Theme: Riding New Waves in Industrial Chemistry and Water Treatment

Industrial Chemistry and Water Treatment 2017

Industrial Chemistry and Water Treatment 2017

Chemistry Conferences-Water Conferences- On behalf of Industrial Chemistry and Water Treatment 2017 organizing committee, invites analytical expertise researchers, professors, scientific communities, delegates, students, business professionals and executives to attend to attend the “International Conference on Industrial Chemistry and Water Treatment” which is to be held during May 29-30, 2017 at Las Vegas, USA.

Chemistry Conferences-Water ConferencesIndustrial Chemistry and Water Treatment 2017 is an international platform for presenting research about chemistry and related fields thus contributes to the dissemination of knowledge for the benefit of both the academia and business. This event brings together the top professionals in the field along with the highly affiliated professors to explore the advancements and latest applications achieved in the field of Industrial chemistry and Water Treatment technology. Industrial Chemistry and Water Treatment 2017 discusses various fields of chemistry employed in Petroleum and Organic industrial chemistry, Industrial Polymers, Metals and Composites Chemistry, Industrial Processes, white biotechnology and Green Chemistry, Metallurgy and Material Science in Industrial Chemistry, Applied chemistry, Industrial Photo Chemistry, Pharmaceutical Chemistry, Clean water technology, Water Solutions and Strategies in chemical Industry, Reverse Osmosis and Nano filtration, Domestic Water Treatment, Desalination, Ultrapure Water Production, Industrial Water and Waste Water treatment, Boiler Water Treatment and Cooling Water Treatment, Applied Membranes and Nano membrane technology and chemical science fields which mark the support for the advanced and much needed research by their study on various topics. The scientific program will focus on current advances in the research in water treatment and use of chemistry and related with particular focus on its roles and applications in various fields and industries.

In the light of this theme, the conference series aims to provide a forum for international researchers from various areas of chemistry, pharmacy, Water technologies and life science by providing a platform for critical analysis of new data, and to share latest cutting-edge research findings and results about all aspects of industrial chemistry. Chemistry conferences provide a platform to detail the research work of expertise from various scientific backgrounds and the same can be perceived by young researchers and students. Chemistry Conferences-Industrial Chemistry and Water Treatment mainly aim to provide knowledge on chemistry involved in various industries and in water treatment.  In course of research work and therefore Industrial chemistry and Water Treatment 2017 would be a perfect venue to share and develop knowledge on Cemical industry, Various Industrial Processes, Different industries, Applied Chemistry and Water Treatment technology, Membranes and desaination.

This statistic represents the revenue of the water utility industry in the United States between 2000 and 2010. In 2000, this particular industry generated a revenue of approximately 29.9 billion U.S. dollars.
Water is a prerequisite for economic development. Water as a resource for production focuses on the economic value of the natural resource water. Different types of industries demand different quantities of water resources, and produce and dispose of different kinds of wastewater.

Agriculture uses 69% of the world's water withdrawal - including irrigation, livestock watering and cleaning, and aquaculture. The production of energy also requires water in processes such as thermal power plant cooling systems or lowering the water table for raw materials extraction.

In the US, chemical companies spend over $ 12 billion a year on environmental, health and safety programs. This has, for example, has led to the reduction of hazardous releases to the air, land and water by over 70 percent over the last 40 years. Another environmental measure concerns the use of energy. In the 20 years from 1990, the chemical industry in the US saved energy at the average rate of 2.1% and in Europe at more than 4%.

