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		<loc>https://www.omicsonline.org/open-access/molecular-docking-approaches-types-applications-and-basic-challenges-2155-9872-1000356.php?aid=88070</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Transmittance-Molecular-docking-8-356-g003.png</image:loc>
		<image:caption>Molecular Docking Approaches, Types, Applications and Basic Challenges</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Transmittance-shape-complementarity-8-356-g002.png</image:loc>
		<image:caption>Molecular Docking Approaches, Types, Applications and Basic Challenges</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Transmittance-simulation-approach-8-356-g001.png</image:loc>
		<image:caption>Molecular Docking Approaches, Types, Applications and Basic Challenges</image:caption>
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		<loc>https://www.omicsonline.org/open-access/rapid-comparison-of-uvb-absorption-effectiveness-of-various-sunscreens-byuvvis-spectroscopy-2155-9872-1000355.php?aid=88068</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Transmittance-sunscreens-8-355-g003.png</image:loc>
		<image:caption>Rapid Comparison of UVB Absorption Effectiveness of Various Sunscreens byUVVis Spectroscopy</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Transmittance-absorbance-8-355-g002b.png</image:loc>
		<image:caption>Rapid Comparison of UVB Absorption Effectiveness of Various Sunscreens byUVVis Spectroscopy</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Corrected-absorbance-8-355-g002a.png</image:loc>
		<image:caption>Rapid Comparison of UVB Absorption Effectiveness of Various Sunscreens byUVVis Spectroscopy</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-absorption-spectra-8-355-g001.png</image:loc>
		<image:caption>Rapid Comparison of UVB Absorption Effectiveness of Various Sunscreens byUVVis Spectroscopy</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-8-355-e001.png</image:loc>
		<image:caption>Rapid Comparison of UVB Absorption Effectiveness of Various Sunscreens byUVVis Spectroscopy</image:caption>
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		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/a-novel-methodology-for-the-quantification-of-bvitamers-in-breast-milk-2155-9872-1000352.php?aid=87394</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Breast-milk-kinetic-profile-8-352-g003.png</image:loc>
		<image:caption>A Novel Methodology for the Quantification of BVitamers in Breast Milk</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-matrix-matched-calibration-8-352-g002.png
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		<image:caption>A Novel Methodology for the Quantification of BVitamers in Breast Milk</image:caption>
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		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Chemical-structures-B-vitamers-8-352-g001.png</image:loc>
		<image:caption>A Novel Methodology for the Quantification of BVitamers in Breast Milk</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/synthesis-of-surface-molecularly-imprinting-polymers-for-methylphenidate-andits-application-in-separating-methylphenidate-2155-9872-1000351.php?aid=86416</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Recovery-drugs-washing-fraction-8-351-g008.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Standard-Calibration-Curve-8-351-g007.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-washing-fractions-methanol-8-351-g006.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Scatchard-plot-binding-8-351-g005.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Adsorption-isotherm-8-351-g004.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-non-imprinted-polymers-8-351-g003.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Molecular-imprinted-polymer-8-351-g002.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-8-351-e001.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Structures-chemicals-assayed-8-351-g001.png</image:loc>
		<image:caption>Synthesis of Surface Molecularly Imprinting Polymers for Methylphenidate andits Application in Separating Methylphenidate</image:caption>
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		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/hemocompatibility-evaluation-of-polyurethane-film-with-surfacegrafted-sugarbased-amphipathic-compounds-2155-9872-1000357.php?aid=88072</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-SEM-pictures-8-357-g006.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
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		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Protein-adsorption-8-357-g005.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Water-contact-8-357-g004.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
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		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-XPS-spectra-8-357-g003.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
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		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-sugar-based-8-357-s002.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-virgin-PU-8-357-g002.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-NMR-spectra-8-357-g001.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-chemical-structure-8-357-s001.png</image:loc>
		<image:caption>Hemocompatibility Evaluation of Polyurethane Film with SurfaceGrafted SugarBased Amphipathic Compounds</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/subacute-toxicity-studies-of-alchornea-cordifolia-leaf-extract-in-swissalbino-rats-2155-9872-1000353.php?aid=87395</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Hematoxylin-8-353-p010.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
