Call for Abstract

17th International Conference on Structural & Molecular Biology, will be organized around the theme “Theme: Fostering Recent Inventions and Researches In Structural and Molecular Biology”

Molecular Biology-2023 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Molecular Biology-2023

Submit your abstract to any of the mentioned tracks.

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

DNA and RNA are nucleic acids set up in the nexus of the cells in every living organism. Both nucleic acids share in the coding, decoding, regulation and expression of genes. DNAs parade a unique molecular doping structure, unseen in conventional mongrel assemblies, when unravel into light emitting organic accoutrements. Then authors unveil answer medium of DNAs into organic semiconducting chargers and knitter their photoluminescence and optic waveguide marvels.


Proteomics aims to identify the subcellular position of each protein. This information can be used to produce a 3 D protein chart of the cell, furnishing new information about protein regulation. Proteomics refers to the study of proteomes, but is also used to describe the ways used to determine the entire set of proteins of an organism or system, similar as protein sanctification and mass spectrometry.

Genomics is distinct from genetics. While genetics is the study of heredity, genomics is defined as the study of genes and their functions, and affiliated ways. The main difference between genomics and genetics is that genetics scrutinizes the functioning and composition of the single gene whereas genomics addresses all genes and their inter connections in order to identify their concerted influence on the growth and development of the organism. Genomics is a forum for describing the development of genome scale technologies and their operation to all areas of natural disquisition.

 Most cells in a plant or animal are specialized to carry out one or more specific functions. Many biological processes require various cells to work together and to coordinate their activities. To make this possible, cells have to communicate with each other, which is accomplished by a process called cell signaling. Cell signaling makes it possible for cells to respond in an appropriate manner to a specific environmental stimulus .Cell signaling affects virtually every aspect of cell structure and function.

DNA recombination makes it possible for a damaged chromosome to repair itself by using a second copy of the same inheritable information as a companion. DNA replication, repair, and recombination (DRRR) are the fundamental processes needed for faithful transmission of inheritable information within and between generations. The DRRR genes protect the cells from implicit mutations and damage during the experimental phases and stress conditions.


Blotting is the fashion in which nucleic acids or proteins are paralyzed onto a solid support generally nylon or nitrocellulose membranes. Blotting of nucleic acid is the central fashion for hybridization studies. Nucleic acid labeling and hybridization on membranes have formed the base for a range of experimental ways involving understanding of gene expression, association etc. Blotting ways are among the most common approaches used in a molecular biology laboratory. These ways, Southern, northern, and immune blotting, are applicable to a variety of macromolecules including DNA, RNA, and protein, independently. Each of the ways are dependent on the capability to resolve the individual macromolecules in a size  dependent manner, transfer the motes to a solid support, and eventually use a defined inquiry to descry the specific patch of interest.


DNA characteristic is a laboratory fashion used to determine the probable identity of a person grounded on the nucleotide sequences of certain regions of mortal DNA that are unique to individualities. DNA characteristic is used in a variety of situations, similar as felonious examinations, other forensic purposes and maternity testing. In these situations, one aims to “match” two DNA fingerprints with one another, similar as a DNA sample from a given person and one from an unknown person. DNA characteristic, also called DNA typing, DNA profiling, inheritable characteristic, genotyping, or identity testing, in genetics, system of segregating and relating variable rudiments within the base brace sequence of DNA.

Polymerase chain response (PCR) is a common molecular biology fashion that enables experimenters to make multiple clones of a specific region of DNA. PCR is effective, rapid fire and can amplify DNA or RNA sequences from colorful sources. Once the DNA has been sufficiently amplified, the performing product can be sequenced, anatomized by gel electrophoresis, or reproduced into a plasmid for experimental purposes. Polymerase chain response (abbreviated PCR) is a laboratory fashion for fleetly producing (amplifying) millions to billions of clones of a specific member of DNA, which can also be studied in lesser detail. PCR involves using short synthetic DNA fractions called manuals to elect a member of the genome to be amplified, and also multiple rounds of DNA conflation to amplify that member.