Track 1: Petroleum and Organic industrial chemistry

Chemistry Conferences: petrochemicals industry is broadly defined as that industrial activity which uses petroleum or natural gas as a source of raw materials and whose products are neither fuels nor fertilizer. The petrochemical industry begins with oil refineries or extracting plants built to remove ethane and higher hydrocarbons from natural gas streams; sometimes methane itself is used as a source material or feedstock. The industry is so varied that analysis by specific compound or class of compound is the most effective method of presentation. Industrial chemistry  today can be divided roughly into four major areas. In order of their current economic importance they are polymers, petrochemicals, synthetic materials (other than polymers), and miscellaneous organic materials lumped together under the general heading of "fine chemicals". The historic development and present industrial structure of each of these areas are different. Crude oil and raw natural gas and condensates are naturally occurring substances potentially containing thousands of individual chemicals called hydrocarbons. After crude oil is removed from the ground, it is sent to a refinery by pipeline industry, ship, or barge. In order to make finished petroleum products, these substances are separated at the refinery into different boiling fractions. Each of these fractions typically requires additional processing before they can be sold or blended into finished petroleum products like gasoline, diesel fuel, motor oil, etc. The separated fractions are often referred to as petroleum process streams” and are individual substances defined according to the last processing step that they have undergone.

Track 2: Industrial Polymers, Metals and Composites Chemistry

Chemistry Conferences-An overview of the chemical industry which looks at the industry in an international context.

Industrial Processes, Materials and Applications, Basic Chemicals, Polymers and Metals.
Industrial Metals: The extraction and the subsequent processing of metals are  based on chemical principles and so their inclusion on this site is important.  Further, the metals and alloys produced, as well as being essential for all our lives, are also used in many industrial chemical processes.
Aluminium, Copper, Iron, Lead, Magnesium, steel, Titanium, Zinc are the different metals
Industrial Polymers: They are used in so many ways, from furniture to surgical instruments, from clothing to buildings. three more recent areas of polymer development are introduced.  One is in the area of so-called speciality polymers, often produced in small amounts for specific purposes.  One such is the family of polyphonylsulfones.  Another group is the degradable polymers, developed in order to improve the environmental legacy of these important compounds.  A third area is in the development of composites. A composite is made by physically combining two or more materials (components) to produce a combination (blend) of structural properties not present in any individual component.  They can, for example, provide greater strength and rigidity than is found in any of the separate components while being as light as possible. Composites: Composites are being increasingly developed for a multitude of tasks. For example, fibre reinforced composites are being used to replace materials and their alloys.

Track 3: Industrial Processes, White Bio Technology and Green Chemistry

Chemistry Conferences-Greenhouse gas emissions are produced as the by-products of various non-energy-related industrial activities. That is, these emissions are produced from an industrial process itself and are not directly a result of energy consumed during the process. For example, raw materials can be chemically transformed from one state to another. This transformation can result in the release of greenhouse gases such as carbon dioxide (CO2), methane (CH4), and nitrous oxide (N2O). The processes addressed in this chapter include iron and steel production and metallurgical coke production, cement production, lime production, other process uses of carbonates (e.g., flux stone, flue gas desulfurization, and glass manufacturing, ammonia production and urea consumptionpetrochemical production, aluminum production, soda ash production and use, titanium dioxide production, CO2 consumption, ferroalloy production, glass production, zinc production, phosphoric acid production, lead production, silicon carbide production and consumption, nitric acid production, and adipic acid production.

industrial processes generated emissions of 326.5 teragrams of CO2 equivalent (Tg CO2 Eq., or 4.9 percent of total U.S. greenhouse gas emissions. 

Catalysis in industryChemical reactorsCracking and related refinery processesDistillationGreen ChemistryRecycling in Chemical Industry are the different industrial processes.

Track 4: Applied Chemistry

Chemistry Conferences-Applied chemistry, is often the bridge between chemistry and chemical engineering (large scale-process industries). Not only is it a study on the basic chemistry principles (organic chemistry, inorganic chemistry), it is also the study of analytical instruments and apparatus used in industrial work. More often than not, it is also the study of plant-based work, e.g. how does a heat exchanger work? How do we utilize the HPLC to the fullest. Applied and Analytical Chemistry laboratory focuses on two main areas: material - (IMO) and environmental research (CMK).Chemical & Environmental engineering will be equipped to work effectively across technical, research and strategic roles to respond to present and future challenges associated with sustainably meeting the needs of the national and global population. Applied material chemistry focus on the development of suitable analytical research strategies for advanced material system with the framework of their performance, structure, processing and specific applications. New adhesive could work underwater, in wet conditions for medicine and industry. Different new techniques in organic functional molecular chemistry and synthetic enzyme chemistry also leads to the new strategies in applied chemistry related to industrial chemistry.

