Call for Abstract

6th International Conference on Green Energy & Expo, will be organized around the theme “Renewable Energy for a Sustainable World

Mail us at: [email protected]

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

Submit your abstract to any of the mentioned tracks.

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

Renewable Energy or Green Energy is derived from non-conventional energy which is continuously replenished by natural processes. Renewable Energy has attracted a lot of attention in the recent past owing to exhaustion of fossil fuels and in the lookout for alternate energy for a clean and green future. Various forms of renewable energy include solar energy, wind energy, hydro energy, geothermal energy, wave and tidal energy. Based on REN21's 2016 report, renewables contributed 19.2% to humans' global energy consumption and 23.7% to their generation of electricity in 2014 and 2015, respectively. This energy consumption is divided as 8.9% coming from traditional biomass, 4.2% as heat energy (modern biomass, geothermal and solar heat), 3.9% hydroelectricity and 2.2% is electricity from wind, solar, geothermal, and biomass. Worldwide investments in renewable technologies amounted to more than US$286 billion in 2015, with countries like China and the United States heavily investing in wind, hydro, solar and biofuels. Globally, there are an estimated 7.7 million jobs associated with the renewable energy industries, with solar photovoltaic being the largest renewable employer. As of 2015 worldwide, more than half of all new electricity capacity installed was renewable.

Renewable energy systems are rapidly becoming more efficient and cheaper. Their share of total energy consumption is increasing. Growth in consumption of coal and oil could end by 2020 due to increased uptake of renewables and natural gas

  • Track 1-1Wind Energy
  • Track 1-2Renewable energy for Agricultural Sustainability
  • Track 1-3Renewable Energy for Power and Heat
  • Track 1-4Hydrogen Fuel Cells
  • Track 1-5Marine (Ocean) Energy
  • Track 1-6Biomass Conversion
  • Track 1-7Geothermal Energy
  • Track 1-8Wave and Tidal Energy
  • Track 1-9Hydroelectric Energy
  • Track 1-10Solar thermal and Photovoltaic
  • Track 1-11Solar Energy
  • Track 1-12Integration of Renewable Energy into Present and Future Energy Systems

Biofuels are produced from living organisms or from metabolic by-products (organic or food waste products) rather than a fuel produced by geological processes such as those involved in the formation of fossil fuels, such as coal and petroleum. Biodiesel is a form of diesel fuel manufactured from vegetable oils, animal fats, or recycled restaurant greases. It is safe, biodegradable, and produces less air pollutants than petroleum-based diesel. Biodiesel can be used in its pure form (B100) or blended with petroleum diesel. Common blends include B2 (2% biodiesel), B5, and B20.The 93 billion liters of biofuels produced worldwide in 2009 displaced the equivalent of an estimated 68 billion liters of gasoline, equal to about 5% of world gasoline production. Two most common types of biofuels used are ethanol and biodiesel are derived from naturally occurring plants, alcohol and vegetable oil which act as a perfect substitute for fossil fuel.

The market for liquid biofuels outside of North America totaled $48.8 billion in 2014 and $41.7 billion in 2015. This market is expected to reach $89.6 billion by 2020, with a compound annual growth rate (CAGR) of 16.5%.

  • Track 3-1Advanced Biofuels
  • Track 3-2Biofuels in Transport and Renewable Heat
  • Track 3-3Production of Biofuels
  • Track 3-4Food vs Fuels Debate
  • Track 3-5Bio refineries
  • Track 3-6Bio hydrogen
  • Track 3-7Biogas
  • Track 3-8Bio char
  • Track 3-9Biodiesel
  • Track 3-10Bio alcohols and Bioethanol
  • Track 3-11Aviation Biofuel
  • Track 3-12Algae Biofuels
  • Track 3-13Biofuels in Air Transport

Biomass is biological material derived from living, or recently living organisms. It most often refers to plants or plant-based materials which are specifically called lignocellulosic biomass. As an energy source, biomass can either be used directly via combustion to produce heat, or indirectly after converting it to various forms of biofuel. Conversion of biomass to biofuel can be achieved by different methods which are broadly classified into: thermal, chemical, andbiochemical methods. Wood remains the largest biomass energy source to date; examples include forest residues (such as dead trees, branches and tree stumps), yard clippings, wood chips and even municipal solid waste. In the second sense, biomass includes plant or animal matter that can be converted into fibers or other industrial chemicals, including biofuels. Industrial biomass can be grown from   numerous types of plantsincluding miscanthus, switchgrass, hemp, corn, poplar, willow,sorghum, sugarcane, bamboo, and a variety of tree species, ranging from eucalyptus to oil palm (palm oil).