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		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-extract-Alchornea-8-353-p009.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Kidney-section-rats-8-353-p008.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Histopathology-8-353-p007.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Kidney-section-8-353-p006.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Hematoxylin-8-353-p005.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-rats-treated-8-353-p004.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Alchornea-cordifolia-8-353-p003.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-ethanolic-leaf-8-353-p002.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Liver-section-8-353-p001.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-ethanol-extract-8-353-g001.png</image:loc>
		<image:caption>SubAcute Toxicity Studies of Alchornea cordifolia Leaf Extract in SwissAlbino Rats</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/classification-of-cannabis-cultivars-marketed-in-canada-for-medical-purposes-byquantification-of-cannabinoids-and-terpenes-using-h-2155-9872-1000349.php?aid=86267</loc>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-cannabis-cultivars-8-349-g009.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-loading-plot-right-8-349-g008.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Cannabinoid-terpene-8-349-g007.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Constellation-Plot-cluster-analysis-8-349-g006.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-total-THC-total-CBD-8-349-g005.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Calibration-curve-pinene-8-349-g004.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-GC-MS-chromatograms-8-349-g003.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Calibration-Curve-CBDA-8-349-g002.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-HPLC-chromatograms-cannabinoids-8-349-g001.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-8-349-e003.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-8-349-e002.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-8-349-e001.png</image:loc>
		<image:caption>Classification of Cannabis Cultivars Marketed in Canada for Medical Purposes byQuantification of Cannabinoids and Terpenes Using HPLCDAD and GCMS</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/photocatalytic-studies-of-tio2sio2-nanocomposite-xerogels-2155-9872-1000348.php?aid=86266</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-EDX-results-8-348-g008.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-SEM-results-8-348-g007.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Catalytic-reduction-P-nitrophenol-8-348-g006.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-XRD-results-nanocomposite-xerogels-sample-8-348-g005.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-nanocomposite-xerogels-sample-8-348-g004.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-nanocomposite-xerogels-8-348-g003.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-FTIR-spectrum-synthesized-8-348-g001.png</image:loc>
		<image:caption>Photocatalytic Studies of Tio2Sio2 Nanocomposite Xerogels</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/effect-of-physicochemical-parameters-on-screening-characteristics-of-suspension-in-bioremediation-sampling-2155-9872-1000345.php?aid=86264</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-total-phosphorus-8-345-g004.png</image:loc>
		<image:caption>Effect of Physicochemical Parameters on Screening Characteristics of Suspension in Bioremediation Sampling</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-pH-against-8-345-g003.png</image:loc>
		<image:caption>Effect of Physicochemical Parameters on Screening Characteristics of Suspension in Bioremediation Sampling</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-total-phosphorus-8-345-g002.png</image:loc>
		<image:caption>Effect of Physicochemical Parameters on Screening Characteristics of Suspension in Bioremediation Sampling</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-nitrogen-against-8-345-g001.png</image:loc>
		<image:caption>Effect of Physicochemical Parameters on Screening Characteristics of Suspension in Bioremediation Sampling</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/development-and-validation-of-a-new-hplc-method-for-invitro-studies-of-haloperidol-in-solid-lipid-nanoparticles-2155-9872-1000339.php?aid=83662</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-drug-remaining-7-339-g007.png</image:loc>
		<image:caption>Development and Validation of a New HPLC Method for emInvitroem Studies of Haloperidol in Solid Lipid Nanoparticles</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-HP-SLN-formulation-7-339-g006.png</image:loc>
		<image:caption>Development and Validation of a New HPLC Method for emInvitroem Studies of Haloperidol in Solid Lipid Nanoparticles</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-HPLC-chromatogram-7-339-g005.png</image:loc>
		<image:caption>Development and Validation of a New HPLC Method for emInvitroem Studies of Haloperidol in Solid Lipid Nanoparticles</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Calibration-curve-7-339-g004.png</image:loc>
		<image:caption>Development and Validation of a New HPLC Method for emInvitroem Studies of Haloperidol in Solid Lipid Nanoparticles</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-DSC-Thermogram-7-339-g003.png</image:loc>
