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9th World Congress on Green Chemistry and Technology, will be organized around the theme “Catalyzing Innovative Technologies and Valuation Approaches in Green Chemistry for a Sustainable Tomorrow”

Euro Green Chemistry-2018 is comprised of keynote and speakers sessions on latest cutting edge research designed to offer comprehensive global discussions that address current issues in Euro Green Chemistry-2018

Submit your abstract to any of the mentioned tracks.

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

Green chemistry competently utilizes raw materials, eliminates waste and avoids the use of toxic and/or hazardous reagents and solvents in the manufacture and application of chemical products. Paul Anastas formulated some simple rules that how sustainability can be achieved in the production of chemicals - the "Green chemical principles". The concept is exemplified with 12 Principles of Green Chemistry.  Green chemistry reports the environmental impact of both chemical products and the processes by which they are produced. Green chemistry reduces waste at source, i.e. it is primary pollution prevention rather than waste remediation. The field of "green technology" encompasses a continuously evolving group of methods and materials, from techniques for generating energy to non-toxic cleaning products.

  • Track 1-1Green chemistry education
  • Track 1-2Principles in Green Chemistry
  • Track 1-3Atom Economy
  • Track 1-4Green metrics and Greenness evaluation
  • Track 1-5Hierarchical Approach
  • Track 1-6Green Extraction Techniques
  • Track 1-7Sub and Super-critical Fluid Technology
  • Track 1-8Future Challenges in Green Chemistry and Engineering

Applications of green chemistry include the use in pharmaceutical industry, along with new methodologies that decrease or eliminate the use of solvents, or render them safer and more effective. Green chemistry has also motivated numerous ways to synthesize petroleum-based chemicals from biological materials instead, regularly plant matter or waste. Green chemistry has different industrial applications in Designing Safer Chemicals Production, Food & Flavor Industry, and Green Technologies in the Pharmaceutical Industry, Paper & Pulp Industry, Polymer Industry, Sugar & Distillery Industries, Textile and Tannery Industry and Green Chemistry in Agrochemicals. Green chemistry also plays an important role in alternate energy science, and the production of novel methods to make solar cells, fuel cells, and batteries for energy storage. Self-assembling molecules uses bio-based plant materials which also involves green chemistry principles. The main goal of green chemistry is to reduce or eliminate waste in the manufacture of chemicals and its allied products, which has inspired the design of green next generation catalysts. Other developments in green chemistry are the trend toward redesigning chemical products to reduce their risk.

In Pharmaceutical Industry : Chemical industries have been influenced by Green Chemistry and Engineering principles. The pharmaceutical industry is very responsive to these greener industrial alternatives. The pharmaceutical industry is embracing more and more green processes and innovative technology operations in research departments of many drug manufacturers are advancing new green methodologies, biocatalysis reactions, less solvents and cuts in waste production, and at the same time introduced safety and health regulations to protect their workers.

In Agrochemicals: Chemically synthesized agrochemicals are harmful to the environment as they are non-biodegradable and are produced by environmentally unfriendly processes. They also affect human and animal health by entering through the food chain. Therefore, to successfully reap the benefits of crop protection products without compromising the environment and human health, going forward, it is essential that producers and users of crop protection products to focus the following elements: 1. Shift to green chemistry manufacturing processes 2. Develop "green" agrochemicals 3. Use crop protection products judiciously. The Agrochemical Industry is witnessing a gradual shift towards implementation of green practices.

In Polymer Industry: Polymer reaction engineering is a prime target for transformation towards greater sustainability. This transformation is being made possible via the 12 principles of green chemistry. Enormous opportunities from the replacement of solvents to the use of less toxic monomers in polymer production. The use of renewable feedstocks is a highly active area of research, despite limitations to the supply of these feedstocks. Achieving the use of safer solvents and reaction conditions also appears to have elicited significant research effort.