Bioenergy is renewable energy made available from materials derived from biological sources. Though wood is still our largest biomass energy resource, the other sources which can be utilized include plants, residues from agriculture or forestry, and the organic component of municipal and industrial wastes. Even the fumes from landfills can be used as a biomass energy source. Biohydrogen is a potential biofuel obtainable from both cultivation and from waste organic materials. Though hydrogen is produced from non-renewable technologies such as steam reformation of natural gas (~50% of global H2 supply), petroleum refining (~30%) and gasification of coal (~20%), green algae (including Chlamydomonas reinhardtii) and cyanobacteria offer an alternative route to renewable H2 production. Steam reforming of methane (biogas) produced by anaerobic digestion of organic waste, can be utilized for biohydrogen as well.  Bioplastics are any plastic material that is either biobased, biodegradable, or features both properties. They are derived from renewable biomass sources, such as vegetable fats and oils, corn starch, or microbiota. Bioelectricity is the production of electric potentials and currents within/by living organisms. Bioelectric potentials are generated by a variety of biological processes and generally range in strength from one to a few hundred millivolts. 

The global market for Biogas production equipment like anaerobic digesters and landfill gas equipment is estimated at nearly $4.5 billion for 2013. The market is projected to reach $7 billion by 2018 growing at a compound annual growth rate (CAGR) of 9.4% over the five-year period from 2013 to 2018.

  • Track 4-1Sustainable Feedstock Development
  • Track 4-2Bioenergy Supply Management Strategies
  • Track 4-3National Bioenergy programmers: Economic, Political and Social issues
  • Track 4-4Carbon Energy
  • Track 4-5Next Generation Renewable Energy Technologies
  • Track 4-6Bioenergy Applications
  • Track 4-7Processes for Bioenergy
  • Track 4-8Bioenergy Transition
  • Track 4-9Bioenergy Conversion
  • Track 4-10Bio-plastics: Types and Uses
  • Track 4-11Bioelectricity Production
  • Track 4-12Bio-hydrogen Production
  • Track 4-13Waste Biomass to Energy
  • Track 4-14Industrial Waste Biomass
  • Track 4-15Biomass and Electricity
  • Track 4-16Agriculture Biomass and Energy Production
  • Track 4-17Conversion Technologies (Pyrolysis, Gasification, Biological Conversion)

Climate change is a change in the statistical distribution of weather patterns that lasts for an extended period of time. The Earth's climate has been changing throughout the history.  Just in the last 650,000 years there have been seven cycles of glacial advance and retreat, with the abrupt end of the last ice age about 7,000 years ago marking the beginning of the modern climate era and of human civilization. Most of these climate changes are attributed to very small variations in Earth’s orbit that change the amount of solar energy our planet receives. At present, the current scenario of the climate change is at alarming levels. The present warming trend is of particular significance because most of it is very likely human-induced and proceeding at a rate that is unprecedented in the past 1,300 years. Earth-orbiting satellites and other technological advances have enabled scientists to see the big picture, collecting many different types of information about our planet and its climate on a global scale. This body of data, collected over many years, reveals the signals of a changing climate.

  • Track 5-1Greenhouse gases and Effects
  • Track 5-2Solutions for Climate Change
  • Track 5-3Pollution & its Effects on Climate
  • Track 5-4Sustainability & Climate Change
  • Track 5-5Carbon Cycle
  • Track 5-6Climate Change: Biodiversity Scenarios
  • Track 5-7Waste Management
  • Track 5-8Global Warming Effects & Causes
  • Track 5-9Sustainable Development
  • Track 5-10Adaptation
  • Track 5-11Mitigation
  • Track 5-12Environmental Pollution
  • Track 5-13Environmental – Climate Change Policy
  • Track 5-14Climate Change & Health

Energy and environment are co-related in the technological and scientific aspects including energy conservation, and the interaction of energy forms and systems with the physical environment. The levels of atmospheric carbon dioxide has increased by 31% between 1800 and 2000, going from 280 parts per million to 367 parts per million. Scientists predict that carbon dioxide levels could be as high as 970 parts per million by the year 2100. Different factors are responsible for this development, such as progress with respect to technical parameters of energy converters, in particular, improved efficiency; emissions characteristics and increased lifetime. Various environmental policies have been implemented across the globe for reduction of GHG emissions for improvement of environment.

