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8th International Conference on Petro Chemistry and Oil-Gas Marketing, will be organized around the theme “Discovering the Natural Treasures to Navigate the Future”
Euro Petrochemistry 2019 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Euro Petrochemistry 2019
Submit your abstract to any of the mentioned tracks.
Register now for the conference by choosing an appropriate package suitable to you.
Chemical obtained either directly from cracking (pyrolysis), or indirectly from chemical processing, of petroleum Oil or natural gas. Major petrochemicals are acetylene, benzene, ethane, ethylene, methane, propane, and hydrogen, from which hundreds of other chemicals are derived. These derivatives are used as elastomers, fibres, plasticizers, and solvents, and as feedstock for production of thousands of other products.
Process Engineering is for the design, construction, maintenance and improvement of large equipment and facilities which are used for processing and producing oil and gas - either onshore or offshore.
- Track 1-1Electrochemistry and Electrochemical Engineering
- Track 1-2Crystallization
- Track 1-3Lubricant, Wax, and Grease Manufacturing Processes
- Track 1-4Asphalt Production
- Track 1-5Saturated and Unsaturated Gas Plants
- Track 1-6Sweetening and Treating Process
- Track 1-7Isomerisation and Polymerisation
- Track 1-8Catalytic Reforming and Hydro-treating
- Track 1-9Solvent Extraction and Dewaxing
- Track 1-10Crude Oil Desalting and Distillation
- Track 1-11Conversion Processes – Decomposition, Unification, Alteration or Rearrangement
- Track 1-12Atmospheric and Vacuum distillation
- Track 1-13Petroleum Refining and Petrochemicals
- Track 1-14Unit Operations and Separation Processes
Chemical and biochemical engineering are at the core of the conversion of any kind of raw materials into substances and products required by modern society.
Chemical engineers and biochemical engineers head the research into and development of methods for large-scale production of drugs, inexpensive production of basic chemicals and fuels, and the economic production of advanced materials used in a wide range of areas – including communication, IT, health, and transport.
Research into and development of methods for preventing and remedying environmental problems in relation to chemicals in the production, as well as research into and development of methods for sustainable chemical and biochemical energy conversion are also key fields of activity.
- Track 2-1Reservoir Engineering
- Track 2-2Water Science and Technology
- Track 2-3Pharmaceutical Engineering
- Track 2-4Industrial Separation Techniques
- Track 2-5Food Technology
- Track 2-6Modern Thermodynamics
- Track 2-7Moss and Photo bioreactor
- Track 2-8Electrochemical energy conversion
- Track 2-9Bioprocess engineering
- Track 2-10Biofuel from algae
- Track 2-11Agrochemicals
- Track 2-12Materials Science
Geological prospecting and exploration for oil and gas is a set of industrial and R&D activities for geological study of subsurface resources, identification of promising areas, and discovery of fields, their evaluation and pre-development. The final objective of geological prospecting is preparation of subsurface resources. The main principle of geological prospecting is the comprehensive geological study of subsurface resources when along with oil and gas exploration all associated components (petroleum gas and its composition, sulphur, rare metals, etc.), possibility and practicality of their production or utilization are investigated; hydrogeological, coal mining, engineering, geological and other studies are performed; natural, climatic, socioeconomic, geological engineering and economic indicator and their changes caused by future field development are analyzed.
- Track 3-1Exploration Strategy
- Track 3-2Geophysical Methods
- Track 3-3Geohazards and Sea Bed Service
- Track 3-4Seismic Data Acquisition, Processing and Interpretation Technique
- Track 3-5Structural Development and Basin Evolution
- Track 3-6Geochemistry
- Track 3-7Coal Geology
- Track 3-8Methods used in Petroleum Geology
The development of drilling wells offshore in petrochemical industry offers additional energy resources. The essential seaward wellbore development process isn't altogether not quite the same as the rotational penetrating procedure utilized for arrive based boring. The primary contrasts are the sort boring equipment and changed strategies used to complete the activities in a more intricate circumstance. For offshore boring a Mechanical Properties of stable seaward stage or gliding vessel from which to penetrate must be given. These range from perpetual seaward settled or gliding stages to impermanent base bolstered or skimming boring vessels. In USA, 35% of oil is obtained through offshore development. The direction of drilling is ascertained by the dipole sharing investigation tool (DSI).