Track 5: pharmaceutical Chemistry

Chemistry Conferences-Pharmaceutical Chemistry is that the science handling the composition and preparation of chemical compounds utilized in medical diagnoses and therapies. Medicinal chemistry and pharmaceutical chemistry square measure disciplines at the intersection of chemistry, particularly especially synthetic organic chemistry, and pharmacology and numerous alternative biological specialties, wherever they're committed style, chemical synthesis and development for market of pharmaceutical agents, or bio-active. Pharmaceutical chemistry encompasses drugs design, drug developed, drug synthesis , and also the analysis of drug effectivity (how effective it's in treating a condition) and drug safety. before the nineteenth century, colleges of pharmacy trained pharmacists and physicians the way to prepare medicative remedies from natural organic product or inorganic materials. By discovering and structurally characterizing compounds with medicative activity, chemists square measure ready to style new medicine with increased efficiency and shriveled adverse side effects.

Track 6: Metallurgy and Material Science in Industrial Chemistry

Chemistry Conferences - Metallurgy is a domain of materials science  and engineering that studies the physical and chemical behaviour of metallic materials and elements, their intermetallic compounds, and their mixtures, which are called alloys. Materials science, also commonly known as materials science and engineering or metallurgic engineering, is an interdiscals with the discovery and design of new materials, with an emphasis on solids. Powder metallurgy, or PM, is a recognized green technology and process for forming metal parts by heating compacted  metal  powders to just below their melting points. Main areas of metallurgy includes physical metallurgy, extractive metallurgy  and the new developments in manufacturing process. The challenge of new materials in aerospace industry and the new strategies in thermodynamics involved in metallurgy industry will give the scope for advanced development in metallurgic industry.

Track 7: Photo Chemistry

Chemistry ConferencesPhotochemistry can be uniquely interesting from a mechanistic-organic or physical-organic perspective, because photochemical reactions allow study not only of starting materials and products, but quite often of the short-lived intermediates that we write to account for reactions. As a result, we can get a terrifically detailed picture of what is going on in a chemical reaction. The study of chemical reactions, isomerizations and physical behaviour that may occur under the influence of visible and/or ultraviolet light is called Photochemistry. In an attempt to understand and improve the inorganic photochemistry of the photographic process numerous scientists in industrial laboratories studied the interaction of light with silver halides. Another form of imaging however has recently gained a lot of attention. Photo polymerisation methods for the manufacture of printed and integrated circuits are studied in great detail. It is in this area that organometallic photochemistry has been put to work. In up-scaling photo chemical reactions, industrial preparative photo chemistry has not lost its image as an attractive tool for the synthesis of fine chemicals. Photochemistry can be uniquely interesting from a mechanistic-organic or physical-organic perspective, because photochemical reactions allow study not only of starting materials and products, but quite often of the short-lived intermediates that we write to account for reactions. Solar energy conversion in photo reaction and photo chemistry in electronics are the different techniques in photo chemistry related to the industrial chemistry.

Track 8: Desalination

Water Conferences-Desalination is a process that removes minerals from saline water. More generally, desalination refers to the removal of salts and minerals from a target substance, as in soil desalination, which is an issue for agriculture. Saltwater is desalinated to produce water suitable for human consumption or irrigation.

Industrial desalination has come a long way in the last several years, particularly with respect to the field of oil and gas. Ongoing developments with innovative trends and technologies across the nation both onshore and offshore have brought large-scale improvements to the industry. These advancements are paving the way for oil and gas desalination processes to be more water-conscious, cost-competitive and energy-efficient.