		<image:caption>Development and Validation of a New HPLC Method for emInvitroem Studies of Haloperidol in Solid Lipid Nanoparticles</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/Bioanalytical-Techniques-CPE-efficiency-7-325-g002.png</image:loc>
		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>Application of CPEFAAS Methodology for the Analysis of Trace Heavy Metals in Real Samples using Phenanthraquinone Monophenyl Thiosemicarbazone and Triton X114</image:caption>
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		<image:caption>A New Optical Sensor for Selective Monitoring of Nickel Ion Based on A Hydrazone Derivative Immobilized on the Triacetyl Cellulose Membrane</image:caption>
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		<image:caption>A New Optical Sensor for Selective Monitoring of Nickel Ion Based on A Hydrazone Derivative Immobilized on the Triacetyl Cellulose Membrane</image:caption>
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		<image:caption>A New Optical Sensor for Selective Monitoring of Nickel Ion Based on A Hydrazone Derivative Immobilized on the Triacetyl Cellulose Membrane</image:caption>
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		<image:caption>A New Optical Sensor for Selective Monitoring of Nickel Ion Based on A Hydrazone Derivative Immobilized on the Triacetyl Cellulose Membrane</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Marker Gallic Acid and Ellagic Acid from Leaf and Stem of Pergularia daemia Forsk by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Marker Gallic Acid and Ellagic Acid from Leaf and Stem of Pergularia daemia Forsk by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Marker Gallic Acid and Ellagic Acid from Leaf and Stem of Pergularia daemia Forsk by HPTLC Method</image:caption>
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		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Dopamine-6-272-s002.png</image:loc>
		<image:caption>Electrochemical Determination of Folic Acid at Sodium Alpha OlefinSulphonate Modified Carbon Paste Electrode A Voltammetric Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Folic-Acid-6-272-s001.png</image:loc>
		<image:caption>Electrochemical Determination of Folic Acid at Sodium Alpha OlefinSulphonate Modified Carbon Paste Electrode A Voltammetric Study</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-sulfur-in-biosamples-by-icpqmsqms-with-an-orc-2155-9872-1000282.php?aid=63132</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-comparison-certified-sulfur-6-282-g006.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Signal-intensities-ratio-6-282-g005.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-signal-intensity-rate-6-282-g004.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-spectrum-scanning-Reaction-6-282-g003.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-mechanism-spectral-interferences-6-282-g002.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-282-g011.gif</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-282-g010.gif</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-282-g009.gif</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-282-g012.gif</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-282-g008.gif</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Washing-sulfur-rinse-6-282-g001.png</image:loc>
		<image:caption>Determination of Sulfur in BioSamples by ICPQMSQMS with an ORC</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/comparative-adsorption-studies-of-cdii-on-edta-and-acid-treatedactivated-carbons-from-aqueous-solutions-2155-9872-1000288.php?aid=63139</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Desorption-EDTA-6-288-g012.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-isotherm-adsorption-EDTA-6-288-g011.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e022.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e021.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e020.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e019.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e018.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e017.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e016.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e015.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e014.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e013.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Kinetic-models-adsorption-6-288-g010.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e012.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e011.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e010.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Adsorption-isotherm-model-6-288-g009.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e009.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-effect-mass-adsorption-6-288-g008.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Effect-contact-adsorption-6-288-g007.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Adsorption-isotherm-EDTA-6-288-g006.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Effect-adsorption-6-288-g005.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-TEM-images-MC-EDTA-6-288-g004.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-SEM-images-EDTA-6-288-g003.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e027.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e026.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e025.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e024.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e023.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-adsorption-desorption-isotherms-6-288-g002.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e008.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e007.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e006.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e005.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Fourier-transform-infrared-6-288-g001.png</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e004.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e003.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e002.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-288-e001.gif</image:loc>
