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5th World Congress on Catalysis and Chemical Engineering, will be organized around the theme “Innovation and Integration to Shape the Future ”

Catalysis 2018 is comprised of 27 tracks and 136 sessions designed to offer comprehensive sessions that address current issues in Catalysis 2018.

Submit your abstract to any of the mentioned tracks. All related abstracts are accepted.

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All aspects of catalysis and includes heterogeneous and homogeneous catalysis, and biocatalysts. Modern investigation of catalytic reactions requires a multi-technique approach where each experimental tool, as well as theoretical models, provides specific information. X-ray photoelectron spectroscopy (XPS) is undoubtedly one of the most important tools for the characterization of catalytic systems because of its surface and chemical sensitivity. In the last decades, the full implementation of nanotechnology has strongly influenced also the world of catalysis making a microscopic approach mandatory for many spectroscopic techniques. The scanning photoelectron microscopy (SPEM) combines XPS with spatial resolution, it is a powerful technique to image and probe chemical and electronic properties of microstructure and nanostructure and domains. The energy content and transfer of any catalytic processes is easily understood by applying the principles of thermodynamics which provides an insight whether the process is attainable or not. Therefore, thermodynamics is used to describe the macroscopic behavior of chemical systems through understanding the properties of atoms and molecules. Homogeneous or heterogeneous transition metal catalyst is another hot area of research especially in industrial applications.

  • Track 1-1Chemical Catalysis
  • Track 1-2Applied Catalysis
  • Track 1-3Thermodynamics & Catalysis
  • Track 1-4Homogenous and heterogenous catalysis
  • Track 1-5photoelectrocatalysis

In chemistry, homogeneous catalysis will be catalysis in a solution by a solvent catalyst. Entirely, homogeneous catalysis alludes to catalytic reactions where the catalyst is in same stage from the reactants. Homogeneous catalysis applies to reactions in the gas stage and even in solids. Control over the local chemical environment condition of a particle can be accomplished by encapsulation in supramolecular host systems. In supramolecular catalysis, this control is utilized to gain preferences over established homogeneous catalysis in bulk arrangement. Two of the fundamental points concern impacting reactions as far as substrate and product selectivity. Because of size and additionally shape recognition, substrate selective transformation can be figured it out.

  • Track 2-1Molecular Catalysis Enzymatic
  • Track 2-2Theoretical and Computational Science
  • Track 2-3Supramolecular Catalysis
  • Track 2-4Molecular thermodynamics

Fluid Mechanics is the branch of science that reviews the conduct of fluids when they are in condition of motion or rest. Regardless of whether the fluid is at rest or motion, it is subjected to various forces and distinctive climatic conditions and it carries on in these conditions according to its physical properties. Fluid mechanics manages three parts of the liquid: static, kinematics, and flow perspectives. Industrial Applications of Fluids:

  1. Refrigerators and Air Conditioners
  2. Nuclear power plants
  3. Heat Engines
  4. Operating Various Instruments
  5. Hydroelectric Power Plants
  6. Thermal Power Plants
  7. Fluids as a Renewable Energy Source
  8. Hydraulic machines
  9. Automobiles
  • Track 3-1Fluid Statics and Fluid Dynamics
  • Track 3-2Continuum Mechanics
  • Track 3-3Bernoullis Law
  • Track 3-4Mercury barometer
  • Track 3-5Piezo-Electric pressure transducers
  • Track 3-6Newtonian and Non-Newtonian Fluids
  • Track 3-7Navier-Stokes Equation

This field of study amalgamate facet of organic, organometallic, and inorganic chemistry. Synthesis forms a considerable component of most programs in this area. Mechanistic scrutiny are often undertaken to discover how an unexpected product is formed or to rearrange the recital of a catalytic system. Because synthesis and catalysis are essential, to the construction of new materials, Catalysts are progressively used by chemists busy in fine chemical synthesis within both industry and academia. Today, there prevail huge choices of high-tech catalysts, which add enormously to the repertoire of synthetic possibilities. However, catalysts are intermittently fickle, sometimes grueling to use and almost always require both skill and experience in order to achieve optimal results

