About Conference
We would like to announce“4th International Conference on Organic Chemistry” which is going to be held on September 07-08, 2022 | Webinar with theme Discovering the Scientific and Innovative progressions in Organic Chemistry
Organic Chemistry 2022 is an international study of new compounds and their reactivity in areas such as structure, binding, chemistry and organic metal chemistry, organic chemistry, biogeochemical, marine chemistry, petrochemicals, bioorganic and medicinal chemistry. Platform. Areas of modern experimental chemistry, modern analytical chemistry, modern theoretical chemistry, combination chemistry, microwave chemistry, green chemistry, spectroscopy, new synthetic pathways, and advances in catalysis.
Chemistry Conference: Organic chemistry is the study of the structure, properties, composition, reactions, and formation of carbon-containing compounds. Most organic compounds contain carbon and hydrogen, but can contain any number of other elements (nitrogen, oxygen, halogens, phosphorus, silicon, sulphur, etc.).
Welcome Message
We would like to
welcome participants from all over the world to attend the “4th International Conference on Organic
Chemistry” which is going to be held on September 07-08, 2022 | Webinar.
Organic
Chemistry 2022 is mainly based on the theme “Discovering the Scientific and Innovative
progressions in Organic Chemistry”.
Development of organic
chemistry is currently at the peak of its relevance. It’s truthfully represents
one of the most priorities in development of new technologies and applications.
Recent advancement in the chemical sciences provide outstanding opportunities
of obtaining the most complex molecular structure.
Remodeling organics
materials and methods and their continuously increasing impact on life science,
nanotechnology, catalysis, energy research, additive manufacturing, photonics,
electrochemistry, biomass recycling, and many other modern activities are approaching
a point of cost-effective commercialization.
Sessions and Tracks
Session 01: Organic
Chemistry
Organic
chemistry is a branch of chemistry that studies the structure, properties,
and reactions of organic compounds, including carbon-carbon covalent bonds. Structural
studies determine its structural formula. Property studies include physical and
chemical properties as well as chemical reactivity assessments to understand
their behaviour. Studies of organic reactions include the chemical
synthesis of natural substances, drugs, and polymers, as well as the study
of individual organic molecules through laboratory and theoretical (silicon)
studies. In which scientists create new atoms and study the properties of
existing mixtures. A mixture of nature surrounds us. They are the basis of US financial development in rubber bands, plastics, fuels,
pharmaceuticals, beauty and cleaning products, coatings, dyes, and pesticide
ventures, to name just a few. Many innovative materials are, in any case,
incompletely made from natural mixtures.
·
Natural
products
·
Development
of synthetic methodologies
·
Physical and computational organic
chemistry
·
Functional
organic materials
Related Associations and Societies: American Chemical Society Division of Organic Chemistry
| ACS
Women Chemists Committee | ACS Younger Chemists Committee
| Central New Mexico Section of the American Chemical Society | Association for Chemical and Molecular Sciences | World
Chlorine Council American
Chemical Society
Session 02: Inorganic
Chemistry
Inorganic
chemistry deals with the behaviour and synthesis of inorganic
and organometallic compounds. The field of inorganic chemistry includes
compounds that are not based on carbon. Inorganic chemistry is applied in many
areas of the chemical industry, including catalysis, materials science,
pigments, surfactants, coatings, pharmaceuticals, fuels and agriculture. Simply
put, inorganic chemistry is the opposite of organic chemistry. Substances that
do not have carbon-hydrogen
bonds are metals, salts, substances, and so on. Many inorganic compounds are
used in electric circuits such as electric fields and silicon. Traditionally,
the size of a country's economy could be judged by the productivity of sulfuric
acid. Fertilizer production, which often begins with the Haber process, is
another practical application of industrial inorganic chemistry.
·
Organometallic Chemistry
·
Acid , Bases and Salts
·
Crystal Field Theory
·
Chemical Bonding
Related Associations and Societies Heterocyclic and Synthesis Group
| International Mass Spectrometry Foundation
| North American Catalysis Society
| European
Federation of Chemical Engineering | International
Association of Chemical Thermodynamics | Biochemical Society
Session 03: Computational
Advances in Organic Chemistry
Modern
organic chemistry deals with natural chemistry uses many unique strategies
to have a look at natural compounds like nuclear magnetic resonance (NMR)
spectroscopy which deals with atom connectivity, elemental evaluation which
refers to deduction of elemental composition of a molecule, mass spectrometry
which is the take a look at of molecular weight and pattern of its shape, crystallography
which offers with locating molecular geometry.
