Scientific Sessions

Scientific Session Day 1
Scientific Session Day 2
Scientific Session Day 3

Session 1Biocatalysis and Synthetic Biology

Biocatalysis and synthetic biology are complementary fields that have the potential to revolutionize the production of chemicals, materials, and therapeutics. Biocatalysis provides powerful tools for the efficient and selective synthesis of complex molecules, while synthetic biology offers a means to engineer and optimize biological systems for specific applications. In addition, biocatalysis and synthetic biology are being applied to the production of specialty chemicals, such as flavors and fragrances, and to the development of bioremediation strategies for the removal of environmental pollutants. These fields are rapidly evolving, and hold great promise for the development of new and innovative solutions to pressing societal and environmental challenges.

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Session 2Molecular Medicine and Therapeutics

Molecular medicine and therapeutics are closely related fields that involve the use of molecular and cellular biology techniques to understand disease mechanisms and develop new treatments. While molecular medicine focuses on understanding disease at the molecular level, molecular therapeutics involves the development of targeted therapies to treat these diseases. In molecular medicine have allowed for the development of new therapies and treatments, including personalized medicine, where treatments are tailored to an individual’s unique genetic makeup and disease profile. Molecular therapeutics involves the design and optimization of drugs, as well as preclinical and clinical testing strategies to ensure their safety and efficacy.

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Session 3Signaling Pathways and Cell Communication

Signaling pathways and cell communication are essential processes for maintaining cellular homeostasis and responding to external signals. Cells communicate with each other through a complex network of signaling pathways, which involve the transmission of information via signaling molecules, receptors, and intracellular signaling cascades. Research in signaling pathways and cell communication involves a combination of molecular biology, biochemistry, and cell biology techniques, as well as computational modeling and bioinformatics analysis.

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Session 4Biochemistry of Membranes and Transport

Biochemistry of membranes and transport is a field of study that focuses on the structure, function, and dynamics of biological membranes and the mechanisms by which molecules are transported across them. Biological membranes are composed of a lipid bilayer and associated proteins that act as gatekeepers and transporters of molecules in and out of cells. Biochemistry of Membranes and Transport has important implications for understanding fundamental biological processes, such as cell signaling, energy metabolism, and drug delivery. It also has practical applications, such as the development of drugs that target membrane proteins involved in disease processes, and the design of drug delivery systems that can effectively transport drugs across biological membranes.

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Session 5Lipid Metabolism and Lipidomics

Lipid metabolism is the process by which lipids are synthesized, modified, and broken down in cells, while lipidomics involves the identification and quantification of all the lipids in a biological system, and the study of their functions and interactions. These fields are closely related to the biochemistry of membranes and transport, as lipids are crucial components of cellular membranes and are involved in many membrane-related processes, including transport of molecules and ions across the membrane. The study of lipid metabolism, lipidomics, and the biochemistry of membranes and transport has important implications for human health and disease. Dysregulation of lipid metabolism and membrane transport can lead to various disorders, including metabolic disorders, cardiovascular disease, and neurodegenerative diseases. Understanding these processes can lead to the development of new therapies and treatments for these diseases.

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Session 6Biochemistry of Diseases and Pathways

The biochemistry of diseases and pathways involves the study of the biochemical changes that occur in cells and tissues in response to disease, and the molecular pathways that contribute to disease development and progression. This field of research aims to understand the underlying molecular mechanisms of diseases, such as cancer, neurodegenerative disorders, and metabolic diseases, in order to develop new therapies and treatments. The biochemistry of diseases and pathways involves the identification and characterization of disease-related biomolecules, such as proteins, nucleic acids, and metabolites, as well as the study of signaling pathways and cellular processes that are involved in disease pathogenesis. This field of research relies on a wide range of techniques, including molecular biology, biochemistry, and genetics, as well as advanced imaging and computational tools.

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Session 7Environmental Biochemistry and Bioremediation

Environmental biochemistry and bioremediation are interrelated fields that involve the study of chemical processes occurring in the environment, and the development of strategies to mitigate the impact of pollutants on living organisms and ecosystems. The study of environmental biochemistry and bioremediation is essential for developing sustainable solutions to environmental problems and protecting human health. Understanding the biochemical processes that occur in the environment, and developing bioremediation strategies to mitigate the impact of pollutants, can help to preserve the health of ecosystems and promote environmental sustainability.