		<image:caption>Comparative Adsorption Studies of CdII on EDTA and Acid TreatedActivated Carbons from Aqueous Solutions</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/unusual-postspray-proton-transfer-to-protein-using-acetone-spray-indesorption-electrospray-ionization-2155-9872-1000283.php?aid=63134</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Superimposition-lysozyme-charge-6-283-g004.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-spectra-lysozyme-deposited-6-283-g003.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e007.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e002.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e001.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-lysozyme-deposit-submitted-6-283-g002.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e006.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-spectra-deposited-lysozyme-6-283-g001.png</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e005.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e004.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e003.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e002.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-283-e001.gif</image:loc>
		<image:caption>Unusual PostSpray Proton Transfer to Protein Using Acetone Spray inDesorption Electrospray Ionization</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/quantification-of-sugar-epimers-in-polygalactomannans-by-esimsms-2155-9872-1000281.php?aid=63131</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-deprotonated-monosaccharides-hydrolyzed-6-281-g004.png</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-expected-mannose-galactose-6-281-g003.png</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-spectra-negative-aqueous-6-281-g002.png</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-281-e005.gif</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-281-e004.gif</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-281-e003.gif</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-281-e002.gif</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-6-281-e001.gif</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Schematic-structure-portion-6-281-g001.png</image:loc>
		<image:caption>Quantification of Sugar Epimers in Polygalactomannans by ESIMSMS</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/nutraceuticals-from-olives-plain-water-extraction-identification-and-assayby-lcesimsms-2155-9872-1000274.php?aid=63125</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-debittering-process-crushed-6-274-g004.png</image:loc>
		<image:caption>Nutraceuticals from Olives Plain Water Extraction, Identification and Assayby LCESIMSMS</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-chromatogram-injecting-mixture-6-274-g003.png</image:loc>
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		<image:caption>Development of a HPLCUV Method for the Simultaneous Determination ofIntracellular Glutathione Species in Human Cells</image:caption>
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		<image:caption>Development of a HPLCUV Method for the Simultaneous Determination ofIntracellular Glutathione Species in Human Cells</image:caption>
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		<image:caption>Development of a HPLCUV Method for the Simultaneous Determination ofIntracellular Glutathione Species in Human Cells</image:caption>
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		<image:caption>Development of a HPLCUV Method for the Simultaneous Determination ofIntracellular Glutathione Species in Human Cells</image:caption>
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		<image:caption>Thermal and Physical Properties of Biofield Treated Bile Salt and ProteosePeptone</image:caption>
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		<image:caption>Thermal and Physical Properties of Biofield Treated Bile Salt and ProteosePeptone</image:caption>
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		<image:caption>Thermal and Physical Properties of Biofield Treated Bile Salt and ProteosePeptone</image:caption>
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		<image:caption>Thermal and Physical Properties of Biofield Treated Bile Salt and ProteosePeptone</image:caption>
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		<loc>https://www.omicsonline.org/open-access/determination-of-vancomycin-in-human-plasma-bone-and-fat-2155-9872-5-196.php?aid=28334</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-intraosseous-injection-5-196-g005.png</image:loc>
		<image:caption>Determination of Vancomycin in Human Plasma, Bone and Fat by Liquid ChromatographyTandem Mass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-suspensions-spiked-5-196-g004.png</image:loc>
		<image:caption>Determination of Vancomycin in Human Plasma, Bone and Fat by Liquid ChromatographyTandem Mass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-vancomycin-concentration-5-196-g003.png</image:loc>