In the United Statesindustrial desalination is growing more prominent and is an essential component for reusing and repurposing saline water for critical processes, as well as providing sustainable sources of fresh water for various applications. According to the Congressional Research Service (CRS), approximately 2,000 desalination plants larger than 0.3 million gallons per day are in operation around the country, representing more than 2.4 percent of freshwater use. Further, it noted that the industrial sector accounts for about 18 percent of total U.S. desalination capacity.
Desalination/distillation is one of mankind's earliest forms of water treatment, and it is still a popular treatment solution throughout the world today. In ancient times, many civilizations used this process on their ships to convert sea water into drinking water. Today, desalination plants are used to convert sea water to drinking water on ships and in many arid regions of the world, and to treat water in other areas that is fouled by natural and unnatural contaminants. Distillation is perhaps the one water treatment technology that most completely reduces the widest range of drinking water contaminants.

Track 9: Membrane Technology-Nano Filtration and Reverse Osmosis

Water Conferences-Recent developments in technology have resulted in breakthroughs in wastewater treatment and reclamation for water reuse. This progress includes membrane technology, which has emerged as a significant innovation for treatment and reclamation, as well as a leading process in the upgrade and expansion of wastewater treatment plants.

Membrane technologies for wastewater treatment are following:

Membrane bioreactors

Low-pressure membranes

High-pressure membranes

Nano filtration is a technique that has prospered over the past few years. Today, nano filtration is mainly applied in drinking water purification process steps, such as water softening, decolouring and micro pollutant removal.

During industrial processes nano filtration is applied for the removal of specific components, such as colouring agents.

Reverse Osmosis is based upon the fundamental pursuit for balance. Two fluids containing different concentrations of dissolved solids that come in contact with each other will mix until the concentration is uniform. When these two fluids are separated by a semi permeable membrane (which lets the fluid flow through, while dissolved solids stay behind), a fluid containing a lower concentration will move through the membrane into the fluids containing a higher concentration of dissolved solids. Two types of membranes are most commonly used. These are cellulose acetate based and polyamide composites.

Track 10: Industrial Water and Waste Water treatment (Boiler & Cooling Water Treatment)

Water Conferences-Industrial process water must be of an appropriate quality to ensure that products comply with required quality standards and that the manufacturing process is both efficient and controllable. Water is a very important medium in a wide range of industries, where it is normally encountered as raw water, process water or as wastewater. This water needs to be treated prior to entering the process to ensure that its quality and properties will support the industrial process as effectively as possible. At least it needs to be ensured that it will cause minimal damage to process equipment. Furthermore, a clear trend today among industries that use large amounts of water, such as steel, food & beverage, etc., is to recycle and reuse water to an increasingly high degree, thereby reducing water consumption as well as pollution – all of which lead to cost reductions. Finally the wastewater needs to be treated so that it can be released into the municipal sewer systems or to the recipient and ultimately back into its source.

It is broadly divided into the following:

Boiling Water TreatmentCooling water Treatment and Industrial waste water Treatment

Water chemistry properties have a direct impact on the four main problems of cooling water systems; corrosion, scale, fouling, and microbial contamination. These properties also affect the treatment programs designed to control the problems. Those are Conductivity, PH, Alkalinity, hardness. Three basic designs are 1.Open recirculating systems 2. Once- through systems 3. Closed recirculating systems

Track 11: Clean and Drinking Water Technology

Water ConferencesClean water Technology and Drinking Water Technology: The new and emerging technologies that will help business overcome the scarcity of clean, fresh water. The approach embraces new instrumentation and analytical technologies, innovation comes from a change in mind set that emphasises the importance of measuring and forecasting.

Lead in drinking water has become a very visible issue of considerable concern over the last few months.  While municipalities across America have been scrutinizing the quality of their drinking water, it should at least be some consolation that manufacturers of measurement instrumentation have taken serious steps to assure that they are not.

Hopefully this conference would be a great platform to emerge new concepts and technologies and discuss the problems and solutions to overcome the water problem all over the world. We are inviting scientists, researchers, business people, Academia to share their views and knowledge.