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Session 8Nanobiotechnology and Bio-Nanoscience

The study of nanobiotechnology and bio-nanoscience is an interdisciplinary field, drawing on expertise from areas such as physics, chemistry, biology, and engineering. The development of new nanotechnology tools and techniques, combined with advances in our understanding of biological systems, has the potential to revolutionize biomedical research and lead to new therapies and treatments for a wide range of diseases. Nanobiotechnology is a field of science that combines nanotechnology and biology to develop new tools and devices for biomedical applications. Bio-nanoscience is a branch of nanoscience that focuses on the study of biological systems and processes at the nanoscale. Nanobiotechnology has numerous applications, including drug delivery, biosensing, tissue engineering, and imaging. Bio-nanoscience has numerous applications, including the development of nanoscale biosensors, the study of protein folding and assembly, and the design of nanomaterials for drug delivery.

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Session 9Biochemistry Education and Outreach

Biochemistry education and outreach refer to the efforts to promote and improve the understanding of biochemistry and its importance among students, educators, and the general public. Biochemistry education involves the development of curricula, teaching methods, and educational resources that can help students learn about biochemistry and its applications in medicine, agriculture, biotechnology, and other fields. Outreach activities include workshops, seminars, public lectures, and other events that are designed to raise awareness about biochemistry and its relevance to society. Overall, biochemistry education and outreach efforts are essential for promoting the understanding and appreciation of biochemistry and its role in advancing human health and wellbeing.

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Session 10Nucleic acids and Polymerase Chain Reaction

The study of nucleic acids and PCR has led to numerous breakthroughs in biotechnology and medicine, such as the development of gene therapies and precision medicine. Additionally, understanding nucleic acid structure and function has broadened our knowledge of evolution, genetics, and biochemistry, paving the way for further advancements in these fields. Nucleic acids are fundamental molecules that store and transfer genetic information in all living organisms. DNA and RNA are the two types of nucleic acids that are essential for various biological processes, including gene expression, replication, and repair. PCR is a powerful tool in molecular biology that allows for the amplification of specific DNA sequences, making it an essential technique for genetic research, diagnostics, and medical applications.

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Session 11Molecular Biophysics and Physical Chemistry

Molecular biophysics and physical chemistry are fields that combine principles from physics, chemistry, and biology to study the physical and chemical properties of biological molecules and their interactions. Molecular biophysics involves the use of physical and biophysical techniques such as X-ray crystallography, NMR spectroscopy, and fluorescence microscopy to study the structure and dynamics of biological macromolecules, including proteins, nucleic acids, and membranes. Physical chemistry is concerned with the study of the fundamental physical and chemical properties of matter, including the behavior of atoms, molecules, and ions. In the context of molecular biology, physical chemistry is used to understand the thermodynamics and kinetics of biological processes, such as enzyme catalysis, DNA replication, and protein folding.

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Session 12Molecular Genetics and Genomics

Molecular genetics and genomics are closely related fields, as molecular genetics provides the foundation for understanding the structure and function of genes, while genomics focuses on the large-scale analysis of genomes to identify genes and other functional elements. Together, these fields play a critical role in advancing our understanding of genetics and its applications in medicine, agriculture, and biotechnology. Molecular genetics is the study of the molecular basis of gene structure and function, including the mechanisms of DNA replication, repair, and recombination, as well as the regulation of gene expression. Genomics, on the other hand, is the study of the entire genome of an organism, including its genes, regulatory elements, and non-coding DNA.

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Session 13Computational Biology and Bioinformatics

Computational Biology and Bioinformatics are two closely related fields that involve the application of computational and statistical methods to analyze biological data. Bioinformatics focuses on the development of algorithms, software tools, and databases for storing, retrieving, and analyzing biological data, such as DNA and protein sequences, gene expression data, and structural data. Computational biology, on the other hand, uses computational and mathematical models to understand biological systems and predict their behavior. They have applications in various areas of biology, including genomics, proteomics, metabolomics, and systems biology, and have led to the development of new techniques and approaches for drug discovery, personalized medicine, and biotechnology.

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Session 14Gene Expression and Regulation

Gene expression refers to the process by which genetic information encoded in DNA is used to produce functional gene products such as proteins or non-coding RNA molecules. Gene expression and regulation are essential for the development and function of all living organisms. Dysregulation of gene expression can lead to various diseases, including cancer, neurodegenerative disorders, and metabolic diseases. Research in gene expression and regulation involves various techniques such as transcriptomics, epigenomics, chromatin immunoprecipitation (ChIP), and CRISPR/Cas9 gene editing. These techniques allow scientists to study the levels and patterns of gene expression, as well as the factors that influence gene regulation.

