Microneedles for advanced ocular drug delivery.
暂无分享,去创建一个
Yu Wu | Thakur Raghu Raj Singh | A. Paredes | Shilpkala Gade | Deepakkumar Mishra | Katie Glover | Ryan F. Donnelly | Lalitkumar K | Vora
[1] G. Yousefi,et al. In-situ nanomicelle forming microneedles of poly NIPAAm-b-poly glutamic acid for trans-scleral delivery of dexamethasone , 2022, Journal of Industrial and Engineering Chemistry.
[2] Maram Suresh Gupta,et al. Development and Characterization of PEGDA Microneedles for Localized Drug Delivery of Gemcitabine to Treat Inflammatory Breast Cancer , 2022, Materials.
[3] S. Yeh,et al. Microinjection via the suprachoroidal space: a review of a novel mode of administration. , 2022, The American journal of managed care.
[4] E. Amendola,et al. Effect of microneedles shape on skin penetration and transdermal drug administration. , 2022, Biomaterials advances.
[5] L. Yong,et al. Drug delivery with dissolving microneedles: Skin puncture, its influencing factors and improvement strategies , 2022, Journal of Drug Delivery Science and Technology.
[6] R. Donnelly,et al. Rapidly dissolving bilayer microneedles enabling minimally invasive and efficient protein delivery to the posterior segment of the eye , 2022, Drug Delivery and Translational Research.
[7] P. Gálvez-Martín,et al. In vitroevaluation of anti‐aging and regenerative properties of dermatan sulfate for skin care , 2022, The FASEB Journal.
[8] P. Shende,et al. Microneedles in diagnostic, treatment and theranostics: An advancement in minimally-invasive delivery system , 2021, Biomedical Microdevices.
[9] J. Selamat,et al. Application of the Metabolomics Approach in Food Authentication , 2021, Molecules.
[10] E. Thom,et al. Managing Skin Ageing as a Modifiable Disorder – The Clinical Application of Nourella® Dual Approach Comprising a Nano-encapsulated Retinoid, Retilex-A® and a Skin Proteoglycan Replacement Therapy, Vercilex® , 2021, Cosmetics.
[11] P. Garg,et al. Microneedle scleral patch for minimally invasive delivery of triamcinolone to the posterior segment of eye. , 2021, International journal of pharmaceutics.
[12] A. Chanda,et al. Mechanical properties of whole-body soft human tissues: a review , 2021, Biomedical materials.
[13] P. Prewett,et al. An overview of microneedle applications, materials, and fabrication methods , 2021, Beilstein journal of nanotechnology.
[14] S. Desai,et al. A Comprehensive Review of Microneedles: Types, Materials, Processes, Characterizations and Applications , 2021, Polymers.
[15] H. Hatami-Marbini,et al. Tensile Viscoelastic Properties of the Sclera after Glycosaminoglycan Depletion , 2021, Current eye research.
[16] A. Ali,et al. Rapidly dissolving microneedle patch of amphotericin B for intracorneal fungal infections , 2021, Drug Delivery and Translational Research.
[17] Yujing Wang,et al. Long-acting nanoparticle-loaded bilayer microneedles for protein delivery to the posterior segment of the eye. , 2021, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[18] Wei Wu,et al. Design and Evaluation of Dissolving Microneedles for Enhanced Dermal Delivery of Propranolol Hydrochloride , 2021, Pharmaceutics.
[19] B. Mazzolai,et al. Engineering Microneedle Patches for Improved Penetration: Analysis, Skin Models and Factors Affecting Needle Insertion , 2021, Nano-micro letters.
[20] Alejandro J. Paredes,et al. Microneedle array systems for long-acting drug delivery. , 2020, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[21] Mark R Prausnitz,et al. Trends of microneedle technology in the scientific literature, patents, clinical trials and internet activity. , 2020, Biomaterials.
[22] Liping Zhang,et al. Nanosilk Increases the Strength of Diabetic Skin and Delivers CNP-miR146a to Improve Wound Healing , 2020, Frontiers in Immunology.
[23] A. Urtti,et al. Ocular barriers to retinal delivery of intravitreal liposomes: Impact of vitreoretinal interface. , 2020, Journal of controlled release : official journal of the Controlled Release Society.