  • Track 4-1Green chemistry for chemical synthesis
  • Track 4-2Catalyst for Organic Synthesis Reaction
  • Track 4-3CBS Catalysts for Chemical Synthesis

Catalysis is the expansion in the rate of a synthetic response because of the cooperation of an extra substance called a catalyst. As a rule, responses happen speedier with a catalyst since they require less enactment vitality. Moreover, since they are not expended in the catalyzed response, impetuses can keep on acting over and over. Frequently just little sums are required on a basic level. A portion of the biggest scale chemicals are delivered by means of reactant oxidation, frequently utilizing oxygen. Cases incorporate nitric corrosive (from alkali), sulfuric corrosive (from sulfur dioxide to sulfur trioxide by the load procedure), terephthalic corrosive from p-xylene, and acrylonitrile from propane and smelling salts. Many fine chemicals are readied by means of catalysis; techniques incorporate those of overwhelming industry and additionally more specific procedures that would be restrictively costly on a vast scale. Cases incorporate the Heck response, and Friedel-Crafts responses. Since most bioactive mixes are chiral, numerous pharmaceuticals are created by enantioselective catalysis (synergist hilter kilter amalgamation).

  • Track 5-1Heterogeneous catalytic process
  • Track 5-2Catalyst formulation and preparation methods
  • Track 5-3Catalysts characterization methods
  • Track 5-4Design of catalysts and simulation techniques
  • Track 5-5Mechanism of catalytic reactions

Colloid and surface science examine traverses an extensive variety of themes including organic collaborations at surfaces, sub-atomic gathering of specific surfaces, part of surface science in microelectronics and catalysis, tribology, and colloidal material science in the context of crystallization and suspensions; fluid interfaces; adsorption; surface parts of catalysis; scattering readiness, characterization and stability; pressurized canned products, foams and emulsions; surfaces powers; micelles and microemulsions; light dissipating and spectroscopy; nanoparticles; new material science; detergency and wetting; thin films, fluid films and bilayers; surfactant science; polymer colloids; rheology of colloidal and scatter frameworks; electrical phenomena in interfacial and disperse frameworks.

  • Track 6-1Applied Surface Science
  • Track 6-2Colloid and Interface Science
  • Track 6-3Physicochemical and Engineering Aspects
  • Track 6-4Colloids and Surfaces Biointerfaces

Computational catalysis is a branch of chemistry that uses computer simulation to help with taking care of chemical issues. It uses techniques for theoretical chemistry, fused into proficient system programs, to compute the structures and properties of molecules and solids. Computational devices in view of quantum mechanics are utilized to associate the composition, structure, and reaction environment to elementary reaction rates, empowering reasonable outline of new materials and frameworks. computational catalysis is normally used when a scientific strategy sufficiently built up that it can be computerized for usage on a computer.

  • Track 7-1Solid-state and materials chemistry
  • Track 7-2photochemistry and nanophotonics
  • Track 7-3bioorganic chemistry
  • Track 7-4self-organizing nanoscale materials

Enzymes are the biological substance or organic macromolecules that are created by a living organism which goes about as a catalyst to achieve a particular biochemical reaction. These resemble the chemical catalysts in a compound reaction which accelerate the organic/biochemical reactions inside and also outside the cell. Enzymes are the large biomolecules that are required for the various compound interconversions that sustain life. They quicken all the metabolic procedures in the body and do a specific task. Enzymes are very effective, which can expand reaction rates by 100 million to 10 billion times speedier than any ordinary chemical reaction. Enzyme engineering or protein engineering is the way toward planning proteins or catalysts by changing the arrangement of amino acids through recombinant DNA transformation.

  • Track 8-1Applied Biochemistry and Biotechnology
  • Track 8-2Antioxidant Enzymes
  • Track 8-3Catecholamine Metabolizing Enzyme
  • Track 8-4Advances in Biological Regulation
  • Track 8-5Liver Enzymes

Building up vibrational spectroscopy in catalysis incorporates the usage of high- pressure in-situ infrared spectroscopy and the optimization of the experimental set-up, and additionally the advancement and use of projects for deteriorating vibrational spectra. Calculated vibrational spectra support the understanding of estimated spectra and enable expectations to be made about the affectability of IR spectroscopy in catalytic reactions. The vibrational properties can be correlated with those from NMR spectroscopy and cast light on interesting relationships between structure and properties.

