6th Edition of EuroSciCon Conference on

Water, Waste and Energy Management 2019

Theme: Advocating Water, Waste and Energy for Clean and Green Environment

Event Date & Time

Event Location

Stockholm, Sweden

18 years of lifescience communication


Performers / Professionals From Around The Globe

Tracks & Key Topics

Waste Management 2019

About Conference


The Euroscicon is inviting for Conference on Water, Waste and Energy Management 2019 on May 13 - 14, 2019, Stockholm, Sweden. The point of the ebb and flow year's social affair is Advocating Water, Waste and Energy for Clean and Green Environment which will give an overall stage to discuss present and the fate of Water, Waste and Energy Management. The augmentation of three submitted streams for the EuroSciCon Conference on Water, Waste and Energy Management 2019 get-together will be a hit, we could get gaining from two particular get-together one that outperformed wants in the ponder and gathering end and one that outperformed wants in the business and key end. The 2019 foundation of this gathering will empower us to continue plunging further into both the examination of Environmental change and the business necessities for associations.
The Organizing Committee is fulfilled to welcome you to go to the EuroSciCon Conference on Water, Waste and Energy Management, one of its shocking Environmental and its related field of social affairs to be held amidst on May 13-14, 2019 in Stockholm, Sweden. EuroSciCon Conference on Water, Waste and Energy Management joins researchers, specialists and CROs from around the globe. The thought process of this meeting is to advance the exponential change of our Environment over a coming couple of years. Different unsafe things are influencing nature and accordingly, the administration is required with the goal that our future age could likewise take recreation of our spotless and green Environment.
At Water, Waste and Energy Management 2019 meet your arranged interest packs from around the globe concentrated on finding a few solutions concerning Water, Waste and Energy administration. This get-together would be your single most clear chance to achieve the best aggregation of people the world over a social event to chat on a critical worry of this period.
Why Attend?
Join your colleagues around the globe concentrated on finding a few solutions concerning Water, Waste and Energy Management related advances, which is your single most evident chance to achieve the best assembling of people from the Water, Waste and Energy Management societies, arrange appears, dissipate data, meet with repeating example and potential masters, make a sprinkle with new research works, and get name certification at this Two-day occasion. Comprehensively acclaimed speakers, the latest research, moves, and the most energy revival in Environment are signs of this social affair. The arrangement of data on new advances actualized in the field of Water, Waste and Energy Management and a sound learning on the Global Warming will give collaboration the world's outstanding Professors, CEOs.
Benefits to attend Water, Waste and Energy Management 2019:
a) Keynote introduction alongside connections to excite established researchers.
b) Workshop and symposiums to accomplish the greatest cluster of individuals from the Environmental Science society.
c) A wide track of exhibitors to grandstand the new and rising advancements.
d) Platform to worldwide speculation group to interface with partners in Environment/Civil Engineers area.
e) Links to the political promoting assets remembering the ultimate objective to expand your business and researches.
f) Triumph of Awards, Certificates perceives your sense of duty regarding your calling to empower the incipient research.
Water, Waste and Energy Management 2019 Benefits:
• Open board exchanges: Providing an open gathering with specialists from the scholarly world and business to talk about on current difficulties in Water, Waste and Energy Management, where all participants can collaborate with the board took after by a Q&A session.
• Speaker and notice introductions: Providing a stage to all academicians and industry experts to share their exploration contemplations and discoveries through a discourse or a publication introduction.
• Editorial executive gathering: Discussing on development and advancement of management techniques for water, waste and energy. Open access to International Journals and enlisting board individuals and analysts who can bolster the diary.
• Roundtable gatherings: Providing a stage where industry experts meet scholastic specialists.
Business and Exhibitor Benefits:
Over 50+ organizations and international pavilions will be exhibiting at the EuroSciCon Water, Waste and Energy Management 2019 conference. Exhibitors will include equipment manufacturers and suppliers, systems providers, finance and investment firms, R&D Companies, project developers, trade associations, and government agencies.
 In addition to the products and services, you will have access to valuable content, including Keynote Presentations, Product Demonstrations and Educational Sessions from today’s industry leaders.
The EuroSciCon Water, Waste and Energy Conference 2019 have everything you need, all under one roof, saving you both time and money. It is the event you cannot afford to miss!
Target Audience:
  • Executives, CEO's of Organizations
  • Business Development Managers
  • Boss Scientific Officers
  • Research and development Researchers from Water, Waste and Energy Management
  • Industries.
  • Educators, Associate Professors, Assistant Professors
  • Ph.D. Scholars
  • Patent Attorneys
  • Protected innovation Attorneys
  • Speculation Analysts
  • Affiliation, Association presidents, and experts
  • Environmental journalists
  • Environmental Protection Agency (EPA) inspectors
  • Environmental Compliance Agency workers
  • Interpretive naturalists
  • Environmental advocates
  • Technical writers
  • Organizers
  • Lobbyists
  • Water and air quality engineers
  • Civil Engineers
  • Solid and hazardous waste engineers
  • Pollution control technicians
  • Wastewater treatment plant operators
  • Programming improvement organizations
  • Research Institutes and individuals
  • Inventory network organizations
  • Assembling Companies
  • CRO (Contract Research Organization) and DATA administration Companies
  • Preparing Institutes
  • Business Entrepreneurs
About Venue:
Stockholm, the capital of Sweden, encompasses 14 islands and more than 50 bridges on an extensive Baltic Sea archipelago. The cobblestone streets and ochre-colored buildings of Gamla Stan (the old town) are home to the 13th-century Storkyrkan Cathedral, the Kungliga Slottet Royal Palace, and the Nobel Museum, which focuses on the Nobel Prize. Ferries and sightseeing boats shuttle passengers between the islands.
Stockholm is also the cultural, media, a political, and economic center of Sweden. The Stockholm region alone accounts for over a third of the country's GDP and is among the top 10 regions in Europe by GDP per capita. It is an important global city and the main center for corporate headquarters in the Nordic region. The city is home to some of Europe's top ranking universities, such as the Stockholm School of Economics, Karolinska Institute and Royal Institute of Technology (KTH). It hosts the annual Nobel Prize ceremonies and banquet at the Stockholm Concert Hall and Stockholm City Hall. One of the city's most prized museums, the Vasa Museum, is the most visited non-art museum in Scandinavia. The Stockholm metro, opened in 1950, is well known for the decor of its stations; it has been called the longest art gallery in the world. Sweden's national football arena is located north of the city center, in Solana. Ericsson Globe, the national indoor arena, is in the southern part of the city. The city was the host of the 1912 Summer Olympics and hosted the equestrian portion of the 1956 Summer Olympics otherwise held in Melbourne, Victoria, Australia.



