Sequential delivery of dexamethasone and VEGF to control local tissue response for carbon nanotube fluorescence based micro-capillary implantable sensors.
暂无分享,去创建一个
Michael S Strano | Hyunjoon Kong | M. Strano | H. Kong | P. Barone | Paul W Barone | Jaeyun Sung | Jaeyun Sung
[1] Diane J Burgess,et al. Concurrent delivery of dexamethasone and VEGF for localized inflammation control and angiogenesis. , 2007, Journal of controlled release : official journal of the Controlled Release Society.
[2] D. Dorsky,et al. Enhancement of implantable glucose sensor function in vivo using gene transfer-induced neovascularization. , 2005, Biomaterials.
[3] F Moussy,et al. In vivo evaluation of a dexamethasone/PLGA microsphere system designed to suppress the inflammatory tissue response to implantable medical devices. , 2002, Journal of biomedical materials research.
[4] M. Strano,et al. Reversible control of carbon nanotube aggregation for a glucose affinity sensor. , 2006, Angewandte Chemie.
[5] Mark E Meyerhoff,et al. In vivo chemical sensors: tackling biocompatibility. , 2006, Analytical chemistry.
[6] Mark C. Hersam,et al. Sorting carbon nanotubes by electronic structure using density differentiation , 2006, Nature nanotechnology.
[7] D. Carbone,et al. VEGF as a mediator of tumor-associated immunodeficiency , 2001, Immunologic research.
[8] M. Strano,et al. Near-infrared optical sensors based on single-walled carbon nanotubes , 2004, Nature materials.
[9] Thomas E. Eurell,et al. Single‐Walled Carbon Nanotube Spectroscopy in Live Cells: Towards Long‐Term Labels and Optical Sensors , 2005 .
[10] H. Dai,et al. Carbon nanotubes as multifunctional biological transporters and near-infrared agents for selective cancer cell destruction. , 2005, Proceedings of the National Academy of Sciences of the United States of America.
[11] Peter G Jacobs,et al. Feasibility of continuous long-term glucose monitoring from a subcutaneous glucose sensor in humans. , 2004, Diabetes technology & therapeutics.
[12] D. Delpy,et al. Characterization of the near infrared absorption spectra of cytochrome aa3 and haemoglobin for the non-invasive monitoring of cerebral oxygenation. , 1988, Biochimica et biophysica acta.
[13] Michael S. Strano,et al. Optical Detection of DNA Conformational Polymorphism on Single-Walled Carbon Nanotubes , 2006, Science.
[14] V. C. Moore,et al. Band Gap Fluorescence from Individual Single-Walled Carbon Nanotubes , 2002, Science.
[15] F. Moussy,et al. Ex ova chick chorioallantoic membrane as a novel model for evaluation of tissue responses to biomaterials and implants. , 2003, Journal of biomedical materials research. Part A.
[16] W M Reichert,et al. In vitro characterization of vascular endothelial growth factor and dexamethasone releasing hydrogels for implantable probe coatings. , 2005, Biomaterials.
[17] U Fischer,et al. Subcutaneous glucose monitoring by means of electrochemical sensors: fiction or reality? , 1992, Journal of biomedical engineering.
[18] J. Benda,et al. Characterizing short-term release and neovascularization potential of multi-protein growth supplement delivered via alginate hollow fiber devices. , 2007, Biomaterials.
[19] Jeffrey A. Hubbell,et al. Rapid photopolymerization of immunoprotective gels in contact with cells and tissue , 1992 .
[20] D. Dorsky,et al. Use of vascular endothelial cell growth factor gene transfer to enhance implantable sensor function in vivo. , 2003, Journal of biomedical materials research. Part A.
[21] P H Burri,et al. Chorioallantoic membrane capillary bed: A useful target for studying angiogenesis and anti‐angiogenesis in vivo , 2001, The Anatomical record.
[22] David C. Martin,et al. Sustained release of dexamethasone from hydrophilic matrices using PLGA nanoparticles for neural drug delivery. , 2006, Biomaterials.
[23] J. Hubbell,et al. Solution technique to incorporate polyethylene oxide and other water-soluble polymers into surfaces of polymeric biomaterials. , 1991, Biomaterials.