  • Track 6-1Energy access
  • Track 6-2Electric vehicle
  • Track 6-3Energy and Sustainability
  • Track 6-4Ecology and Biodiversity Conservation
  • Track 6-5Energy security and risk assessment
  • Track 6-6Environment impact assessment
  • Track 6-7Education for Sustainability
  • Track 6-8Sustainable cities
  • Track 6-9Behaviour on sustainability
  • Track 6-10Envisioning tomorrow sustainability
  • Track 6-11Sustainable and Renewable Fuels
  • Track 6-12Wastewater engineering and Treatment
  • Track 6-13Climate change and Global warming
  • Track 6-14Energy Issues & Security
  • Track 6-15Energy efficiency
  • Track 6-16Energy management
  • Track 6-17Energy policy
  • Track 6-18Clean energy technologies
  • Track 6-19Waste to Energy
  • Track 6-20Environmental sustainability
  • Track 6-21Energy Policy, Pollution, Planning & Management
  • Track 6-22Solid waste management
  • Track 6-23Air pollution, Waste Recycling/Management
  • Track 6-24Energy Management in Power Sector

Renewable energy and energy efficiency are sometimes said to be the "twin pillars" of sustainable energy policy. Both resources must be developed in order to stabilize and reduce carbon dioxide emissions. There are various energy policies on a global scale in relation to energy exploration, production and consumption, ranging from commodities companies to automobile manufacturers to wind and solar producers and industry associations. Recent focus of energy economics includes the following issues: Climate change and climate policy, sustainability, energy markets and economic growth, economics of energy infrastructure, energy and environmental law and policies and global warming along with exploring various challenges associated with accelerating the diffusion of renewable energy technologies in developing countries. Most of the agricultural facilities in the developed world are mechanized due to rural electrification. Rural electrification has produced significant productivity gains, but it also uses a lot of energy. For this and other reasons (such as transport costs) in a low-carbon society, rural areas would need available supplies of renewably produced electricity.

  • Track 7-1Sustainable Development
  • Track 7-2Potential Benefits of Energy Efficiency
  • Track 7-3Emerging Gaps and Challenges
  • Track 7-4Emissions Reduction Policy
  • Track 7-5Distribution Generation Policy
  • Track 7-6Rural Electrification Policy
  • Track 7-7Sustainable coal use and clean coal technologies

Green chemistry is the design of chemical products and processes that reduce or eliminate the generation of hazardous substances. EPA's efforts to speed the adoption of this revolutionary and diverse discipline have led to significant environmental benefits, innovation and a strengthened economy.

  • Track 8-1Trends in Green Chemistry
  • Track 8-2Green House
  • Track 8-3Green Nanotechnology
  • Track 8-4Green Engineering
  • Track 8-5Circular economy and sustainable chemistry
  • Track 8-6Green Chemistry & Commerce Council
  • Track 8-7Application of Green Chemistry
  • Track 8-8Green Computing
  • Track 8-9Analytical Methodologies
  • Track 8-10Education & Teaching in Green chemistry
  • Track 8-11Environmental Chemistry and Pollution Control
  • Track 8-12Waste Monitoring & Management
  • Track 8-13Green Synthesis
  • Track 8-14Future of Green Chemistry
  • Track 8-15Green Chemistry & Engineering Metrics
  • Track 8-16Benefits of Green Chemistry
  • Track 8-17Water Remediation
  • Track 8-18Biopolymer
  • Track 8-19Green solvents
  • Track 8-20Pollution Prevention
  • Track 8-21Removal of Toxic elements
  • Track 8-22Green Catalysis
  • Track 8-23Synthetic Techniques of Green Chemistry
  • Track 8-24Green Chemical feedstock
  • Track 8-25Novel trends in Green Chemistry

The United Nations Environment Programme (UNEP) has defined green economy as one that results in improved human well-being and social equity, while significantly reducing environmental risks and ecological scarcities. In its simplest expression, a green economy can be thought of as one which is low carbon, resource efficient and socially inclusive. It is closely related with ecological economics, but has a more politically applied focus. A low-carbon economy (LCE) also known as low-fossil-fuel economy (LFFE), or decarbonised economy is an economy based on low carbon power sources that therefore has a minimal output of greenhouse gas (GHG) emissions into the environment biosphere, but specifically refers to the greenhouse gas carbon dioxide. GHG emissions due to anthropogenic (human) activity are increasingly either causing climate change (global warming) or making climate change worse.