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Session 15Synthetic Biology and Genetic Engineering

Synthetic biology is a field of biology that involves the design and construction of new biological systems or the modification of existing biological systems for specific purposes. This can include the creation of new organisms or the modification of existing ones to perform specific functions, such as the production of biofuels or the synthesis of drugs. Synthetic biology often involves the use of genetic engineering techniques to manipulate the genetic material of organisms. Genetic engineering is the process of manipulating the genetic material of an organism to introduce new traits or characteristics. This can involve the insertion, deletion, or modification of genes, as well as the transfer of genetic material between different organisms. Genetic engineering has a wide range of applications in agriculture, medicine, and biotechnology, including the production of genetically modified crops, the development of gene therapies for genetic diseases, and the creation of new biopharmaceuticals. Synthetic biology and genetic engineering are closely related fields, as genetic engineering is often used as a tool in synthetic biology to create new biological systems with specific functions.

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Session 16Bioinformatics and Computational Biology

Bioinformatics and computational biology involve the use of computer science, statistics, and mathematics to analyze and interpret biological data. It plays an important role in the analysis of large-scale data sets such as genomic and proteomic data. Bioinformatics tools and techniques are used to analyze DNA and protein sequences, predict protein structure and function, and model biological systems. Computational biology is often used to develop models of biological systems, such as metabolic pathways, and to simulate and predict the behavior of these systems. The integration of bioinformatics and computational biology with experimental techniques has led to many breakthroughs in our understanding of biological systems and diseases.

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Session 17Genome Organization and Dynamics

Genome organization and dynamics is the study of how DNA is organized and packaged within cells, as well as how it changes over time. This includes the study of the three-dimensional structure of chromosomes, the mechanisms of DNA replication and repair, and the regulation of gene expression. Understanding the organization and dynamics of the genome is important for understanding how genes are regulated and how mutations and other genetic changes can affect cellular function and lead to disease. Advances in genomic technologies have led to rapid progress in this field, including the ability to sequence entire genomes and analyze large datasets to study genome organization and dynamics.

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Session 18Glycobiology and Carbohydrate Chemistry

Glycobiology and carbohydrate chemistry are two closely related fields that involve the study of carbohydrates and their roles in biological systems. Glycobiology focuses on the structure, biosynthesis, and functions of carbohydrates, while carbohydrate chemistry involves the synthesis and modification of carbohydrates for various applications. They may also work to develop new materials with specific carbohydrate-based properties or modify carbohydrates in foods to improve their nutritional value. The study of glycobiology and carbohydrate chemistry is a rapidly advancing field that has the potential to impact many areas of science and technology.

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Session 19Cellular Signaling and Signal Transduction

Cellular signaling and signal transduction refer to the mechanisms by which cells communicate with each other to regulate various biological processes such as growth, development, and metabolism. Cells use signaling pathways to receive and respond to signals from their environment or other cells, which can be mediated by various molecules such as hormones, growth factors, and neurotransmitters. Signal transduction involves the process by which an extracellular signal is transmitted through the cell membrane and converted into an intracellular signal, which can then trigger a response inside the cell. This can involve various signaling molecules such as protein kinases, second messengers, and transcription factors. Dysregulation of signaling pathways can lead to a range of diseases such as cancer and diabetes, making the study of cellular signaling and signal transduction important for the development of new therapeutics.

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Session 20Bioorganic Chemistry and Chemical Biology

Bioorganic Chemistry is a field that combines principles of organic chemistry with biological systems. It focuses on the chemical processes that occur within living organisms and the chemical interactions between biological molecules. It involves the synthesis and study of organic compounds that are important in biological systems, such as carbohydrates, lipids, and nucleic acids. Chemical Biology is a field that uses chemical techniques to understand and manipulate biological systems. It involves the design and synthesis of chemical probes and small molecules that can selectively interact with biological molecules such as proteins and nucleic acids, and the study of their effects on cellular processes. Chemical biology techniques are widely used in drug discovery and development, as well as in the study of biological pathways and disease mechanisms.

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Session 21Epigenetics and Chromatin Biology

Epigenetics and chromatin biology refer to the study of heritable changes in gene expression or cellular phenotype that are not caused by changes to the underlying DNA sequence. These changes can be brought about by various mechanisms, including modifications to DNA and histones, as well as non-coding RNAs that affect gene expression. Research in epigenetics and chromatin biology involves understanding the molecular mechanisms that regulate gene expression, as well as developing tools and techniques for studying these processes in cells and organisms. This includes the use of genome-wide mapping and sequencing approaches, as well as biochemical and biophysical techniques to study epigenetic modifications and chromatin structure.

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Session 22Bioenergetics and Energy Conversion

Bioenergetics and energy conversion are related to the study of how living organisms produce and utilize energy. It includes the metabolic pathways involved in the conversion of energy from various sources, such as carbohydrates, fats, and proteins, into ATP (adenosine triphosphate), the primary energy currency of cells. Bioenergetics also involves the study of the mechanisms and processes involved in energy transduction and conversion, such as electron transport chains and oxidative phosphorylation, which are responsible for generating ATP in mitochondria. The study of bioenergetics is important for understanding various biological processes, such as muscle contraction, nerve impulses, and biochemical reactions.