In Textile Industry: The textile industry is reflected as the most ecologically unsafe industry in the world. Recently different steps have been taken to make textile processing greener. These include use of greener fibres, greener solvents, eco-friendly, greener dyes and auxiliaries, optimised and efficient processing, bio-processing, recycled textiles, biodegradable surfactants, greener preparation and dyeing, eco-friendly flame retardants, water and chemicals and elimination of hazardous chemicals. In paper and textile industry, efforts are being made to develop new greener techniques, which results in reduction in water usage, time, and energy in textile processing.

In Food IndustryA number of developed countries have developed and adopted a strategy of sustainable development in food industry as well as solutions for strengthening sustainable technologies in food production and processing. Zero emission concept case studies are related to sustainability food industry.

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  • Track 2-1Designing Safer Chemicals Production
  • Track 2-2Food & Flavor Industry
  • Track 2-3Green Technologies in the Pharmaceutical Industry
  • Track 2-4Paper & Pulp Industry
  • Track 2-5Polymer Industry
  • Track 2-6Sugar & Distillery Industries
  • Track 2-7Textile and Tannery Industry
  • Track 2-8Green Chemistry in Agrochemicals
  • Track 2-9Waste minimization in drug discovery

Green solvents are environmentally friendly solvents, which are derived from the processing of agricultural crops. The most common green solvents are water, supercritical carbon dioxide, and room temperature ionic liquids. Deep eutectic solvents (DES) are being explored as potential green solvents for organic reactions. Green solvents are generally derived from renewable resources and biodegrade to innocuous. Some regularly used green solvents are Methanol, nitromethane, acetone, ethanol, DMF, DMSO, HMPA, acetonitrile, pyridine, ammonia etc.

  • Track 3-1Environmentally Benign Solutions
  • Track 3-2Fluorous Biphasic Solvents
  • Track 3-3Fluorous Biphasic Solvents
  • Track 3-4Organic Solvents
  • Track 3-5Ionic Liquids
  • Track 3-6Solvent-less reactions
  • Track 3-7Supercritical Fluids

Catalysis is the key to sustainability. Catalyst is a matter that hastens a chemical reaction. The application of catalysis to decrease toxicity and renewable energy systems, and efficiency makes it a centre area for green chemistry research. Green and sustainable catalyst should possess higher activity, higher selectivity, efficient recovery from reaction medium, recyclability, cost effectiveness. In recent times the development of catalysts for processes to replace conventional ones has made a significant involvement to the reduction of environmental pollutants. So, there is an increasing interest on the topic of green catalysis recently. It not only comprises emerging new catalysts which can offer stable, highly effective catalytic performances, but also considers the application of environmentally friendly catalyst preparations. Some of them are nanocatalysts, perovskite type catalysts and green catalysts are used in different types of advanced oxidation processes.

  • Track 4-1Biocatalysis Including Novel Enzymes
  • Track 4-2Green Organocatalysis
  • Track 4-3Homogenous Catalysis & Heterogenous Catalysis
  • Track 4-4Phase-Transfer Catalysis
  • Track 4-5Biocatalysis and biotransformation
  • Track 4-6Photocatalysis
  • Track 4-7Catalysis for Sustainability
  • Track 4-8Catalysis for Plant-Based Chemicals and Fuels
  • Track 4-9Electrocatalysis for CO2 and H2O Conversion to Fuels and Chemicals

Environmental chemistry may be defined as the study of the reactions, sources, transport, effects, and fates of chemical species in water, air, soil, and living environments, and the effects of technology. Environmental chemistry is a branch of chemistry, containing features related to organic chemistry, physical chemistry, analytical chemistry, and inorganic chemistry as well as more diverse areas, such as public health, biochemistry, toxicology, and epidemiology. Environmental chemistry is the study of chemical processes happening in the environment which are impacted by mankind's activities and the impacts may be felt through the presence of air pollutants or toxic substances from a chemical waste site, or through depletion of ozone layer which may affect global warming. The present environmental issues leads to the remediation of environmental media, and to new, low energy, low emission, and sustainable processes. Environmental chemistry explains concerning the pollution of air, water, food and living organisms by toxic metals, soils, fossil fuels, pesticides and organic pollutants. Green chemistry enlightens novel chemical reactions which are environmentally friendly and controls the pollution. 

