Call for Abstract

7th World Congress on Chemical Engineering and Catalysis, will be organized around the theme “Exploring the Design, Optimization and Control of Chemical and Industrial Systems”

Chemical Engineering Congress 2020 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Chemical Engineering Congress 2020

Submit your abstract to any of the mentioned tracks.

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

  • Track 1-1Filtration
  • Track 1-2Shell and Tube Heat Exchangers
  • Track 1-3Plant Design and Operations
  • Track 1-4Chemical Process Industries
  • Track 1-5Absorption and Adsorption
  • Track 1-6Effectiveness of Screen
  • Track 1-7Chemical Reactors
  • Track 1-8Distillation Design
  • Track 1-9Chemical Kinetics
  • Track 1-10Crystallization
  • Track 1-11Evaporation
  • Track 1-12Heterogeneous Catalytic Reaction Engineering
  • Track 2-1Radiations
  • Track 2-2Forced Convection in Pipes and External Flow
  • Track 2-3Conduction, Convection and Radiation
  • Track 2-4Heat Transfer Coefficient
  • Track 2-5Fin (extended surface)
  • Track 2-6Climate Engineering
  • Track 2-7Climate Engineering
  • Track 2-8Thermal Resistance
  • Track 2-9Heat Exchangers
  • Track 2-10View Factor
  • Track 2-11Radiation Heat Transfer, Steep Temperature Gradient and Radiant Tube
  • Track 3-1Weisz–Prater Criterion
  • Track 3-2Transition Metal Catalysis, Palladium, Cascade Reactions
  • Track 3-3Shrinking Core Model, Internal Diffusion and Catalysis
  • Track 3-4Enzymes, Bio-catalysis, Proteins, Sugars, Biosynthesis
  • Track 3-5Chemical Reactors: PFR and CSTR
  • Track 3-6Nonideal Flow & Reactor Design
  • Track 3-7Plant Design and Construction
  • Track 3-8Structure-Activity Correlation
  • Track 3-9Tailoring Surface reactivity
  • Track 3-10Petrochemical Industries
  • Track 3-11Catalyst Characterization
  • Track 3-12Heterogeneous Catalysis
  • Track 3-13Heterogeneous Catalyst
  • Track 3-14Computational Reactors
  • Track 3-15Time-resolved Analysis
  • Track 3-16Electron Spin Resonance, Adsorbed Species, Electron Energy Loss Spectroscopy
  • Track 4-1Drying
  • Track 4-2Temperature and Concentration fields of the water vapor
  • Track 4-3Vapor-Liquid Equilibrium and Liquid-liquid extraction
  • Track 4-4Distillation column and McCabe-Thiele method
  • Track 4-5Mass Transfer in Barrel Type Epitaxial Reactor
  • Track 4-6Ambipolar diffusion and Anomalous diffusion
  • Track 4-7Double diffusive convection and Drag force
  • Track 4-8Diffusion and Mass Transfer Coefficients
  • Track 4-9Humidification and Air Conditioning
  • Track 4-10Absorption and Adsorption
  • Track 4-11Vapor Liquid Equilibrium
  • Track 4-12Diffusion MRI
  • Track 4-13Distillations
  • Track 4-14Extraction
  • Track 4-15Multiphase thermal management, Thermal energy storage
  • Track 5-1Dimerization Unit
  • Track 5-2Isomerization Unit
  • Track 5-3Petroleum Refining
  • Track 5-4Mining & Metallurgy
  • Track 5-5Fluid Catalytic Converter Unit
  • Track 5-6Downstream and Upstream Process
  • Track 5-7Distillation Unit and Heat Exchangers
  • Track 5-8Petrochemicals, Chemicals & fertilizers
  • Track 5-9Atmospheric Distillation (distills crude oil into fractions)

Fluid mechanics, especially fluid dynamics, is an active field of research, typically mathematically complex. Many problems are partly or wholly unsolved, and are best addressed by numerical methods, typically using computers. A modern discipline, called computational fluid dynamics (CFD), is devoted to this approach. Particle image velocimetry, an experimental method for visualizing and analysing fluid flow, also takes advantage of the highly visual nature of fluid flow. The continuum assumption is an idealization of continuum mechanics under which fluids can be treated as continuous, even though, on a microscopic scale, they are composed of molecules. Under the continuum assumption, macroscopic (observed/measurable) properties such as density, pressure, temperature, and bulk velocity are taken to be well-defined at "infinitesimal" volume elements—small in comparison to the characteristic length scale of the system, but large in comparison to molecular length scale. Fluid properties can vary continuously from one volume element to another and are average values of the molecular properties. The continuum hypothesis can lead to inaccurate results in applications like supersonic speed flows, or molecular flows on nano scale. Those problems for which the continuum hypothesis fails, can be solved using statistical mechanics.

