Track Categories

The track category is the heading under which your abstract will be reviewed and later published in the conference printed matters if accepted. During the submission process, you will be asked to select one track category for your abstract.

In the modern scientific world, the process of drug discovery is quite complex. Drug discovery is a lengthy process and it is expensive. Its main application includes target identification and investigations into the mechanism of drug discovery and toxicity and the goal of biomarkers. In structural proteomics, it determines their functions, structures and their three-dimensional structure of proteins. The chemical proteomics is used to identify the protein binding partners and the cellular targets and used to design small molecules, investigate and understand the protein function. The pharmacoproteomics is used to observe the alternation of proteins on an act of drug administration. The computational design sparks the drug interactions.

  • Track 1-1Structural Proteomics
  • Track 1-2Goal of Biomarker Discovery
  • Track 1-3Chemical Proteomics
  • Track 1-4Pharmacoproteomics
  • Track 1-5Computational Drug Design
  • Track 1-6Modification of Protein

The advancements in cancer proteomics have developed through various technologies. Cancer classes in the alternation in which the oncogenic mutation had been identified and protein domains are enclosed by the cancer genes. Commonly genes are altered by chromosomal alternation. The important role in the gene expression has been involved in the cell division cycle, apoptosis, and cell migration. Hereditary is also considered as the biggest risk for prostate cancer that intense clinical importance. The tumor is the new growth of abnormal tissue. It cannot be controlled and it is progressive.

  • Track 2-1Genes and Proteins Altered in Cancer
  • Track 2-2Cancer -Clinical Aspects
  • Track 2-3Tumor Biology
  • Track 2-4Oncoproteomics
  • Track 2-5Current Tumor Markers

Protein microarray is one of the technology and it is a critical tool in biochemistry and molecular biology. The analytical microarray is the most powerful multiplexed detection technology. The functional microarray is one of the important tools for a high-throughput and large-scale system for biological studies. Some application of functional microarray is the detection of protein binding properties as protein-protein interaction, protein -DNA interaction, protein-RNA interaction and antigen-antibody interaction. There are numerous cellular processes in which protein kinases are involved. Recording and analyzing of immune responses.

  • Track 3-1Analytical Microarrays
  • Track 3-2Functional Protein Microarrays
  • Track 3-3Protein-Protein and Protein-Lipid Interactions
  • Track 3-4Protein-DNA Interactions
  • Track 3-5Protein-Drug Interactions
  • Track 3-6Protein (Domain)-Peptide Interactions
  • Track 3-7Identification of Kinase Substrates on Protein Chips
  • Track 3-8Profiling Immune Responses

Moonlighting proteins are a form of special classes of multifunctional proteins and it occurs naturally. Protein has multiple domains each serving a different function. The moonlighting protein is a complex in nature in the evolutionary history and it is depending on the speculative occurrence of genetic changes such as gene duplication and point mutation and the effects of those changes on fitness. Gene duplication persisting the appearance in genome evolution and a major driving force in the gain of biological function.

  • Track 4-1Evolution of Moonlighting Proteins
  • Track 4-2Moonlighting and Gene Duplication
  • Track 4-3Medical Relevance
  • Track 4-4Moonlighting Proteins in Molecular Life Sciences
  • Track 4-5MoonProt - A Database for Moonlighting Proteins

Next-generation sequencing is a high through-put methodology that empowers the sequencing of the base pairs in DNA or RNA samples and it also permits the future of personalized medicine. The targeted next-generation DNA sequencing reactions and suitable point of mutation detection examine in the preserved tumor samples can be imagined by mobile phone microscopy. Exome sequencing is a genomic technique for sequencing all the protein sequencing genes. Agrigenomic technology is used to transform the traditional approaches for monitoring and it includes microarrays for genotyping, for next-generation sequencing and polymerase chain reaction.

