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Green Chemistry has harnessed the Environmental Technology and Science to a subsequent level of advancement that merely discerned with the 12 principles targeted on it. This focusses on the imploration of evaluating authentic catalytic reagents and fusing some safe solvents and auxiliaries for the betterment of the ambiance. It is also concerned with the after effects and so to rip out the abnormalities it considers the synthesis of less hazardous chemicals and derivative reduction to deliver the environment an energy efficient process. The yearn of researchers is to figure out all the possible means to evince a successful green environment by inheriting all the principles of Green Chemistry.

  • Track 1-1: Authentic Catalytic reagents
  • Track 1-2: Safer solvents and Auxiliaries
  • Track 1-3: Less Hazardous Chemical Synthesis
  • Track 1-4: Derivative Reduction
  • Track 1-5: Energy Efficient Process

The synthesis of green Nano-materials and items refer the non- hurting nature or human wellbeing prospects that eradicate many ecological issues at low temperatures utilizing less vitality and renewable resources wherever conceivable, emphasizing on numerous lifecycles for subjecting these to stupendous development in environment. Green nanotechnology implies utilizing nanotechnology to make advance robust items and materials of zero-valent metals, metal oxides, and salts creating a benign ambiance through remediation and treatment of water. Nano scale impetuses compound to response more effective and less inefficient leading to the introduction of certain sustainable Nano-coatings to discard the absurd effects of paints and other emulsions to respective things. It can also evaluate the technology in the production of solar cells.

  • Track 2-1: Sustainable Nano-coatings
  • Track 2-2: Solar cell production
  • Track 2-3: Valorisation of Agricultural and Municipal waste
  • Track 2-4: Valorisation of Food Waste for Bioenergy
  • Track 2-5: Nano-remediation and water treatment

The trend in green innovations opens up a thick glaze towards a sustainable achievement of an environment changing the phases of human civilization and that of the earth. The scientists and industries are pinching efforts to carry out many bewitching innovative criteria to upgrade with the principles of Green Chemistry and Green Engineering. Some of these innovations fall into the climate changes and enhancing the prodigious gist of Supercritical Carbon Dioxide as an environmentally benign medium for sustainable chemical synthesis. There are other ways of bestowing innovates to the land of Green Environment such as producing organic batteries for energy storage to evade critical clogs through toxic effects of inorganic batteries and bases to render a beneficial deal to the ambiance through microwave energy.

  • Track 3-1: Green conjuring up Climate Changes
  • Track 3-2: Microwave Energy
  • Track 3-3: Organic Batteries
  • Track 3-4: Supercritical Carbon Dioxide

Analytical methodologies are subjected to controlling and justification of green chemistry thereby becoming an efficient tool for conformation of the green result of a chemical product or technology. These are strategic or scientific techniques that reckon the inherent composition of a specimen. However, these methodologies might hinder in the prolific status of costs which now should be look after to minimize. The development of instrumental methods in Analytical Chemistry led to the replacement of wet chemistry in sample preparation and treatment. The outcome obtained is related to an increase in reliability, higher precision and time management which substantially directs reduction of waste. Chromatography and Spectrometry deal with the matured separation approaches which can be easily miniaturized indicating the decrements in size of the samples, low consumption, higher selectivity and faster rate of analysis. Supercritical fluids can undergo continuum mobile phase properties by the separation techniques of Spectrometry emphasizing on the chemical constitutes. Immunoassay techniques are widely evaluated in pharmaceutical analysis for diagnosing diseases, therapeutic monitoring of drugs, and clinical pharmacokinetic and bioequivalence studies in drug discovery for use in pharmaceutical industries. Surface analysis techniques mainly involves the characterization of materials and its potential to register in the development of chemistry.

  • Track 4-1: Chromatography
  • Track 4-2: Spectrometry
  • Track 4-3: Immunoassay techniques
  • Track 4-4: Surface Analysis techniques

The ultimate aim of catalysis in Green Chemistry and Engineering is to reduce waste associated with use of materials and energy in a given process in consonance with principles of Green Chemistry and Engineering. These catalytic modulations in order to replicate a green concept, the studies are heading with solid acids and bases where the compatible properties of a solid with respect to acids and basis analysis can be inferred and can be further categorized to fuse the aggregates of Green engineering in dyestuff technology to eliminate harmful toxicants that reveal inappropriate health. In pursuit of rectifying the harmful chemical reactions, catalytic reaction engineering and scale-up can be holistically performed to understand the kinetics and the potential of the catalysts on the reaction rate. Catalytic membrane reactors may be rendered to Green evolution through the concept behind the transport phenomena to redefine the effectiveness and stability of catalysis.