[24] M. Kalaycı. Causes of Blindness in the Adult Population in Somalia , 2020, Turkish journal of ophthalmology.
[25] C. Wykoff,et al. Clinical Characterization of Suprachoroidal Injection Procedure Utilizing a Microinjector across Three Retinal Disorders , 2020, Translational vision science & technology.
[26] J. McGarry,et al. The influence of fibre alignment on the fracture toughness of anisotropic soft tissue , 2020, Engineering Fracture Mechanics.
[27] M. H. Jomaa,et al. Two-Photon Polymerisation 3D Printing of Microneedle Array Templates with Versatile Designs: Application in the Development of Polymeric Drug Delivery Systems , 2020, Pharmaceutical Research.
[28] T. Vermonden,et al. Intravitreal hydrogels for sustained release of therapeutic proteins. , 2020, Journal of controlled release : official journal of the Controlled Release Society.
[29] D. Reynaerts,et al. Phase I trial on robot assisted retinal vein cannulation with ocriplasmin infusion for central retinal vein occlusion , 2020, Acta ophthalmologica.
[30] Z. Ahmad,et al. Fabrication and characterisation of self-applicating heparin sodium microneedle patches , 2020, Journal of drug targeting.
[31] Yi Hua,et al. Collagen fiber interweaving is central to sclera stiffness. , 2020, Acta biomaterialia.
[32] V. K. Rai,et al. Microneedle Array: Applications, Recent Advances, and Clinical Pertinence in Transdermal Drug Delivery , 2020, Journal of Pharmaceutical Innovation.
[33] Roland K. Chen,et al. Self-Adhesive Microneedles with Interlocking Features for Sustained Ocular Drug Delivery. , 2020, Macromolecular bioscience.
[34] V. K. Venuganti,et al. Microneedle ocular patch: fabrication, characterization, and ex-vivo evaluation using pilocarpine as model drug , 2020, Drug development and industrial pharmacy.
[35] C. R. Ethier,et al. A Biphasic Approach for Characterizing Tensile, Compressive, and Hydraulic Properties of the Sclera , 2020, bioRxiv.
[36] Chuanbin Wu,et al. Dissolving Microneedle Arrays with Optimized Needle Geometry for Transcutaneous Immunization. , 2020, European journal of pharmaceutical sciences : official journal of the European Federation for Pharmaceutical Sciences.
[37] Maelíosa T. C. McCrudden,et al. Evaluation of the clinical impact of repeat application of hydrogel-forming microneedle array patches , 2020, Drug Delivery and Translational Research.
[38] Jun-ho Jeong,et al. Ultrasonically and Iontophoretically Enhanced Drug-Delivery System Based on Dissolving Microneedle Patches , 2020, Scientific Reports.
[39] Howon Lee,et al. 4D Printing of a Bioinspired Microneedle Array with Backward‐Facing Barbs for Enhanced Tissue Adhesion , 2020, Advanced Functional Materials.
[40] Yi Hua,et al. Scleral structure and biomechanics , 2020, Progress in Retinal and Eye Research.
[41] G. Noronha,et al. Efficacy and Safety of Suprachoroidal CLS-TA for Macular Edema Secondary to Noninfectious Uveitis: Phase 3 Randomized Trial. , 2020, Ophthalmology.
[42] Sarah L. G. Ackermann,et al. Experimental methods in chemical engineering: Thermogravimetric analysis—TGA , 2019, The Canadian Journal of Chemical Engineering.
[43] Liujiang Song,et al. A Fixed-Depth Microneedle Enhances Reproducibility and Safety for Corneal Gene Therapy , 2019, Cornea.
[44] P. Garg,et al. Amphotericin B containing microneedle ocular patch for effective treatment of fungal keratitis. , 2019, International journal of pharmaceutics.
[45] Shiho Kim,et al. Noninvasive determination of fiber orientation and tracking 2-dimensional deformation of human skin utilizing spatially resolved reflectance of infrared light measurement in vivo , 2019, Measurement.
[46] C. Wykoff,et al. Suprachoroidally injected pharmacological agents for the treatment of chorio‐retinal diseases: a targeted approach , 2019, Acta ophthalmologica.