  • Track 5-1Targeted DNA Sequencing
  • Track 5-2Targeted RNA Sequencing
  • Track 5-3Exome Sequencing
  • Track 5-4Transcriptome Sequencing
  • Track 5-5Agrigenomics
  • Track 5-6De Novo Sequencing
  • Track 5-7Viral Typing
  • Track 5-8Bacterial Typing
  • Track 5-9Aneuploidy and CNV Analysis
  • Track 5-10Small RNA and miRNA Sequencing
  • Track 5-11Microbial Sequencing
  • Track 5-12Genome Sequencing
  • Track 5-13Metagenomics
  • Track 5-14Cancer

In proteomics, the mass gives the information on the protein identity, its chemical modifications, and its structures. Tandem mass spectrometry contains multiple steps of mass spectrometry selections with some pattern of fragmentation arise in between the stages. Gas chromatography is used to analyze the volatile compounds and helps to the different substances within the test samples. Pharmacokinetics helps the prescribers adjust the drug more accurately and its application is to individualize the therapeutic drug monitoring. It is a drug depends on patient-related factors and also on the drugs chemical properties.

  • Track 6-1Tandem Mass Spectrometry
  • Track 6-2Gas Chromatography
  • Track 6-3Liquid Chromatography
  • Track 6-4Capillary Electrophoresis–Mass Spectrometry
  • Track 6-5Pharmacokinetics
  • Track 6-6Protein Characterization
  • Track 6-7Glycan Analysis
  • Track 6-8Preparative Mass Spectrometry

The mass spectrometer is a qualitative analytical technique and it is now in the front line of the protein centered research. The strategics and the problems of the methods are in use for the quantitative analysis of peptides and proteins and finally, it was proteomes by the mass spectrometer. Protein turns over in living systems has been measured with the stable isotope labeled tracers for over half a century. Neuroproteomics has a role in the clarification of disease mechanisms and it is a powerful tool for the identification of biomarkers. The targeted proteomics assures the advance of our understanding of biological networks and the phenotypic significance of specific network state and to the advance of biomarkers into clinical use or chemical studies.

  • Track 7-1Quantitative Mass Spectrometry-Based Proteomics
  • Track 7-2Proteome Dynamics with Heavy Water — Instrumentations, Data Analysis, and Biological Applications
  • Track 7-3Neuroproteomics — LC-MS Quantitative Approaches
  • Track 7-4Targeted Proteomics in Translational and Clinical Studies

Bioinformatics is one of the software tools for understanding the biological data. Sequence analysis is the process of regulating the DNA and RNA sequence in the analytical method for understanding its features, functions, structures, and evolution. It determines the sequence of the polymer formed of several monomers and revealing the evolution and genetic diversity of sequences and organisms. Gene expression is the most fundamental level at which genotype gives rise to the phenotype. The amount of gene expression can have a deep effect on the functions of the gene in a cell or in a multicellular organism. The bioinformatics workflow management system is specifically designed to compose and execute a series of manipulation steps that are related to bioinformatics. Bio Computer objects intents to facilitate bioinformatic workflow related exchange and communicate between the regulatory agencies and pharmaceutical companies and researchers.

  • Track 8-1Sequence Analysis
  • Track 8-2Gene and Protein Expression
  • Track 8-3Analysis of Cellular Organization
  • Track 8-4Structural Bioinformatics
  • Track 8-5High-Throughput Image Analysis
  • Track 8-6High-Throughput Single Cell Data Analysis
  • Track 8-7Bioinformatics Workflow Management Systems
  • Track 8-8BioCompute Objects

The proteins have accelerated the development of very powerful methods in protein analysis. The progression of clinical proteomics adds the constraint with the regards to the in vitro diagnostic application. It discovers the programs to be led in the selection of putative new biomarkers of the human pathogens. Enzymes markers are specialized in the protein complex that assists the chemical changes in every part of the body and the marker protein enhance across the cell membrane and serve to identify the cell. Lipoprotein has been the risk factor for cardiovascular diseases, all the lipoprotein carry cholesterol but exalted by the levels of lipoprotein other than high-density lipoprotein and associated with an increased risk factor of coronary heart diseases.

