<?xml version="1.0" encoding="UTF-8"?>
		<urlset xmlns="http://www.sitemaps.org/schemas/sitemap/0.9" xmlns:image="http://www.google.com/schemas/sitemap-image/1.1">
		<url>
		<loc>https://www.omicsonline.org/open-access/transposon-induced-nitrogenase-in-rhizobium-japonicum-infecting-vignaradiata-2155-952X-1000252.php?aid=87103</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-reduction-Assay-7-252-g002.png</image:loc>
		<image:caption>Transposon Induced Nitrogenase in emRhizobium japonicumem Infecting emVigna radiataem</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-radiata-nodules-7-252-g001.png</image:loc>
		<image:caption>Transposon Induced Nitrogenase in emRhizobium japonicumem Infecting emVigna radiataem</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/stabilization-of-charged-polysaccharide-film-forming-solution-by-sodiumchloride-nanoparticle-zaverage-and-zetapotential-monitoring-2155-952X-1000e128.php?aid=85181</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-zeta-potential-6-e128-g002.png</image:loc>
		<image:caption>Stabilization of Charged Polysaccharide Film Forming Solution by Sodium Chloride Nanoparticle ZAverage and ZetaPotential Monitoring</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-e128-e001.png</image:loc>
		<image:caption>Stabilization of Charged Polysaccharide Film Forming Solution by Sodium Chloride Nanoparticle ZAverage and ZetaPotential Monitoring</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-zeta-potential-6-e128-g001.png</image:loc>
		<image:caption>Stabilization of Charged Polysaccharide Film Forming Solution by Sodium Chloride Nanoparticle ZAverage and ZetaPotential Monitoring</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/a-new-method-for-the-screening-of-ureolytic-bacteria-inducing-calciumcarbonate-precipitation-2155-952X-1000248.php?aid=81147</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Calcium-carbonate-6-248-g001.png</image:loc>
		<image:caption>A New Method for the Screening of Ureolytic Bacteria Inducing Calcium Carbonate Precipitation</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/method-to-produce-curcumin-oilinwater-nanoemulsions-as-templates-for-drug-carriers-2155-952X-1000247.php?aid=81143</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-curcumin-carrier-6-247-g013.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-nanoemulsion-prepared-6-247-g012.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Droplet-size-6-247-g011.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Three-dimensional-6-247-g010.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-droplet-size-6-247-g009.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-surfactant-concentration-6-247-g008.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-emulsions-curcumin-6-247-g007.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-ethanol-concentration-6-247-g006.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-formulation-equivalent-6-247-g005.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dissolution-evaluation-6-247-g004.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-carrier-emulsion-6-247-g003.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-film-spinning-6-247-g002.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Electrochemical-behavior-6-247-g001.png</image:loc>
		<image:caption>Method to Produce Curcumin OilinWater Nanoemulsions as Templates for Drug Carriers</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/mycosynthesis-of-silver-nanoparticle-from-aspergillus-niger-2155-952X-1000246.php?aid=80255</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-silver-nitrate-6-246-g003.png</image:loc>
		<image:caption>Mycosynthesis of Silver Nanoparticle from emAspergillus nigerem</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Aspergillus-niger-6-246-g002.png</image:loc>
		<image:caption>Mycosynthesis of Silver Nanoparticle from emAspergillus nigerem</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Spectroscopy-showed-6-246-g001.png</image:loc>
		<image:caption>Mycosynthesis of Silver Nanoparticle from emAspergillus nigerem</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/preparation-of-nutri-beverage-mix-using-opuntia-dillenii-cactus-fruit-2155-952X-1000243.php?aid=80247</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Sensory-profile-6-243-g011.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cactus-beverage-6-243-g010.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-catechin-hydrate-6-243-g009.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-caffeic-acid-6-243-g008.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-mango-fruit-6-243-g007.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-standard-gallic-6-243-g006.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-vanilllic-acid-6-243-g005.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-HPLC-profile-6-243-g004.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Beta-carotene-6-243-g003.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cactus-fruit-6-243-g002.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-243-e001.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-papaya-fruit-6-243-g001.png</image:loc>
		<image:caption>Preparation of Nutri Beverage Mix Using Opuntia dillenii Cactus Fruit</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/the-emergence-of-zika-virus-ziv-a-review-2155-952X-1000242.php?aid=80245</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-genetic-material-6-242-g001.png</image:loc>
		<image:caption>The Emergence of Zika Virus ZiV A Review</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/an-approach-to-computer-aided-drug-design-of-some-bioactive-cinnamoyl-hydrazones-in-silico-and-docking-studies-as-possible-cox2-se-2155-952X-1000240.php?aid=80242</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-purple-colour-wire-model-6-240-g005.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-orange-colour-wire-model-6-240-g004.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-phenyl-butazone-violet-colour-6-240-g003.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-phenyl-butazone-hydrophobic-pockets-6-240-g002.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-golden-coloured-ball-stick-6-240-g001.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-e001.png</image:loc>
		<image:caption>An Approach to Computer Aided Drug Design of some Bioactive Cinnamoyl Hydrazones, emIn Silicoem and Docking Studies as Possible COX2 Selective Inhibitors</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/some-physiological-insights-of-24d-sensitivity-in-an-aquatic-fern-azolla-pinnata-rbr-2155-952X-1000235.php?aid=80236</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-In-gel-assay-wall-bound-6-235-g008.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-In-vitro-assay-wall-bound-6-235-g007.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Degrees-ROS-induced-tissue-6-235-g006.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Histochemical-detection-tissue-lysis-6-235-g005.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Estimation-glycine-betaine-content-6-235-g004.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Estimation-proline-content-Azolla-6-235-g003.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Determination-electrolyte-leakage-Azolla-6-235-g002.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Analysis-total-dry-matter-6-235-g001.png</image:loc>