A vector, as related to molecular biology, is a DNA patch (frequently plasmid or contagion) that's used as a vehicle to carry a particular DNA member into a host cell as part of a cloning or recombinant DNA technique. A vector is a substance, generally a piece of DNA that carries a sequence of DNA or other inheritable material and introduces it into a new cell. Vectors act as vehicles to transfer inheritable material from one cell to the other for different purposes like multiplying, expressing, or insulation. Vectors are used as a tool in molecular cloning procedures so as to introduce the asked DNA insert into a host cell. The DNA insert that's transmitted by a vector is nominated recombinant DNA, and the process is also known as recombinant DNA technology.

Bioinformatics is defined as the operation of tools of calculation and analysis to the prisoner and interpretation of natural data. It's an interdisciplinary field, which harnesses computer wisdom, mathematics, drugs, and biology. Bioinformatics, as related to genetics and genomics, is a scientific sub discipline that involves using computer technology to collect, store, dissect and circulate natural data and information, similar as DNA and amino acid sequences or reflections about those sequences. Scientists and clinicians use databases that organize and indicator similar natural information to increase our understanding of health and complaint and, in certain cases, as part of medical care.


Gene banks are a type of bio repository that preserves inheritable material. For shops, this is done by in vitro storehouse, indurating slices from the factory, or grazing the seeds (e.g. in a seed bank). For creatures, this is done by the freezing of sperm and eggs in zoological freezers until farther need. Gene banks play an important part in the long- term conservation of factory inheritable coffers and are reciprocal to the conservation of diversity in growers ’ fields and in nature. In this environment, attestation plays a critical role. The main intention of gene banks is to conserve collections of factory inheritable coffers for offspring. This means that the attestation of the material must also be assured across generations.

Cell signaling is the abecedarian process by which specific information is transferred from the cell face to the cytosol and eventually to the nexus, leading to changes in gene expression. Cell signaling underlies critical cellular opinions similar as development, cell growth and division, isolation, migration, apoptosis, and it basically provides the collaboration needed for the functionality of multicellular organisms. Cell signalling is the medium by which stimulants are transmitted via a signalling waterfall to effector motes that orchestrate the applicable response. Types of cell signalling pathways include checkpoint signalling, lipid signalling, growth signalling, nutrient signalling, insulin signalling, stress signalling, morphogen signalling, Hippo signalling, Escarpment signalling and integrin signalling.

Utmost genes contain the information demanded to make functional motes called proteins. The trip from gene to protein is complex and tightly controlled within each cell. It consists of two major way recap and restatement. Together, recap and restatement are known as gene expression. During the process of recap, the information stored in a gene's DNA is passed to an analogous patch called RNA in the cell nucleus. Enzymes read the information in a DNA patch and transcribes it into a central patch called runner ribonucleic acid, or mRNA. Next, the information contained in the mRNA patch is restated into the" language" of amino acids, which are the structure blocks of proteins.

In cellular biology, macromolecular machines constantly perform tasks essential for life, similar as DNA replication and ATP conflation. The expression is frequently more generally applied to motes that simply mimic functions that do at the macroscopic position. Macromolecular machines are assemblies containing further than one active point to grease co-localization and/ or coupling of enzymatic conditioning. Multi-enzyme complexes are a type of macromolecular machine generally involved in catalyzing successional chemical responses and employed by multitudinous metabolic pathways. Certain natural motes are suitable to move in a “quasi-mechanical” way, and these can be considered to be molecular machines. These are seen in numerous natural processes and from this, natural-synthetic mongrel and completely synthetic molecular machines have been created.

Enzyme catalysis is the increase in the rate of a process by a natural patch, an enzyme. Utmost enzymes are proteins, and utmost similar processes are chemical responses. Within the enzyme, generally catalysis occurs at a localized point, called the active site. An abecedarian task of proteins is to act as enzymes catalysts that increase the rate of nearly all the chemical responses within cells. These principles of enzymatic catalysis are illustrated in the following illustration, in which a patch acted upon by an enzyme is converted to a product (P) as the result of the response. In the absence of the enzyme, Enzymes beget nearly all of the chemical responses that do in natural systems. As effective natural catalysts, enzymes work by lowering a response’s activation energy hedge, thereby adding the rate of the response. They also ameliorate the particularity of the responses.