  • Track 9-1Enzymes and Protein Markers
  • Track 9-2Lipids, Lipoproteins, and Cardiovascular Risk Factors
  • Track 9-3Drug Monitoring and Toxicology
  • Track 9-4Molecular Diagnostics and Genetics
  • Track 9-5Evaluation of Diagnostic Bio-Markers
  • Track 9-6Quality and Safety in Laboratory Medicine

The Human Proteome Map is the doorway for the interactive resource to the scientific community by consolidating the massive peptide sequencing the result from the draft map to the human proteome project. Isolating a subset of cells from tissues requires mechanical and biochemical sorting and it is a process to amend the cellular signaling and also the composition of proteomics. Medically it is necessary to secrete the proteins which include cytokines, the coagulation factor, growth factors and other signaling molecules. A large number of genes with varied normal functions are complexed in human cancer. Certain proteins show distinct expression between different forms of cancer, considering the other protein show variable expression within the different states.

  • Track 10-1The Tissue Specific Proteome
  • Track 10-2The Housekeeping Proteome
  • Track 10-3The Regulatory Proteome
  • Track 10-4The Secretome and Membrane Proteome
  • Track 10-5The Isoform Proteome
  • Track 10-6The Cancer Proteome
  • Track 10-7The Druggable Proteome

Gene expression profiling is the analysis of the activity of thousand genes at a stretch to build a global picture of cellular function. The expression portrait is generated by using a life technologies sequencing platforms are precise enough to detect the low abundance transcripts and making it possible to identify the novel genes without preceding sequence knowledge. Polymerase Chain Reaction is commonly used to detect the prong gene expression and it is generally limited to detecting changes that vary by two-fold or more. Micro array analysis is used to analyze the change in the gene expression between growth stages and tissues.

  • Track 11-1Gene Expression Analysis by Sequencing
  • Track 11-2Gene Expression Analysis by Real-time PCR
  • Track 11-3Gene Expression Quantification by dPCR
  • Track 11-4Gene Expression Profiling by Microarrays

Docking offers tools for fundamental studies of protein interactions and affords a structural basis for drug design. The in-silico study in medicine is a reflection to have the potential speed the rate of discovery while compressing the need for expensive lab work and clinical trials. Structure-Based Drug Design depends on the knowledge of the three-dimensional structure of the biological target. computer-aided drug design and the delivery system offers an detailed discussion of the computer-assisted techniques is used to discover, design, effective and safe drugs.

  • Track 12-1Protein–Protein Docking
  • Track 12-2Protein–Ligand Docking
  • Track 12-3In Silico Screening
  • Track 12-4Computational T Cell Vaccine Design
  • Track 12-5Structure-Based Drug Design
  • Track 12-6Computer Aided Drug Design

Post-translational modifications appear on the amino acid chains. It can be expressed by cleaving of peptide bonds as it deals with the propeptide bond to a mature form or extracts the initiator methionine residue. The higher-order chromosomal structures explain about the collection of nucleosomes that estimate the reproducible confirmation in 3D space. Quantitative proteomics is a dynamic approach used in the diagnosis and targeted proteomics analysis to understand the global proteomic dynamics in a cell, tissues, and organisms. The main role of quantitative proteomics is in molecular system biology, clinical research and personalized medicine.

  • Track 13-1Post-Translational Modifications (PTMs)
  • Track 13-2Higher-Order Chromosomal Structures
  • Track 13-3Chromatin Modifiers
  • Track 13-4Histones
  • Track 13-5Quantitative Proteomics

Phylogenetic Analysis of protein is the link of evolutionary affiliation among protein sequences and it is the main application in the bioinformatics. Bootstrap it is the technique for the computer program in the development on new hardware. It involves in the processes of performing self-tests, loading of configuration settings, a hypervisor, and operating systems. Pairwise sequence alignment helps to identify the region of similarity of the functional, structural and evolutionary relationship between two biological sequences. The segment method analyzes all the windows from one sequence to all the segments from the other and it is used in dot plots. Multiple sequence alignment it is a process of aligning sequence set and also used to assess the sequence of conservation of protein domains, tertiary and secondary structures and it includes amino acids.