  • Track 5-1: Solid acids and bases catalysis
  • Track 5-2: Catalytic reaction engineering and scale-up
  • Track 5-3: Dyestuff Technological aspects
  • Track 5-4: Catalytic membrane reactors
  • Track 5-5: Metathesis Reactions

This particular track drags the proceedings of Green Chemistry in an industry point of view. Pharmaceutical companies can make robust green drugs which will almost pacify the situation of reductions causing hazards to public health and therefore should be prominent in selecting less hazardous reagents, reducing reaction steps, and developing better catalysts. Biochemical and biopolymers are biological derivatives that create less deduction in the ecology. Biotechnology produces chemicals and products through biological transformations of bio-based and renewable materials to promote advancement in the economy. Textile Science and Clothing Technology can also be intensified in terms of 12 assessed principles of green chemistry. Textile materials can possess an environmentally friendly processing, including fiber production, dyes and auxiliaries, solvents which can be optimized and efficient in recycling of water and chemicals and bio-processing leading to the elimination of hazardous chemicals and recycling of textile materials creating sustainability.

  • Track 6-1: Green Economy
  • Track 6-2: Textile Science and Clothing Technology
  • Track 6-3: Pharmaceuticals
  • Track 6-4: Cleaner, Greener and Safer

Green Engineering implements the design, commercialization and use of processes and products that are viable and economical evacuating the risk to human health and the environment and generation of pollution at the root following the distinctive principles given by Sandestin. It encompasses various other disciplines and practices to render sustainability elevating a protection to the biosphere. This policy keenly designates the conservative and durability ethics of energy and resources. To contribute to the green environment there should be unique observation in the integration of materials and energy flows to find loopholes in avoiding the chronic consequences.

  • Track 7-1: Design and commercialization
  • Track 7-2: Conservative and Durability
  • Track 7-3: Integration of Materials and Energy flows
  • Track 7-4: Green Genetic Engineering

The materials force people to look carefully at all aspects of the material life cycle that comprise industrial practices and consumer habits. The material lifecycle is the onset of scrapping or harvesting of raw materials which are transported and processed to create the products and services that drive our society and finally destined to validate resources and environmental sustainability. These are distributed, consumed, reused or recycled, and ultimately disposed. The main aim of this management is to degrade the environmental impacts caused by the deviant extracts of hazardous materials for sustainable development. So, to control and monitor these steps are to be forwarded for managing imperil materials.   Green Building Technology is a picturesque of design and construction of buildings of high performance structures that also meet certain standards for reducing natural resource consumption.  


  • Track 8-1: Resource Sustainability
  • Track 8-2: Environmental Sustainability
  • Track 8-3: Managing imperil materials
  • Track 8-4: Green Building Technology

Green Energy reflects the unbound use of renewable energy sources that deliver negligible impact on the greenhouse gas emissions. The power generated from these sources is free from unwanted weeds of disturbance to ecology. Green power technology involves the joining technology of both biology and chemistry to build up a track in the generation of power with cost effective and minimize the emissions of CO2.Alternative solutions for efficiency includes the efficacy of consumption of energies that can be substituted for highly consumed sources.Bio-based materials and products prelude a holistic environment that eradicates the sole of ill impacts.

  • Track 9-1: Green Power Technology
  • Track 9-2: Alternative solutions for efficiency
  • Track 9-3: Green Bio-based materials & Products

The wastages cause a tragic base to the environment that keeps on accumulating in abundance and therefore to retreat and manage these issues, administration policy should pioneer some steps ahead to recede the squandering of wastages for ecological benefits. Waste management, on the other hand is deluged with boundary conditions such as costs, logistics, legislations & guidelines, storage, safety targets and the existing technologies on sites, so need to identify the prominent solutions for waste prevention by various aspects of process design before delivering for a production after management. Biological waste treatment directs to the management of waste through biological solutions that prelude a genuine green environment. Some other ways of waste management may be discussed through thermal treatment, disposal of wastes-Dumps and Landfills. Electric waste management/E-waste helps in terminating the hazardous electric wastages by computing a green technology.    