[47] K. Kabashima,et al. Combined multiphoton imaging and biaxial tissue extension for quantitative analysis of geometric fiber organization in human reticular dermis , 2019, Scientific Reports.
[48] V. Khutoryanskiy,et al. Penetration Enhancers in Ocular Drug Delivery , 2019, Pharmaceutics.
[49] M. Meinke,et al. Noninvasive Determination of Epidermal and Stratum Corneum Thickness in vivo Using Two-Photon Microscopy and Optical Coherence Tomography: Impact of Body Area, Age, and Gender , 2019, Skin Pharmacology and Physiology.
[50] C. Roberts,et al. Biomechanical Impact of the Sclera on Corneal Deformation Response to an Air-Puff: A Finite-Element Study , 2019, Front. Bioeng. Biotechnol..
[51] A. Mitra,et al. Ocular Pharmacokinetics of a Topical Ophthalmic Nanomicellar Solution of Cyclosporine (Cequa®) for Dry Eye Disease , 2019, Pharmaceutical Research.
[52] Chang Sik Cho,et al. Depthwise‐controlled scleral insertion of microneedles for drug delivery to the back of the eye , 2018, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[53] Chenjie Xu,et al. Self-implantable double-layered micro-drug-reservoirs for efficient and controlled ocular drug delivery , 2018, Nature Communications.
[54] C. Flohr,et al. Research Techniques Made Simple: Transepidermal Water Loss Measurement as a Research Tool. , 2018, The Journal of investigative dermatology.
[55] WonHyoung Ryu,et al. Intracorneal injection of a detachable hybrid microneedle for sustained drug delivery. , 2018, Acta biomaterialia.
[56] Bin Liu,et al. Additive Manufacturing of Honeybee-Inspired Microneedle for Easy Skin Insertion and Difficult Removal. , 2018, ACS applied materials & interfaces.
[57] Eneko Larrañeta,et al. Novel nanosuspension‐based dissolving microneedle arrays for transdermal delivery of a hydrophobic drug , 2018, Journal of interdisciplinary nanomedicine.
[58] Kevin C. Chan,et al. Spatial Patterns and Age-Related Changes of the Collagen Crimp in the Human Cornea and Sclera , 2018, Investigative ophthalmology & visual science.
[59] H. Grossniklaus,et al. Ocular drug delivery targeted by iontophoresis in the suprachoroidal space using a microneedle , 2018, Journal of controlled release : official journal of the Controlled Release Society.
[60] P. Kumari,et al. Zein Microneedles for Localized Delivery of Chemotherapeutic Agents to Treat Breast Cancer: Drug Loading, Release Behavior, and Skin Permeation Studies , 2018, AAPS PharmSciTech.
[61] Hamed Joodaki,et al. Skin mechanical properties and modeling: A review , 2018, Proceedings of the Institution of Mechanical Engineers. Part H, Journal of engineering in medicine.
[62] D. Mcclements. Encapsulation, protection, and delivery of bioactive proteins and peptides using nanoparticle and microparticle systems: A review. , 2018, Advances in colloid and interface science.
[63] Hyungil Jung,et al. A three-dimensional and bevel-angled ultrahigh aspect ratio microneedle for minimally invasive and painless blood sampling , 2018 .
[64] Arya Saidi,et al. In Vivo Elasticity Mapping of Posterior Ocular Layers Using Acoustic Radiation Force Optical Coherence Elastography , 2018, Investigative ophthalmology & visual science.
[65] Shubhmita Bhatnagar,et al. Corneal delivery of besifloxacin using rapidly dissolving polymeric microneedles , 2017, Drug Delivery and Translational Research.
[66] Wen-Ying Huang,et al. A Transdermal Measurement Platform Based on Microfluidics , 2017 .
[67] Darren J. Martin,et al. Allometric scaling of skin thickness, elasticity, viscoelasticity to mass for micro-medical device translation: from mice, rats, rabbits, pigs to humans , 2017, Scientific Reports.
[68] M. Knopp,et al. Systemic Biodistribution and Intravitreal Pharmacokinetic Properties of Bevacizumab, Ranibizumab, and Aflibercept in a Nonhuman Primate Model. , 2017, Investigative ophthalmology & visual science.
