Call for Abstract

2nd International Conference on Biochemistry, will be organized around the theme “Exploring the Facets of Biochemistry ”

Biochemistry 2017 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Biochemistry 2017

Submit your abstract to any of the mentioned tracks.

Register now for the conference by choosing an appropriate package suitable to you.

The field Clinical biochemistry is the study of biochemical mechanisms in the body in relation to disease condition, through the testing of body fluids such as urine or blood or saliva. Many diseases tend to show significant changes in their chemical composition of body fluids like the increased levels of blood enzymes due to their release from heart muscles soon after a heart attack or  also elevated blood sugar levels in diabetes mellitus that occurs due to less or nil of insulin. Biochemical tests are aimed to detect these modifications either qualitatively or quantitatively in comparison to results from nutritious people. Clinical biochemistry uses a wide range of analytical techniques with its applications mostly in clinical chemistry, molecular biology, therapeutic drug monitoring, toxicology, laboratory immunology & medicine used for diagnosis, prognosis, therapy and management of disease.

  • Track 1-1Biochemistry of metabolic syndromes
  • Track 1-2Clinical gene therapy
  • Track 1-3Nucleic acid based diagnosis
  • Track 1-4 Endoenzymes
  • Track 1-5 Molecular medicine

Structural Biochemistry is a sub-division of biochemistry that mainly focuses on the structural characteristics of the molecules within cells and other made up of living organisms. The main area is focused on structural basis of fundamental biological processes. It involves the study of the structure of macro molecules. It includes methods for structure determination and huge data of structural information. Few of the tools will be used to study some class of structures such as membrane, regulatory proteins, structural proteins. These structural macromolecules will provide the framework for discussion on domains, motifs, structural homology, etc., as well as addressing as to how specific biological problems can be solved at the atomic level.

  • Track 2-1The genetic code
  • Track 2-2Reading frame
  • Track 2-3Translation science
  • Track 2-4Structural alignments

A major branch of Biochemistry deals with the varied aspects of macromolecules at the structural and functional levels. It also deals with the interactions amongst different cell components including macromolecules like nucleic acids, proteins, lipids, amino acids and carbohydrates. Molecular Biochemistry has grown widely to capture the array of chemistry, physics, medicine and biology. It is one of the most important aspects of molecular biology to discover the chemical properties of the molecules. The processes that occur within the cell are responsible for their structure, reproduction and response to stimuli.

  • Track 3-1Nucleic acid biochemistry
  • Track 3-2Carbohydrate biochemistry
  • Track 3-3Lipids biochemistry
  • Track 3-4Protein biochemistry

Cell signaling is part of a complex system of communication that governs basic cellular activities and coordinates cell actions. The ability of cells to perceive and correctly respond to their microenvironment is the basis of development, tissue repair, and immunity as well as normal tissue homeostasis. Errors in cellular information processing are responsible for diseases such as cancer, autoimmunity, and diabetes. By understanding cell signaling, diseases may be treated effectively and, theoretically, artificial tissues may be created. The principle of cell signaling is hinged on the fact that cellular communication frequently involves converting signals that carry information from one form to another. During cell communication, the signaling cell releases a particular signaling molecule that is then detected by the target cell. Most animal cells send and receive signals and as such act as both signaling and target cells. Animal cells can communicate through direct contact or by secreting local regulators such as growth factors or neurotransmitters.

  • Track 4-1Lipid signaling pathways
  • Track 4-2Cellular communications
  • Track 4-3Cell signaling mechanisms
  • Track 4-4Signal transduction
  • Track 4-5Cell membrane receptors

Analytical biochemistry is the study of biochemical components found in a cell or other biological sample. This scientific discipline uses a broad range of techniques for separation, identification, quantification and functional characterization of biological molecules like nucleic acids, enzymes, proteins, pigments, carbohydrates and more. The major methods involved in analytical biochemistry to separate the biological components are Spectroscopic techniques, Chromatographic Techniques, Protein Estimation & Purification Techniques and Immunological Techniques.