Environmental Chemistry:

Environmental chemistry is the study of chemical and biochemical processes occurring in nature. These impacts may be felt on a local scale, through the presence of urban air pollutants or toxic substances arising from a waste site, or on a global scale, through depletion of stratospheric ozone or global warming. However, it is important to realize that all forms of matter in our environment whether synthetic or natural are made of chemicals.

  • Environmental Pollution
  • Atmospheric Pollution
  • Regional Air Pollution
  • Stratospheric Ozone Depletion
  • Climate Change
  • Water Pollution
  • Soil Pollution

Reduce, Reuse, Recycle and Recovery:

Reduce: this entails the deliberate lowering of the number of plastics an individual uses in their day to day life. Reuse:  this involves putting to use plastics that have already been used. This can mean putting them to better use than just throwing them away. Recycle: The basic phases in recycling are the collection of waste materials, their processing or manufacture into new products, and the purchase of those products, which may then themselves be recycled. Recycling can help reduce the quantities of solid waste deposited in landfills, which have become increasingly expensive. Recovery: this entails the insistence on not using plastic but rather finding and using existing alternatives.

Manufacturing products from recycled materials consume less energy and produce less pollution than producing the same items from virgin materials. Reducing our use of virgin materials conserves natural resources like trees, water and minerals.

Waste and Biomass Valorization:

Waste and Biomass Valorization is the process of treatment of waste for (landfill) disposal, storage, and in some cases sorting. In the 1990s, depletion of raw materials and socio-economic concerns supported the direct recycling of waste and residues. Various valorization techniques are currently showing promise in meeting industrial demands. Waste and Biomass Valorization is the process of treatment of waste for (landfill) disposal, storage, and in some cases sorting. Various valorization techniques are currently showing promise in meeting industrial demands. Due to depletion of natural resources, increasing greenhouse emissions and awareness of the need for sustainable development in terms of safely reusing waste and biomass, the transformation of waste/biomass to valuable materials and energy is emerging as a strong trend.

  • Non-Virgin Biomass
  • Biomass Valorization in Phytomedicine
  • Harnessing Agro-Wastes for Bioethanol Production
  • Blended Biomass


Biodiesel is made primarily from oily plants and algae and to a lesser extent from other oily sources (such as waste cooking fat from restaurant deep-frying). Biodiesel, which has found greatest acceptance in Europe, is used in diesel engines and is usually blended with petroleum diesel fuel in various percentages.

  • Biodiesel as Automobile Fuel
  • Biodiesel to Hydrogen-Cell Power
  • Biodiesel Production on Industry Level and Scale Up
  • Biodiesel Feedstocks
  • Crops for Biodiesel Production
  • Efficiency and Economic Arguments
  • Cost Effective Techniques for Biodiesel Production


Biofuel is energy made from living matter, usually plants. Biofuels are considered renewable energies, emit less than fossil fuels, and have received increasing attention in the transition to a low-carbon economy.