[69] M. Schanne-Klein,et al. How aging impacts skin biomechanics: a multiscale study in mice , 2017, Scientific Reports.
[70] Monica Rengifo-Pardo,et al. Review of applications of microneedling in dermatology , 2017, Clinical, cosmetic and investigational dermatology.
[71] H. Shan,et al. Microneedle Patches as Drug and Vaccine Delivery Platform. , 2017, Current medicinal chemistry.
[72] M. Lorencini,et al. Elastin structure and its involvement in skin photoageing , 2017, International journal of cosmetic science.
[73] R. Gallo. Human Skin Is the Largest Epithelial Surface for Interaction with Microbes. , 2017, The Journal of investigative dermatology.
[74] D. R. Iskander,et al. Scleral changes with accommodation , 2017, Ophthalmic & physiological optics : the journal of the British College of Ophthalmic Opticians.
[75] M. Griffin,et al. Comparison of the mechanical properties of different skin sites for auricular and nasal reconstruction , 2017, Journal of Otolaryngology - Head & Neck Surgery.
[76] David S. Jones,et al. Minimally invasive microneedles for ocular drug delivery , 2017, Expert opinion on drug delivery.
[77] S. Srivastava,et al. Suprachoroidal Corticosteroid Administration: A Novel Route for Local Treatment of Noninfectious Uveitis , 2016, Translational vision science & technology.
[78] H. McCarthy,et al. Rapidly dissolving polymeric microneedles for minimally invasive intraocular drug delivery , 2016, Drug Delivery and Translational Research.
[79] David A Barrow,et al. Evaluation of geometrical effects of microneedles on skin penetration by CT scan and finite element analysis. , 2016, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[80] R. Chuck,et al. Details of the Collagen and Elastin Architecture in the Human Limbal Conjunctiva, Tenon's Capsule and Sclera Revealed by Two-Photon Excited Fluorescence Microscopy. , 2016, Investigative ophthalmology & visual science.
[81] Joseph M. DeSimone,et al. Single-Step Fabrication of Computationally Designed Microneedles by Continuous Liquid Interface Production , 2016, PloS one.
[82] P. Badica,et al. Computer assisted design and finite element analysis of contact lenses. , 2016, Romanian Journal of Ophthalmology.
[83] H. Grossniklaus,et al. Sustained reduction of intraocular pressure by supraciliary delivery of brimonidine-loaded poly(lactic acid) microspheres for the treatment of glaucoma. , 2016, Journal of controlled release : official journal of the Controlled Release Society.
[84] Paweł Kiełbasa,et al. Determining eyeball surface area directly exposed to the effects of external factors , 2016, International journal of occupational safety and ergonomics : JOSE.
[85] Malik Y. Kahook,et al. Fenestrated microneedles for ocular drug delivery , 2016 .
[86] Hyungil Jung,et al. Intravitreal injection of anti-vascular endothelial growth factor (anti-VEGF) antibody via Tower Microneedle , 2015, BioChip Journal.
[87] H. Quigley,et al. Glaucoma-related Changes in the Mechanical Properties and Collagen Micro-architecture of the Human Sclera , 2015, PloS one.
[88] Ryan F. Donnelly,et al. Microneedle characterisation: the need for universal acceptance criteria and GMP specifications when moving towards commercialisation , 2015, Drug Delivery and Translational Research.
[89] Michael Vaiman,et al. Variations in Eyeball Diameters of the Healthy Adults , 2014, Journal of ophthalmology.
[90] Mark R Prausnitz,et al. Intrastromal delivery of bevacizumab using microneedles to treat corneal neovascularization. , 2014, Investigative ophthalmology & visual science.
[91] M. Prausnitz,et al. Targeted delivery of antiglaucoma drugs to the supraciliary space using microneedles. , 2014, Investigative ophthalmology & visual science.
[92] Ryan F. Donnelly,et al. A proposed model membrane and test method for microneedle insertion studies , 2014, International journal of pharmaceutics.
[93] P. Santi,et al. In vitro permeability of a model protein across ocular tissues and effect of iontophoresis on the transscleral delivery. , 2014, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[94] Maelíosa T. C. McCrudden,et al. Hydrogel-forming microneedles increase in volume during swelling in skin, but skin barrier function recovery is unaffected. , 2014, Journal of pharmaceutical sciences.