- Track 4-1Well Logging
- Track 4-2Flaring
- Track 4-3Offshore Drilling
- Track 4-4Rotary Drilling
- Track 4-5Land Based Drilling
- Track 4-6Hydraulic fracturing
- Track 4-7Oil Spill and Petroleum industry
Pipeline transport is the transportation of goods through a pipe. Liquids and gases are transported in pipelines and any chemically stable substance can be sent through a pipeline. Pipelines exist for the transport of crude and refined petroleum, fuels - such as oil, natural gas and biofuels - and other fluids including sewage, slurry, water, and beer. Pipelines are suitable for transporting water for drinking or irrigation over long distances when it needs to move over hills, or where canals or channels are poor choices due to considerations of evaporation, pollution, or environmental impact.
Oil pipelines are made from steel or plastic tubes which are usually buried. The oil is moved through the pipelines by pump stations along the pipeline. Natural gas (and similar gaseous fuels) are lightly pressurised into liquids knows as Natural Gas Liquids (NGLs). Natural gas pipelines are constructed of carbon steel. Highly toxic ammonia is theoretically the most dangerous substance to be transported through long-distance pipelines, but accidents have been rare. Hydrogen pipeline transport is the transportation of hydrogen through a pipe. District heating or tele-heating systems use a network of insulated pipes which transport heated water, pressurized hot water or sometimes steam to the customer. Pipelines conveying flammable or explosive material, such as natural gas or oil, pose special safety concerns and there have been various accidents. Pipelines can be the target of vandalism, sabotage, or even terrorist attacks. In war, pipelines are often the target of military attacks. Topics like Power and Generation of heat, Renewable energy by bio-system engineering, Bioprocess control parameters.
- Track 5-1Pipe Line Design, Laying, and Integration
- Track 5-2Intelligent Pigging—Pipelines
- Track 5-3Pipelines and geopolitics
- Track 5-4Pipeline Flow Assurance
- Track 5-5Mixing Fluid Streams
- Track 5-6Gas-grid injection
- Track 5-7Hazard identification
- Track 5-8Spill frequency-volume
- Track 5-9Benzene fate and transport
Offshore drilling is a mechanical process where a wellbore is drilled below the seabed. It is typically carried out in order to explore for and subsequently extract petroleum which lies in rock formations beneath the seabed. Most commonly, the term is used to describe drilling activities on the continental shelf, though the term can also be applied to drilling in lakes, inshore waters and inland seas.
Offshore drilling presents environmental challenges, both from the produced hydrocarbons and the materials used during the drilling operation. Controversies include the on-going US offshore drilling debate.
There are many different types of facilities from which offshore drilling operations take place. These include bottom founded drilling rigs (jackup barges and swamp barges), combined drilling and production facilities either bottom founded or floating platforms, and deep-water mobile offshore drilling units (MODU) including semi-submersibles and drill-ships. These are capable of operating in water depths up to 3,000 metres (9,800 ft). In shallower waters the mobile units are anchored to the seabed, however in deeper water (more than 1,500 metres (4,900 ft) the semisubmersibles or drill-ships are maintained at the required drilling location using dynamic positioning.
- Track 6-1Offshore Vessels
- Track 6-2Brownfield Management
- Track 6-3Rig Fleet Management
- Track 6-4Offshore Field Optimization
- Track 6-5Offshore Development
Upstream oil and gas operations identify deposits, drill wells, and recover raw materials from underground. This sector also includes related services, such as rig operations, feasibility studies, and machinery rental and extraction chemical supply. Many of the largest upstream operators are the major diversified oil and gas firms, such as Exxon-Mobil.
Midstream operations link the upstream and downstream entities. Midstream operations mostly include resource transportation and storage, such as pipelines and gathering systems. Kinder Morgan and Williams Companies are two examples of midstream firms.