  • Track 9-1Smart cities
  • Track 9-2Recycling role in Green Economy
  • Track 9-3Macroeconomics
  • Track 9-4Sustainable Agriculture
  • Track 9-5Analysis of Challenges and Opportunities in Green Sectors
  • Track 9-6Emission Reduction
  • Track 9-7Biodiversity and Ecosystems
  • Track 9-8Agriculture and sustainability

Green technology is also used to describe sustainable energy generation technologies such as photovoltaic, wind turbines, bioreactors, etc. with an ultimate goal of sustainable development. Its main objective is to find ways to create new technologies in such a way that they do not damage or deplete the planet’s natural resources and aid in the reduction of global warming, greenhouse effect, pollution and climate change. The global reduction of greenhouse gases is dependent on the adoption of energy conservation technologies at the industrial level as well as this clean energy generation. That includes using unleaded gasoline, solar energy and alternative fuel vehicles, including plug-in hybrid and hybrid electric vehicles.

  • Track 10-1Green building
  • Track 10-2Green Architecture
  • Track 10-3Ecosystems and Natural Environments
  • Track 10-4Human Impact on the Natural Environment
  • Track 10-5Architectural Impact on the Natural Environment
  • Track 10-6Responsibility of Architecture
  • Track 10-7Sustainable Architecture

Conservation is the process of reducing demand on a limited supply and enabling that supply to begin to rebuild itself. Many times the best way of doing this is to replace the energy used with an alternate. The goal with energy conservation techniques is reduce demand, protect and replenish supplies, develop and use alternative energy sources, and to clean up the damage from the prior energy processes. Carbon Capture and Storage (CCS) is the process of capturing waste carbon dioxide (CO2) from large point sources, such as fossil fuel power plants, transporting it to a storage site, and depositing it where it will not enter the atmosphere, normally an underground geological formation. Carbon Capture and Storage (CCS) is a technology that can capture up to 90% of the carbon dioxide (CO2) emissions pro­duced from the use of fossil fuels.Energy efficiency has proved to be a cost-effective strategy for building economies without necessarily increasing energy consumption. Combined with improvements in energy efficiency and the rational use of energy, renewable energy sources can provide everything fossil fuels currently offer in terms of energy services such as heating and cooling, electricity and also transport fuel. A building’s location and surroundings play a key role in regulating its temperature and illumination. Green Building refers to both a structure and the using of processes that are environmentally responsible and resource-efficient throughout a building's life-cycle: from siting to design, construction, operation, maintenance, renovation, and demolition.

  • Track 11-1Energy efficiency in building designs and management
  • Track 11-2Natural Gas Energy Efficiency Programs
  • Track 11-3Energy Efficiency Potential
  • Track 11-4Lightning Session: Residential and Commercial Programs
  • Track 11-5Environmental and Health Effects of Energy Efficiency
  • Track 11-6Carbon Capture & Storage
  • Track 11-7Sequestration Technologies
  • Track 11-8Green Buildings
  • Track 11-9Energy Efficiency

A Smart Grid  may be a holistic resolution that employs a broad vary of knowledge technology resources, permitting existing and new gridlines to cut back electricity waste and energy prices. Smart grids are going to be an essential foundation for the incorporation of renewable energy into the electrical grid. Since renewable sources like star and wind square measure variable, it'll be essential to possess a demand-responsive electrical grid that uses energy expeditiously. Smart grid technologies have myriad applications and permutations, together with sensible meters in individual homes to the power to access variable and distributed sources of energy based mostly upon demand and availableness. Sensible meters empower electricity shoppers to use energy supported value signals given as rates fluctuate