		<image:caption>Some Physiological Insights of 2,4D Sensitivity in an Aquatic Fern emAzolla pinnataem RBr</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/isolation-and-characterization-of-acid-soluble-collagen-from-the-skin-ofafrican-catfish-clarias-gariepinus-salmon-salmo-salar-and-2155-952X-1000234.php?aid=75748</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-collagen-isolated-6-234-g003.png</image:loc>
		<image:caption>Isolation and Characterization of Acid Soluble Collagen from the Skin of African Catfish emClarias gariepinusem, Salmon emSalmo salarem and Baltic Cod emGadus morhuaem</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-SDS-PAGE-6-234-g002.png</image:loc>
		<image:caption>Isolation and Characterization of Acid Soluble Collagen from the Skin of African Catfish emClarias gariepinusem, Salmon emSalmo salarem and Baltic Cod emGadus morhuaem</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-acid-soluble-6-234-g001.png</image:loc>
		<image:caption>Isolation and Characterization of Acid Soluble Collagen from the Skin of African Catfish emClarias gariepinusem, Salmon emSalmo salarem and Baltic Cod emGadus morhuaem</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/evaluation-of-bioethanol-production-from-ulva-lactuca-by-saccharomyces-cerevisiae-2155-952X-1000226.php?aid=74386</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-HPLC-chromatogram-6-226-g005.png</image:loc>
		<image:caption>Evaluation of Bioethanol Production from emUlva lactucaem By Saccharomyces cerevisiae</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-macrographs-illustrate-6-226-g004.png</image:loc>
		<image:caption>Evaluation of Bioethanol Production from emUlva lactucaem By Saccharomyces cerevisiae</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-3D-surface-6-226-g003.png</image:loc>
		<image:caption>Evaluation of Bioethanol Production from emUlva lactucaem By Saccharomyces cerevisiae</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-elucidation-factors-6-226-g002.png</image:loc>
		<image:caption>Evaluation of Bioethanol Production from emUlva lactucaem By Saccharomyces cerevisiae</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-HPLC-chromatogram-6-226-g001.png</image:loc>
		<image:caption>Evaluation of Bioethanol Production from emUlva lactucaem By Saccharomyces cerevisiae</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/standardization-of-clonal-macropropagation-protocol-of-dillenia-pentagyna-roxb-an-important-and-endangered-medicinal-tree-species-2155-952X-1000222.php?aid=74381</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dillenia-pentagyna-6-222-g008.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-induction-roots-6-222-g007.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-induction-roots-6-222-g006.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-monthly-observation-6-222-g005.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-types-cuttings-6-222-g004.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-distribution-india-6-222-g003.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-global-level-6-222-g002.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dillenia-pentagyna-6-222-g001.png</image:loc>
		<image:caption>Standardization of Clonal Macropropagation Protocol of Dillenia pentagyna Roxb an Important and Endangered Medicinal Tree Species through Stem Branch Cuttings</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/evaluation-of-molecular-perturbation-of-a-deuterated-protein-by-temperature-factor-refinement-in-xray-structural-analysis-of-high-2155-952X-1000223.php?aid=71935</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-protein-main-chain-6-223-g002.png</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e009.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e008.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e007.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e006.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e005.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e004.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e003.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e002.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-223-e001.gif</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-hydrogen-atoms-6-223-g001.png</image:loc>
		<image:caption>Evaluation of Molecular Perturbation of a Deuterated Protein by Temperature Factor Refinement in XRay Structural Analysis of High Resolution Diffraction Data</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/biomatrices-in-urethral-reconstruction-2155-952X-1000231.php?aid=74397</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Urethral-reconstruction-6-231-g001.png</image:loc>
		<image:caption>Biomatrices in Urethral Reconstruction</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/extraction-of-proteases-from-medicinal-plants-and-their-potential-as-antiviral-targets-2155-952X-1000228.php?aid=74390</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Effect-acid-basic-6-228-g002.png</image:loc>
		<image:caption>Extraction of Proteases from Medicinal Plants and their Potential as Anti Viral Targets</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Protease-types-source-6-228-g001.png</image:loc>
		<image:caption>Extraction of Proteases from Medicinal Plants and their Potential as Anti Viral Targets</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/insight-into-zeta-potential-measurements-in-biopolymer-film-preparation-2155-952X-1000e126.php?aid=72404</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/2155-952X-6-e126-e001.gif</image:loc>
		<image:caption>Insight into Zeta Potential Measurements in Biopolymer Film Preparation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-6-e126-g001.png</image:loc>
		<image:caption>Insight into Zeta Potential Measurements in Biopolymer Film Preparation</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/investigation-of-biodiesel-potential-of-biomasses-of-microalgaes-chlorella-spirulina-and-tetraselmis-by-nmr-and-gcms-techniques-2155-952X-1000220.php?aid=69615</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Biomass-productivity-6-200-g008.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-FAMEs-6-200-g007.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-algal-oil-6-200-g006.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Spirulina-biomass-6-200-g005.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-NMR-part-spectra-6-200-g004b.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Tetraselmis-aff-chuii-6-200-g004a.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cultivation-containers-6-200-g003.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-RM6-medium-6-200-g002.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-WCSPS-media-6-200-g001.png</image:loc>
		<image:caption>Investigation of Biodiesel Potential of Biomasses of Microalgaes Chlorella, Spirulina and Tetraselmis by NMR and GCMS Techniques</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/modern-approaches-into-biochemical-and-molecular-biomarkers-keyroles-in-environmental-biotechnology-2155-952X-1000216.php?aid=68300</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biomarker-discovery-5-216-g003.png</image:loc>