  • Track 5-1Methods of Environmental Analysis
  • Track 5-2Soil Pollution and Remediation, Solidwaste Disposal
  • Track 5-3Environmental Control Technology of Air, Water and Soil Pollution
  • Track 5-4Sample Pretreatment Technology
  • Track 5-5Climate Change Mitigation
  • Track 5-6Waste management and recycling
  • Track 5-7Environmental modelling
  • Track 5-8Ecotoxicology and Health Effect

The objective of green analytical chemistry is to use analytical procedures that generate a smaller amount hazardous waste and that are safer to use and more benign to the environment. Miniaturisation of analytical devices and shortening the time elapsing between performing analysis and obtaining reliable analytical results are important aspects of green analytical chemistry. Solvent less extraction techniques, the application of alternative solvents and supported extractions are considered to be the key approaches complying with green analytical chemistry principles. Green analytical techniques include Capillary Electrophoresis, Green Analytical Atomic Spectroscopy, Green Bioanalytical Chemistry, Green separation techniques, Green Chromatography, Green Instrumental Analysis, Green Sampling Techniques, and Green Electroanalytical Methods etc.

  • Track 6-1Green Bioanalytical Chemistry
  • Track 6-2Green separation techniques
  • Track 6-3Green Analytical Atomic Spectroscopy
  • Track 6-4Green Chromatography
  • Track 6-5Capillary Electrophoresis
  • Track 6-6Green Environmental Analysis for Water, Wastewater and Effluent
  • Track 6-7Green Instrumental Analysis
  • Track 6-8Green Sampling Techniques
  • Track 6-9Greening Electroanalytical Methods
  • Track 6-10IR Spectroscopy in Biodiagnostics: Green Analytical Approach
  • Track 6-11Micro and Nanotechnology in Green Analytical Chemistry

Green food production often suggests organic farming practices a few centuries ago. This type of farming uses a small area of land for crops and another area for grazing beef, sheep, and goat. Farm entities were almost always self-sufficient with no use of pesticides or herbicides and the only fertilizer used was manure. Organic farming suits the notion of a green technology. Primary, secondary, and tertiary processing techniques are discovered to transform raw produce into value-added foods and ingredients. Primary processing techniques such as cleaning, grading, dehulling, sorting, and milling are used as initial step in processing most of the grains. One of the most promising technological approaches to decrease environmental footprint in food processing is the use of enzymes. As biological catalysts, enzymes speeds up reaction rates and results in savings in terms of time, energy, and cost. Food enzymes provide advantages in terms of specificity, sensitivity, their relative non-toxicity, high activity at low concentrations, and ease of inactivation. Enzymatic approaches entail milder treatments and/or mild reaction conditions, thus are more environmental friendly and would protect the environment better compared to traditional methods.

  • Track 7-1Environmental performance of organic farming
  • Track 7-2Managing nutrient cycles in crop and livestock with green techniques
  • Track 7-3Reduce carbon footprint
  • Track 7-4Green separation technologies
  • Track 7-5Electrodialysis in food processing
  • Track 7-6Enzyme assisted food processing
  • Track 7-7Green technologies in food dehydration
  • Track 7-8Green packaging

The use of polymers is increasingly more common for many applications in modern society; polymer science is able to make diverse contributions to the rapidly growing field of green chemistry. Polymer science offers manifold possibilities for the sustainable use of renewable raw materials. Creating sustainable polymers represents a diverse effort to utilize a broad range of renewable resources such as lignin, triglycerides, polysaccharides, monoterpenes, furans, lactides and natural rubber. Designing polymers and developing polymerization processes that are safe, prevent pollution, and are more efficient in the use of materials and energy is an important topic in modern chemistry. Today, green polymer research can be seen increasingly in academia and industry. It tackles all aspects of polymers and polymerization - everything from chemical feed stocks, synthetic pathways, and reaction media to the nature of the final polymer as related to its inherent nontoxicity or degradability. 

