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changes in protein profiles in bortezomib applied multiple myeloma ...

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LIST OF FIGURES<br />

Figure Page<br />

Figure 1.1. Loss of Normal Growth Control .................................................................. 3<br />

Figure 1.2. Development of Cancer ................................................................................ 4<br />

Figure 1.3. The Activation and Differentiation of B Cell ............................................... 5<br />

Figure 1.4. Function of the Plasma Cells ........................................................................ 6<br />

Figure 1.5. Molecular Structure of Immunoglobul<strong>in</strong> ...................................................... 7<br />

Figure 1.6. Tumor-micro environmental Interactions <strong>in</strong> MM ...................................... 12<br />

Figure 1.7. Structure of Bortezomib ............................................................................. 19<br />

Figure 1.8. Scheme of the 26S Proteasome .................................................................. 20<br />

Figure 1.9. Cross Section of β R<strong>in</strong>g .............................................................................. 21<br />

Figure 1.10. Ubiquit<strong>in</strong>–Proteasome Pathway (UPP) ...................................................... 22<br />

Figure 1.11. The <strong>in</strong>hibition of NF-κB activation. ........................................................... 23<br />

Figure 1.12. Effect of Bortezomib on Various Growth and Survival Pathways <strong>in</strong> MM 24<br />

Figure 2.1. Biochemical Interactions Between Genomics and Proteomics .................. 25<br />

Figure 2.2. Schematic of workflow <strong>in</strong>volved <strong>in</strong> a proteomics experiment, Bio-rad. .... 26<br />

Figure 2.3. Reaction of polyacrylamide gel formation ................................................. 31<br />

Figure 2.4. Schematic Representation of 2D PAGE ..................................................... 33<br />

Figure 2.5. Schematic Representation of In-Gel Digestion .......................................... 36<br />

Figure 2.6. Basic Components of a Mass Spectrometer, Premier Biosoft. ................... 37<br />

Figure 2.7. Illustration of the pr<strong>in</strong>ciples beh<strong>in</strong>d MALDI ............................................. 40<br />

Figure 2.8. Schematic representation of Reflectron Time-of-Flight Mass Analyzer ... 41<br />

Figure 2.9. A MALDI-TOF Mass Spectrometer .......................................................... 42<br />

Figure 2.10. A Mass Spectrometer (Representation of the most suitable<br />

source-analyzer-dedector comb<strong>in</strong>ation) .................................................... 42<br />

Figure 3.1. The Dosage of Bortezomib (nM) Applied on MM U-266 Cells ................. 48<br />

Figure 3.2. Apoptosis: The Extr<strong>in</strong>sic and Intr<strong>in</strong>sic Pathways ........................................ 51<br />

Figure 3.3. Aplied Bortezomib Doses on U-266 Cells<br />

for Caspase-3 Enzyme Activity ................................................................. 52<br />

Figure 3.4. Bradford Assay ............................................................................................ 55<br />

Figure 3.5. Aplied Bortezomib Doses on U-266 Cells<br />

for Dedection of Loss of MMP .............................................................................. 56<br />

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