Downstream operations include refineries and marketing. These services turn crude oil into usable products such as gasoline, fuel oils, and petroleum-based products. Marketing services help move the finished products from energy companies to retailers or end users. Marathon Petroleum and Phillips 66 are two noteworthy examples of downstream companies.
- Track 7-1 Midstream/Upstream Interface Optimisation
- Track 7-2Oil Refining Technologies
- Track 7-3EPC Capability & Capacity
- Track 7-4Transportation and Marketing Challenges
- Track 7-5Target Refining and Petrochemical Integration
- Track 7-6Natural-gas processing
- Track 7-7Natural gas condensate
- Track 7-8Hydrocarbon exploration
- Track 7-9Coal bed methane
- Track 7-10Streamline Simulation
Biopolymers are polymers created by living beings; as it were, they are polymeric biomolecules. Since they are polymers, biopolymers contain monomeric units that are covalently attached to shape bigger structures. There are three fundamental classes of biopolymers, ordered by the monomeric units utilized and the structure of the biopolymer framed: polynucleotides (RNA and DNA), which are long polymers made out of at least 13 nucleotide monomers; polypeptides, which are short polymers of amino acids; and polysaccharides, which are frequently straight fortified polymeric starch structures. Other cases of biopolymers incorporate elastic, suberin, melanin and lignin.
- Track 8-1Routes to drop-in monomers and bio plastics
- Track 8-2Flory–Huggins solution theory
- Track 8-3Biodegradable Polymers
- Track 8-4Bio-based Thermosetting Polymers
- Track 8-5Biopolymer Companies and Market
- Track 8-6Production and Commercialization
- Track 8-7Biomaterials and Biopolymers
- Track 8-8Biocomposite materials
- Track 8-9Plastic Pollution and Waste Management
- Track 8-10Industrial Biotechnology and Bio refineries
- Track 8-11Future and Scope for Biopolymers and Bio plastics
- Track 8-12Cossee-Arlman mechanism
Bioenergy describes any energy source based on biological matter – everything from an dung cooking fire or a biomass power station to ethanol-based car fuel. Unlike oil, coal or gas, bioenergy counts as a renewable energy option, because plant and animal materials can be easily regenerated. At present, bioenergy accounts for the majority of renewable energy produced globally.
Bioenergy is often considered to be environmentally friendly because, in theory, the CO2 released when plants and trees are burned is balanced out by the CO2 absorbed by the new ones planted to replace those harvested. However, the environmental and social benefits of bioenergy are hotly contested – especially in the case of biofuels, which are often produced from food crops such as palm oil, corn or sugar.
The biofuels is sometimes used interchangeably with bioenergy, though more commonly it's used specifically to describe liquid bioenergy fuels such as biodiesel (a diesel substitute) and bioethanol (which can be used in petrol engines).
- Track 9-1Production of Biofuels
- Track 9-2Greenhouse gas emissions
- Track 9-3BioEthanol for Sustainable Transport
- Track 9-4Biodiesel
- Track 9-5Bio-refineries
- Track 9-6Aviation biofuels
- Track 9-7Bioethanol
- Track 9-8Biogas
- Track 9-9Biomass
- Track 9-10Bioenergy Applications
- Track 9-11Ecological sanitation
This field 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.
Reorganization of a compound into smaller and simpler compounds, or compounds of lofty molecular weight, under elevated temperatures usually in the range of 400°C to 800°C to as high as 1400°C. It differs from combustion in that it occurs in the absence of air and therefore no oxidation takes place. The pyro-lytic disintegration of wood forms a large number of chemical substances. Some of these chemicals can be used as substitutes for conventional fuels. The dispersal of the products varies with the chemical composition of the biomass and the operating conditions.