		<image:caption>Determination of Vancomycin in Human Plasma, Bone and Fat by Liquid ChromatographyTandem Mass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Product-ion-mass-5-196-g002.png</image:loc>
		<image:caption>Determination of Vancomycin in Human Plasma, Bone and Fat by Liquid ChromatographyTandem Mass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-vancomycin-5-196-g001.png</image:loc>
		<image:caption>Determination of Vancomycin in Human Plasma, Bone and Fat by Liquid ChromatographyTandem Mass Spectrometry</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-posaconazole-in-mouse-tissues-2155-9872-5-193.php?aid=28330</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Additional-5-193-g012.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-homogenate-5-193-g011.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-posaconazole-5-193-g010.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-lung-tissue-5-193-g009.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-post-dose-liver-5-193-g008.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-lower-ion-channel-5-193-g007.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-posaconazole-5-193-g006.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-heart-tissue-5-193-g005.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-post-mortem-5-193-g004.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-kidney-tissue-5-193-g003.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-human-patient-5-193-g002.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-chromatograph-5-193-g001.png</image:loc>
		<image:caption>Quantitative Method for the Determination of Posaconazole in Mouse Tissues using Liquid ChromatographyMass Spectrometry</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-organochlorine-organophosphorus-and-pyrethroid-pesticide-residues-2155-9872.1000226.php?aid=33993</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-River-Challawa-5-226-g006.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Pyrethroid-Pesticide-5-226-g005.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Pesticide-Residues-5-226-g004.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-organophosphorus-5-226-g003.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Mean-concentrations-5-226-g002.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-organochlorine-pesticide-5-226-g001.png</image:loc>
		<image:caption>Determination of Organochlorine, Organophosphorus and Pyrethroid Pesticide Residues in Water and Sediment Samples by High Performance Liquid Chromatography HPLC with UVvisible Detector</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-methylene-blue-in-environmental-samples-using-bentonite-2155-9872-5-179.php?aid=23320</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-thermodynamic-5-179-g013.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e007.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Langmuir-plot-5-179-g012.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e006.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e009.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e005.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e008.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e004.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Pseudo-first-order-5-179-g011.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e003.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-ionic-strength-5-179-g010.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Conditions-adsorbent-5-179-g009.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-equilibrium-time-5-179-g008.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-adsorbent-dosage-5-179-g007.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-adsorption-capacity-5-179-g006.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-adsorption-capacity-5-179-g005.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Activation-bentonite-5-179-g004.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-micrographs-5-179-g003.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-SEM-micrographs-5-179-g002.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e002.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-5-179-e001.gif</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-methylene-blue-5-179-g001.png</image:loc>
		<image:caption>Solid Phase Extraction and Spectrophotometric Determination of Methylene Blue in Environmental Samples using Bentonite and Acid Activated Bentonite from Egypt</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-levonorgestrel-by-derivatization-in-human-plasma-2155-9872.S6-003.php?aid=28346</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-levonorgestrel-plasma-S6-003-g003.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-point-collected-S6-003-g002c.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-chromatogram-extracted-S6-003-g002b.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-extracted-blank-S6-003-g002a.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-mass-spectra-S6-003-g001b.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-derivatized-precursor-S6-003-g001a.png</image:loc>
		<image:caption>A Rapid and Sensitive UPLCESIMSMS Method for Determination ofLevonorgestrel by Chemical Derivatization in Human Plasma and itsApplication to Pharmacokinetic Study</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-fenofibric-acid-in-human-plasma-2155-9872.S12-009.php?aid=24084</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-concentration-time-S12-009-g003.png</image:loc>
