November 06, 2020    London, UK

2nd Webinar on Molecular Science and Technology

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November 06, 2020

2nd Webinar on Molecular Science and Technology

Innovations and Nature unlock mystery in molecular science

Briefly Know About This Event

2nd Webinar on Moelcular Science and Technology will be hosted on November 06, 2020 in London, UK. A panel of speakers will be delivering their presentations on their recent research related to it. The current state of knowledge, its impact on the future will be discussed in detail. Longdom invites all experts to be part of this webinar series and make it a perfect platform for knowledge sharing and networking.

Sessions

Cell biology revolves around the concept that cell is a fundamental unit of life. The study of cell structure and function permits a detailed understanding of the tissues and organisms that cells compose. Cell biology explains the structure of the organelles in the cell and how they are organised in it. It also explains their physiological properties, metabolic processes, Signalling pathways, life cycle, and interactions with their environment at molecular level. Knowing the components of cells and how cells work is fundamental to all biological sciences; it is also essential for research in bio-medical fields such as cancer, and other diseases. Research in cell biology is closely related to genetics, biochemistry, molecular biology, immunology, and developmental biology.

Physical Chemistry is the application of physical principles and measurements to understand the properties of matter, as well as for the development of new technologies for the environment, energy and medicine. It is the study of how matter behaves on a molecular and atomic level and how chemical reactions occurs. It is used in different areas, but the main goal is to discover, test, and understand the fundamental physical characteristics of a material—be it solid, liquid, or gas. Physical chemistry requires significant mathematical and statistical understanding, and that combination is valuable in many industries that have large data sets that need to be mined for information. Computational modelling is an application of physical chemistry and involves quantifying and predicting how materials will function. The pharmaceutical and materials industries especially conduct significant amounts of molecular modelling, but an advanced degree is usually required for this work.

Bioorganic chemistry applies the principles and techniques of organic chemistry to solve problems of biological relevance, taking inspiration from biology to develop new chemical processes. Research areas include the application of synthetic and physical organic chemistry to the study of enzymes, metabolic pathways and nucleic acids. This includes the development of mechanism-based enzyme inhibitors; elucidation of enzyme mechanism and structure and studies of coenzyme reactivity. It is related to the defense mechanisms of plants and insects and their interaction on various levels. Modern analytical and molecular methods are employed to identify signals from herbivores and microorganisms and initiated events related to stress recognition by the plant e.g interactions in the network of phytohormones.

Nanotechnology is a rather contemporary branch of science that encompasses study, research and application of nanoscale properties of varied elements and compounds. The underlying principle of nanotechnology innovations includes macroscale properties of substances change as the size of the particles approach nanometers. Furthermore, it has been observed that nanomaterials amplify the desirable properties of materials, which may be attributed to exponential increase in surface area or change in physical, chemical and bioactive properties of the same. Hence, nanotechnology is a revolutionary application which encompasses both physical and chemical sciences. Nanotechnology has broken all boundaries and is currently being employed for the production of highly efficient chemicals, biomolecules and any other methods and tools that may be developed on their basis. One example is the application of nanoscale elements for enhancing the contrast of MRI images. There are several more that are currently being studied and even more that are yet to be explored in future.

Molecular genetics is a sub-field of biology that addresses how differences in the structures or expression of DNA molecules manifests as variation among organisms. Molecular genetics often applies an "investigative approach" to determine the structure and/or function of genes in an organism’s genome using genetic screens. The field of study is based on the merging of several sub-fields in biology:  classical Mendelian inheritance, cellular biology, molecular biology, biochemistry, and biotechnology.  Researchers search for mutations in a gene or induce mutations in a gene to link a gene sequence to a specific phenotype.  Molecular genetics is a powerful methodology for linking mutations to genetic conditions that may aid the search for treatments/cures for various genetics diseases.

Molecular biology is the branch of biology that concerns the molecular basis of biological activity in and between cells, including molecular synthesis, modification, mechanisms and interactions. The central dogma of molecular biology describes the process in which DNA is transcribed into RNA then translated into protein. 

Molecular Biophysics is a research area which is made by combining the concepts of physics, chemistry, engineering, mathematics and biology. Molecular biophysics is a rapidly evolving area of research. biological physics is an integerative science that applies the approaches and methods of physics to study biological systems. In molecular biophysics first we understand the system at molecular level and then its biological functions are elucidated in the terms of molecular structure, structural organization, and dynamic behaviour at various levels of complexity. Biophysics covers all scales of biological organization, from molecular to organismic and populations. Biophysical research shares significant overlap with biochemistry, physical chemistry, nanotechnology, bioengineering, computational biology, biomechanics and systems biology. Molecular biophysics typically explains biological questions similar to those in biochemistry and molecular biology, seeking to find the physical substructures of biomolecular phenomena

A biomaterial is any substance that has been contrived to interact with biological systems for a medical purpose which can be therapeutic or a diagnostic one. The study of biomaterials is called biomaterials science. It is also known as biomaterials engineering. It incorporates elements of medicine, biology, chemistry, tissue engineering and materials science. It has experienced steady and strong growth over its history, with many companies investing large amounts of money into the development of new products. A biomaterial that is biocompatible or suitable for one application may not be biocompatible in another. It can be derived naturally or produced synthetically. It can be synthesized in the laboratory by utilizing components like polymers, ceramics or composite materials.