  • Track 5-1Spectroscopic techniques
  • Track 5-2Protein estimation techniques
  • Track 5-3Protein purification techniques
  • Track 5-4Microscopy techniques
  • Track 5-5Immunological techniques
  • Track 5-6Electrophoretic techniques
  • Track 5-7Chromatographic techniques
  • Track 5-8Electrochemical techniques

Nutritional biochemistry maintains with the perception of mechanism by which diet influences human health & disease condition. It mainly contributes with the properties of nutrients, other dietary substitutes & the study of their physiological, metabolic, biochemical & epigenetic functions. Nutritional biochemistry is a combined form of science as it incorporates physiology, pharmacology, medicine, biology, microbiology & chemistry & implements these sciences specifically to study of disease conditions, health, nutrition, & the connections that exist between them.

  • Track 6-1Nutraceutical
  • Track 6-2Macro and micro nutrients
  • Track 6-3Obesity and metabolic syndrome
  • Track 6-4Evolution of dietary antioxidants
  • Track 6-5Phytochemicals
  • Track 6-6Danger of poor nutrition

Bioenergetics is the part of biochemistry concerned with the energy involved in making and breaking of chemical bonds in the molecules found in biological organisms. It can also be defined as the study of energy relationships and energy transformations in living organisms. It spans applications of structural biology, molecular modeling, spectroscopy and biophysics in these systems, through bioenergetic aspects of mitochondrial biology including biomedicine aspects of energy metabolism in mitochondrial disorders, neurodegenerative diseases like Parkinson's and Alzheimer's, aging, diabetes and even cancer. Bioenergetics is at higher echelons that enhance the intelligence and information dissemination on topics closely related to study of biomembranes, molecular mechanism of photosynthesis, mitochondrial and bacterial respiration, motility and transport, fossil fuels, biothermodynamics, fish bioenergetics, environmental microbiology, bio process engineering, cellular respiration, mitochondrial disease, electronic coupling fluctuations, electron-transfer proteins, molecular recognition and signal transduction.

  • Track 7-1Cellular respiration
  • Track 7-2Bioenergetic metabolism
  • Track 7-3Energy homeostasis
  • Track 7-4Biothermodynamics
  • Track 7-5Cell metabolism

Medical Biochemistry is that branch of medicine concerned with the biochemistry and metabolism of human health and disease. The medical biochemist is trained in the operation and management of clinical biochemistry laboratories, and acts as a consultant in all aspects of their use. The medical biochemist directs clinical laboratories, consults, diagnoses and treats patients with a variety of metabolic disorders and biochemical abnormalities. Medical biochemistry addresses the functioning of normal and diseased organisms from a biochemical point of view. Through modules in neurodegeneration, cardiovascular disease and immunology, one will develop a strong understanding of the implications of biochemistry within medicine alongside the research and experimental skills.

  • Track 8-1Protein structure and dynamics
  • Track 8-2Forensic biochemistry
  • Track 8-3Biochemistry of cancer
  • Track 8-4Histopathology

Bioengineering is usually defined as the biological or medical application of engineering principles or engineering equipment to create modified versions of organisms or enhance the populations and products, it is also termed as biomedical engineering. Bioengineering is implemented in fermentation industry, in production of biomass, biofuel. Through various r-DNA techniques and analytical techniques many biomolecules are produced and purified. Protein & Antibody Engineering is one of the recent branches in Bioengineering that has advanced through Bioprocess and Systems Engineering.

  • Track 9-1Bioprocess & systems engineering
  • Track 9-2Protein & antibody engineering
  • Track 9-3Fermantation biochemistry
  • Track 9-4Biomass, bio-refinery & bio-energy
  • Track 9-5Bioseparation
  • Track 9-6Biotransformation

The science of Nano scale structures deals with the investigation as well as utilization of components or systems that are 109 times smaller than the standard size of components. Biochemistry deals with various metabolic and biochemical processes within the living creatures. Amalgamation of these two technologies resulted in beginning of Nano biochemistry. This interdisciplinary combination of nanotechnology & biochemistry can create numerous innovative tools. Application of nanotechnology to biological sciences indicates creation of materials and devices designed to interact within the body with high degree specificity. This could be possibly used to target cellular and tissue-specific clinical applications that are directed at maximal therapeutic effects with no adverse-effects. Nanotechnology Application to biomedical sciences will present many revolutionary chances in the fight against most sorts of cancers, cardiac, neurodegenerative disorders, infection and diseases.