Track 12: Ultrapure Water Production

Water Conferences-Ultrapure water is water that has been purified to uncommonly stringent specifications. Ultrapure water is a commonly used term in the semiconductor industry to emphasize the fact that the water is treated to the highest levels of purity for all contaminant types, including: dissolved and particulate matter; volatile and non-volatile, organic and inorganic compounds; reactive and inert; and dissolved gases and hydrophilic and hydrophobic matter.

Deionized water and Ultrapure Water is different. In addition to the fact that UPW has organic particles and dissolved gases removed, a typical UPW system has three stages: a Pretreatment stage to produce purified water, a primary stage to further purify the water in treatment, and a polishing stage of water treatment, the most expensive part of the treatment process.

Ultrapure Water can be useful to so many different industries: Food and Beverage IndustryCosmetics IndustryPharmaceutical Industries, Electronic Component Manufacturing, Research Laboratories, Chemical Plants, medical Products Manufacturing.

Track 13: Nano Technology involved in Industrial Chemistry and Water Treatment

Chemistry Conferences-Water Conferences -Nanotechnology is science, engineering, and technology conducted at the nanoscale, which is about 1 to 100 nanometers. Nanotechnology in water treatment Nano materials have unique size-dependent properties related to their high specific surface area (fast dissolution, high reactivity, strong sorption) and discontinuous properties (such as super para magnetism, localized surface plasmon resonance, and quantum confinement effect). These specific nano based characteristics allow the development of novel high-tech materials for more efficient water and waste water treatment processes. Research in engineering of polymers and nano technology primarily focuses on efforts to design advanced materials at a molecular level to achieve desirable properties and applications at a macroscopic level. With this broad focus, research ranges from fundamental scientific investigations of the interactions, properties and assembly of such molecular constituents to applied, engineering efforts that translate such fundamental information to futuristic technological advances. New developments and research in nano science and technology in another way leading to the development of industrial chemistry.  Fullerenes are very interesting molecules in themselves and provide a way into studying carbon nanotubes in terms of their structure of molecules and applications in nanotechnology.

Market Analysis

Chemistry is the branch of science concerned with the substances of which matter is composed, the investigation of their properties and reactions, and the use of such reactions to form new substances.

Industrial Chemistry and Water Treatment 2017 provides the chance for researchers, practitioners and educators to present and discuss the most recent innovations, trends, and concerns, practical challenges encountered and the solutions adopted in the fields.

Industrial Chemistry and Water Treatment 2017 is an international platform for presenting research about chemistry and related fields thus contributes to the dissemination of knowledge for the benefit of both the academia and business. This event brings together the top professionals in the field along with the highly affiliated professors to explore the advancements and latest applications achieved in the field of l chemistry. Industrial Chemistry and Water Treatment 2017 discusses various fields of chemistry employed in Petroleum and Organic industrial chemistry, Industrial Polymers, Metals and Composites Chemistry, Industrial Processes, white biotechnology and Green Chemistry, Metallurgy and Material Science in Industrial Chemistry, Applied chemistry, Industrial Photo Chemistry, Pharmaceutical Chemistry, Clean water technology, Water Solutions and Strategies in chemical Industry, Reverse Osmosis and Nano filtration, Domestic Water Treatment, Desalination, Ultrapure Water Production, Industrial Water and Waste Water treatment, Boiler Water Treatment and Cooling Water Treatment, Applied Membranes and Nano membrane technology and chemical science fields which mark the support for the advanced and much needed research by their study on various topics. The scientific program will focus on current advances in the research and use of chemistry and related with particular focus on its roles and applications in various fields.

Why Las Vegas?

Las Vegas is the most populous city in Nevada, the seat of Clark County, and an internationally renowned major resort city for gambling, shopping and fine dining. Las Vegas, which bills itself as The Entertainment Capital of the World, is famous for the number of casino resorts and associated entertainment. A growing retirement and family city, it is the 31st most populous city in the United States.