[24] Y Noishiki,et al. Tissue biocompatibility of cellulose and its derivatives. , 1989, Journal of biomedical materials research.
[25] W M Reichert,et al. Engineering the tissue which encapsulates subcutaneous implants. I. Diffusion properties. , 1997, Journal of biomedical materials research.
[26] F. Moussy,et al. Ex ova chick chorioallantoic membrane as a novel in vivo model for testing biosensors. , 2003, Journal of biomedical materials research. Part A.
[27] F. Coenjaerts,et al. Dexamethasone downregulates Cryptococcus neoformans-induced vascular endothelial growth factor production: a role for corticosteroids in cryptococcal meningitis? , 2004, Journal of acquired immune deficiency syndromes.
[28] W. Reichert,et al. Biomaterials community examines biosensor biocompatibility. , 2000, Diabetes technology & therapeutics.
[29] S. Lora,et al. Covalently immobilized enzymes on biocompatible polymers for amperometric sensor applications. , 1996, Biosensors & bioelectronics.
[30] A. Pathak,et al. Antiangiogenic effects of dexamethasone in 9L gliosarcoma assessed by MRI cerebral blood volume maps. , 2003, Neuro-oncology.
[31] D. Mooney,et al. Polymeric system for dual growth factor delivery , 2001, Nature Biotechnology.
[32] Michael S Strano,et al. In vivo fluorescence detection of glucose using a single-walled carbon nanotube optical sensor: design, fluorophore properties, advantages, and disadvantages. , 2005, Analytical chemistry.
[33] Wisniewski,et al. Methods for reducing biosensor membrane biofouling. , 2000, Colloids and surfaces. B, Biointerfaces.
[34] T. Chiles,et al. Highly efficient molecular delivery into mammalian cells using carbon nanotube spearing , 2005, Nature Methods.
[35] N Wisniewski,et al. Characterization of implantable biosensor membrane biofouling , 2000, Fresenius' journal of analytical chemistry.
[36] K. Spanel‐Borowski,et al. The chick chorioallantoic membrane as test system for biocompatible materials , 1989, Research in experimental medicine. Zeitschrift fur die gesamte experimentelle Medizin einschliesslich experimenteller Chirurgie.
[37] F. Moussy. Biosensor/tissue interactions , 2000, 1st Annual International IEEE-EMBS Special Topic Conference on Microtechnologies in Medicine and Biology. Proceedings (Cat. No.00EX451).
[38] A Heller,et al. Biocompatible, glucose-permeable hydrogel for in situ coating of implantable biosensors. , 1997, Biomaterials.
[39] F. Moussy,et al. The chick chorioallantoic membrane as a novel in vivo model for the testing of biomaterials. , 2002, Journal of biomedical materials research.
[40] W M Reichert,et al. Engineering the tissue which encapsulates subcutaneous implants. II. Plasma-tissue exchange properties. , 1998, Journal of biomedical materials research.
[41] N. Jain,et al. Effects of anti-inflammatory drugs on increased vascular permeability in acute inflammatory response in the chicken. , 1995, Avian pathology : journal of the W.V.P.A.
[42] N. Wisniewski,et al. Water-soluble treatments to enhance glucose permeability of protein-resistant polymer overlayers , 2001, Journal of biomaterials science. Polymer edition.
[43] G. Stark,et al. Chorioallantoic membrane angiogenesis model for tissue engineering: a new twist on a classic model. , 2003, Tissue engineering.
[44] B. Christ,et al. In vivo effects of vascular endothelial growth factor on the chicken chorioallantoic membrane , 1993, Cell and Tissue Research.
[45] J. Schultz,et al. A fluorescence affinity hollow fiber sensor for continuous transdermal glucose monitoring. , 2000, Analytical chemistry.
[46] N. Wisniewski,et al. Decreased analyte transport through implanted membranes: differentiation of biofouling from tissue effects. , 2001, Journal of biomedical materials research.
[47] Michael S Strano,et al. Detection of DNA hybridization using the near-infrared band-gap fluorescence of single-walled carbon nanotubes. , 2006, Nano letters.