		<image:caption>Modern Approaches into Biochemical and Molecular Biomarkers Key Roles in Environmental Biotechnology</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biochemical-molecular-5-216-g002.png</image:loc>
		<image:caption>Modern Approaches into Biochemical and Molecular Biomarkers Key Roles in Environmental Biotechnology</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-phytoplankton-pigment-5-216-g001.png</image:loc>
		<image:caption>Modern Approaches into Biochemical and Molecular Biomarkers Key Roles in Environmental Biotechnology</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/effects-of-naphthalene-acetic-acid-naa-and-indole-3-butyric-acidiba-on-in-vitro-rooting-of-sugarcane-saccharum-officinarum-l-micro-2155-952X-1000215.php?aid=68293</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-farm-yard-5-215-g004.png</image:loc>
		<image:caption>Effects of Naphthalene Acetic Acid NAA and Indole 3 Butyric Acid IBA on emIn Vitroem Rooting of Sugarcane emSaccharum officinarumem L Micro Shoots</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-rooting-B41-227-5-215-g003.png</image:loc>
		<image:caption>Effects of Naphthalene Acetic Acid NAA and Indole 3 Butyric Acid IBA on emIn Vitroem Rooting of Sugarcane emSaccharum officinarumem L Micro Shoots</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sugarcane-vareities-5-215-g002.png</image:loc>
		<image:caption>Effects of Naphthalene Acetic Acid NAA and Indole 3 Butyric Acid IBA on emIn Vitroem Rooting of Sugarcane emSaccharum officinarumem L Micro Shoots</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-NAA-IBA-5-215-g001.png</image:loc>
		<image:caption>Effects of Naphthalene Acetic Acid NAA and Indole 3 Butyric Acid IBA on emIn Vitroem Rooting of Sugarcane emSaccharum officinarumem L Micro Shoots</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/study-of-the-behaviour-of-lactobacillus-delbrueckii-subsp-bulgaricus-in-date-syrup-in-batch-fermentation-with-controlled-ph-2155-952X.1000129.php?aid=4813</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-production-lactic-acid-2-129-g010.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-consumption-proteins-2-129-g009.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-consumption-sugars-2-129-g008.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-specific-rate-growth-2-129-g007.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-lactis-acid-2-129-g006.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-date-Syrup-2-129-g005.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-residual-sugars-2-129-g004.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Evolution-OD-2-129-g003.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Lactobacillus-delbrueckii-2-129-g002.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Macroscopic-aspect-2-129-g001.png</image:loc>
		<image:caption>Study of the Behaviour of Lactobacillus Delbrueckii Subsp Bulgaricus in Date Syrup in Batch Fermentation with Controlled pH</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/surgical-treatment-of-fracture-in-atrophic-jaw-2155-952X.1000123.php?aid=3716</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Postoperatively-1-123-g005.png</image:loc>
		<image:caption>Surgical Treatment of Fracture in Atrophic Jaw</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Fracture-fixation-1-123-g004.png</image:loc>
		<image:caption>Surgical Treatment of Fracture in Atrophic Jaw</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Access-submandibular-1-123-g003.png</image:loc>
		<image:caption>Surgical Treatment of Fracture in Atrophic Jaw</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-mandibular-body-1-123-g002.png</image:loc>
		<image:caption>Surgical Treatment of Fracture in Atrophic Jaw</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Frontal-examination-1-123-g001.png</image:loc>
		<image:caption>Surgical Treatment of Fracture in Atrophic Jaw</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/molecular-cloning-and-in-silico-sequence-analysis-of-glycine-betaine-biosynthesis-genes-in-bacillus-subtilis-2155-952X.1000103.php?aid=518</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Phylogram-GbsB-1-103-g004.png</image:loc>
		<image:caption>Molecular Cloning and In Silico Sequence Analysis of Glycine Betaine Biosynthesis Genes in Bacillus subtilis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-amino-acid-1-103-g003.png</image:loc>
		<image:caption>Molecular Cloning and In Silico Sequence Analysis of Glycine Betaine Biosynthesis Genes in Bacillus subtilis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-digested-clones-1-103-g002.png</image:loc>
		<image:caption>Molecular Cloning and In Silico Sequence Analysis of Glycine Betaine Biosynthesis Genes in Bacillus subtilis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Agarose-gel-1-103-g001.png</image:loc>
		<image:caption>Molecular Cloning and In Silico Sequence Analysis of Glycine Betaine Biosynthesis Genes in Bacillus subtilis</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/viability-of-coffee-leaf-rust-hemileia-vastatrix-urediniospores-stored-at-different-temperatures-2155-952X.1000143.php?aid=7858</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-urediniospores-cultured-2-143-g001.png</image:loc>
		<image:caption>Viability of Coffee Leaf Rust emHemileia vastatrixem Urediniospores Stored at Different Temperatures</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/microbial-synthesis-of-silver-nanoparticles-a-review-2155-952X.1000S13-007.php?aid=11101</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Silver-nano-S13-007-g005.png</image:loc>
		<image:caption>Microbial Synthesis of Silver Nanoparticles A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-gamma-delta-S13-007-g004.png</image:loc>
		<image:caption>Microbial Synthesis of Silver Nanoparticles A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Delta-samples-S13-007-g003.png</image:loc>
		<image:caption>Microbial Synthesis of Silver Nanoparticles A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-change-color-S13-007-g002.png</image:loc>
		<image:caption>Microbial Synthesis of Silver Nanoparticles A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Microbe-synthesized-S13-007-g001.png</image:loc>
		<image:caption>Microbial Synthesis of Silver Nanoparticles A Review</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/towards-thermoplastic-lignin-polymers-progress-in-the-utilization-of-kraft-lignin-for-the-synthesis-of-heat-stable-polymer-melts-2155-952X.1000e123.php?aid=19143</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-kraft-lignin-3-e123-g001.png</image:loc>
		<image:caption>Towards Thermoplastic Lignin Polymers Progress in the Utilization of Kraft Lignin for the Synthesis of Heat Stable Polymer Melts</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-difluorodiphenylsulfone-3-e123-s001.png</image:loc>
		<image:caption>Towards Thermoplastic Lignin Polymers Progress in the Utilization of Kraft Lignin for the Synthesis of Heat Stable Polymer Melts</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/value-added-biomaterials-via-laccasemediated-surface-functionalization-2155-952X-1000175.php?aid=50294</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-laccase-mediated-5-175-g001.png</image:loc>
		<image:caption>Value Added Biomaterials via LaccaseMediated Surface Functionalization</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/cryopreservation-of-human-adipose-tissues-using-human-plasma-2155-952X.1000107.php?aid=1609</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cultured-human-1-107-g004.png</image:loc>