- Track 10-1Kinetics and catalysis
- Track 10-2Characterization of pyrolysis reaction
- Track 10-3Gasification
- Track 10-4Polymer Engineering
- Track 10-5Environmental and green catalysis
- Track 10-6Photo catalysis and Nano Catalysis
- Track 10-7Karrick process
- Track 10-8Spectroscopy in Catalysis
- Track 10-9Organometallic catalysis and Organ catalysis
- Track 10-10Bio-catalysis and Bio-transformation
- Track 10-11Catalysis for Chemical Synthesis
- Track 10-12Applications of analytical pyrolysis
To produce materials for industry, like chemicals, plastics, food, agricultural and pharmaceutical products and energy carriers. Industrial biotechnology, which is often referred as white biotechnology utilizes microorganisms and enzymes. Waste generated from agriculture and forestry and renewable raw materials are used for the production of industrial goods. It also contributes to lowering of greenhouse gas emissions and moving away from a petrochemical based economy.
Bioprocess engineering is an essential component for rapid conversion of bio products from the laboratory to a manufacturing scale. This makes the benefits of biotechnology on a large scale at a reasonable cost for common people. Bioprocess engineering may include the work of mechanical, electrical, and industrial engineers to apply idea and knowledge of their domains and process based on using living cells.
- Track 11-1Molecular Biosensing, Biorobotics and Biomarkers
- Track 11-2Industrial and Chemical Biotechnology
- Track 11-3Petroleum Biotechnology and Green chemicals
- Track 11-4Pharmaceutical and Medical Biotechnology
- Track 11-5Microbial Biotechnology and Food Processing
- Track 11-6Bioinformatics, Systems Biology and Computational Biomedicine
- Track 11-7Biomaterials, Bio polymers & Biosensors
- Track 11-8Biochemistry and Protein Engineering
- Track 11-9Enzyme Engineering and Drug Discovery
- Track 11-10Biotechnology in Vaccine Production
- Track 11-11Environmental Biotechnology and Waste Water Management
Green chemistry otherwise called as sustainable chemistry, which is part of chemistry and chemical engineering focused on designing products and by minimizing the generation and use of hazardous substances .whereas, environmental chemistry focuses on the effects chemicals polluting the nature, green chemistry focuses on technological ways to prevent pollution and by reducing the consumption of non-renewable resources.
Catalysis is the defined as the substance which only alters the rate of the reaction without changing is nature. In order to achieve objectives of the Green chemistry, catalysis plays a fundamental role. The main goal of green chemistry is to provide an eco-friendly, reusable, recyclable and minimum waste production and green catalysis design the chemical products in a way that reduces or eliminates the use and generation of hazardous substances.
Application of Green chemistry and its application strongly support the development of greener concepts in process parameters, selection of compounds and resulting environmental aspects. Successful implementation of green chemistry research helps in analysing of new and existing green chemistry technologies are improving the environmental impacts of chemical products and processes with qualitative and quantitative benefits to the environment.
- Track 12-1Design of Next Generation Catalysis
- Track 12-2Nanotechnology and Green catalysis
- Track 12-3Smart-grid technology
- Track 12-4 Green Chemistry in Pharmaceuticals
- Track 12-5Green catalysis in Petrochemical Industries
- Track 12-6Green catalysis and Pollution control
- Track 12-7Enhanced geothermal system
- Track 12-8Green economy
Industrial gases are a group of gases that are specifically manufactured for use in a wide range of industries, which include oil and gas, petrochemistry, chemicals, power, mining, steelmaking, metals, environmental pollution, medicine, pharmaceuticals, biotechnology, food, water, fertilizers, nuclear power, electronics and aerospace. Their production is a part of the wider chemical Industry (where industrial gases are often seen as "speciality chemicals").
The principal gases provided are nitrogen, oxygen, carbon dioxide, argon, hydrogen, helium and acetylene; although a huge variety of natural gases and mixtures are available in gas cylinders. The industry producing these gases is known as the industrial gases industry, which is seen as also encompassing the supply of equipment and technology to produce and use the gases.
Whilst most industrial gas is usually only sold to other industrial enterprises; retail sales of gas cylinders and associated equipment to tradesmen and the general public are available through gas local agents and typically includes products such as balloon helium , dispensing gases for beer kegs, welding gases and welding equipment, LPG and medical oxygen.