		<image:caption>A Novel Method for Determination of Fenofibric Acid in Human Plasma using HPLCUV Application to a Pharmacokinetic Study of New Formulations</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-human-plasma-S12-009-g002.png</image:loc>
		<image:caption>A Novel Method for Determination of Fenofibric Acid in Human Plasma using HPLCUV Application to a Pharmacokinetic Study of New Formulations</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Fenofibric-acid-S12-009-g001.png</image:loc>
		<image:caption>A Novel Method for Determination of Fenofibric Acid in Human Plasma using HPLCUV Application to a Pharmacokinetic Study of New Formulations</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/determination-of-antidepressant-drug-sulpiride-in-pharmaceutical-formulations-and-plasma-2155-9872-5-183.php?aid=25901</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-pharmaceutical-formulation-5-183-g005.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Continuous-variation-5-183-g004.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Effect-concentration-5-183-g003.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-absorbance-5-183-g002.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-ion-pair-complexes-5-183-g001.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Chemical-structure-5-183-s001.png</image:loc>
		<image:caption>Utility Spectrophotometric and Chromatographic Methods for Determination of Antidepressant Drug Sulpiride in Pharmaceutical Formulations and Plasma</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/current-methods-for-analysis-of-enzymatic-peptidyl-trna-hydrolysis-2155-9872.1000215.php?aid=33326</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Northern-blot-detection-5-215-g002.png</image:loc>
		<image:caption>Current Methods for Analysis of Enzymatic PeptidyltRNA Hydrolysis</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-peptide-chain-5-215-g001.png</image:loc>
		<image:caption>Current Methods for Analysis of Enzymatic PeptidyltRNA Hydrolysis</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/counterfeit-tablet-investigations-2155-9872.1000214.php?aid=33325</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-magnesium-stearate-5-214-g004.png</image:loc>
		<image:caption>Counterfeit Tablet Investigations Can ATR FTIR Provide Rapid Targeted Quantitative Analyses</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-paracetamol-tablet-5-214-g003.png</image:loc>
		<image:caption>Counterfeit Tablet Investigations Can ATR FTIR Provide Rapid Targeted Quantitative Analyses</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-magnesium-stearate-5-214-g002.png</image:loc>
		<image:caption>Counterfeit Tablet Investigations Can ATR FTIR Provide Rapid Targeted Quantitative Analyses</image:caption>
		</image:image>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-principle-5-214-g001.png</image:loc>
		<image:caption>Counterfeit Tablet Investigations Can ATR FTIR Provide Rapid Targeted Quantitative Analyses</image:caption>
		</image:image>
		</url>
	<url>
		<loc>https://www.omicsonline.org/open-access/comparative-study-of-tissue-distribution-of-chlorin-e6-complexes-2155-9872.S1-008.php?aid=28344</loc>
		<image:image>
		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Concentration-S1-008-g003.png</image:loc>
		<image:caption>Comparative Study of Tissue Distribution of Chlorin e6 Complexes with Amphiphilic Polymers in Mice with Cervical Carcinoma</image:caption>
		</image:image>
		<image:image>
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		<image:caption>Application of Design of Experiment and Simulation Methods to Liquid Chromatography Analysis of Topical HIV Microbicides Stampidine and HI443</image:caption>
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		<image:caption>Application of Design of Experiment and Simulation Methods to Liquid Chromatography Analysis of Topical HIV Microbicides Stampidine and HI443</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Chemical-structure-Quercetin-4-160-g002.png</image:loc>
		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<image:loc>https://www.omicsonline.org/articles-images/analytical-bioanalytical-techniques-Chemical-structure-Gallic-4-160-g001.png</image:loc>
		<image:caption>Quantification of Pharmacologically Active Markers Gallic Acid, Quercetin and Lupeol from Acacia Leucophloea Wild Flowers by HPTLC Method</image:caption>
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		<loc>https://www.omicsonline.org/development-and-validation-of-a-simple-method-for-the-detection-of-fascaplysin-in-plasma-2155-9872.1000150.php?aid=9343</loc>
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		<image:image>
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		</image:image>
		<image:image>
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		</image:image>
		<image:image>
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		</image:image>
		<image:image>
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		</image:image>
		</url>
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		</image:image>
		<image:image>
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		</image:image>
		<image:image>
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		</image:image>
		</url>
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		<image:image>
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		</image:image>
		<image:image>
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		</image:image>
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