  • Track 9-1Raman spectroscopy.
  • Track 9-2NMR spectroscopy
  • Track 9-3Infrared Spectroscopy
  • Track 9-4Vibrational spectroscopy
  • Track 9-5Optical Spectroscopy
  • Track 9-6IR spectroscopy

Chemical kinetics is key for understanding various procedures, for instance how food is metabolized, how pharmaceuticals assume a delightful part in the biological system, and how pollutants which are delivered by gas ignition are changed over for release into the air. Chemical Kinetics and Catalysis addresses this difficulty and gives a appropriate content to the up and coming generation of researchers in this field. The atomic expansion of hydrogen particle to ethylene is a prototype of symmetry forbidden reaction. Besides, late hypothetical computations have demonstrated that the obstruction for a lessened symmetry path isn't high, therefore in this procedure catalysis for the response is in particular.

  • Track 10-1Deterministic kinetics
  • Track 10-2Towards computational catalyst design
  • Track 10-3Bonding of adsorbates on surfaces
  • Track 10-4Mechanisms for prototypical catalytic processes

The electron-opening pair formation that happens at the interface between a semiconductor and an endless supply of light prompts oxidation or reduction reactions of solution species. The standards of such photo driven processes are depicted and in addition uses of semiconductors in electrochemical cells and as particulate frameworks for doing heterogeneous photocatalysis and photoelectrosynthesis. photocatalysis is a reaction which utilizes light to activate a substance which adjusts the rate of a chemical reaction without being involved itself. The photocatalyst is the substance which can adjust the rate of chemical reaction utilizing light illumination. new photoreactor that should discover wide use in organic synthesis. It has higher- power LEDs than most homebrew setups, and the reaction chamber is streamlined for exposure, so in numerous reactions it prompts shorter circumstances and higher yields.

  • Track 11-1Photoelectrochemical cells – UiO
  • Track 11-2Photoelectrochemistry and Photovoltaics
  • Track 11-3Dye-sensitized photoelectrochemical cells
  • Track 11-4Semiconductor Photocatalysis
  • Track 11-5Smog chamber photo-reactors
  • Track 11-6UV photoreactor models for water treatment – CiteSeerX

A catalyst is another substance than reactants products added to a reaction system to alter the speed of a chemical reaction approaching a chemical equilibrium. It interacts with the reactants in a cyclic manner promoting perhaps many reactions at the atomic or molecular level, but it is not consumed. Another reason for using a catalyst is that it promote the production of a selected product. A catalyst that is in a separate phase from the reactants is said to be a heterogeneous, or contact, catalyst. Contact catalysts are materials with the capability of adsorbing molecules of gases or liquids onto their surfaces. An example of heterogeneous catalysis is the use of finely divided platinum to catalyze the reaction of carbon monoxide with oxygen to form carbon dioxide. This reaction is used in catalytic converters mounted in automobiles to eliminate carbon monoxide from the exhaust gases.

Catalysis has turned into a key issue in tackling a considerable lot of the present energy challenges. Multidisciplinary advances from chemistry, physics and materials science have given profound knowledge into catalyst synthesis, structural and compositional alteration, and robotic comprehension with sub-atomic and nuclear level exactness. At the nanoscale, the surfaces or interfaces of a catalytic material structure strongly impact the physical and compound properties of the material because of high surface-to-volume proportion. One of the specialized examination, describes the mechanical assembly as a "procedure and hardware to get exothermal reactions, specifically from nickel and hydrogen". The gadget worked by implanting heated hydrogen into nickel powder, transmuting it into copper and delivering abundance heat.