·
Mass spectrometry
·
Nuclear magnetic resonance (NMR)
spectroscopy
·
Molecular geometry
·
Instrumentation &techniques
Related Associations and Societies: Belgian Society of Biochemistry and Molecular Biology | German Chemical Society | Italian Chemical Society | International Union of Biochemistry and Molecular
Biology | Japan Society of Nuclear and Radiochemical Sciences | National Organization for the Professional Advancement
of Black Chemists and Chemical Engineers
Session 04: Physical Organic
Chemistry and Bio Organic Chemistry
Physical organic
chemistry use theoretical and experimental approaches to classical and
statistical thermodynamic
calculations, quantum mechanical theory and computational chemistry, as well as
experimental spectroscopy (such as NMR), spectroscopy (such as MS). , And
understand these basic problems in organic chemistry, including crystallization
approaches. .. Therefore, this field includes a wide range of more specialized
fields including electrochemistry and photochemistry, polymer and
supramolecular chemistry and bioorganic chemistry, enzymology and chemical
biology, as well as process chemistry, chemical engineering, materials science
and nanotechnology. Applies to commercial enterprises. Pharmacology in drug
discovery by design.
Bioorganic
chemistry is a scientific field that combines organic chemistry and
biochemistry. The field of life science deals with the investigation of
biological processes using chemical methods. Protein and enzyme function is an
example of these processes. The difference is that bioorganic chemistry is an
organic chemistry that focuses on the biological side. Biochemistry aims to use
chemistry to understand biological processes, while bio-organic chemistry seeks
to extend organic chemistry research (i.e., structure, synthesis, kinetics) to
biology. .. Bioorganic chemistry overlaps with bioinorganic chemistry in the
study of metal enzymes and cofactors.
·
Thermodynamic
Calculations
·
Quantum
Mechanical Theory
·
Photochemistry
·
Protein
and Enzyme Function
·
Biochemistry
Aims
Related Associations and Societies: World Association of Theoretical and Computational
Chemists | World Chlorine Council | International Mass Spectrometry Foundation | European
Federation of Chemical Engineering | Biochemical Society | World
Chlorine Council American
Chemical Society
Session 05: Medicinal
Chemistry
Medicinal
chemistry is a crossroads of chemistry, especially synthetic organic
chemistry and pharmacology and various other biological disciplines, involved
in the design, chemical synthesis, and development of pharmaceuticals
or bioactive molecules (pharmaceuticals) for the market. Medicinal chemistry is
a set of organic, physical, and computational focus in addition to biological
disciplines such as biochemistry, molecular biology, pharmacology and pharmacology,
toxicology, veterinary medicine and human medicine. It is integrated into a
powerful interdisciplinary science. They use project management, statistics,
and pharmaceutical business practices to systematically monitor changes in
identified chemicals, are safe and effective after formulation, and therefore
used to treat disease.
·
Pharmaceuticals or Bioactive Molecules
·
Pharmacology
·
Toxicology
·
Veterinary Medicine and Human Medicine
Related Associations and Societies: German Chemical Society | North American Catalysis Society | Central New Mexico Section of the American Chemical Society | World
Chlorine Council American
Chemical Society | International
Association of Chemical Thermodynamics | Japan Society of Nuclear and Radiochemical Sciences
Session 06: Green and
Environmental Chemistry
Green Chemistry:
Designing chemical products and processes that minimize or eliminate the use or
production of substances harmful to humans, animals, plants, and the
environment. Green Chemistry explains the technical concepts of pollution
control and zero waste, both laboratory and industrial. It encourages the use
of economical and environmentally friendly techniques that not only improve
yields, but also reduce the cost of disposing of waste at the end of the
chemical process.
Related Associations and Societies: American Chemical Society Division of Organic Chemistry
| ACS
Women Chemists Committee | ACS Younger Chemists Committee
| Central New Mexico Section of the American Chemical Society | Association for Chemical and Molecular Sciences | World
Chlorine Council American
Chemical Society
Session 07: Food chemistry
Food chemistry
is the study of both biological
and non-biological components of food chemistry and interactions. Knowledge
of food chemistry helps develop good food handling techniques and good
manufacturing practices. In food chemistry, you will learn how different
processing techniques can affect a particular type of food and improve the
quality of the food. We do not recognize that the particular food technology we
experience in our daily lives is the result of innovations in food chemistry.
