Track 1:Protein Expression & Analysis

• Track 1-1Protein expression

• Track 1-2Protein analysis

• Track 1-3Protein characterization

• Track 1-4Protein profiling

• Track 1-5Protein identification

• Track 1-6Protein interaction

• Track 1-7Protein Biochemistry

• Track 1-8Functional proteomics

• Track 1-9Gel-free & based proteomics techniques

Track 2:Proteome Database

• Track 2-1Plasma protein database

• Track 2-2Human protein database

• Track 2-3Yeast protein database

• Track 2-4Plant protein database

Track 3:Mass Spectrometry Proteomics

• Track 3-1Mass spectrometry based proteomics

• Track 3-2Over expression and purification of the proteins

• Track 3-3Protein identification and validation

• Track 3-4Multidimensional protein identification technology – MudPIT

• Track 3-5Liquid chromatography mass spectrometry (LC-MS)

• Track 3-6Electrospray ionization mass spectrometry (ESI-MS)

• Track 3-7Matrix-assisted laser desorption (MALDI-TOF-MS)

• Track 3-8Computational methods of mass spectrometry in proteomics

• Track 3-9Analysis of protein and proteome by mass spectrometry

• Track 3-10Mass spectrometry based quantitative proteomics

• Track 3-11Mass spectrometry data analysis in proteomics

• Track 3-12Molecular imaging by mass spectrometry

Track 4:Proteomics Discovery & Function

• Track 4-1Annotation, visualization, integrated discovery

• Track 4-2Functional organization in yeast proteome

• Track 4-3Proteomics approaches to identify biomarkers

• Track 4-4Microarrays approaches in proteomics

• Track 4-5Molecular and cellular proteomics

• Track 4-6Biomarkers of bio fluids

• Track 4-7Global analysis of protein localization

• Track 4-8Structure and function of actin binding proteins

Track 5:Analytical Proteomics & Genomics

• Track 5-1Protein sequence analysis

• Track 5-2Analysis of DNA polymorphism data

• Track 5-3Advanced computational genomic analysis

• Track 5-4RNA data processing by transcriptomics

• Track 5-5Structural biology and biophysics

• Track 5-6Array-based analytical proteomics

• Track 5-7Glycoproteomics & phosphoproteomics

Track 6:Protein Biochemistry

• Track 6-1Molecular biochemistry

• Track 6-2Analytical biochemistry

• Track 6-3Clinical biochemistry

• Track 6-4Medical biochemistry

• Track 6-5Structural biochemistry

• Track 6-6Nano biochemistry

• Track 6-7Nutritional biochemistry

• Track 6-8Agricultural biochemistry

• Track 6-9Lipids biochemistry

Track 7:Personalized Medicine In Proteomics

• Track 7-1Pharmacoproteomics and precision medicine

• Track 7-2Clinical applications of precision medicine

• Track 7-3Precision medicine for mental disorders

• Track 7-4Advanced biomarkers for precision medicine

• Track 7-5Biomarker analytics for translational research

• Track 7-6Molecular biological profiling

Track 8:Cardiovascular Proteomics

• Track 8-1Cardiovascular proteome biology

• Track 8-2Cardiovascular prevention

• Track 8-3Cardiovascular diseases

• Track 8-4Cardiac gene expression

• Track 8-5Haematological proteomics

• Track 8-6Applications of cardiovascular proteomics

• Track 8-7Cardiovascular medicine

Track 9:Proteomics & Computational Biology

• Track 9-1Plant systems biology

• Track 9-2Functional genomics

• Track 9-3Data integration pathway analysis

• Track 9-4Data mining and data analysis

• Track 9-5Medical systems biology

• Track 9-6Signalling and systems biology

• Track 9-7Network biology- methods and applications

Track 10:Proteomics for Bioinformatics

• Track 10-1Evolutionary bioinformatics

• Track 10-2Structural bioinformatics

• Track 10-3Next generation sequencing

• Track 10-4Web services in bioinformatics

• Track 10-5Programming languages in bioinformatics

• Track 10-6High performance computing in bioinformatics

• Track 10-7Pattern recognition, clustering & classification

• Track 10-8Bayesian inference for gene expression & proteomics

Track 11:Plant Proteomics