		<image:caption>Cryopreservation of Human Adipose Tissues using Human Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cryopreservation-1-107-g003.png</image:loc>
		<image:caption>Cryopreservation of Human Adipose Tissues using Human Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cell-death-1-107-g002.png</image:loc>
		<image:caption>Cryopreservation of Human Adipose Tissues using Human Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Culture-isolation-1-107-g001.png</image:loc>
		<image:caption>Cryopreservation of Human Adipose Tissues using Human Plasma</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/conversion-of-palm-oil-to-methyl-and-ethyl-ester-using-crude-enzymes-2155-952X.1000110.php?aid=1773</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Molar-Ratio-1-110-g003.png</image:loc>
		<image:caption>Conversion of Palm Oil to Methyl and Ethyl Ester using Crude Enzymes</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Different-Temperature-1-110-g002.png</image:loc>
		<image:caption>Conversion of Palm Oil to Methyl and Ethyl Ester using Crude Enzymes</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Methyl-Ester-1-110-g001.png</image:loc>
		<image:caption>Conversion of Palm Oil to Methyl and Ethyl Ester using Crude Enzymes</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/computer-simulation-of-polymer-chain-scission-in-biodegradable-polymers-2155-952X.1000154.php?aid=24125</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-simulation-tool-3-154-g006.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-experimental-data-3-154-g005.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-random-scission-3-154-g004.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-water-soluble-chains-3-154-g003.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-polymer-chains-3-154-g002.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Molecular-weight-3-154-g001.png</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-3-154-eq002.gif</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-3-154-eq001.gif</image:loc>
		<image:caption>Computer Simulation of Polymer Chain Scission in Biodegradable Polymers</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/clinical-experience-bioactive-glass-sp-reconstructive-surgery-upper-extremity-showing-bone-remodelling-vascularization-cartilage-repair-and-antibacterial-properties-sp-2155-952X.1000111.php?aid=1774</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-1-111-g005.png</image:loc>
		<image:caption>Clinical Experience on Bioactive Glass S53P4 in Reconstructive Surgery in the Upper Extremity Showing Bone Remodelling, Vascularization, Cartilage Repair and Antibacterial Properties of S53P4</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-1-111-g004.png</image:loc>
		<image:caption>Clinical Experience on Bioactive Glass S53P4 in Reconstructive Surgery in the Upper Extremity Showing Bone Remodelling, Vascularization, Cartilage Repair and Antibacterial Properties of S53P4</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-1-111-g003.png</image:loc>
		<image:caption>Clinical Experience on Bioactive Glass S53P4 in Reconstructive Surgery in the Upper Extremity Showing Bone Remodelling, Vascularization, Cartilage Repair and Antibacterial Properties of S53P4</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-1-111-g002.png</image:loc>
		<image:caption>Clinical Experience on Bioactive Glass S53P4 in Reconstructive Surgery in the Upper Extremity Showing Bone Remodelling, Vascularization, Cartilage Repair and Antibacterial Properties of S53P4</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-1-111-g001.png</image:loc>
		<image:caption>Clinical Experience on Bioactive Glass S53P4 in Reconstructive Surgery in the Upper Extremity Showing Bone Remodelling, Vascularization, Cartilage Repair and Antibacterial Properties of S53P4</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/the-emerging-biorefinery-industry-needs-to-refine-lignin-prior-to-use-2155-952X.S6-e001.php?aid=25921</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-kraft-lignins-S6-e001-g002.png</image:loc>
		<image:caption>The Emerging BioRefinery Industry Needs to Refine Lignin Prior to Use</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-GPC-chromatograms-S6-e001-g001.png</image:loc>
		<image:caption>The Emerging BioRefinery Industry Needs to Refine Lignin Prior to Use</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/the-biohybrid-lungcurrent-perspective-2155-952X.100162.php?aid=22422</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Endothelial-cells-3-162-g002.png</image:loc>
		<image:caption>The Biohybrid Lung  Current Perspective</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-oxygenator-model-3-162-g001.png</image:loc>
		<image:caption>The Biohybrid Lung  Current Perspective</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/mechanical-properties-of-hydrated-acoustically-sensitive-alginatebased-microcapsules-confined-in-a-microfluidic-device-as-a-function-of-size-and-composition-2155-952X.100161.php?aid=22421</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-capsule-composition-3-161-g007.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-average-Poisson-3-161-g006.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-alginate-concentration-3-161-g005.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Half-normal-3-161-g004.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-alginate-concentration-3-161-g003.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-3-161-e002.gif</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-3-161-e001.gif</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-PDMS-microfluidics-3-161-g002.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-encapsulating-blue-3-161-g001.png</image:loc>
		<image:caption>Mechanical Properties of Hydrated Acoustically Sensitive AlginateBased Microcapsules Confined in a Microfluidic Device as a Function of Size and Composition</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/characterization-of-ti-and-tialv-surfaces-after-mechanical-and-chemical-treatments-a-rational-approach-to-the-design-of-biomedical-devices-2155-952X.1000151.php?aid=9679</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-square-surface-2-151-g008.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-mild-strong-conditions-2-151-g007.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-bending-diameter-2-151-g006.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Ti5-samples-2-151-g005.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dental-screws-2-151-g004.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Boxplot-representations-2-151-g003.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-2-151-Eq001.gif</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-defect-depth-2-151-g002.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sand-blasting-2-151-g001.png</image:loc>
		<image:caption>Characterization of Ti and Ti6Al4V Surfaces After Mechanical and Chemical Treatments A Rational Approach to the Design of Biomedical Devices</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/edible-coating-as-packaging-strategy-to-extend-the-shelflife-of-freshcut-fruits-and-vegetables-2155-952X-3-e124.php?aid=22423</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-uncoated-coated-3-e124-g001.png</image:loc>