B. As a fermentation of dairy products, fat and sugar substitutes
·
Food
Microbiology
·
Food
Nutrition
·
food
handling techniques
Related Associations and Societies: Heterocyclic and Synthesis Group
| International Mass Spectrometry Foundation
| North American Catalysis Society
| European
Federation of Chemical Engineering | International
Association of Chemical Thermodynamics | Biochemical Society
Session 08: Modern
Analytical and Theoretical Chemistry
Analytical
chemistry is the science of acquiring, processing, and transmitting
information about the composition and structure of a substance. In other words,
it is the art and science that determines what a substance is and how much it
exists. Analytical chemistry helps physicians
diagnose illness and provides essential measurements and documentation for
trade and commerce. Modern
analytical chemistry is influenced by instrumental analysis. Many
analytical chemists centre of attraction on a single type of instrument.
Scholars tend to focus on either new applications or discoveries, or new
analytical methods. The discovery of chemicals present in the blood that
increase the risk of cancer will be discoveries that may involve analytical
chemistry. Attempts to develop new methods may include the use of tuneable
lasers to increase the specificity and sensitivity of spectroscopic methods.
Theoretical
chemistry is a collection of principles and concepts common to all disciplines
of chemistry. Within the framework of theoretical chemistry, the laws,
principles and rules of chemistry are systematized, refined, detailed and
hierarchically established. The study of the relationship between the structure
and properties of molecular systems occupies a central position in theoretical
chemistry. Modern
theoretical chemistry can be broadly divided into research on chemical
structure and research on chemical dynamics. The former includes the following
studies: Electronic structure, potential energy surface, force field.
Vibration-Rotary motion; Equilibrium characteristics between condensed phase
system and polymer. Chemical dynamics include: Two-molecule dynamics and
collision theory of reaction and energy transfer. Monomolecular
velocity theory and metastable states; condensed phase of dynamics and
macromolecular aspects.
·
Instrumental Analysis
·
Analytical Methods
·
Monomolecular
Velocity Theory
·
Condensed
Phase System and Polymer
Related Associations and Societies: Belgian Society of Biochemistry and Molecular Biology | German Chemical Society | Italian Chemical Society | International Union of Biochemistry and Molecular
Biology | Japan Society of Nuclear and Radiochemical Sciences | National Organization for the Professional Advancement
of Black Chemists and Chemical Engineers
Session 09: Crystallography
Crystallography
is an experimental science for determining the grouping of atoms in a
crystalline solid (see Crystal Structure). The study of crystals was based on
the physical measurement of their shape using a goniometer. The angle between
the crystal
planes and the theoretical reference axis (crystal axis) was measured to
determine the symmetry of the crystal in question. The position of each crystal
plane in 3D space is plotted on a 3D mesh such as the Wulff
mesh or Lambert mesh. The poles on each side are drawn on the web. Each
point is labeled with a Miller index. In the last figure, the symmetry of the
crystal can be established. Currently, crystallographic techniques rely on the analysis
of diffraction patterns of the sample to which certain beams are directed.
X-rays are the most commonly used. Other beams used include electrons or
neutrons. Crystallologists often explicitly state the type of beam used, such as
the terms X-ray crystallography,
neutron diffraction, and electron diffraction. These three types of radiation
interact with the sample in different ways.
·
Crystal
Structure
·
Optical
Crystallography
·
Free
Electron Lasers
·
X-ray
Crystallography
Related Associations and Societies: World Association of Theoretical and Computational
Chemists | World Chlorine Council | International Mass Spectrometry Foundation | European
Federation of Chemical Engineering | Biochemical Society | World
Chlorine Council American
Chemical Society
Session 10: Antibiotics
Antibiotics
are powerful medicines that fight bacterial infections. Most antibiotics fall
into individual antibiotic classes. The class of antibiotics is a group of
different drugs that share similar chemical and pharmacological properties.