  • Track 13-1Catalysis for Sustainable Energy
  • Track 13-2Chemical reaction engineering

In the chemical industry and industrial research, catalysis assume an essential part. Distinctive catalysts are in consistent advancement to satisfy financial, political and natural requests. When utilizing catalyst, it is conceivable to replace a contaminating chemical reaction with an all the more environmentally friendly alternative. Today, and in future, this can be crucial for the chemical industry. For an organization, a new and improved catalyst can be an enormous preferred standpoint for a competitive assembling cost. It's amazingly costly for an organization to shut down the plant because of a blunder in the catalyst, so the right choice of a catalyst or another change can be critical to industrial achievement.

  • Track 14-1Catalysts for a green industry
  • Track 14-2High temperature shift (HTS) catalyst
  • Track 14-3Low temperature shift (LTS) catalyst
  • Track 14-4Carbon Monoxide

Renewable energy source is vitality that is gathered from renewable resources, which are normally renewed on a human timescale, for example, daylight, wind, rain, tides, waves, and geothermal heat. Renewable energy source frequently gives vitality in four vital regions: electricity generation, air and water heating /cooling, transportation, and rural energy services. Rapid deployment of renewable energy and energy efficiency is bringing about significant energy security, environmental change relief, and economic benefits. Renewable energy source frameworks are quickly ending up more productive and less expensive. 

  • Track 15-1Wind power
  • Track 15-2Geothermal energy
  • Track 15-3Solar energy
  • Track 15-4Wind power development
  • Track 15-5Hydropower

Organometallic chemistry explores the chemistry of the often be wildering variety of compounds featuring metal-carbon bonds. A field that has underpinned the development of new synthetic methods and materials, it is also central to our understanding of catalysis. Organometallic compounds are widely used both stoichiometrically in research and industrial chemical reactions. The novel metal free catalysts are called organocatalysts, for the synthesis of industrially relevant products with CO2 as a C1-building block. Combining those catalysts with metal-catalyzed or enzyme-catalyzed procedures in (sequential) one pot reactions leads to innovative and sustainable catalytic systems with high selectivity and energy efficiency respectively. These alternative methods, taking steps in the upstream and downstream phases, are targeted at changing and extending the raw material base, utilizing CO2.

  • Track 16-1organic chemistry
  • Track 16-2inorganic chemistry
  • Track 16-3Novel Organocatalyzed

Catalytic materials are those solids that enable the substance response to happen proficiently and cost-adequately. photocatalytic properties of metal oxide nanoparticles enriched with noble metal clusters which show great oxidative properties upon illumination with UV or visible light. Our materials support chemical reactions that can degrade organic contaminants and other pollutants, as well as pathogens. Porous materials consisting of organic linkers connected by metal ions provide framework scaffolds for heterogeneous catalysis, which is based on the organic, or inorganic components.

  • Track 17-1Heterogeneous Catalytic Materials
  • Track 17-2Catalytic Materials for Oxygen Reduction Reaction
  • Track 17-3Carbon Nanotechnology

Environmental chemistry is the logical investigation of the synthetic and biochemical phenomena that happen in natural places. It can be characterized as the investigation of the sources, responses, transport, impacts, and fates of chemical species noticeable all around, soil, and water conditions; and the impact of human action and natural action on these. Environmental chemistry is an interdisciplinary science that incorporates atmospheric, aquatic and soil chemistry, and in addition intensely depending on logical science and being identified with ecological and different territories of science. Environmental chemistry is the investigation of synthetic procedures happening in the earth which are affected by mankind's exercises. Green science, likewise called sustainable chemistry, is a territory of chemistry and chemical engineering concentrated on the outlining of items and procedures that limit the utilization and age of risky substances. Environmental chemistry centers around the impacts of polluting chemicals on nature, green chemistry centers around mechanical ways to deal with preventing pollution and decreasing utilization of nonrenewable assets.

  • Track 18-1Green Catalysts for Green Reactions
  • Track 18-2Water treatment
  • Track 18-3Trends in Green Chemistry
  • Track 18-4Materials and Corrosion

Nanotechnology and Nanoscience include the capacity to see and to control individual particles and atoms. Everything on Earth is comprised of atoms—the food we eat, the garments we wear, the buildings and houses we live in, and our own bodies. Catalysts, heterogeneous, homogeneous and chemical, are generally nanoparticles. Enthusiasm for nanoscience and in nanotechnology as of late centered consideration around the chance to create catalysts that display 100% selectivity for required item, hence removing byproducts and wiping out waste. Regenerative nanomedicine is one of the medical applications of nanotechnology. It ranges from the medical applications of nanomaterials to Nanoelectronics biosensors, and the future uses of sub-atomic nanotechnology, for example, natural machines. Nanomedicine deals came to $16 billion out of 2015, with at least $3.8 billion in nanotechnology R&D being contributed each year.