  • Track 14-1Molecular Evolution
  • Track 14-2Bootstrap
  • Track 14-3Pairwise Sequence Alignment
  • Track 14-4Multiple Sequence Alignment
  • Track 14-5Amino Acid Substitution Matrix
  • Track 14-6Evolutionary Relationship

Viral proteins are arranged according to their functions and some groups oh viral proteins includes structural, non-structural and regulatory proteins. Most of the viral proteins are an element for the capsid and the envelope for the virus. Bacteriophages infect the single-celled prokaryotic organisms and the phage attaches to the bacterium and inserts its genetic materials into the cell. RNA-dependent RNA polymerases are highly preserved throughout viruses and it is related to telomerase. Viral proteases depend on the host cells metabolism of energy, enzymes, precursor and in order to reproduce and viral proteins can increase the gene transcription.

  • Track 15-1Bacteriophages
  • Track 15-2Genome Delivery
  • Track 15-3Fusion Proteins
  • Track 15-4RNA-Dependent RNA Polymerases
  • Track 15-5Viral Proteases
  • Track 15-6Viral Receptors

Proteomics is a fundamental source of information about biological systems and it generates knowledge about interactions, functions and catalytic activity of proteins and the structural and functional determinants of cells. Omics data integration it addresses or works in the data integration research that concerns the semantic integration problem. Plant interactions with their environment are by aperture and closing the holes on their leaves in response to carbon dioxide.

  • Track 16-1Omics Data Integration
  • Track 16-2Plant Development
  • Track 16-3Plant Interactions With Their Environment
  • Track 16-4Quantitative Proteomics

Molecular medicine is the biological mechanism of diseases at the cellular and molecular levels for enhancing the diagnosis, treatment, and prevention of diseases. The main objectives are identifying all proteins, analyze differential protein expression by using different samples and it understands the protein interaction networks. Cellular medicine defines the daily intake of specific micronutrients as a preventative measure for maintaining health and safe of control of many pathological conditions.

  • Track 17-1Pathology and Molecular Medicine
  • Track 17-2Cellular Medicine
  • Track 17-3Detection and Characterization of Circulating Biomarkers

Protein sequence databases occur from a simple sequence repository which stores the data and interference in the creation of the records and in the which the original sequence data are enlarged by the manual addition for the more information in each sequence record. The data include three-dimensional coordinates such as cell dimensions and the sequence database mainly concentrates on the sequence information it does not have any structural information for the major entries.

  • Track 18-1Protein Modification Databases
  • Track 18-2Protein Binding Databases
  • Track 18-3Protein Sequence Databases
  • Track 18-4Protein Structural Databases
  • Track 18-5Protein Family Databases

DNA profiling is used in forensic techniques and it determines the process of individual DNA characteristics. Restriction Fragment Length Polymorphism analysis is used to identify genetics used in DNA profiling. Polymerase chain reaction analysis requires a DNA template that contains the DNA target region to amplify. Short Tandem Repeat assay is in the power of discrimination and also used for forensic testing.Y-chromosome analysis is used to research in the paternal line. The mitochondrial analysis is used in the forensic field and also to create DNA profiles from other DNA analysis. 

  • Track 19-1Restriction Fragment Length Polymorphism Analysis
  • Track 19-2Polymerase Chain Reaction (PCR) Analysis
  • Track 19-3Short Tandem Repeat Analysis
  • Track 19-4Amplified Fragment Length Polymorphism
  • Track 19-5DNA Family Relationship Analysis
  • Track 19-6Y-Chromosome Analysis
  • Track 19-7Mitochondrial Analysis
  • Track 19-8DNA Databases

Systems Biology involves developing the understanding of a biological system through mathematical and computational modeling of the interactions of components of the system, leading to the expression of this understanding in qualitative and quantitative terms. It is concerned with the study of biological functions and mechanisms, underpinning inter and intra-cellular dynamical networks, by means of signal and system-oriented approaches. It is a biology-based study that focuses on the systematic study of interactions in biological systems and to discover new emergent properties.

  • Track 20-1Modelling biochemical reactions
  • Track 20-2Biological networks
  • Track 20-3Analysis and simulation of biological systems
  • Track 20-4Drug targeting and designing