  • Track 10-1Biosensors
  • Track 10-2Nano medicines and interactions
  • Track 10-3Biomolecular detection strategies
  • Track 10-4Structural DNA nanotechnology
  • Track 10-5Nano biochemistry applications

Pharmaceutical Biochemistry consist the knowledge of biochemistry & chemistry & applies to the production of many useful drugs.It mainly concerns with the science of drugs, their clinical uses and the study of their adverse effects on living organisms. It provides a complete understanding of all chemical processes occurring and associated with living cells at the molecular level that is related to drug action. It also helps to acquire knowledge on the adverse effectsmolecular targets, & characterization of drugs or other chemical substance within the living cells & organisms.

  • Track 11-1Clinical pharmacology
  • Track 11-2Toxicology
  • Track 11-3Pharmacokinetics
  • Track 11-4Pharmacodynamics
  • Track 11-5The drug action

Inflammation is the body's attempt at self-protection that aim to remove harmful stimuli, including damaged cells, irritants, pathogens & begin the healing process. Researchers distinguish inflammation as a key component of the major diseases disturbing human health. Inflammation contributes to disease by damaging the tissues & it has advanced to protect. Apparently unrelated disorders such as asthma, Alzheimer, multiple sclerosis, inflammatory bowel diseases and rheumatoid arthritis all have common inflammatory features that underlie the disease process.

  • Track 12-1Pulmonary Diseases
  • Track 12-2Autoimmune Diseases
  • Track 12-3Neurological Diseases
  • Track 12-4Alzheimers Diseases

Biological systems depend on multimolecular complexes to accomplish the tasks. While these complexes can be large and may comprise several tens of components, the present imaging techniques are limited to imaging only two or three independent components of a molecular complex that can be 8-10 nm in diameter. Isolation of multimolecular complexes while retaining their supramolecular interactions has been critical to the study of mitochondrial respiratory supercomplexes.

  • Track 13-1Multienzyme complexes
  • Track 13-2Multiprotein complex
  • Track 13-3Protein-fatty acid complexes
  • Track 13-4Ubiqutin Proteasome Pathway

The vital goal of a systems biology approach is to illustrate & predict the vigorous properties of the biological network. Whereas microarray data was most amenable for systems modeling, & ongoing advances in MS-based quantitative proteomics are yielding a developing number of datasets suitable for systems biology applications. Proteomic datasets are obviously essential for building network models with precise predictive power.

  • Track 14-1Bioinformatics
  • Track 14-2Systems Biology
  • Track 14-3Computational Biology
  • Track 14-4Proteomics
  • Track 14-5Metabolomics
  • Track 14-6Genomics

Kinase-mediated signaling plays vital roles in cell growth, differentiation & homeostasis. Kinases signal by switching between on & off conformational states, and many inputs regulate the activity of all specific kinase. Abnormal kinase activity, frequently the result of mutation, is associated with numerous cancers, and kinase inhibitors have become a highly successful and growing course of anti-cancer agents. Biochemistry 2017 will focus on emerging insights into the molecular mechanisms by which kinase activity is regulated and how these insights are influencing strategies to target kinase activity in cancer.

  • Track 15-1Cell signaling in multicellular organisms
  • Track 15-2Intraspecies and interspecies signaling
  • Track 15-3Protein,Lipid and Carbohydrate kinases
  • Track 15-4Types of chemotherapy
  • Track 15-5Anti-Cancer Drugs

The science of Medical Genetics is concerned with the physical and chemical characteristics of genes and their expression that controls the development & maintenance of the organism.The field of medical genetics is quite new & currently used to describe the cause of several inherited diseases. The disease typically results in generation of unreliable proteins such as in cases of hemophilia A then more than 200 'inborn errors' of metabolism are recognized in animals, disease conditions such as mannosidosis & galactosemia occur due to lack of a specific protein/enzyme that prohibits metabolism of carbohydrates, proteins, fats & thus shows clinical signs.

  • Track 16-1Cell membrane transport
  • Track 16-2Membrane protein
  • Track 16-3Lipid-Protein Interactions