[95] R. Donnelly,et al. Microneedle‐mediated intrascleral delivery of in situ forming thermoresponsive implants for sustained ocular drug delivery , 2014, The Journal of pharmacy and pharmacology.
[96] Maelíosa T. C. McCrudden,et al. Microneedles for intradermal and transdermal drug delivery. , 2013, European journal of pharmaceutical sciences : official journal of the European Federation for Pharmaceutical Sciences.
[97] Michał Wieczorowski,et al. Age-dependent biomechanical properties of the skin , 2013, Postepy dermatologii i alergologii.
[98] A. Elsheikh,et al. A wide-angle X-ray fibre diffraction method for quantifying collagen orientation across large tissue areas: application to the human eyeball coat , 2013 .
[99] Hyungil Jung,et al. Tower Microneedle Via Reverse Drawing Lithography for Innocuous Intravitreal Drug Delivery , 2013, Advanced Healthcare Materials.
[100] K. Falavarjani,et al. Adverse events and complications associated with intravitreal injection of anti-VEGF agents: a review of literature , 2013, Eye.
[101] Sung Ho Lee,et al. Tower microneedle minimizes vitreal reflux in intravitreal injection , 2013, Biomedical microdevices.
[102] Samirkumar R Patel,et al. Treatment of acute posterior uveitis in a porcine model by injection of triamcinolone acetonide into the suprachoroidal space using microneedles. , 2013, Investigative ophthalmology & visual science.
[103] Ahmed Elsheikh,et al. Age-related variations in the biomechanical properties of human sclera. , 2012, Journal of the mechanical behavior of biomedical materials.
[104] A. Podoleanu,et al. Optical coherence tomography , 2012, Journal of microscopy.
[105] M. Prausnitz,et al. Targeted administration into the suprachoroidal space using a microneedle for drug delivery to the posterior segment of the eye. , 2012, Investigative ophthalmology & visual science.
[106] Thao D Nguyen,et al. Biomechanics of the human posterior sclera: age- and glaucoma-related changes measured using inflation testing. , 2012, Investigative ophthalmology & visual science.
[107] Jost B. Jonas,et al. Scleral Thickness in Human Eyes , 2012, PloS one.
[108] Samjin Choi,et al. AFM study for morphological and mechanical properties of human scleral surface. , 2011, Journal of nanoscience and nanotechnology.
[109] Young H. Kwon,et al. Novel drug delivery systems for glaucoma , 2011, Eye.
[110] Mark R Prausnitz,et al. Rapid pharmacokinetics of intradermal insulin administered using microneedles in type 1 diabetes subjects. , 2011, Diabetes technology & therapeutics.
[111] M. Garland,et al. Laser-Engineered Dissolving Microneedle Arrays for Transdermal Macromolecular Drug Delivery , 2011, Pharmaceutical Research.
[112] S. Young,et al. Drug delivery to the posterior segment of the eye. , 2011, Drug discovery today.
[113] R. Donnelly,et al. Microneedle-based drug delivery systems: Microfabrication, drug delivery, and safety , 2010, Drug delivery.
[114] L. Jampol,et al. Nonsteroidal anti-inflammatory drugs in ophthalmology. , 2010, Survey of ophthalmology.
[115] U. Kompella,et al. Fluocinolone inhibits VEGF expression via glucocorticoid receptor in human retinal pigment epithelial (ARPE-19) cells and TNF-alpha-induced angiogenesis in chick chorioallantoic membrane (CAM). , 2009, Journal of ocular pharmacology and therapeutics : the official journal of the Association for Ocular Pharmacology and Therapeutics.
[116] P. Yip,et al. Triple therapy for neovascular age-related macular degeneration using single-session photodynamic therapy combined with intravitreal bevacizumab and triamcinolone , 2009, British Journal of Ophthalmology.
[117] Mark R. Prausnitz,et al. Intrascleral Drug Delivery to the Eye Using Hollow Microneedles , 2009, Pharmaceutical Research.
[118] D. Pieramici,et al. Anti-VEGF therapy: comparison of current and future agents , 2008, Eye.
[119] Mark R. Prausnitz,et al. Effect of Microneedle Design on Pain in Human Volunteers , 2008, The Clinical journal of pain.