  • Track 10-1: Electronic waste management
  • Track 10-2: Waste Prevention
  • Track 10-3: Biological Waste Treatment
  • Track 10-4: Thermal Treatment
  • Track 10-5: Dumps and Landfills

Biomass delivers a renewable source of energy that trails the joints of many bio-derived resources and utilization is done based on the purpose, availability and demands. This can create a fruitful basement in agriculture. Biofuels can also be generated through biomass conversion that can take leadership in the development of sustainable energy by refining biodiesel and other relevant fuels for use in automotive. Oilfields and essential oils can also be merged with the concept of green chemistry and engineering by relying on their characteristic properties and then processing to sustainable applications. Green gas can mitigate the critical situations of pollution and development in the field of geosciences through accompanying the energy sources with more versatile biodegradable but less environmentally harmful materials.

  • Track 11-1: Utilization-Conversion of Biomass
  • Track 11-2: Automotive fuels for less energy consumption
  • Track 11-3: Oilfield revolution by Green tactics
  • Track 11-4: Gas pollution techniques
  • Track 11-5: Geosciences

The exploitation of natural resources in abundance leads to a terrific growth in economy and other ecological feedstock. The modest way of profiling a green field weighs on the 3 R’s policies of management viz. Reduce, Reuse & Recycle and then processing with the benchmark steps to retain sustainability and achieving the goodness of environmental and ethical assessments through the follow ups of green connotations. Metals supplied for reuse and from mineral sources are more feasible than those from mines. Recycling or reusing doesn’t prefer the destruction of indigenous constitutes. Archaeologists are trying to expertise on the re-establishment of common habitats to emerge a fluke in mining. Re-treatment of a used metal is essentially a simpler way to recognize the potential of its coherency than extracting the metal from the used source and reused metals are less expensive in nature.

  • Track 12-1: Sustainability, Environmental and Ethical Assessments
  • Track 12-2: 3 Rs policies of Management

Green Processing & Synthesis (GPS) is dedicated in general to innovative and green process development and chemical synthesis covering: Sustainable & Green Chemistry Flow Chemistry. The chemical manufacturing processes create a strategic pavement in an organization to build up a network of competitive advantages and improvement in performances. However with rapid deteriorations in technology the needs of the society are constantly transforming and evolving thereby creating a distraction to the environment. These sort of undesired critics can be solved by green synthetic processes that transform the status of the ambiance without any delay or harsh implements.Green technology can also incorporate many process intensification techniques to evaluate the dwelling of an advanced society of green development.  

  • Track 13-1: Process Intensification Schemes
  • Track 13-2: Green Chemical Manufacturing Processes
  • Track 13-3: Green Synthetic Process Transformations

The industrial applications can be transformed to green by petrifying the processes with respect to the principles of Green Chemistry and Engineering. These processes can be deciphered green only if the level of formation are limited to clean aspects and management of the toxic chemicals before these link with further tragic residuals.

  • Track 14-1: Clean Industrial Processes
  • Track 14-2: Toxic Chemicals Management

Green food production regularly proposes natural cultivating hones a couple of hundreds of years back. This sort of cultivating utilizes a little region of land for crops and another zone for touching meat, sheep, and goat. Homestead elements were quite often independent with no utilization of pesticides or herbicides and the main compost utilized was fertilizer. Natural cultivating suits the idea of a green innovation. Essential, auxiliary, and tertiary handling strategies are found to change crude create into esteem included nourishments and fixings. Essential preparing strategies, for example, cleaning, evaluating, dehulling, arranging, and processing are utilized as starting advance in handling the majority of the grains.

  • Track 15-1: Diminish carbon impression
  • Track 15-2: Green division innovations
  • Track 15-3: Electro dialysis in nourishment handling
  • Track 15-4: Protein helped nourishment handling
  • Track 15-5: Green advances in nourishment drying out
  • Track 15-6: Green bundling
  • Track 15-7: Overseeing nutrient cycles in crops and livestock with green procedures
  • Track 15-8: Natural execution of natural cultivating

Green chemistry metrics deals with measuring aspects of a chemical process linking to the principles of green chemistry which is served for the quantification of the efficiency or environmental performance of the processes encountered and then allowing the changes in performance to be measured if it complies with the prospects of green evolution. Atom-economy balance refers measuring of the atoms that were wasted when making a chemical. The higher the atom economy, the 'greener' the process it happens. Chemical exposure should be profiled with high defined uses that can be uniquely involved in creating a green society and should strive to optimize environmental contamination to reduce energy and maintenance costs and to avoid catastrophic downtime and costly repairs.

  • Track 16-1: Atom-Economy Balance Process
  • Track 16-2: Chemical Exposure
  • Track 16-3: Environmental Contamination