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Session 23RNA Biology

RNA biology is the study of the structure, function, and regulation of RNA molecules, including their roles in gene expression, protein synthesis, and other cellular processes. RNA is a single-stranded nucleic acid that plays a central role in the transfer of genetic information from DNA to proteins. RNA molecules also have diverse functions beyond this central dogma, such as serving as regulatory molecules, catalyzing chemical reactions, and maintaining genome stability. Research in RNA biology involves techniques such as RNA sequencing, RNA interference, and RNA-protein interaction studies to understand the complex roles of RNA in the cell.

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Session 24Metabolism and Metabolic Pathways

Metabolism and metabolic pathways refer to the biochemical processes that occur within cells to convert nutrients into energy and the building blocks needed for cellular function. This includes the breakdown of nutrients such as carbohydrates, fats, and proteins, and the production of ATP, the primary energy currency of cells. Research in metabolism and metabolic pathways includes the study of enzymes involved in these pathways, the regulation of metabolism by hormones and other signaling molecules, and the impact of genetic and environmental factors on metabolic function. This research also includes the development of novel therapies for metabolic disorders and the use of metabolic engineering to produce valuable compounds such as biofuels and pharmaceuticals.

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Session 25Protein Structure and Function

Protein structure and function is a field of study in biochemistry and molecular biology that focuses on understanding the 3D structure of proteins and how this structure relates to their function in biological systems. This includes the use of techniques such as X-ray crystallography, NMR spectroscopy, and computational modeling to determine protein structure, as well as the study of protein-protein interactions and ligand binding. Understanding protein structure and function is important for a wide range of applications, including drug discovery, biotechnology, and understanding the molecular basis of disease.

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Session 26Biomolecular Dynamics and Simulations

Biomolecular dynamics and simulations are a powerful tool in the field of structural biology, providing a way to study the motion and interactions of biomolecules at the atomic and molecular level. By simulating the behavior of proteins, nucleic acids, and other biomolecules, researchers can gain insights into the dynamics and energetics of biological processes, such as protein folding and binding, enzyme catalysis, and molecular recognition.

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Session 27DNA Replication, Repair, and Recombination

DNA replication is the process by which cells make an identical copy of their DNA before cell division occurs. It involves the separation of the double-stranded DNA molecule, the synthesis of new complementary strands, and the rejoining of the strands to create two identical DNA molecules. DNA repair is the process by which cells identify and correct damage to their DNA. This damage can come from various sources, including exposure to radiation, chemicals, and oxidative stress. DNA recombination is the process by which segments of DNA are exchanged between two different DNA molecules. This can occur during DNA replication, repair, or during meiosis (the process by which cells divide to produce gametes).

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Session 28Gene Regulation and Expression

Gene regulation and expression are two closely related areas of molecular biology. Gene expression refers to the process by which information encoded in a gene is used to direct the synthesis of a functional protein or RNA molecule. Gene regulation, on the other hand, refers to the mechanisms that control when and to what extent a gene is expressed in a cell or organism. As well as for the development of new therapies and treatments for diseases. This includes the study of transcription factors, chromatin remodeling, and epigenetic modifications that regulate gene expression. This can lead to the development of new therapeutic strategies that target specific genes or signaling pathways.

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Session 29Enzymology and Enzyme Mechanisms

Enzymology and enzyme mechanisms are closely related fields that focus on the study of enzymes and their functions. Enzymes are biological catalysts that play a critical role in many metabolic processes, and understanding how they work is important for developing new treatments for diseases and improving industrial processes. Enzyme mechanisms involve studying the complex series of steps that enzymes undergo during catalysis, including substrate binding, catalysis, and product release. This requires detailed knowledge of the specific amino acid residues and cofactors involved in enzyme function, as well as the kinetics of enzyme reactions. By combining the fields of enzymology and enzyme mechanisms, researchers can gain a deeper understanding of the molecular mechanisms that underlie enzyme function and develop new strategies for manipulating enzymes to achieve desired outcomes.

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Session 30Structural Biology and Proteomics

Structural biology and proteomics are two interrelated fields of biology that focus on the structure, function, and interactions of biological molecules, particularly proteins. Structural biology involves the determination of the 3D structures of molecules, while proteomics focuses on the identification, quantification, and characterization of proteins. Both fields rely on advanced technologies and techniques, including X-ray crystallography, NMR spectroscopy, mass spectrometry, and bioinformatics analysis, to investigate the complex relationships between protein structure and function. By integrating structural biology and proteomics, researchers can gain a comprehensive understanding of how proteins work and their roles in biological systems, leading to new insights and discoveries in fields such as drug discovery and disease diagnosis.

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