[120] M. Bartoli,et al. Vascular endothelial growth factor in eye disease , 2008, Progress in Retinal and Eye Research.
[121] H. Zahouani,et al. In vivo measurements of the elastic mechanical properties of human skin by indentation tests. , 2008, Medical engineering & physics.
[122] H. Tchah,et al. The effect of topical bevacizumab on corneal neovascularization. , 2008, Ophthalmology.
[123] N. Wang,et al. Transport Barriers in Transscleral Drug Delivery for Retinal Diseases , 2007, Ophthalmic Research.
[124] M. Prausnitz,et al. Coated microneedles for drug delivery to the eye. , 2007, Investigative ophthalmology & visual science.
[125] H Kasprzak,et al. Modelling the elastic properties of the anterior eye and their contribution to maintenance of image quality: the role of the limbus , 2007, Eye.
[126] T. Yamashita,et al. Intraocular Pressure After Intravitreal Injection of Triamcinolone Acetonide Following Vitrectomy for Macular Edema , 2006, Journal of glaucoma.
[127] G. Beauchamp,et al. The burden of age-related macular degeneration: a value-based analysis , 2006, Current opinion in ophthalmology.
[128] Jung-Hwan Park,et al. Biodegradable polymer microneedles: fabrication, mechanics and transdermal drug delivery. , 2005, Journal of controlled release : official journal of the Controlled Release Society.
[129] K. Whittaker,et al. Prospective survey of adverse reactions to topical antiglaucoma medications in a hospital population , 2005, Eye.
[130] K. Meek,et al. X-ray scattering used to map the preferred collagen orientation in the human cornea and limbus. , 2004, Structure.
[131] H F Edelhauser,et al. Transscleral drug delivery for posterior segment disease. , 2001, Advanced drug delivery reviews.
[132] M. Allen,et al. Lack of Pain Associated with Microfabricated Microneedles , 2001, Anesthesia and analgesia.
[133] J. Schuman,et al. Antiglaucoma medications: a review of safety and tolerability issues related to their use. , 2000, Clinical therapeutics.
[134] J A Rada,et al. Proteoglycans in the human sclera. Evidence for the presence of aggrecan. , 1997, Investigative ophthalmology & visual science.
[135] M. Tabak,et al. Water increases the fluidity of intercellular membranes of stratum corneum: correlation with water permeability, elastic, and electrical resistance properties. , 1996, The Journal of investigative dermatology.
[136] H. Quigley. Number of people with glaucoma worldwide. , 1996, The British journal of ophthalmology.
[137] A. Urtti,et al. Minimizing systemic absorption of topically administered ophthalmic drugs. , 1993, Survey of ophthalmology.
[138] P. Byers,et al. Structure of the dermal matrix during development and in the adult. , 1982, The Journal of investigative dermatology.
[139] J. Shaw,et al. Transdermal scopolamine in the prevention of motion sickness at sea , 1981, Clinical pharmacology and therapeutics.
[140] D. Maurice,et al. Diffusion across the sclera. , 1977, Experimental eye research.
[141] M. Turner. Stiffness and Deflection Analysis of Complex Structures , 1956 .
[142] B. Liu,et al. Rapid fabrication of microneedles using magnetorheological drawing lithography. , 2018, Acta biomaterialia.
[143] D. Yadav,et al. Drug Delivery to Posterior Segment of the Eye: Conventional Delivery Strategies, Their Barriers, and Restrictions , 2018 .
[144] D. Barrow,et al. Structural characterisation and transdermal delivery studies on sugar microneedles: experimental and finite element modelling analyses. , 2015, European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V.
[145] B. Coats,et al. Age-related changes in dynamic moduli of ovine vitreous. , 2015, Journal of the mechanical behavior of biomedical materials.
[146] A. Mamalis,et al. Optical coherence tomography (OCT) of collagen in normal skin and skin fibrosis , 2013, Archives of Dermatological Research.
[147] A. Mitra,et al. Eye: anatomy, physiology and barriers to drug delivery , 2013 .
[148] M. Prausnitz,et al. Suprachoroidal Drug Delivery to the Back of the Eye Using Hollow Microneedles , 2010, Pharmaceutical Research.