- Track 13-1Gas Conversion Technologies
- Track 13-2Gas Compression
- Track 13-3Sources of Supply & Demand
- Track 13-4Gas Field Developments
- Track 13-5Gas Storage and Transport
Simulation modeling is the process of creating and analyzing a digital prototype of a physical model to predict its performance in the real world. Simulation modeling is used to help engineers understand whether, under what conditions, and in which ways a part could fail and what loads it can withstand. Simulation modeling can also help predict fluid flow and heat transfer patterns. Simulation modeling allows designers and engineers to avoid repeated building of multiple physical prototypes to analyze designs for new or existing parts. Before creating the physical prototype, users can virtually investigate many digital prototypes.
- Track 14-1Mathematical Modeling in Chemical Engineering
- Track 14-2Modelling of Bioprocesses
- Track 14-3Simulation and Separation Equipment Design
- Track 14-4Simulation, Optimization, Planning and Control of Processes
- Track 14-5Monte Carlo Method
- Track 14-6Agent-based Model
- Track 14-7Individual-Based Models
- Track 14-8Microscale and Macroscale Models
Nano chemistry can be characterized by concepts of size, shape, self-assembly, defects and bio-Nano; So, the synthesis of any new Nano-construct is associated with all these concepts. Nano-construct synthesis is dependent on how the surface, size and shape will lead to self-assembly of the building blocks into the functional structures; they probably have functional defects and might be useful for electronic, photonic, medical or bioanalytical problems. Nano Materials and Nanoparticle examination is right now a region of serious experimental exploration, because of a wide range of potential applications in biomedical, optical, and electronic fields. Nanotechnology is helping to considerably develop, even revolutionize, different technology and industry sectors: information technology, Renewable energy, environmental science, medicine, homeland security, food safety, and transportation, among others. Regenerative nanomedicine is one of the medical applications of nanotechnology. It ranges from the medical applications of nanomaterials to Nanoelectronics biosensors, and the future applications of molecular nanotechnology, such as biological machines. Nanomedicine sales reached $16 billion in 2015, with a minimum of $3.8 billion in nanotechnology R&D being invested every year.
- Track 15-1Nanoelectronics Biosensors
- Track 15-2Application and Commercialization of Nanotechnology
- Track 15-3Nano-Electromechanically Systems
- Track 15-4Organic Materials in Nanochemistry
- Track 15-5Nano Pharmaceutical Chemistry
- Track 15-6Drug Delivery
- Track 15-7Nano Enzymes
- Track 15-8Nanomedicine
- Track 15-9Nano Topography
- Track 15-10Tissue Engineering
- Track 15-11Biomedical Applications and Bioelectronics
The study of marine biology includes a wide variety of disciplines such as astronomy, biological oceanography, cellular biology, chemistry, ecology, geology, meteorology, molecular biology, physical oceanography and zoology and the new science of marine conservation biology draws on many longstanding scientific disciplines such as marine ecology, biogeography, zoology, botany, genetics, fisheries biology, anthropology, economics and law.
The marine drugs which are obtained from marine organisms are known as marine drugs. These marine drugs are used since ancient times. And interestingly, innumarable products derived from the marine organisms in several 'crude forms' have been widely used across the globe by the traditional practitioners for thousands of years.
- Track 16-1Deep Sea Mining
- Track 16-2Marine heavy metals poisoning marine toxicology
- Track 16-3Fisheries Biology and Management
- Track 16-4Coastal Ecology
- Track 16-5Ocean Bio-geochemistry
- Track 16-6Marine Geology
- Track 16-7Marine Chemical Biology
- Track 16-8Marine Natural Products Chemistry
- Track 16-9Marine Pollution
- Track 16-10Ocean Acidification
Pharmaceutical chemical engineering is a department of Chemical Engineering that mainly deals with the design and construction of unit operations that involve biological organisms or molecules, such as bioreactors. Its applications are in the petrochemical industry, food and pharmaceutical, biotechnology, and water treatment industries. A bioreactor may also refer to a device meant to grow cells or tissues in the ambience of cell culture. These devices are being developed for use in tissue engineering or biochemical engineering. Different types of Bioreactors are Photo bioreactor, Sewage treatment, Up and Down agitation bioreactor, NASA tissue cloning bioreactor, Moss bioreactor. The biomaterials market currently generates more than $30 billion globally, and is expected to increase at a double-digit CAGR in the next few years. Orthopaedic applications form the largest division of the overall biomaterials market. Polymer-based biomaterials are expected to initiate the next wave of market growth; and the future biochips and biosensors business segments also offer huge growth potential.