  • Track 8-1Plant oils as renewable feedstocks for polymer science
  • Track 8-2Enzymatic polymer synthesis in green chemistry
  • Track 8-3Green Cationic Polymerizations
  • Track 8-4Degradable & biodegradable polymers
  • Track 8-5Nanocomposites
  • Track 8-6Green Polymers and polymer composites

Green chemical engineering is considered as efficient means of achieving sustainable development in chemical industrial processes. It can be divided into two main categories like Green product engineering and Green processes engineering. Green product engineering states to the engineering design, development, and changeover to manufacturing of green chemical products, or to the manufacturing of products through green production processes. Green product engineering usually deals with issues related to cost, producibility, quality, performance, reliability, intended lifespan etc. Green process engineering emphases on the design, operation, control, optimization, and intensification of chemical, physical, and biological processes for sustainable development. Researchers in this field strive to solve scientific problems in resource-efficient conversion and process upgrades in order to create inventive and original technology platforms for the development of clean industrial processes.

  • Track 9-1Chemical reaction engineering
  • Track 9-2Green reactor modelling
  • Track 9-3Kinetics, catalysis & chemical reactors
  • Track 9-4Green chemical processess and applications

Green nanotechnology can influence the proposal of nanomaterials and products by reducing pollution from the production of the nanomaterials, taking a life cycle approach to nanoproducts to estimate and diminish where environmental impacts might occur in the product chain, designing toxicity out of nanomaterials and using nanomaterials to treat existing environmental problems. Green nanotechnology has built on the principles of green chemistry and green engineering. To one side from the evident areas of using nanomaterials in the areas of biofuels, solar cells, and fuel cells, green nanotechnology applications might also involve a clean production process, such as producing nanoparticles with sunlight;  the recycling of industrial waste products into nanomaterials.

  • Track 10-1Green production technology of Nanocomposites
  • Track 10-2Nanotechnology in production of Bioactive paints, Coatings
  • Track 10-3Green nanostructured biodegaradable materials
  • Track 10-4Nanotechnology in Agriculture
  • Track 10-5Energy & water conservation
  • Track 10-6Waste reduction
  • Track 10-7Cleaner production practices in Dairy, Paper, Pulp, textile, Glass industry

Waste valorization is the process of getting waste and converting it into useful chemicals that can be utilized, whose value is beyond the cost of the energy has needed to process the transformation. Waste Valorization states that any industrial processing activity targeted for reusing, recycling, composting from wastes, and sources of energy. It regularly takes the form of one of the following activities: processing of residue or by-products into raw materials, use of waste materials in manufacturing process stages, and addition of waste materials to finished products. During the past years, many market sectors like transportation biofuels, heat and power generation and charcoal production started focusing on new technologies able to transform low quality (no cost) materials in high value products.

  • Track 11-1Green processing technologies
  • Track 11-2 Pyrolysis and bioengineering
  • Track 11-3Waste Valorization Strategies: Case Studies
  • Track 11-4Valorization of agricultural and municipal waste
  • Track 11-5Valorization of food waste for bioenergy

Reactions play the most major role in synthesis. The thought of Green Chemistry appeals for the development of new chemical reactivity’s and reaction conditions that can potentially provide benefits for chemical syntheses in rapports of resource and energy efficiency, product selectivity, operational simplicity, and health and environmental safety. Some of green reaction methods include atom economy where the reaction seeks to maximize the incorporation of the starting materials into the final product of any given reaction; flow reactors where importance to greener syntheses is the development of tandem and cascade reaction processes that incorporate as many reactions as possible to give the final product in single operation; In biocatalysis where the potential usefulness of various catalysts such as enzymes, whole cells, and catalytic antibodies for organic synthesis has become more recognized.