• Track 11-1Gel-free & based proteomics techniques

• Track 11-2Plant genomics & proteomics

• Track 11-3Plant growth & development

• Track 11-4Environmental proteomics

• Track 11-5Food & plant proteomics

• Track 11-6Animal proteomics

Track 12:Food & Nutritional Proteomics

• Track 12-1Proteomics of genetically modified crops

• Track 12-2Proteomics in nutrition research

• Track 12-3Dietary metabolites and cellular metabolism

• Track 12-4Nutrigenomics and plant functional genomics

• Track 12-5Food safety and contamination assessment using proteomics

• Track 12-6Applications of proteomics to food processing

Track 13:Cancer & Clinical proteomics

• Track 13-1Cancer biomarker development

• Track 13-2Clinical applications of proteomics

• Track 13-3Proteomics in cell biology and disease mechanisms

• Track 13-4Protein biomarker discovery and delivery

• Track 13-5Renal and urinary proteomics

• Track 13-6Proteomics of microbial pathogens

• Track 13-7Proteomics for mechanistic insight into cancer

• Track 13-8Proteomics in development of anti-cancer therapeutics

Track 14:Immunoproteomics

• Track 14-1Computational immunology

• Track 14-2Systems immunology

• Track 14-3Epigenetics of trained innate immunity

• Track 14-4Applied immunology and immunotherapy

• Track 14-5Application of proteomics in autoimmune diseases

Track 15:Protein Engineering & Molecular Design

• Track 15-1Genetic, enzyme & antibody engineering

• Track 15-2Chemistry on drug discovery

• Track 15-3Molecular docking studies

• Track 15-4Molecular dynamics & mechanics

• Track 15-5Genetic function approximation to QSAR

• Track 15-6Protein phosphatases & folding in the cell

• Track 15-7Protein-protein interactions

• Track 15-8Protein arrays, biochips and proteomics

• Track 15-9Therapeutic protein analysis

• Track 15-10Targeted drug delivery and gene therapy

Track 16:Neuroproteomics & Neurometabolomics

• Track 16-1Proteomics in nephrology

• Track 16-2Neurological disorders

• Track 16-3Translational neuroimmunology

• Track 16-4Proteomics in clinical neurosciences

• Track 16-5Proteomics studies in nerological diseases

• Track 16-6Proteomic analysis of neural epigenetic mechanisms

Track 17:Integrating Transcriptomics & Proteomics

• Track 17-1Transcriptomics & proteomics in microorganisms

• Track 17-2Epigenetics

• Track 17-3Single cell transcriptomics

• Track 17-4Transcriptome analysis & gene expression

• Track 17-5Transcriptomics & proteomics in microorganisms

Track 18:Proteomics Technologies

• Track 18-1Biophysics in proteomics research

• Track 18-2Post translational modifications

• Track 18-3Protein identification & profiling

• Track 18-4Targeted proteomics

• Track 18-5Chemical biology & proteomics

• Track 18-6Top-down proteomics

• Track 18-7Tissue proteomics

• Track 18-8Proteomics for stem cell medicine

Track 19:Biomedical Sciences In Proteomics

• Track 19-1Systems biomedicine

• Track 19-2Bioimaging & bioengineering

• Track 19-3Molecular and cellular principles

• Track 19-4Biochemical reactions and enzyme kinetics

• Track 19-5Functional disulfide bonds in health and disease

Track 20:Proteomics Case Study

• Track 20-1Diabetes case reports

• Track 20-2Enzyme based proteomics

• Track 20-3Auto-immune disorder case report

• Track 20-4Neurophysiological proteomics case report

• Track 20-5Cancer case study

Track 21:Business Trends In Proteomics

• Track 21-1Markets trends in biochips and microfluidic chips

• Track 21-2Big data and corporate evolution

• Track 21-3Expression proteomics and bioinformatics market

Track 22:Machine Learning in Bioinformatics

• Track 22-1Bioinformatics Tools & Software

• Track 22-2Pattern recognition and machine learning

• Track 22-3Practical machine learning tools and techniques

• Track 22-4Machine learning in prediction of protein secondary structure

• Track 22-5Support vector machines