  • Aerodynamics
  • Applied mechanics
  • Bernoulli's principle
  • Communicating vessels
  • Computational fluid dynamics
  • Corrected fuel flow
  • Secondary flow
  • Different types of boundary conditions in fluid dynamics

\r\n Physical Organic Chemistry is the study of the relationship between structure and reactivity of organic molecules. More specifically, physical organic chemistry applies the experimental tools of physical chemistry to the study of the structure of organic molecules and provides a theoretical framework that interprets how structure influences both mechanisms and rates of organic reaction.

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\r\n Biotechnology is the use of living systems and organisms to develop or make products, or "any technological application that uses biological systems, living organisms, or derivatives thereof, to make or modify products or processes for specific use.

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\r\n Biochemical Engineering is an essential area in modern biotechnology. Biochemical Engineering includes Bioreactor and fermenter design aspects, Industrial biotechnology, Photo Bioreactor Electrochemical Energy Conversion, Biological Hydrogen production (Algae), Biofuel from algae, Bioreactor landfill, and Moss bioreactor.

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\r\n Biochemical Engineers translate exciting discoveries in life sciences into practical materials and processes contributing to human health and well-being. Biochemical engineering is mainly deals with the design and construction of unit processes that involve biological organisms or molecules, such as bioreactors. Its applications are in the petrochemical industry, food, pharmaceutical, biotechnology, and water treatment industries.

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\r\n Environmental Engineering and Elementary Biology is something that you can get a degree in these days, but the field is one that existed long before it had a name, begun at the dawn of civilization when we started modifying our environment to meet our needs. It involves applying science and engineering practices to how we utilize and impact our natural resources. Modern environmental engineers work on solutions to issues like pollution reduction and clean-up, energy consumption and emissions, land erosion, water treatment and waste management to properly manage and maintain the quality of our soil, water and air. They strive to keep everyone healthier and happier by helping us live off the land more efficiently and less destructively. Environmentally Benign Catalysis: Over the past 22 years, Catalysis by Heteropolyacids (HPAs) has received wide attention and led to new and promising developments both at academic and industrial level. Heterogeneous catalysis is particularly attractive because it generally satisfies most of green chemistry’s requirements. By emphasizing the development of third generation catalysts, this volume presents trends and opportunities in academic and industrial research. Dealing with Low-pressure oxidative carbonylation of aniline, Clean combustion (catalyst challenges) and Zeolite technologies for a greener environment, this Conference appeals to postgraduates, researchers, and chemists working in the field of environmentally benign catalysts as well as catalytic processes.