  • Track 12-1Aqueous Phase reactions
  • Track 12-2Biocatalysts in Organic Synthesis
  • Track 12-3 Safer Reagents for Synthesis
  • Track 12-4Microwave Induced Green Synthesis
  • Track 12-5Organic Synthesis in Solid State
  • Track 12-6Green Reaction Media and Related Green Initiatives
  • Track 12-7Phase-Transfer Catalysis in Green Synthesis
  • Track 12-8Ultrasound Assisted Green Synthesis

Green energy is originated from natural resources such as sunlight, tides, rain, plants, wind, algae and geothermal heat. The above mentioned energy sources are renewable in nature that means they're naturally replenished. Renewable energy resources also have impact on the environment than the fossil fuels which produces pollutants like greenhouse gases as by-product which contributes to climate change. Green energy on the other hand utilizes all the energy sources that are readily available. Advanced renewable energy techniques have decreased the cost of solar panels, wind turbines and other resources of green energy. Different types of green energy includes solar, wind, hydro, geothermal, biomass and biofuels. Green chemistry approach towards the renewable resources can be made increasingly usable technically and economical. There is a broad range of spectrum for renewable feed stocks which includes trees, grasses, shrubs, marine sources wastes which is used for development of new, sustainable, low environmental encounter routes to produce useful chemical products, and biofuels.

  • Track 13-1Biofuels and bioenergy
  • Track 13-2CO2 capture, storage and utilization
  • Track 13-3Energy storage and network
  • Track 13-4Green solvents for energy conversion
  • Track 13-5Hydrogen energy and fuel cells
  • Track 13-6Renewable Storage Technologies
  • Track 13-7Solar Photovoltaics
  • Track 13-8Biorefinery
  • Track 13-9Chemicals from Renewable Resources
  • Track 13-10Greenhouse Gases
  • Track 13-11Hydrogen & Syngas Economy
  • Track 13-12Wind & Geothermal Energy

Green Engineering is defined as environmentally conscious about attitudes, values, and principles, combined with science, technology, and engineering practice, all directed toward improving local and global environmental quality. Green Engineering encompasses all of the engineering disciplines, and is consistent and compatible with sound engineering design principles. The field of green engineering follows the philosophy that designing and producing should minimize damage to humans and the environment, which will cause the products and processes to be more cost effective in the long run. Therefore, green engineering is actually a way to make many of the things people use in everyday life more efficient, safe, and long-lasting. As green engineering is a category of the field that many sub-sets fall under, green engineers come from areas such as industrial engineering, civil engineering, and electrical engineering. In fact, all engineers can utilize green engineering principles regardless of the specific area of engineering that they are focused on. The field of green engineering relies on certain principles such as minimizing waste and minimizing the use of natural resources that are not sustainable. Sustainable materials are those that are not easily depleted in nature. 

  • Track 14-1Sustainable Engineering Designs
  • Track 14-2Process Intensification
  • Track 14-3Materials Management
  • Track 14-4Separations and Unit Operations
  • Track 14-5Sustainable Separation Processess
  • Track 14-6Integrated Water Management
  • Track 14-7Desingning Low Energy Intensity Alternatives
  • Track 14-8Water Conservation and Supply
  • Track 14-9Energy Savings

Green manufacturing is the restitution of production processes and the formation of environmentally-friendly operations within the manufacturing field. Basically, it is greening of manufacturing, in which we use fewer natural resources, recycle and reuse materials, reduce pollution and waste, and moderate emissions in their processes. Green manufacturers researchers have developed or utilize technologies and practices to decrease their impact on environment. Green technology is the application of environmental science, environmental monitoring, green chemistry, and electronic devices to monitor, and conserve the nature’s environment and resources, and to limit the negative impacts of human involvement. Green manufacturing is also used to describe sustainable energy generation technologies such as wind turbines, photovoltaics, Biofiltration, Bioremediation, bioreactors, Desalination etc.

