301 |
Development of Multifunctional and Electrical Conducting Carboxybetaine Based PolymersCao, Bin 19 May 2015 (has links)
No description available.
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302 |
Mass Spectrometry Methods for the Analysis of Biodegradable Hybrid MaterialsAlalwiat, Ahlam Adnan 26 June 2015 (has links)
No description available.
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303 |
Evaluation of a biodegradable thermogel polymer for intraocular delivery of cyclosporine A to prevent posterior capsule opacificationGervais, Kristen J. 25 May 2017 (has links)
No description available.
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304 |
Modeling of scaffold for cleft-repairing through finite element analysisHuang, Xu 02 November 2018 (has links)
No description available.
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305 |
Treatment of Intraocular Lymphoma Using Biodegradable Microneedle ImplantPark, Ju Young 08 October 2007 (has links)
No description available.
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306 |
Development of Electrochemical Sensors for Biodegradable Metallic Implants and Development of a Label-free Biosensor for BacteriaGuo, Xuefei 16 October 2012 (has links)
No description available.
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307 |
Amorphous Calcium Phosphate Composites of a Phenylalanine-based Poly(ester urea) Poly(1-PHE-6)Seifert, Gabrielle Victoria 10 June 2016 (has links)
No description available.
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308 |
Specific Adhesion of Biodegradable Microspheres to Cytokine Activated Endothelium Under FlowDalal, Milind K. 16 December 2002 (has links)
No description available.
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309 |
Biodegradable Polymer Constructs for Disease-specific, Localized and Sustained Drug Delivery of a Novel Synthetic Curcumin AnalogPillai, Jonathan Devasitham 10 September 2008 (has links)
No description available.
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310 |
Improvement Of Biodegradable Biomaterials For Use In Orthopedic Fixation DevicesGianforcaro, Anthony L. January 2019 (has links)
Current orthopedic internal fixation devices, such as pins and screws, are typically made from metals and have a long list of complications associated with them. Most notably, complications such as infection or decreased wound healing arise from revisional surgeries needed to remove the used hardware. A new class of fixation devices is being produced from biodegradable biomaterials to eliminate the need for revisional surgery by being naturally broken down in the body. While currently available polymers lack the necessary mechanical properties to match bone strength, the incorporation of small amounts of hydroxylated nanodiamonds has been proven to increase the mechanical properties of the native polymer to better resemble native bone. Additionally, modern polymers used in biodegradable fixation devices have degradation rates that are too slow to match the growth of new bone. Poly-(D, L)-lactic-co-glycolic acid (PDLG) incorporated with hydroxylated nanodiamonds has not only been proven to start out stronger, but then also helps the polymer degrade faster when compared to the pure polymer in vivo and prevents effusion of the polymer into the surrounding environment. Nanodiamond incorporation is accomplished via solid state polycondensation of PDLG to create a uniform material with increased mechanical properties, faster degradation rates, and enhanced calcification when tested in simulated body fluid. / Bioengineering
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