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  • Track 10-1System
  • Track 10-2Redlich–Kwong equation of state
  • Track 10-3Zeroth Law of Thermodynamics
  • Track 10-4Chemical Reaction Equilibrium
  • Track 10-5Quantum Thermodynamics
  • Track 10-6Supramolecular Chemistry
  • Track 10-7Phase Equilibria And VLE
  • Track 10-8Compressibility factor
  • Track 10-9Gibbs Free Energy
  • Track 10-10Zeotropic mixture
  • Track 10-11Continuum
  • Track 10-12Macroscopic and Microscopic Approaches
  • Track 11-1Biofuels
  • Track 11-2Green Industrial Technology
  • Track 11-3Environmental Engineering
  • Track 11-4Solar Energy &Green Power
  • Track 11-5Pyrolysis and Bioeconomy
  • Track 11-6Green Energy in Transport
  • Track 11-7Energy and Environment
  • Track 11-8Green Nanotechnology
  • Track 11-9Bioremediation
  • Track 11-10Green Buildings and Infrastructures
  • Track 12-1Fuel cells
  • Track 12-2Design Troubleshooting Technical Issues
  • Track 12-3Protein Electrochemistry
  • Track 12-4Nano electrochemistry
  • Track 12-5Photo electrochemistry
  • Track 12-6Electrosynthesis
  • Track 12-7Electrorefining
  • Track 12-8Potentiometry
  • Track 12-9Voltammetry
  • Track 12-10Coulometry
  • Track 12-11MATLAB, SAP, CADD, Robotics, Power Plants Control System
  • Track 13-1Biomaterial
  • Track 13-2Novel alloys for electrical contact applications
  • Track 13-3Biomedical hydrogels and applications
  • Track 13-4Renewable and sustainable energy
  • Track 13-5Advanced manufacturing
  • Track 13-6Aerospace and transport
  • Track 13-7Materials Efficiency
  • Track 13-8Crystallography
  • Track 13-9Nanomaterial
  • Track 13-10Computer aided design (CAD) of materials processing
  • Track 14-1Gelation
  • Track 14-2Viscosity
  • Track 14-3Biomaterials
  • Track 14-4Polymerization
  • Track 14-5Polymer Physics
  • Track 14-6Polymer Science
  • Track 14-7Biodegradable Polymers
  • Track 14-8Solid Waste Management
  • Track 15-1Drug Delivery
  • Track 15-2Tissue Engineering
  • Track 15-3Nano Topography
  • Track 15-4Nano dispersions
  • Track 15-5Solar Panel films
  • Track 15-6Nanocomposites
  • Track 15-7Nano Materials
  • Track 15-8Nano Enzymes
  • Track 15-9Nanomedicine
  • Track 15-10Nanocellulose
  • Track 15-11Nanoparticles
  • Track 15-12Nanoelectronics Biosensors
  • Track 16-1Control Loops
  • Track 16-2Mass Transfer
  • Track 16-3Energy Transfer
  • Track 16-4Batch Processes
  • Track 16-5Momentum Transfer
  • Track 16-6Non-Newtonian Liquids
  • Track 16-7Mass Transfer in Bioreactors
  • Track 17-1Simulation
  • Track 17-2Agent-based model
  • Track 17-3Monte Carlo method
  • Track 17-4Individual-Based Models
  • Track 17-5Uncertainty Quantification
  • Track 17-6Simulation-based optimization
  • Track 18-1Strong Management Commitment
  • Track 18-2Advanced Oxidation Processes
  • Track 18-3Carbon Capture and Storage
  • Track 18-4Continuous Improvement
  • Track 18-5Safety and Reliability
  • Track 18-6Clean Technologies
  • Track 18-7Waste Valorisation

• Worldwide the chemical industry added $1.1 trillion to world GDP and Provides employment to 15 million people, which makes it to the fifth-largest global manufacturing sector.

• For every $1 USD generated by the chemical industry, a further $4.20 USD is generated elsewhere in the global economy.

• Companies in the chemical industry spent an estimated $3 trillion USD with their suppliers in 2017, buying goods and services used in the manufacture of their products. This supply-chain Process spending contributed an estimated $2.6 trillion USD to global GDP and Provided 60 million jobs.

• The largest contributor to GDP and jobs is the Asia-Pacific chemical industry, generating 45 percent of the industry’s total annual economic value, and 69 percent of all jobs supported. Europe made the next most important contribution ($1.3 trillion USD total GDP contribution, 19 million jobs supported) followed by North America ($866 billion USD total GDP contribution, 6 million jobs supported).

• In the United States, we expect somewhat faster growth in chemical production, at just under 2%, as new production capacity, which will also be used for export, comes onstream. Overall chemical growth is likely to decelerate somewhat in the emerging markets of Asia, mainly due to the slowdown in China, which will affect the other developing countries in the region. In Japan, we presume a weak overall economic environment and minimal growth in chemical production. In South America, the anticipated end of the recession in Argentina and Brazil will result in slight growth in chemical production in the region.

• The global aroma chemicals market is forecast to exhibit a CAGR of 6.2% between 2016 and 2024. At this pace, the market’s valuation is expected to reach US$6.57 bn by the end of 2024. In 2015, the market was valued at US$3.85 bn.

• The global market for steam boiler systems is witnessing significant growth in its valuation, thanks to the rising demand for energy across the world. In 2015, the global steam boiler systems market stood at US$12.0 bn. The opportunity in this market is likely to expand at a CAGR of 5.30% between 2016 and 2024 and is expected to reach US$18.9 bn by the end of 2024.

• The increasing economic power and the rise of the middle class in today’s developing countries will drive demand for more materials, energy, products, and access to technology; new, more efficient methods of materials production; process intensification, energy intensity improvements, and zero emissions technologies