  • Track 15-1Biobased & Bio-inspired Materials
  • Track 15-2Environmental Management Tools
  • Track 15-3Sustainable Manufacturing
  • Track 15-4Sustainable Green operations
  • Track 15-5Building Low-Carbon Products
  • Track 15-6Designing greener chemistry approaches to chemical manufacturing processes
  • Track 15-7Green transportation
  • Track 15-8Energy Efficient Manufacturing

Green materials are defined as materials that are non-toxic, improve health, lower cost, and conserve energy and water use and waste products. Green materials are built from the field of green chemistry where the utilization of principles to decrease or eliminate hazardous substances in the process of design, manufacture and application of chemical products. Research in green materials looks to develop alternatives to traditional materials or processes that offer an environmental advantage. The attention of Green Materials relates to polymers and materials, with an emphasis on reducing the use of hazardous substances in the process of design, manufacture and application of products. Green materials are the materials that have low embedded energy in their harvesting or collection, production, transportation and use. 

  • Track 16-1Bionanomaterials: design, synthesis and application
  • Track 16-2Lignin Based Materials
  • Track 16-3 Biobased Plastics and Composites
  • Track 16-4Environmentally benign methods for polymer synthesis
  • Track 16-5Environmentally benign processing and manufacturing of materials
  • Track 16-6Green building materials
  • Track 16-7Innovative materials for sustainable construction and cultural heritage
  • Track 16-8Properties and Applications of green materials
  • Track 16-9Bio-based renewable, chemical feedstocks
  • Track 16-10Green Bio-based materials & Products

Biomass can be converted into different forms of energy by using various processes. Many factors affect the choice of the process like quantity of biomass feedstock, desired energy form, environmental standards, economic conditions, and project specific factors. Biomass can be converted into power or heat generation, transportation fuels and chemical feedstock. Biomass conversion technologies include thermo-chemical conversion and biochemical conversion. In thermo-chemical conversion, energy is produces by applying heat and chemical processes. There are four thermo-chemical conversion processes which comprise combustion, Pyrolysis, gasification and liquefaction process where as bio-chemical conversion includes digestion and Fermentation.

  • Track 17-1Biomass Resources, Conversion Technologies
  • Track 17-2Biomass Policies, Markets
  • Track 17-3Conversion of Vegetable Oils, Derivatives and By-products
  • Track 17-4Bio-based Chemicals and Reactions
  • Track 17-5Biodiversity, Sustainability
  • Track 17-6Recycling for Green and Sustainable Chemistry

Life Cycle Assessment and related methods in green chemical process and synthesis design strongly supports the development of greener concepts. LCA in general, specifics to be considered during its application in the field of chemical designs and current application examples from emerging research areas such as active pharmaceutical ingredient manufacturing, nanotechnology, flow chemistry, process intensification under harsh synthesis conditions, process integration, waste treatment, the use of alternative energy sources or solvents as well as chemistry based on renewable resources. The method of Life Cycle Assessment (LCA) has been developed and is now established as one of the major tools for the analysis of anthropogenic environmental impacts.  LCA is outstanding in its scope of applicability and its holism. It considers the whole life cycle of a product or process and evaluates environmental impacts in terms of various environmental impact categories that go beyond the consideration of mass or energy flows. Recent case studies derived from emerging research areas such as active pharmaceutical ingredient manufacturing, nanotechnology, flow chemistry, process intensification by harsh synthesis conditions, process integration, and waste treatment, the use of alternative energy sources or solvents as well as chemistry based on renewable resources are presented, emphasising the usefulness and importance of LCA in today's green chemical design.

  • Track 18-1Carbon Foot Print
  • Track 18-2Clean processing and utilization of fossil resources
  • Track 18-3Climate change and pollution control
  • Track 18-4Disposal
  • Track 18-5Environmental and Ethical Assessments
  • Track 18-6Life cycle analysis
  • Track 18-7Reuse
  • Track 18-8Sustainability Evaluation
  • Track 18-9Transportation

In the chemical industry, molecular organic chemistry is undergoing a green revolution in order to avoid waste by developing a cleaner and safer chemistry. One of the major goals of organic synthesis is to design molecules with high added value by developing synthetic methods highly selective, economical and environmentally friendly. In this context, its research is focussed on the synthesis of biologically active molecules, developing new environmentally friendly synthetic strategies and more energy-efficient alternatives such as microwaves, ultrasound, photochemistry or biotransformation. We present here how various activation methods used for the preparation of several high-value compounds can dramatically enhance yields and selectivity.  Several physicochemical activation techniques such as microwaves, ultrasound, biotransformation or photocatalysis are part of the green methodologies used for the synthesis of high added value molecules.