  • Track 12-1Power generation
  • Track 12-2Smart Grid Deployment & Demonstration Projects
  • Track 12-3Smart Grids Technologies
  • Track 12-4Impact of Smart Grid on Energy Resources
  • Track 12-5Micro-grids and their energy optimization
  • Track 12-6Role and future of electric vehicles in smart grids
  • Track 12-7Energy storage and cyber security for smart grids
  • Track 12-8Regulatory policies and program for implementation and control
  • Track 12-9Transformation of power grids to smart grids
  • Track 12-10Smart Grid and Renewable Energy Integration
  • Track 12-11Microgrid and active distribution network management
  • Track 12-12Smart Grid Networks, Reliability & Recovery
  • Track 12-13Smart Grids Modeling
  • Track 12-14Smart Grids Applications & Challenges

Power Engineering is a subfield of Energy Engineering and Electrical Engineering that arrangements with the generation, transmission, dispersion and usage of electric force and the electrical gadgets associated with such frameworks including generators, engines and transformers. However a great part of the field is worried with the issues of three-phase AC power – the standard for generous scale power generation, transmission and dissemination over the cutting edge world – a noteworthy division of the field is worried with the change between AC and DC power and the improvement of particular power systems for example, those utilized in aircraft or for electric railway networks. The Power Systems were getting more productive with taking a break and have turned into a centre region of Electrical Engineering field.

  • Track 13-1Energy Transmission and Distribution
  • Track 13-2Electricity Networks of the Future
  • Track 13-3Energy Storage Technologies & Devices
  • Track 13-4Power & Energy Generation
  • Track 13-5Power Systems & Automation
  • Track 13-6Fault Monitoring & Predictive Maintenance
  • Track 13-7Hybrid Power & Energy Systems
  • Track 13-8Green Engineering

Recycling is the practice of recovering used materials from the waste stream and then incorporating those same materials into the manufacturing process. Successful recycling also depends on manufacturers making products from recovered materials and, in turn, consumers purchasing products made of recyclable materials. Does your part "close the loop" and buy products made of recycled materials whenever possible. Recycling is the process of collecting and processing materials that would otherwise be thrown away as trash and turning them into new products.

  • Track 14-1Waste Management Techniques
  • Track 14-2Recycling Market
  • Track 14-3Thermal Waste Recovery
  • Track 14-4Recycling Basics
  • Track 14-5Construction Waste Management
  • Track 14-6Textile Recycling
  • Track 14-7Glass Recycling
  • Track 14-8Home-waste management
  • Track 14-9Metal Recycling
  • Track 14-10Recycling: Eco-balance
  • Track 14-11Circulatory Economy
  • Track 14-12Rubber Recycling
  • Track 14-13E-Waste Recycling and Management
  • Track 14-14Solid Waste Management
  • Track 14-15Waste Water Recycling
  • Track 14-16Plastic Recycling
  • Track 14-17Paper Recycling
  • Track 14-18Industrial Waste Recycling
  • Track 14-19Chemical Waste Recovery
  • Track 14-20Food Waste Recycling
  • Track 14-21Agriculture Waste Recycling
  • Track 14-22Recycling: Pollution Control

Environmental engineering is the branch of engineering that is concerned with protecting people from the effects of adverse environmental effects, such as pollution, as well as improving environmental quality. Environmental engineers work to improve recycling, waste disposal, public health, and water and air pollution control.

  • Track 15-1Pollution and monitoring
  • Track 15-2Cleaner Technologies, Control, Treatment & Remediation Techniques
  • Track 15-3Environmental Manufacturing & Engineering
  • Track 15-4Computer Modeling & Applications, Remote Sensing, GIS
  • Track 15-5Environmental Education
  • Track 15-6Ecological and Environmental Quality Studies
  • Track 15-7Biodiversity Conservation & Protected Areas Management
  • Track 15-8Environmental Political Economy
  • Track 15-9Waste Management (industrial, domestic, natural)
  • Track 15-10Urban and Rural Ecology
  • Track 15-11Sustainable tourism
  • Track 15-12Environmental friendly materials
  • Track 15-13Environmental integrated management and policy making
  • Track 15-14Impact, risk and life cycle assessment
  • Track 15-15Modeling, simulation, and optimization
  • Track 15-16Solid waste management
  • Track 15-17Air pollution
  • Track 15-18Water supply and wastewater treatment
  • Track 15-19Life Cycle Assessment, Risk Assessment, Health, and Safety Impact Assessment

Nanotechnology is a subject which has been popular within the scientific and technology industries for many years. It is now with the ever growing advancement in technology that nanotechnology is picking up the pace and has got a lot of people talking. Now, engineers are studying ways that it can be made beneficial to the environment. This has been branded as 'green nanotechnology' since it focuses on challenges within the nanoscale that need to be overcome to ensure eco-friendly processes and products. The objectives of nanotechnology are to create eco-friendly designs with nanotechnology and use it to reduce health and environmental hazards by seeking methods to replace present applications with green nanotechnology products.