Molecular toxicology is a field which deals with the study of molecular mechanism of chemicals which causes toxicity and effects of various chemical components on living organisms. This form of toxicology examines both naturally occurring and synthetic chemicals are the effects of genetic, physiologic and environmental factors on organisms are also considered. This field is very interesting because the fundamental aspects of biology can be revealed by mechanisms of toxicity. For e.g. toxin such as paraquot or DCMU inhibit the process of photosynthesis. Toxin such as rotenone and cyanide interfered with the electron transport chain .Therefore it reveal the existence of the Krebs cycle, a central component of cellular energy metabolism. Understanding of mechanisms of toxicity is essential for meaningful extrapolation of results obtained in experimental systems, for the risk assessment of human exposure to chemicals

Nanoscience can be defined as the branch of science that deals with the study and development of materials that have nanoscale dimensions. Nanoscience is the underlying principle of nanotechnology, an upcoming branch of science that aims toward the development of nanoscale instruments, devices, medicines and even more. The most important aspect of nanoscience is the elucidation of the molecular and submolecular changes that are observed only in nanoparticles so that the same may then be employed for the development of practically applicable methods and devices.

Microfabrication is essentially the process which involves fabrication of microscale and smaller structures for the development of practically applicable electronic devices. The most basic microfabrication methods imply the development of semiconductor based integrated circuits. The increased importance in the recent past can be understood from the fact that miniaturization is the most essential step towards the successful production of portable electronic devices which may someday find applications in the telecommunication industry, healthcare industry or other related or unrelated branches. The most important and hence researched topics of microfabrication include doping, etching, bonding, thin films and microlithography.

A bioactive compound is a compound that has an organic activity with effect on a living organism, tissue /cell. These compounds contain chemicals that are found in small volumes in plants and particular foods such as fruits, vegetables, nuts, oils and whole grains bioactive compounds are distinguished from essential nutrients on the basis of being essential and non- essential for the living organism In the field of nutrition. Bioactive compounds are not essential for the body as the body can survive and function properly without them but the case is not same with nutrients .nutrients are essential to the sustainability of a body,. Bioactive compounds can have an impact on health. Bioactive compounds are found in both plant and animal products or can be produced synthetically. Bioactive compounds in the plants can be identified as secondary plant metabolites causing pharmacological or toxicological effects in humans and animals. Some of the plant bioactive compounds are carotenoids and polyphenols, or phytosterols. Bioactives in animal products are fatty acids, found in milk and fish. Some examples of bioactive compounds are flavonoids, caffeine, carotenoids etc

Nutraceutical is a pharmaceutical-grade and standardized nutrient. These are the products which are maintained to provide basic nutritional value found in foods and provide extra health benefits. They are the food additives or the dietary supplements which may prevent chronic diseases, improve health, delay the aging process or support the structure or function of the body . Dietary supplements are the food product that are in the form of concentrated liquid or capsule. They contain nutrients. The products can be metabolites, amino acids, vitamins, minerals, herbs, enzymes, organ tissues, glandular. This product is not intended to diagnose, treat, cure, or prevent any disease. Functional foods provide benefits to the consumers due to the presence of additional complementary nutrients such as vitamin D to milk. They are fortified or enriched during processing and then marketed as providing some benefit to consumers.

Theoretical chemistry is a specialized branch of chemical studies that specifically aims to study and develop novel theoretical generalizations pertaining to basic and contemporary concepts of chemistry. Due to the obvious and most important role of theoretical chemistry in comprehending and implicating the concepts of modern chemistry it has gained a lot of importance in the recent past. Some of the most basically studied concepts under the domain of theoretical chemistry include chemical bonding, valency, molecular orbitals, orbital interactions,etс. The concepts and revelations of theoretical chemistry are further studied and implied with the help of computer simulation models. This rather contemporary notion of application of computers in the study of concepts of chemistry is referred to ascomputational chemistry. The most important need and advantage of computational chemistry is the fact that it enables exploration of hitherto unexplored aspects of chemical sciences and solve chemical problems that were once thought manually impractical. It helps in acquiring advanced knowledge of chemical concepts which helps in development of novel tools and techniques for industrial applications.

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