  • Track 19-1Electrochemical Synthesis
  • Track 19-2Flow chemistry technology
  • Track 19-3Mechanochemistry
  • Track 19-4Microwave chemistry
  • Track 19-5Photochemistry
  • Track 19-6Free Radical Green Chemistry
  • Track 19-7Sonochemistry

The synthesis of molecules with diverse uses in medicines, agrochemicals and biomolecules are dealt with in organic chemistry. The basic concern of the industries producing such chemicals is the type of reaction involved and the percentage of yield etc., so that synthesis becomes cost-effective whilst minimising environmental pollution. Some of the new trends in green chemistry include Combinatorial green chemistry, Green Chemistry in Agrochemicals, Sustainable Flow Chemistry, Ultrasound Technology in Green Chemistry, Wood Products and Green Chemistry, Microwave induced and ultrasound assisted green synthesis.

  • Track 20-1Combinatorial green chemistry
  • Track 20-2Green Chemistry in Agrochemicals
  • Track 20-3Sustainable Flow Chemistry
  • Track 20-4Ultrasound Technology in Green Chemistry
  • Track 20-5Wood Products and Green Chemistry

Green economy is characterised by a considerable increase in investment in sectors of economy creating and reinforcing the natural capital of the Earth or contributing to decreasing ecological deficiencies and environmental threats. These sectors include, in particular, renewable energy, low-emission transport, energy-efficient building, clean technologies, waste management improvement, sustainable agriculture and forest management and sustainable fishing.

  • Track 21-1Environmental Economics
  • Track 21-2Strategies for Green Economy
  • Track 21-3Green Economic Policy
  • Track 21-4Innovations in Green Economy
  • Track 21-5Integrating Network Economy with Green Economy

Agriculture Production processes, especially those that are intensive such as protected horticulture, degrade the environment to numerous extents. The protected horticulture sector is likely to use low toxicity products that will maintain the hygienic control of vegetables grown in protected environments (greenhouses, tunnels and padding). Growers need to combine good agricultural practices and standards of quality assurance, so food is healthy and attractive when consumed by the population. This presents a global challenge for the protected horticulture industry. One of the best approaches suggested for horticulture is the integration of new and environmentally, eco-friendly technologies such as innovative green chemistry, as part of a policy-driven approach to prevent and reduce the contamination. This strategy can be achieved by complying with the principles of green chemistry which promotes sustainability, efficiency and economy. Use of peroxyacetic acid mixtures in liquid solutions meets all of the principles of green chemistry. It is promising to integrate green chemistry approaches in protected horticulture and food industry to release biodegradable components that do not pollute the environment.


Society has entered the new century, the trend of economic globalization has become increasingly serious, and the environmental problems faced by all countries in the world have become increasingly prominent. In order to fully protect the ecological environment, and promote the green, environmental protection and sustainability of social and economic development, all the countries are vigorously carrying out research work on new energy sources. In the era of increasing chemical pollution, green chemistry and chemical industry came into being, and in the development of chemistry and chemical engineering, using the idea of "green", adopt green manufacturing methods, and paying attention to the training of talents in the field of expertise will be the main direction and goal of our country's future efforts in the field of chemistry and chemical engineering. Growing consumer awareness towards renewable chemicals and increasing environmental concerns are driving growth in the market.


  • Track 23-1Entrepreneur’s investment meet
  • Track 23-2Green Marketing
  • Track 23-3Policies
  • Track 23-4Market Place