  • Track 16-1Nanotechnology for Green Manufacture
  • Track 16-2Nanomaterial’s for Water Treatment
  • Track 16-3Nanotechnology for Renewable Energy
  • Track 16-4Nanotechnology for Environmental Remediation and Waste Management
  • Track 16-5Role of Nanotechnology in Chemical Substitution
  • Track 16-6Environmental Concerns with Nanotechnology

One of the distinctive characteristics of the electric power sector is that the amount of electricity that can be generated is relatively fixed over short periods of time, although demand for electricity fluctuates throughout the day. Developing technology to store electrical energy so it can be available to meet demand whenever needed would represent a major breakthrough in electricity distribution. Helping to try and meet this goal, electricity storage devices can manage the amount of power required to supply customers at times when need is greatest, which is during peak load. These devices can also help make renewable energy, whose power output cannot be controlled by grid operators, smooth and dispatchable.

  • Track 17-1Pumped hydro storage
  • Track 17-2Thermal storage systems
  • Track 17-3Energy harvesting
  • Track 17-4Fuel Cells
  • Track 17-5Heating
  • Track 17-6Hydroelectricity
  • Track 17-7Nuclear power
  • Track 17-8Power stations
  • Track 17-9Steam power
  • Track 17-10Superconducting magnetic energy storage
  • Track 17-11Double-layer capacitors
  • Track 17-12Compressed air energy storage
  • Track 17-13Flywheel energy storage
  • Track 17-14Electrochemical storage systems
  • Track 17-15Flow batteries
  • Track 17-16Chemical energy storage
  • Track 17-17Hydrogen
  • Track 17-18Synthetic natural gas
  • Track 17-19Electrical storage systems
  • Track 17-20Wind turbines

Energy materials within the past meant high energy explosive materials utilized in detonation and alternative energy storage applications, such energy cannot be regulated for extended period. Currently energy materials embody wide selection of advanced and novel materials for the generation and storage of electric power. Energy generation, management and distribution are the quickest evolving industries of recent times. The demand to develop parts and sub-assemblies for novel product across the energy sector is increasing. Analysis in Production of electricity from piezoelectric materials, Biomass, photo chemistry is studied widely in several universities.

  • Track 18-1Hydrogen Energy
  • Track 18-2Pyroelectric materials
  • Track 18-3Nuclear Fuel Processing
  • Track 18-4Photoelectrochemical devices
  • Track 18-5Piezoelectric materials
  • Track 18-6Battery technologies
  • Track 18-7Thermal storage materials
  • Track 18-8Phase Change Materials
  • Track 18-9Capacitors (Super, Ultra, Pulsed Power)
  • Track 18-10Thermoelectric materials
  • Track 18-11Materials Applications
  • Track 18-12Advanced Nanomaterials
  • Track 18-13Solar Energy Materials
  • Track 18-14Advanced Graphene Materials
  • Track 18-15Nanotechnology and Energy Materials
  • Track 18-16Energy Harvesting Materials
  • Track 18-17Superconducting Materials
  • Track 18-18Polymer Energy Materials
  • Track 18-19Batteries and Energy Materials
  • Track 18-20Smart grid & Semiconductor Materials