  • Track 19-1Diffusion in Nanocatalysis
  • Track 19-2Liquid-Phase Synthesis of Nanocatalysts
  • Track 19-3Nano-Oxide Mesoporous Catalysts in Heterogeneous Catalysis
  • Track 19-4Oxidations with Nanocatalysis
  • Track 19-5Nano Materials
  • Track 19-6Nanomedicine
  • Track 19-7Nanocatalysis in the Fast Pyrolysis of Lignocellulosic Biomass
  • Track 19-8Nano Letters

Chemical Engineering Conference 2018 addresses the physical science application (e.g., chemistry and physics), and life sciences with mathematics and economics, the process of changing raw materials or chemicals into more useful or valuable forms. In addition to develop useful materials, modern chemical engineering is also concerned with pioneering valuable new materials and new methods such as nanotechnology, fuel cells and biomedical engineering. The global chemical industry and market analysis, estimated at U.S. $2.4 trillion, is one of the fastest growing business sectors of the manufacturing industry. It also shipped 3.4 billion dollars’ worth of chemicals globally across regions in 2009.

  • Track 20-1Chemical engineering for renewables conversion
  • Track 20-2Bio-driven chemical engineering
  • Track 20-3Sustainability and energy for the logistics
  • Track 20-4Control and optimization of process systems
  • Track 20-5Fuel cell technologies
  • Track 20-6Green chemistry

The impact of bio catalysis in the future will be the enlarge of ability to use enzymes to catalyze chemical reactions in industrial processes, including the manufacture of drug material, flavors, fragrances, electronic chemicals, polymers—chemicals that literally impact almost every facet of your life. It has become a substitute method of choice for the production of fine chemicals at high yields and excellent selectivity under mild reaction condition. In adopting biocatalysis as a mainstream technology for chemical production, is introducing a technology that is greener, reduces pollution and cost, and creates greater sustainability Environmental catalysis and Nano Catalysis. Biotransformation is a chemical modification (or modifications) of chemical compounds such as nutrients amino acids, toxins and drugs in the body by an organism ending in the production of mineral compounds like CO2, NH4+, H2O or water-soluble compounds so that it can be easily eliminated from the body.

  • Track 21-1Biotransformation of xenobiotics
  • Track 21-2Proteomics and Enzymology
  • Track 21-3Biocatalysis and Agricultural Biotechnology
  • Track 21-4Natural Catalysts
  • Track 21-5Drug Metabolism and Disposition

Zeolites are the most important heterogeneous catalysts with numerous large-scale applications including cracking, petrochemistry, fine chemical synthesis, and environmental protection. This themed issue evidences the significant impact of zeolites in catalysis, new trends in catalytic applications of zeolites and, in particular, their potential in catalysis. Zeolitesis used as catalysts in petrochemical industries for cracking of hydrocarbons and isomerization. An important zeolite catalyst used in the petroleum industry is ZSM-5. It converts alcohols directly into gasoline (petrol) by dehydrating them to give a mixture of hydrocarbons. Electron microscopic investigations of zeolites are reviewed. Scanning electron microscopy can show the appearance of zeolite crystals, e.g. their sizes and morphologies, and can also be used to look into the cores of crystals, revealing any abnormal microstructures, which often help us to elucidate actual crystal growth mechanisms. High resolution transmission electron microscopy is a powerful tool to directly image many pore systems and local defects in zeolites.