Penicillin’s, tetracycline’s, cephalosporin’s, quinolones, lincomycins,
macrolides, sulfonamides, aminoglycosides, and carbapenems are several classes
of antibiotics. Some antibiotics work by killing bacteria
(bacteria or parasites). This is often done by stand in the way of the
structure of the cell wall of the bacterium or parasite. Some work by blocking
the growth of bacteria and parasites. The side effects of most antibiotics are
not serious. Common side effects include mild stomach upset such as loose
stools (stools), diarrheal, or nausea (feeling sick). The abuse of antibiotics
in recent years has reduced the effectiveness of antibiotics, leading to the
emergence of super bugs.
·
chemical
and pharmacological properties
·
Penicillin’s
·
Viruses
·
Antibiotic
resistance
Related Associations and Societies: German Chemical Society | North American Catalysis Society | Central New Mexico Section of the American Chemical Society | World
Chlorine Council American
Chemical Society | International
Association of Chemical Thermodynamics | Japan Society of Nuclear and Radiochemical Sciences
Session 11: Electro chemistry
Electrochemistry
is the field of physical chemistry that deals with the relationship
between potential differences as measurable and quantitative phenomena and
discernible chemical changes with
potential differences as a result of specific chemical changes, or vice
versa. This refers to an electrochemical
process involving electron transfer between molecules or ions that change
the oxidation position. The loss of an electron from an atom or molecule is
called oxidation, and the acquisition of an electron is also a reduction.
Reactions are classified into oxidation and reduction according to the
direction of electron transfer. Electrochemistry is very important through a
variety of important technical applications. This area includes not only energy storage for mobile devices and
vehicles, but also batteries for load leveling that enable the deployment of
renewable energy conversion technologies. In electrochemical the lack of
suitable resources for cell construction, and most importantly, the exorbitant
cost of electrochemical synthesis (often). However, over the last 40 years,
advances in materials
science and nanotechnology, the development of in-situ spectroscopic
technology, and advances in multi-scale modeling have made significant advances
in electrochemical synthesis and Method 3. As a result, it is time to rethink
and present some industrial electrochemical processes.
·
Industrial
electrochemical processes
·
Electrochemical
engineering
·
Organic
electro synthesis
·
Batteries
and fuel cells
Related Associations and Societies: American Chemical Society Division of Organic Chemistry
| ACS
Women Chemists Committee | ACS Younger Chemists Committee
| Central New Mexico Section of the American Chemical Society | Association for Chemical and Molecular Sciences | World
Chlorine Council American
Chemical Society
Session 12: Nano chemistry
Nanochemistry
is a combination of chemistry and nanoscience. Nanochemistry includes the
synthesis of building blocks according to size, surface area, shape, and defect
properties. Nanochemistry is used in chemical, material and physical,
scientific and engineering, biological and medical applications. Other areas of
nanochemistry and nanoscience share the same core concepts, but their usage is
different. Nanochemistry can be characterized by the concepts of size, shape,
self-organization, defects, and bio-nano. Therefore, the synthesis of each new
nanoconstruct is related to all these concepts. The synthesis of nanoconstructs
depends on how surface area, size, and shape lead to self-organization of
building blocks into functional structures. They are likely to have functional
flaws and can be useful for electronic, photonic, medical, or bioanalytic
problems. Silicon dioxide, gold, polydimethylsiloxane, cadmium selenite, iron
oxide, and carbon are materials that demonstrate the transformative power of
nanochemistry. Nanochemistry can make iron oxide (rust) the most effective
contrast agent for MRI. It has the ability to detect cancer and even kill it in
the early stages. Silica (glass) can be used to bend or stop light in its path.
Carbon
nanomaterials such as carbon nanotubes (CNTs), grapheme, and fullerenes can
be manufactured using nanochemical techniques. Nanochemical methods have
attracted attention in recent years due to their excellent mechanical and
electrical properties.
·
Nanotopography
·
Nanolithography
·
Nanometer-size
clusters
·
Catalysis
Related Associations and Societies: Heterocyclic and Synthesis Group
| International Mass Spectrometry Foundation
| North American Catalysis Society
| European
Federation of Chemical Engineering | International
Association of Chemical Thermodynamics | Biochemical Society
Session 13: Drug Design &
Chemical Engineering
The use of infectious diseases and antibiotics
requires in-depth knowledge and expertise in this area by the medical team, and
the principles of clinical drug treatment complete the work of clinicians in a
more rational way, and some MDR important drug activity. We can use the method
used by researchers in the laboratory from 1800 to 1900 to obtain better pharmacological
molecules that can be introduced into today's therapies without many bureaucratic
rules. I believe. The dosing composition
is often referred to as the discriminant structure, and the creative process of
finding a new prescription is associated with training in a natural focus in the most basic sense. The
subdued composition embraces the structure of the atoms, groping for each other
and charging the focal points of the biomolecules
to which they contact and bind. The latest advances and cutting-edge
technologies in chemical engineering that efficiently use, manufacture, convert
and transport chemicals, materials and energy using the principles of
chemistry, physics, mathematics and economics.