		<image:caption>Edible Coating as Packaging Strategy to Extend the Shelflife of FreshCut Fruits and Vegetables</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/cloning-and-characterization-of-physarum-endobeta1314glucanase1-expression-in-e-coli-and-trichoderma-reesei-2155-952X-1000173.php?aid=47211</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-metal-ions-5-173-g009.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-PEGase1-5-173-g008.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Optimal-pH-value-5-173-g007.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-reducing-sugar-5-173-g006.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Coomassie-blue-stained-5-173-g005.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-SDS-PAGE-5-173-g004.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Gene-fragment-5-173-g003.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-SWISS-MODEL-5-173-g002.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Amino-acid-5-173-g001.png</image:loc>
		<image:caption>Cloning and Characterization of Physarum EndoBeta1,31,4Glucanase1 Expression in E coli and Trichoderma reesei</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/bombyx-mori-strains-useful-for-efficient-recombinant-protein-production-using-a-baculovirus-vector-2155-952X.S9-003.php?aid=4719</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-chaperones-expression-S9-003-g004.png</image:loc>
		<image:caption>emBombyx Moriem Strains Useful for Efficient Recombinant Protein Production Using a Baculovirus Vector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-firefly-luciferase-S9-003-g003.png</image:loc>
		<image:caption>emBombyx Moriem Strains Useful for Efficient Recombinant Protein Production Using a Baculovirus Vector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-DsRed-EGFP-S9-003-g002.png</image:loc>
		<image:caption>emBombyx Moriem Strains Useful for Efficient Recombinant Protein Production Using a Baculovirus Vector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-recombinant-protein-S9-003-g001.png</image:loc>
		<image:caption>emBombyx Moriem Strains Useful for Efficient Recombinant Protein Production Using a Baculovirus Vector</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/cad-cam-ceramic-crown-retention-2155-952X-4-164.php?aid=34425</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Instron-model-4-164-g003.png</image:loc>
		<image:caption>CADCAM Ceramic Crown Retention of Resin Cements</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Ceramics-coping-4-164-g002.png</image:loc>
		<image:caption>CADCAM Ceramic Crown Retention of Resin Cements</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-acrylic-Occlusal-4-164-g001.png</image:loc>
		<image:caption>CADCAM Ceramic Crown Retention of Resin Cements</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/biosolubilization-of-mineral-insoluble-phosphates-by-immobilized-fungi-aspergillus-niger-in-fluidized-bed-bioreactor-2155-952X.S6-004.php?aid=25284</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-orthophosphates-concentration-S6-004-g003.png</image:loc>
		<image:caption>Biosolubilization of Mineral Insoluble phosphates by Immobilized Fungi emAspergillus Nigerem in Fluidized Bed Bioreactor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-NBRIP-plates-S6-004-g002.png</image:loc>
		<image:caption>Biosolubilization of Mineral Insoluble phosphates by Immobilized Fungi emAspergillus Nigerem in Fluidized Bed Bioreactor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Phosphate-solubilizer-S6-004-g001.png</image:loc>
		<image:caption>Biosolubilization of Mineral Insoluble phosphates by Immobilized Fungi emAspergillus Nigerem in Fluidized Bed Bioreactor</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/a-single-biobased-catalyst-for-biofuel-and-biodiesel-2155-952X.1000124.php?aid=3717</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cellulose-path-1-124-g018.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biobased-catalyst-1-124-g017.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Biofuel-1-124-g016.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Biobased-catalyst-1-124-g015.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Scanning-Electron-Microscopy-1-124-g014.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sulfonated-biobased-1-124-g013.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Biodiesel-synthesis-1-124-g012.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-commercial-catalysts-1-124-g011.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Sulfonated-activated-1-124-g010.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Testing-catalytic-1-124-g009B.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sugar-catalystt-1-124-g009A.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biobased-catalyst-1-124-g008.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biobased-catalyst-1-124-g007.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sulfonation-1-124-g006.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-naphthalenesulfonic-acid-1-124-g005.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sulfonic-acid-1-124-g004.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biobased-chemicals-1-124-g003.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-carboxylic-acids-1-124-g002.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-triglycerides-1-124-g001.png</image:loc>
		<image:caption>A Single Biobased Catalyst for Biofuel and Biodiesel</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/fabrication-of-murine-ventricular-balloons-for-the-langendorff-heart-preparation-2155-952X.1000101.php?aid=515</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Condensed-pressure-1-101-g002.png</image:loc>
		<image:caption>Fabricationof Murine Ventricular Balloons for the Langendorff Heart Preparation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-ventricular-pressure-1-101-g001.png</image:loc>
		<image:caption>Fabricationof Murine Ventricular Balloons for the Langendorff Heart Preparation</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/an-artificial-silkelastinlike-protein-suppresses-cells-adhesion-without-apoptosis-2155-952X.1000139.php?aid=7021</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Akt-phosphorylation-2-139-g009.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Caspase-3-2-139-g008.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Fluorescent-2-139-g007.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Annexin-V-level-2-139-g006.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Caspase-9-2-139-g005.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-PVA-coated-2-139-g004.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cells-cultured-2-139-g003.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dishes-coated-2-139-g002.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-culture-dishes-2-139-g001.png</image:loc>
		<image:caption>An Artificial Silkelastinlike Protein Suppresses Cells Adhesion without Apoptosis</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/an-overview-of-low-cost-adsorbents-for-copper-ii-ions-removal-2155-952X-1000177.php?aid=50307</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-PMSD4-5-177-g003.png</image:loc>