- Track 17-1New Concepts and Innovations
- Track 17-2Safety and Hazard Developments
- Track 17-3Chemical Reaction Engineering
- Track 17-4Chemical Reactors
- Track 17-5Process Design and Analysis
Environmental chemistry is the scientific review of the chemical and biochemical phenomena that occur in natural places. Environmental chemistry can be described as the study of the sources, reactions, transport, effects of chemical species in the air, soil, and water environments; and the effect of human activity on these. Environmental chemistry is an integrative science that includes atmospheric, aquatic and soil chemistry, as well as uses analytical chemistry. It is allied to environmental and other areas of science. It is different from green chemistry, which tries to trim potential pollution at its source.
Whereas Environmental engineering deals with the combination of sciences and engineering principles to develop the natural environment, to provide healthy air, water, and land for human habitation and for other organisms, and to procure pollution sites.
BCC research estimates that the global environmental sensor and monitoring business will grow from $13.2 billion in 2014 to nearly $17.6 billion in 2019, a compound annual growth rate (CAGR) of 5.9% for the period of 2014 to 2019. This report provides information on emerging growth areas, such as large-scale monitoring networks, analyses of global market trends, with data from 2013, estimates for 2014, and projections of compound annual growth rates (CAGRs) through 2019.
- Track 18-1Environmental Chemistry and Engineering
- Track 18-2Environmental Technologies and sustainability Metrics
- Track 18-3Renewable Energy Sources and Storages
- Track 18-4Chemical and Polymer Engineering
- Track 18-5Chemical and Polymer Engineering
- Track 18-6Environmental Hazards
- Track 18-7Environmental Geology
- Track 18-8Applications of Environmental Chemistry
- Track 18-9Environmental Toxicology and Mutagenicity
- Track 18-10Pollution Control Chemistry and Green Chemistry
- Track 18-11Human population growth and Environment
Pollution prevention reduces the amount of pollution generated by industry, agriculture, or consumers. In contrast to pollution control strategies which seek to manage a pollutant after it is emitted and reduce its impact upon the environment, the pollution prevention approach seeks to increase efficiency of a process, reducing the amount of pollution generated at its source. Although there is wide agreement that source reduction is the preferred strategy, some professionals also use the term pollution prevention.
- Track 19-1Biogeochemical cycles
- Track 19-2Natural resource management
- Track 19-3Bioreactor
- Track 19-4Desalination
- Track 19-5Wind turbine
- Track 19-6Hydrogen fuel cell
- Track 19-7Ocean thermal energy conversion
- Track 19-8Photovoltaic
- Track 19-9Thermal depolymerisation
Environment, Health & Safety (EHS) programs are so prevalent across global manufacturing organizations, at first thought, providing a definition can feel redundant and unnecessary. However, in the midst of emerging best practices, shiny new tools and technologies, and a plethora of metrics to capture and analyze events and actions
Environmental Health and Safety Managers work with and for organizations (private and public sector) to promote good working practices for employees. Mostly, they observe these organizations to ensure that they comply with environmental legislation regarding safety in the workplace. When they work in environmental roles, it is about ensuring that steps are taken to protect the environment from the actions of the organization, and ensuring that people are protected from the environment.
- Track 20-1Occupational Safety and Health
- Track 20-2Physical and Chemical hazards
- Track 20-3Radiological Hazards
- Track 20-4Hazardous Materials Management
- Track 20-5Construction and Decommissioning
- Track 20-6Wastewater and Ambient Water Quality
- Track 20-7Food Chemistry