Different geophysical and social pressures are providing a shift from conventional fossil fuels to renewable and sustainable energy sources. We must create the materials that will support emergent energy technologies. Solar energy is a top priority of the department, and we are devoting extensive resources to developing photovoltaic cells that are both more efficient and less costly than current technology. We also have extensive research around next-generation battery technology. Materials performance lies at the heart of the development and optimization of green energy technologies and computational methods now plays a major role in modeling and predicting the properties of complex materials. The global market for supercapacitor is expected to grow from $1.8 billion in 2014 to $2.0 billion in 2015 at a year-on-year (YOY) growth rate of 9.2%. In addition, the market is expected to grow at a five-year CAGR (2015 to 2020) of 19.1%, to reach $4.8 billion in 2020. The competition in the global super capacitor market is intense within a few large players, such as, AVX Corp., Axion Power International, Inc., Beijing HCC Energy Tech. Co., Ltd., CAP-XX, Elna Co. Ltd., Elton, Graphene Laboratories INC., Jianghai Capacitor Co., Ltd, Jiangsu Shuangdeng Group Co., Ltd., Jinzhou Kaimei Power Co., Ltd, KEMET, LS MTRON, Maxwell Technologies INC., Nesscap Energy Inc., Nippon Chemi-Con Corp., Panasonic Co., Ltd., Shanghai Aowei Technology Development Co., Ltd., Skeleton Technologies, Supreme Power Systems Co., Ltd., XG Sciences

  • Track 19-1Solar energy materials
  • Track 19-2Nuclear energy materials
  • Track 19-3Insulation materials
  • Track 19-4Bio-based energy harvesting
  • Track 19-5Supercapacitors
  • Track 19-6High temperature superconductors
  • Track 19-7Photocatalysis
  • Track 19-8Piezeoeletric materials
  • Track 19-9Energy Harvesting Materials
  • Track 19-10Energy storage materials
  • Track 19-11Emerging materials and devices
  • Track 19-12Electrochemical energy storage and conversion
  • Track 19-13Organic and inorganic solar cells
  • Track 19-14Earthquake materials and design

Energy is deposited in a range of energy sources, which can be non-renewable or renewable. Renewable sources of energy are those that can be refilled in a short period of time, as opposed to non-renewable sources of energy.The use of renewable sources of energy is less polluting, compared to that of non-renewable sources. Specifically, increased dependence on renewable sources of energy is a key element of efforts to avert climate change. Renewable sources of energy today make an irrelevant contribution to total energy use, compared to that of non-renewable sources. A range of barriers hamper the widespread deployment of renewable energy technologies.

  • Track 20-1Role of biomass in climate change mitigation
  • Track 20-2Role of biofuels in climate change mitigation

Bioremediation is a waste management technique that involves the use of organisms to remove or neutralize pollutants from a contaminated site. Technologies can be generally classified as in situ or ex situ. In situ bioremediation involves treating the contaminated material at the site, while ex situ involves the removal of the contaminated material to be treated elsewhere. Bioremediation may occur on its own (natural attenuation or intrinsic bioremediation) or may only effectively occur through the addition of fertilizers, oxygen, etc., that help encourage the growth of the pollution-eating microbes within the medium. However, not all contaminants are easily treated by bioremediation using microorganisms. Phytoremediation is useful in these circumstances because natural plants or transgenic plants are able to bioaccumulate these toxins in their above-ground parts, which are then harvested for removal.

  • Track 21-1In-situ bioremediation
  • Track 21-2Ex-situ bioremediation
  • Track 21-3Phytoremediation
  • Track 21-4Biodegradation
  • Track 21-5Mycoremediation

Green Energy- 2018 facilitates a unique platform for transforming potential ideas into great business. The present meeting/ conference creates a global platform to connect global Entrepreneurs, Proposers and the Investors in the field of Renewable Energy and its allied sciences. This investment meet facilitates the most optimized and viable business for engaging people in to constructive discussions, evaluation and execution of promising business.


Participants are welcomed to submit abstracts relevant to the following theme/ topics or to combinations of them. All topics can be related to policy, market and technological issues as well.

""Renewable Energy for a Sustainable World"

  • Track 23-1Green Revolution
  • Track 23-2Power Generation`
  • Track 23-3Market Research on Green Energy
  • Track 23-4Environmental chemistry and Pollution Control
  • Track 23-5Green Processing and Solar Energy
  • Track 23-6Small Hydro & Non-Conventional Energy
  • Track 23-7Energy Network
  • Track 23-8Geothermal Energy & Ground-Source Heat Pump
  • Track 23-9Ocean Energy
  • Track 23-10Biomass Utilization & Conversion
  • Track 23-11Innovative Bioclimatic Architecture
  • Track 23-12Solar Thermal Applications
  • Track 23-13Photovoltaics
  • Track 23-14RE and Climate Change, toward CO2 Zero
  • Track 23-15Systems Integration
  • Track 23-16Renewable Energy Technology
  • Track 23-17Water resourses