		<image:caption>An Overview of Low Cost Adsorbents for Copper II Ions Removal</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-MgOP-5-177-g002.png</image:loc>
		<image:caption>An Overview of Low Cost Adsorbents for Copper II Ions Removal</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-OP-OPAA-5-177-g001.png</image:loc>
		<image:caption>An Overview of Low Cost Adsorbents for Copper II Ions Removal</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/a-novel-electrophoretic-deposition-device-effects-of-alginate-viscosity-grade-on-deposition-kinetics-2155-952X.S6-002.php?aid=4709</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq006.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq005.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq004.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq003.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq002.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-S6-002-eq001.gif</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Angle-Gels-S6-002-g006.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dry-alginate-S6-002-g005.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-electrophoretic-deposition-S6-002-g004.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Viscosity-Grade-S6-002-g003.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-LV-MV-grade-gels-S6-002-g002.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Device-Acrylic-S6-002-g001.png</image:loc>
		<image:caption>A Novel Electrophoretic Deposition Device Effects of Alginate Viscosity Grade on Deposition Kinetics</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/activation-of-neutrophils-by-the-extracellular-polymeric-substance-of-sepidermidis-biofilms-is-mediated-by-the-bacterial-heat-shock-protein-groel-2155-952X-1000176.php?aid=50302</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dose-dependently-5-176-g007.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-surrounding-EPS-5-176-g006.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-EPS-Biotin-5-176-g005.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-molecular-weight-5-176-g004.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Oxygen-radical-production-5-176-g003.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cytofluorometry-5-176-g002.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-numerous-proteins-5-176-g001.png</image:loc>
		<image:caption>Activation of Neutrophils by the Extracellular Polymeric Substance of SEpidermidis Biofilms is Mediated by The Bacterial Heat Shock Protein Groel</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/effectiveness-of-nanomaterial-copper-cold-spray-surfaces-on-inactivationof-influenza-a-virus-2155-952X-1000205.php?aid=64558</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-hospital-table-5-205-g008.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Nano-hardness-5-205-g007.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-MRSA-5-205-g006.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-copper-conventional-5-205-g005.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cold-sprayed-5-205-g004.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-conventional-powder-5-205-g003.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Feedstock-copper-5-205-g002.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cold-spray-5-205-g001.png</image:loc>
		<image:caption>Effectiveness of Nanomaterial Copper Cold Spray Surfaces on Inactivation of Influenza A Virus</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/metastable-intermediate-phase-during-phase-transformation-of-calciumphosphates-2155-952X-1000214.php?aid=65772</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Dissolving-OCP-5-214-g003.png</image:loc>
		<image:caption>Metastable Intermediate Phase during Phase Transformation of Calcium Phosphates</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-pseudo-OCP-5-214-g002.png</image:loc>
		<image:caption>Metastable Intermediate Phase during Phase Transformation of Calcium Phosphates</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-nanoparticles-containing-5-214-g001.png</image:loc>
		<image:caption>Metastable Intermediate Phase during Phase Transformation of Calcium Phosphates</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/bioethanol-production-by-an-ethanoltolerant-bacillus-cereus-strain-gbps9-using-sugarcane-bagasse-and-cassava-peels-as-feedstocks-2155-952X-1000213.php?aid=65479</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cassava-peels-5-213-g006.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-sugarcane-bagasse-5-213-g005.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-phylogenetic-tree-5-213-g004.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-nitrogen-sources-5-213-g003.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cassava-peels-5-213-g002.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cellulase-production-5-213-g001.png</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-5-213-e002.gif</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-5-213-e001.gif</image:loc>
		<image:caption>Bioethanol Production by an EthanolTolerant Bacillus cereus Strain GBPS9 Using Sugarcane Bagasse and Cassava Peels as Feedstocks</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/human-umbilical-vein-endothelial-cells-migration-in-matrigel-by-theconcentration-gradient-of-vascular-endothelial-growth-factor-2155-952X-1000210.php?aid=65468</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-VEGF-released-5-210-g008.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Migration-patterns-5-210-g007.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-HUVEC-migrated-5-210-g006.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Cell-migration-5-210-g005.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-cells-migrated-5-210-g004.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Time-profiles-5-210-g003.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-VEGF-release-5-210-g002.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-gelatin-hydrogel-5-210-g001.png</image:loc>
		<image:caption>Human Umbilical Vein Endothelial Cells Migration in Matrigel by the Concentration Gradient of Vascular Endothelial Growth Factor</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/the-effect-of-invivo-collagen-crosslinking-procedure-on-the-material-ofintracorneal-ring-segments-2155-952X-1000209.php?aid=65463</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-absorption-spectra-5-209-g004.png</image:loc>
		<image:caption>The Effect of InVivo Collagen CrossLinking Procedure on the Material of Intracorneal Ring Segments</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-spectral-windows-5-209-g003.png</image:loc>
		<image:caption>The Effect of InVivo Collagen CrossLinking Procedure on the Material of Intracorneal Ring Segments</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-spectral-range-5-209-g002.png</image:loc>
		<image:caption>The Effect of InVivo Collagen CrossLinking Procedure on the Material of Intracorneal Ring Segments</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-molecule-riboflavin-5-209-g001.png</image:loc>
		<image:caption>The Effect of InVivo Collagen CrossLinking Procedure on the Material of Intracorneal Ring Segments</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/a-novel-fully-automated-incubation-manipulation-and-documentation-system-for-the-avian-embryogenesis-2155-952X-1000202.php?aid=60566</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-chicken-embryogenesis-5-202-g005.png</image:loc>