·
Medication
plan and Sub-atomic docking
·
Pharmacological
Molecules
·
Biomolecular
·
Process
of ADME
Related Associations and Societies: Belgian Society of Biochemistry and Molecular Biology | German Chemical Society | Italian Chemical Society | International Union of Biochemistry and Molecular
Biology | Japan Society of Nuclear and Radiochemical Sciences | National Organization for the Professional Advancement
of Black Chemists and Chemical Engineers
Session 14: Stereo
Chemistry
Stereochemistry,
a sub discipline of chemistry, involves studying the structure of molecules and
the relative spatial arrangement of the atoms that make up their operations.
Stereo chemical research focuses on stereoisomers. By definition, steric
isomers have the same molecular formula and arrangement (construction) as the
bonded atoms, but the three-dimensional
orientation of the atoms in space is different. Therefore, it is also
called 3D
chemistry. The prefix "stereo" means
"three-dimensionality". An important field of stereochemistry is the
study of chiral molecules. [3] Stereochemistry covers the entire range of
organic, inorganic, biology, physics, especially supramolecular chemistry.
Stereochemistry includes methods for determining and explaining these
relationships. The effect of these relationships on the physical or biological
properties of the molecule in question, and how these relationships affect the reactivity
of the molecule in question (dynamic stereochemistry).
·
Supramolecular Chemistry
·
Atropisomerism
·
Diastereomers
·
Enantiomers
Related Associations and Societies: World Association of Theoretical and Computational
Chemists | World Chlorine Council | International Mass Spectrometry Foundation | European
Federation of Chemical Engineering | Biochemical Society | World
Chlorine Council American
Chemical Society
Market Analysis
Market Analysis
Global Market in Organic Chemistry
The global organic chemicals market is projected to grow from $ 8.63 billion in 2017 to $
15.97 billion in 2025, with a CAGR of 7.49% over the projected period
2018-2025. Increasing global population, increasing urbanization, rapid
development, increasing disposable income in emerging markets, and increased
investment in R & D are factors driving the organic chemicals market.
Organic
chemicals are compounds that contain carbon in their molecular structure. The
bonding properties of carbon form millions of compounds. These chemicals are
either natural or synthetic. Widely used in various industries such as
medicine, biochemistry, pharmaceuticals,
pesticides, plastics and polymers, foods and beverages. Food and beverage
consumption is growing rapidly around the world, as the number of low-income
earners is more pronounced in emerging countries such as China and India,
according to World Bank data. This has led to increased use of organic
chemicals to produce more food
products and is expanding the global market. Some of the carbon-containing
compounds that do not count as organic compounds are cyanides, carbides, and
carbonates.Global population growth, urbanization and rising disposable income
in developing countries are major drivers of the organic chemicals market. In
addition, increased R & D investment will lead the growth of the organic
chemicals market within a few years. Tight regulations and heightened awareness
of adverse health and environmental impacts, along with weak economic scenarios,
can limit market growth. However, strong growth across the various industries
is expected to boost the organic chemicals market over the forecast period.
New organic growth begins as companies consider how
digitization affects every part of the value chain, from raw materials to end
users. To understand the potential, the best companies form cross-functional
teams with members from marketing and sales, R & D and product development,
and downstream market experts. This cross-section of talent is needed to
identify promising opportunities across the organization, plan how to take
advantage of them, and transform insights into new products and services, or
new value propositions for existing ones. However, to capture all opportunities,
you need to fully understand the needs of your end users. That's why the best
team’s interview and monitor to understand what they're doing with their
products and technologies, and what improvements and innovations they want. For
example, new opportunities created by digital advances such as 3D printing have
led material companies to introduce innovative products. Examples include a new
class of polymers
with structural stability that replaces metal plates and prostheses in bone
surgery, and colored polylactic acid to
meet customer aesthetic needs. Disruption of existing supplies often involves
the risk of cannibalism, so leaders must carefully assess changes in the value
pool before taking action.