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               ·956 ·                            南 京    医 科 大 学 学         报                        2022年7月


              响应型脂质相变液滴,可在温度/超声激励下实现                                 moting wound healing[J]. Bioact Mater,2020,5(2):
              液⁃气相转变,能有效提高相变液滴的超声造影能                                 253-259
              力,同时,当与水凝胶复合后,通过温度/超声激励,                          [11] HUANG L D,QUESADA C,ALIABOUZAR M,et al. Spa⁃
              可以间接调控水凝胶的结构与性能。该研究目前                                  tially ⁃ directed angiogenesis using ultrasound ⁃ controlled
                                                                     release of basic fibroblast growth factor from acoustically⁃
              尚处于初步阶段,后续将从以下几个方面深入:优
                                                                     responsive scaffolds[J]. Acta Biomater,2021,129:73-83
              化相变液滴的结构,构建适用于体内应用的低沸点
                                                                [12] DONG X X,LU X F,KINGSTON K,et al. Controlled de⁃
              相变液滴;对相变液滴进行精准调控,细化超声参
                                                                     livery of basic fibroblast growth factor(bFGF) using
              数,并探索不同尺寸相变液滴液⁃气相变所需的超声                                acoustic droplet vaporization stimulates endothelial net⁃
              强度阈值;研究水凝胶结构和力学性能的改变对药                                 work formation[J]. Acta Biomater,2019,97:409-419
              物释放、组织工程、细胞培养等应用的影响。                              [13] SOTO F,JEERAPAN I,SILVA⁃LÓPEZ C,et al. Noninva⁃
                                                                     sive transdermal delivery system of lidocaine using an
             [参考文献]
                                                                     acoustic droplet ⁃ vaporization based wearable patch[J].
             [1] KRIPFGANS O D,FOWLKES J B,MILLER D L,et al.         Small Weinheim Der Bergstrasse Ger,2018,14(49):
                   Acoustic droplet vaporization for therapeutic and diagnos⁃  e1803266
                   tic applications[J]. Ultrasound Med Biol,2000,26(7):  [14] WANG Y T,CHEN C,LUO Y,et al. Experimental study
                   1177-1189                                         of tumor therapy mediated by multimodal imaging based
             [2] STROHM E,RUI M,GORELIKOV I,et al. Vaporization      on a biological targeting synergistic agent[J]. Int J Nano⁃
                   of perfluorocarbon droplets using optical irradiation[J].  medicine,2020,15:1871-1888
                   Biomed Opt Express,2011,2(6):1432-1442       [15] CHANG N,QIN D,WU P Y,et al. IR780 loaded perfluo⁃
             [3] QIN D,ZHANG L,CHANG N,et al. In situ observation    rohexane nanodroplets for efficient sonodynamic effect in⁃
                   of single cell response to acoustic droplet vaporization:  duced by short ⁃ pulsed focused ultrasound[J]. Ultrason
                   membrane deformation,permeabilization,and blebbing  Sonochemistry,2019,53:59-67
                  [J]. Ultrason Sonochemistry,2018,47:141-150   [16] MOUNTFORD P A,THOMAS A N,BORDEN M A. Ther⁃
             [4] XU S S,CHANG N,WANG R,et al. Acoustic droplet va⁃   mal activation of superheated lipid ⁃ coated perfluorocar⁃
                   porization and inertial cavitation thresholds and efficien⁃  bon drops[J]. Langmuir,2015,31(16):4627-4634
                   cies of nanodroplets emulsions inside the focused region  [17] ZHANG L,YI H J,SONG J,et al. Mitochondria⁃targeted
                   using a dual-frequency ring focused ultrasound[J]. Ultra⁃  and ultrasound⁃activated nanodroplets for enhanced deep⁃
                                                                     penetration sonodynamic cancer therapy[J]. ACS Appl
                   son Sonochemistry,2018,48:532-537
                                                                     Mater Interfaces,2019,11(9):9355-9366
             [5] CAI C,LI X,WANG Y,et al. Polydopamine⁃coated gold
                                                                [18] LI J P,JI H,JING Y,et al. pH⁃and acoustic⁃responsive
                   core/hollow mesoporous silica shell particles as a nano⁃
                                                                     platforms based on perfluoropentane ⁃ loaded protein
                   platform for multimode imaging and photothermal therapy
                                                                     nanoparticles for ovarian tumor⁃targeted ultrasound imag⁃
                   of tumors[J]. Chem Eng J,2019,362:842-850
                                                                     ing and therapy[J]. Nanoscale Res Lett,2020,15(1):31
             [6] SHENG D L,DENG L M,LI P,et al. Perfluorocarbon
                                                                [19] RAPOPORT N Y,KENNEDY A M,SHEA J E,et al. Con⁃
                   nanodroplets with deep tumor penetration and controlled
                                                                     trolled and targeted tumor chemotherapy by ultrasound ⁃
                   drug delivery for ultrasound/fluorescence imaging guided
                                                                     activated nanoemulsions/microbubbles[J]. J Control Re⁃
                   breast cancer therapy[J]. ACS Biomater Sci Eng,2021,7
                                                                     lease,2009,138(3):268-276
                  (2):605-616
                                                                [20] YOO K,WALKER W R,WILLIAMS R,et al. Impact of
             [7] NAAHIDI S,JAFARI M,LOGAN M,et al. Biocompatibil⁃
                                                                     encapsulation on in vitro and in vivo performance of vola⁃
                   ity of hydrogel⁃based scaffolds for tissue engineering ap⁃
                                                                     tile nanoscale phase ⁃ shift perfluorocarbon droplets[J].
                   plications[J]. Biotechnol Adv,2017,35(5):530-544
                                                                     Ultrasound Med Biol,2018,44(8):1836-1852
             [8] LIU X Y,LIU J,LIN S T,et al. Hydrogel machines[J].
                                                                [21] BARREIRO O,AGUILAR R J,TEJERA E,et al. Specific
                   Mater Today,2020,36:102-124
                                                                     targetingofhumaninflamedendotheliumandinsituvascular
             [9] 岳    珍. 温度/pH 双敏感型水凝胶的制备及其药物缓
                                                                     tissue transfection by the use of ultrasound contrast agents
                   释性能的研究[D]. 济南:山东大学,2019
                                                                    [J]. JACC Cardiovasc Imaging,2009,2(8):997-1005
             [10] CHI J J,ZHANG X X,CHEN C W,et al. Antibacterial
                                                                                          [收稿日期] 2022-04-13
                   and angiogenic chitosan microneedle array patch for pro⁃                    (责任编辑:蒋      莉)
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