It is situated within Clark County in an arid basin on the desert floor, surrounded by dry mountains. The Spring Mountains lie to the west. Much of the landscape is rocky and dusty; the environment is dominated by desert vegetation and some wildlife, and the area is subject to torrential flash floods. Within the city there are many lawns, trees, and other greenery. Due to water resource issues, there is now a movement to encourage xeriscapes. Another part of the water conservation efforts include scheduled watering groups for watering residential landscaping. Las Vegas’ climate is a subtropical, hot desert climate typical of the Mojave Desert in which it lies. The city enjoys abundant sunshine year-round: it has an average of about 300 sunny days per year with more than 3,800 hours of sunshine.

The city is home to several museums including the Neon Museum home to many of the historical signs from the valley, The Las Vegas Museum of Organized Crime and Law Enforcement, the Las Vegas Natural History Museum, Lied Discovery Children’s Museum National Atomic Testing Museum, and the Old Las Vegas Mormon State Historic Park.

Las Vegas’ climate is a subtropical, hot desert climate typical of the Mojave Desert in which it lies. The city enjoys abundant sunshine year-round; it has an average of about 310 sunny days per year. It is virtually free of tornadoes and ice storms. The summer months of June through September are very hot and mostly dry, with a July daily average temperature of 92.5 °F (33.6 °C), while night time temperatures often remain above 80 °F (27 °C). Las Vegas’ winters are short and the season is generally mild. December, the coolest month, averages 47.7 °F (8.7 °C). The mountains surrounding Las Vegas accumulate snow during the winter, but snow is rare in the Las Vegas Valley itself.

Target Audience:

Directors, President & CEO’s from companies, Chemical Instrument Vendors Professors and Students from Academia in the study of Chemical Engineering, water treatment, Industrial Chemistry Sciences. Delegates from various Chemical Industries, Water treatment Industries from all over the world.

Market Analysis:

This statistic represents the revenue of the water utility industry in the United States between 2000 and 2010. In 2000, this particular industry generated a revenue of approximately 29.9 billion U.S. dollars.
Water is a prerequisite for economic development. Water as a resource for production focuses on the economic value of the natural resource water. Different types of industries demand different quantities of water resources, and produce and dispose of different kinds of wastewater.

Agriculture uses 69% of the world's water withdrawal - including irrigation, livestock watering and cleaning, and aquaculture. The production of energy also requires water in processes such as thermal power plant cooling systems or lowering the water table for raw materials extraction.

FAO reports that global water withdrawal increased from less than 600 km3/year in 1900 to almost 4,000 km3/year in 2010. According to the OECD "Environmental Outlook to 2050", global demand for water is projected to increase by 55% between 2000 and 2050, mainly driven by a 400% increase in demand from the manufacturing sector.  Proper water management for production purposes is getting more and more important as the manufacturing sector is just one of many stakeholders dependent on this natural resource. The report explores the main policy responses governments should consider to address the challenges of increased water demand.

In the US, chemical companies spend over $ 12 billion a year on environmental, health and safety programs. This has, for example, has led to the reduction of hazardous releases to the air, land and water by over 70 percent over the last 40 years. Another environmental measure concerns the use of energy. In the 20 years from 1990, the chemical industry in the US saved energy at the average rate of 2.1% and in Europe at more than 4%. This also reduces the emissions of carbon dioxide into the atmosphere, at a rate of nearly 2.5% and 6% per annum in the US and EU, respectively.  Regulations are in force in every major country. In Europe, they are enforced through REACH (Registration, Evaluation Authorisation and restriction of Chemicals). They are fundamentally changing the way chemicals are made, sold and used, by providing a single standardised framework for the safe management of chemicals. REACH places the responsibility on both manufacturers and importers to ensure that all chemicals produced in quantities greater than one tonne a year do not adversely affect human health or the environment. The industry provides comprehensive documented information for all qualifying chemicals and related substances, enabling users of the chemicals to ensure that adequate controls are in place. Chemicals which are produced in amounts of 1000 tonnes or more per year must have been registered by Dece

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