  • Track 22-1Disruptive catalysis by zeolites
  • Track 22-2Hierarchical Zeolites
  • Track 22-3Two-dimensional Zeolites
  • Track 22-4Spectroscopy of Zeolites
  • Track 22-5Electron Microscopy of Zeolites
  • Track 22-6Zeolites in Industrial Catalysis
  • Track 22-7Zeolites for Fine Chemistry
  • Track 22-8Zeolite Membranes in Catalysis

Catalysts are substances which, when added to a response, increment the rate of reaction by furnishing other response pathway with a lower activation energy(Ea). They do this by advancing legitimate introduction between responding particles. In natural chemistry, catalysts are known as chemicals. Catalysis impacts the earth by expanding the proficiency of mechanical procedures, however catalysis additionally assumes an immediate part in nature. There is reactant part of chlorine free radicals in the breakdown of ozone. These radicals are framed by the activity of bright radiation on chlorofluorocarbons (CFCs). A standout amongst the most clear uses of catalysis is the hydrogenation (response with hydrogen gas) of fats utilizing nickel catalyst to create margarine. Numerous different foodstuffs are prepared through bio catalysis.

  • Track 23-1Electrocatalysts
  • Track 23-2Homogeneous catalysts
  • Track 23-3Enzymes and biocatalysts
  • Track 23-4Organocatalysis
  • Track 23-5Nanocatalysts
  • Track 23-6Tandem catalysis
  • Track 23-7Autocatalysis

Polymer engineering is generally an engineering field that designs, analyses, or modifies polymer materials. Polymer engineering covers aspects of the petrochemical industry, polymerization, structure and characterization of polymers, properties of polymers, compounding and processing of polymers and description of major polymers, structure property relations and applications.

  • Track 24-1Ziegler-Natta Catalysts
  • Track 24-2Reaction Initiators
  • Track 24-3Single-Site Catalysts
  • Track 24-4Other Polymerization Catalysts
  • Track 24-5Polymerization Catalysts

The procedure whereby heat moves from one body or substance to the another by radiation, conduction, convection or a mix of these techniques. Heat transfer streams from a body with high vitality (high temperature) to bring down vitality (bring down temperature). Mass transfer portrays the vehicle of mass starting with one point then onto the next and is one of the fundamental columns in the subject of Transport Phenomena. Mass exchange may occur in a solitary stage or over stage limits in multiphase frameworks. Mass exchange is the net development of mass from one area, generally significance stream, stage, portion or part, to another. Mass move happens in many procedures, for example, assimilation, vanishing, drying, precipitation, film filtration, and refining.

  • Track 25-1One Dimensional Steady State Heat Conduction
  • Track 25-2Multi-dimensional Steady State Heat Conduction
  • Track 25-3Unsteady State Heat Conduction
  • Track 25-4Convection
  • Track 25-5Heat Exchangers
  • Track 25-6Boiling and Condensation

Petrochemical engineering is a branch of Chemical Engineering which deals with operations involved in refining petroleum or crude oil by the use of advanced technology. The course also includes extraction of crude petroleum obtained from the core of earth. Students learn about the mechanism and techniques involved in activities like exploration, production and exploitation of oil or natural gases. After the completion of undergraduate and postgraduate programmes in petroleum engineering, students can work in job profiles like petroleum geologists, drilling engineers, reservoir engineers and production engineers.  Petroleum engineering is the field of engineering science that involves locating and accessing reserves of natural gas. The course includes subjects like Reaction Engineering, Heat Transfer, Mass Transfer, Fluid Dynamics, Thermodynamics, Transport Phenomena are bridged with special subjects like Petrochemical Processes, Refinery operations with due weight-age on Numerical Computation Process Control, Modelling & Simulation.

  • Track 26-1Reforming & Other Petroleum Refining Catalysts
  • Track 26-2Petroleum Refining Catalysts

The interdisciplinary field of materials science, also commonly termed materials science and engineering is the design and discovery of new materials, particularly solids. The intellectual origins of materials science stem from the Enlightenment, when researchers began to use analytical thinking from chemistry, physics, and engineering to understand ancient, phenomenological observations in metallurgy and mineralogy. 

  • Track 27-1Nanoscale materials and nanotechnology
  • Track 27-2Soft materials and polymers
  • Track 27-3Advanced materials design and processing
  • Track 27-4Electronic and photonic materials