		<image:caption>A Novel Fully Automated Incubation, Manipulation and Documentation System for the Avian Embryogenesis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-turning-speed-5-202-g004.png</image:loc>
		<image:caption>A Novel Fully Automated Incubation, Manipulation and Documentation System for the Avian Embryogenesis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-incubation-system-5-202-g003.png</image:loc>
		<image:caption>A Novel Fully Automated Incubation, Manipulation and Documentation System for the Avian Embryogenesis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-incubation-system-5-202-g002.png</image:loc>
		<image:caption>A Novel Fully Automated Incubation, Manipulation and Documentation System for the Avian Embryogenesis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-manipulation-lids-5-202-g001.png</image:loc>
		<image:caption>A Novel Fully Automated Incubation, Manipulation and Documentation System for the Avian Embryogenesis</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/molecular-docking-to-test-for-efficacy-of-porphyrin-compounds-to-cure-alzheimers-disease-2155-952X-1000199.php?aid=60390</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-solvent-accessible-5-199-g004.png</image:loc>
		<image:caption>Molecular Docking to Test for Efficacy of Porphyrin Compounds to Cure Alzheimers Disease</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Drosophila-melanogaster-5-199-g003.png</image:loc>
		<image:caption>Molecular Docking to Test for Efficacy of Porphyrin Compounds to Cure Alzheimers Disease</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-catalytic-triad-5-199-g002.png</image:loc>
		<image:caption>Molecular Docking to Test for Efficacy of Porphyrin Compounds to Cure Alzheimers Disease</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Proposed-neurochemical-5-199-g001.png</image:loc>
		<image:caption>Molecular Docking to Test for Efficacy of Porphyrin Compounds to Cure Alzheimers Disease</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/development-of-folliclestimulating-hormone-receptor-binding-probes-to-image-ovarian-xenografts-2155-952X-1000198.php?aid=60389</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-anatomical-features-5-198-g005.png</image:loc>
		<image:caption>Development of FollicleStimulating Hormone Receptor Binding Probes to Image Ovarian Xenografts</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-NIRF-Imaging-5-198-g004.png</image:loc>
		<image:caption>Development of FollicleStimulating Hormone Receptor Binding Probes to Image Ovarian Xenografts</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Ovarian-Cancer-5-198-g003.png</image:loc>
		<image:caption>Development of FollicleStimulating Hormone Receptor Binding Probes to Image Ovarian Xenografts</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Molecular-Imaging-5-198-g002.png</image:loc>
		<image:caption>Development of FollicleStimulating Hormone Receptor Binding Probes to Image Ovarian Xenografts</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-average-fluorescence-5-198-g001.png</image:loc>
		<image:caption>Development of FollicleStimulating Hormone Receptor Binding Probes to Image Ovarian Xenografts</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/effects-of-surfactant-and-a-hyperthermostable-protease-on-infectivity-of-scrapieinfected-mouse-brain-homogenate-2155-952X-1000194.php?aid=60385</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Neuropil-vacuolation-5-194-g002.png</image:loc>
		<image:caption>Effects of Surfactant and a Hyperthermostable Protease on Infectivity of ScrapieInfected Mouse Brain Homogenate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Lymph-nodules-5-194-g001.png</image:loc>
		<image:caption>Effects of Surfactant and a Hyperthermostable Protease on Infectivity of ScrapieInfected Mouse Brain Homogenate</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/biosorption-and-bioaccumulation-of-some-heavy-metals-by-deinococcus-radiodurans-isolated-from-soil-in-basra-governorate-iraq-2155-952X-1000190.php?aid=58868</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-radiodurans-5-190-g002.png</image:loc>
		<image:caption>Biosorption and Bioaccumulation of Some Heavy Metals by Deinococcus Radiodurans Isolated from Soil in Basra Governorate Iraq</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Bioaccumulation-5-190-g001.png</image:loc>
		<image:caption>Biosorption and Bioaccumulation of Some Heavy Metals by Deinococcus Radiodurans Isolated from Soil in Basra Governorate Iraq</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/from-replacement-to-regeneration-are-bionanomaterials-the-emerging-prospect-for-therapy-of-defective-joints-and-bones-2155-952X-1000187.php?aid=58865</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Cross-linking-5-187-g003.png</image:loc>
		<image:caption>From Replacement to Regeneration Are BioNanomaterials the Emerging Prospect for Therapy of Defective Joints and Bones</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-electron-micrograph-5-187-g002.png</image:loc>
		<image:caption>From Replacement to Regeneration Are BioNanomaterials the Emerging Prospect for Therapy of Defective Joints and Bones</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biomaterials-dating-5-187-g001.png</image:loc>
		<image:caption>From Replacement to Regeneration Are BioNanomaterials the Emerging Prospect for Therapy of Defective Joints and Bones</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/production-of-proteases-by-genetically-improved-bacillus-subtilis-for-enhanced-skin-penetration-of-antibacterial-topical-formulation-2155-952X-1000186.php?aid=55589</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Proteases-treated-group-5-186-g007c.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Silver-Sulphadiazine-5-186-g007b.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-control-group-5-186-g007a.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Proteases-treated-5-186-g006c.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Sulphadiazine-5-186-g006b.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-control-group-5-186-g006a.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-dermis-cells-5-186-g005c.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-moderated-changes-5-186-g005b.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-degenerative-changes-5-186-g005a.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Cyto-vacuolation-5-186-g004c.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-slogged-off-5-186-g004b.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-wound-injury-5-186-g004a.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Fatty-degeneration-5-186-g003c.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-after-burning-5-186-g003b.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-before-burning-5-186-g003a.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-skim-milk-5-186-g002.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-gelatin-concentration-5-186-gr004.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-pH-value-5-186-gr003.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Proteases-production-5-186-gr002.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-incubation-period-5-186-gr001.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Bacillus-subtilis-5-186-g001.png</image:loc>
