吕晓燕,陈道远,苏林豫,等. 眼用微针药物递送系统研
          的研究方向应集中于微针的设计、材料、使用方法等方                                究进展[J]. 中国新药杂志,2020,29(24):2794-2800.
          面,并逐渐开展应用于人眼的大样本、多中心的临床试                                LYU X Y,CHEN D Y,SU L Y,et al. Research progress
                                                                  in ophthalmic microneedles drug delivery system[J]. Chin
          验以验证其效果;同时,还应将微针与 3D 打印、纳米技
                                                                  J New Drugs,2020,29(24):2794-2800.
          术和功能化纳米粒子等热门技术相融合,从而开发出经
                                                             [13]  ABD-EL-AZIM  H,TEKKO  I  A,ALI  A,et  al.  Hollow
          济的、可获得的、操作简易的眼用微针,让药物精准地到
                                                                  microneedle  assisted  intradermal  delivery  of  hypericin
          达治疗部位并持久释放,使得眼科用药更加方便、安全、
                                                                  lipid  nanocapsules  with  light-enabled  photodynamic
          持久。                                                     therapy  against  skin  cancer[J].  J  Control  Release,2022,
          参考文献                                                    348:849-869.

          [ 1 ]  TAVAKOLI  S,PEYNSHAERT  K,LAJUNEN  T,et  al.   [14]  ALLMENDINGER A,BUTT Y  L,MUELLER  C.  Intra‐
              Ocular  barriers  to  retinal  delivery  of  intravitreal  lipo‐  ocular pressure and injection forces during intravitreal in‐
              somes:impact  of  vitreoretinal  interface[J].  J  Control  Re‐  jection into enucleated porcine eyes[J]. Eur J Pharm Bio‐
              lease,2020,328:952-961.                             pharm,2021,166:87-93.
          [ 2 ]  GORANTLA  S,RAPALLI  V  K,WAGHULE  T,et  al.   [15]  GADE S,GLOVER K,MISHRA D,et al. Hollow micro-
              Nanocarriers  for  ocular  drug  delivery:current  status  and   needles  for  ocular  drug  delivery[J].  J  Control  Release,
              translational  opportunity[J].  RSC  Adv,2020,10(46):  2024,371:43-66.
              27835-27855.                                   [16]  KIM Y C,OH K H,EDELHAUSER H F,et al. Formula‐
          [ 3 ]  SUBRIZI A,DEL AMO E M,KORZHIKOV-VLAKH V,         tion to target delivery to the ciliary body and choroid via
              et al. Design principles of ocular drug delivery systems:  the suprachoroidal space of the eye using microneedles[J].
              importance  of  drug  payload,release  rate,and  material   Eur J Pharm Biopharm,2015,95(Pt B):398-406.
              properties[J].  Drug  Discov  Today,2019,24(8):1446-  [17]  WU Y,VORA L K,DONNELLY R F,et al. Rapidly dis‐
              1457.                                               solving bilayer microneedles enabling minimally invasive
          [ 4 ]  WU Y M,LIU Y Y,LI X Y,et al. Research progress of in   and efficient protein delivery to the posterior segment of
              situ  gelling  ophthalmic  drug  delivery  system[J]. Asian  J   the  eye[J].  Drug  Deliv  Transl  Res,2023,13(8):2142-
              Pharm Sci,2019,14(1):1-15.                          2158.
          [ 5 ]  MOFIDFAR M,ABDI B,AHADIAN S,et al. Drug deli-   [18]  YU X Q,ZHAO J,FAN D D. The progress in the applica‐
              very to the anterior segment of the eye:a review of current   tion  of  dissolving  microneedles  in  biomedicine[J].  Poly‐
              and future treatment strategies[J]. Int J Pharm,2021,607:  mers (Basel),2023,15(20):4059.
              120924.                                        [19]  ROY G,GALIGAMA R D,THORAT V S,et al. Micro-
          [ 6 ]  KAUL S,NAGAICH U,VERMA N. Investigating nano‐    needle  ocular  patch:fabrication,characterization,and
              structured liquid crystalline particles as prospective ocular   ex-vivo  evaluation  using  pilocarpine  as  model  drug[J].
              delivery vehicle for tobramycin sulfate:ex vivo and in vivo   Drug Dev Ind Pharm,2020,46(7):1114-1122.
              studies[J].  J  Adv  Pharm  Technol  Res,2021,12(4):  [20]  SARTAWI  Z,BLACKSHIELDS  C,FAISAL  W.  Dissol-
              356-361.                                            ving  microneedles:applications  and  growing  therapeutic


          中国药房  2025年第36卷第3期                                                 China Pharmacy  2025 Vol. 36  No. 3    · 371 ·
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