		<image:caption>Production of Proteases by Genetically Improved Bacillus subtilis for Enhanced Skin Penetration of Antibacterial Topical Formulation</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/genetic-diversity-analysis-of-urtica-parviflora-in-uttarakhand-himalayas-by-rapid-marker-2155-952X-1000183.php?aid=54387</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-RAPD-patterns-5-183-g004.png</image:loc>
		<image:caption>Genetic Diversity Analysis of Urtica Parviflora in Uttarakhand Himalayas by Rapid Marker</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Amplified-products-5-183-g003.png</image:loc>
		<image:caption>Genetic Diversity Analysis of Urtica Parviflora in Uttarakhand Himalayas by Rapid Marker</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-electrophoresis-5-183-g002.png</image:loc>
		<image:caption>Genetic Diversity Analysis of Urtica Parviflora in Uttarakhand Himalayas by Rapid Marker</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Kumaun-region-5-183-g001.png</image:loc>
		<image:caption>Genetic Diversity Analysis of Urtica Parviflora in Uttarakhand Himalayas by Rapid Marker</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/functionalized-biomaterials--oxygen-releasing-scaffolds-2155-952X-1000182.php?aid=54385</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-bubbles-formation-5-182-g006.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-PLGA-based-5-182-g005.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-building-blocks-5-182-g004.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Hematoxylin-Eosin-5-182-g003.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-oxygen-generating-5-182-g002.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-biochemical-effects-5-182-g001.png</image:loc>
		<image:caption>Functionalized Biomaterials  Oxygen Releasing Scaffolds</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/genetic-engineering-and-improvement-of-a-zymomonas-mobilis-for-arabinose-utilization-and-its-performance-on-pretreated-corn-stover-hydrolyzate-2155-952X-1000179.php?aid=54377</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Pentose-phospshate-5-179-g006.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Fermentation-profiles-5-179-g005.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-ethanol-yield-5-179-g004.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-single-isolates-5-179-g003.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Serial-transfers-5-179-g002.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-pMOD2Sploxara-5-179-g001.png</image:loc>
		<image:caption>Genetic Engineering and Improvement of a Zymomonas mobilis for Arabinose Utilization and Its Performance on Pretreated Corn Stover Hydrolyzate</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/magnesium-iron-and-zinc-alloys-the-trifecta-of-bioresorbable-orthopaedic-and-vascular-implantation--a-review-2155-952X-1000178.php?aid=54364</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-zinc-samples-5-178-g004.png</image:loc>
		<image:caption>Magnesium, Iron and Zinc Alloys, the Trifecta of Bioresorbable Orthopaedic and Vascular Implantation  A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Temporary-Stenting-5-178-g003.png</image:loc>
		<image:caption>Magnesium, Iron and Zinc Alloys, the Trifecta of Bioresorbable Orthopaedic and Vascular Implantation  A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-Absorbable-metal-5-178-g002.png</image:loc>
		<image:caption>Magnesium, Iron and Zinc Alloys, the Trifecta of Bioresorbable Orthopaedic and Vascular Implantation  A Review</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biotechnology-biomaterials-gas-bubble-5-178-g001.png</image:loc>
		<image:caption>Magnesium, Iron and Zinc Alloys, the Trifecta of Bioresorbable Orthopaedic and Vascular Implantation  A Review</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/recent-advances-in-application-of-tissue-engineering-to-cancer-biology-1662-100X.1000e102.php?aid=22917</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-Deep-interdisciplinary-18-e102-g001.png</image:loc>
		<image:caption>Recent Advances in Application of Tissue Engineering to Cancer Biology</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/biomimetic-scaffold-materials-used-in-tissue-engineering-1662-100X.1000e101.php?aid=22908</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-tissue-engineering-triad-18-e101-g001.png</image:loc>
		<image:caption>Biomimetic Scaffold Materials Used in Tissue Engineering</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/quantitative-fit-analysis-of-orthopedic-bone-plates-methods-criteria-and-approach-1662-100X.1000116.php?aid=20580</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-tibial-plate-positioned-18-116-g004.png</image:loc>
		<image:caption>Quantitative Fit Analysis of Orthopedic Bone Plates Methods, Criteria and Approach</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-clinically-relevant-fit-criteria-18-116-g003.png</image:loc>
		<image:caption>Quantitative Fit Analysis of Orthopedic Bone Plates Methods, Criteria and Approach</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-medial-tibial-plate-18-116-g002.png</image:loc>
		<image:caption>Quantitative Fit Analysis of Orthopedic Bone Plates Methods, Criteria and Approach</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-Precontoured-proximal-tibial-18-116-g001.png</image:loc>
		<image:caption>Quantitative Fit Analysis of Orthopedic Bone Plates Methods, Criteria and Approach</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/a-hybrid-cnnrf-method-for-electron-microscopy-images-segmentation-1662-100X.1000114.php?aid=20489</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-corresponding-segmentation-results-18-114-g004.png</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-synthesized-image-18-114-g003.png</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-adopted-CNN-18-114-g002.png</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-hybrid-CNN-RF-method-18-114-g001.png</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-18-114-e003.gif</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-18-114-e002.gif</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-18-114-e001.gif</image:loc>
		<image:caption>A Hybrid CnnRf Method for Electron Microscopy Images Segmentation</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/development-and-characterization-of-thermosensitive-polymer-coated-iron-oxide-nanoparticles-as-a-novel-ferrofluid-1662-100X.1000111.php?aid=18376</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-aqueous-solution-18-111-g006.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-TGA-curves-18-111-g005.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-Magnetization-curve-18-111-g004.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-polymer-18-111-g003.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-FTIR-spectra-18-111-g002.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/biomimetics-biomaterials-tissue-engineering-subsequent-polymerization-18-111-g001.png</image:loc>
		<image:caption>Development and Characterization of Thermosensitive Polymer CoatedIron Oxide Nanoparticles as a Novel Ferrofluid</image:caption>
		</image:image>
		</url>
	</urlset>