  • Newest Technologies in Biofuels
  • Fast Pyrolysis Process
  • Thermochemical & Biochemical Routes
  • Microbial Pathways for Advanced Biofuels Product
  • Synthesis of Advanced Biofuels
  • Lignocellulosic Biomass
  • Development of Bioenergy Technology
  • Trends in Syngas
  • Scope of Second & Third Generation of Biofuels

Bio- Electrochemical Treatment Systems:

Bio-Electrochemical Treatment Systems use microorganisms to catalyze different electrochemical reactions, as well as generating electrical power from wastes, the generation of many different chemical products or biofuels, and the removal of organic, and/or inorganic compounds from water flows. Groundwater, as the main resource of drinking water, is usually characterized by low conductivity (less than 1 MS cm-1. The development of Bio-Electrochemical treatment system requires expertise in electrochemistry, materials, sciences, microbiology, engineering, and other fields.

Solid Waste Management:

Solid waste management refers to all activities pertaining to the control of generation, storage, collection, transfer, and transport, treatment and processing, and disposal of solid wastes in accordance with the best principles of public health, economics, engineering, conservation, aesthetic, and other environmental consideration.

Renewable Resources:

Renewable resources can be described as a rather tricky balancing act. Renewable resource intake and use commonly do not yield decomposition or contribute to global warming.  It is easy to recognize the environmental advantages of utilizing the alternative and renewable forms of energy but we must also be aware of the disadvantages. It can be crucial to develop the capacity of electricity that is as large as those produced by traditional fossil fuel generators.

Wastewater Treatments:

Wastewater treatment processes are arranged to achieve improvements in the quality of the wastewater. The various treatment processes may reduce Suspended solids physical particles that can clog rivers or channels as they settle under gravity. Pathogenic bacteria and other disease causing organisms these are most relevant where the receiving water is used for drinking, or where people would otherwise be in close contact with it; and Nutrients, including nitrates and phosphates. Universally used terminology refers to three levels of wastewater treatment: primary, secondary, and tertiary.


Bioremediation is becoming the technology of choice for the remediation of many contaminated environments, particularly sites contaminated with petroleum hydrocarbons. Bioremediation stimulates the growth of certain microbes that use contaminants as a source of food and energy.

  • The Roles of Microbes in Bioremediation
  • Variation in Basic Metabolism
  • Nutritional Requirements for Contaminant Destruction
  • Indicators of Microbial Activity
  • Complicating Factors

Waste Treatment Technologies:

There are a number of different waste treatment technologies for the disposal, recycling, storage, or energy recovery from different waste types. Each type has its own associated of waste Management. Relatively simple waste treatment technologies can be designed to provide low cost sanitation and environmental protection while providing additional benefits from the reuse of resources. These technologies use natural aquatic and terrestrial systems Composition and generation.

Bio- Energy from waste:

The potential for increasing total traditional biomass utilization for energy purposes is limited. The thrust of the activities is therefore twofold, one aim is to broaden the scope of biomass utilization into upgrading and the other aim is to broaden the biofuel base as such. This in turn implies an enhanced focus on fuels for transportation and power generation with respect to traditional biomass and a focus on direct heating for more complex biomass, such as waste etc.

  • Biomass Fraction
  • Gasification
  • Bio-Oil Upgrading
  • Thermo-Chemical Conversion

Sustainable Waste Management:

Sustainable waste Management system incorporates feedback loops, is focused on processes, embodies adaptability and diverts wastes from disposal. Sustainability is at the origin of concepts such as sustainable yield, sustainable society, and sustainable development. Discover some of the visionary ways that we're turning waste into a resource for a brighter, more sustainable future.

Health and Well-Being

Environmental Impact Assessment:

The purpose of Environmental Impact Assessment is to rectify and evaluate the potential impacts of development and projects on the environmental system. It is a useful aid for decision making based on understanding of the environment implications including social, cultural and aesthetic concerns which could be integrated with the analysis of the project costs and benefits.


A landfill is a carefully constructed and monitored structure that isolates trash from the surrounding environment. This isolation is accomplished with the use of a bottom liner and daily covering of soil. Landfills can create energy. Landfills need expert design as well as professional operators and a proper management to guarantee their functionality.

Waste Processing Industries:

The progressive development of the waste processing industry derives directly from the rapid progress in packaging industry. In addition to the inevitable scrap or reject production loads of in-process waste is produced in packaging industry.

  • Hazardous Wastes
  • Carcinogenic
  • Chemical Waste
  • Biomedical Waste

High Performance & Green Buildings:

High-performance buildings reflect design excellence. These buildings--often also referred to as "green" or "sustainable"--minimize environmental impact and produce cost savings over their life cycle. These buildings are best designed in an integrative fashion wherein owners, designers and contractors commit from the onset to work together and follow high-performance building principles when addressing critical issues.

  • New Construction vs. Adaptive Reuse
  • Site Selection, Planning and Design
  • Energy- and Water-Efficiency
  • Use of Renewable Energy
  • Indoor Environmental Quality
  • Efficient and Environmentally Friendly Materials
  • Recycling During and After Construction
  • Building Commissioning

Trends in Energy Efficiency:

Efficient energy use, sometimes simply called energy efficiency, is the goal to reduce the amount of energy required to provide products and services. Energy efficiency has to be increased at all stages of the energy chain, from generation to final consumption. At the same time, the benefits of energy efficiency must outweigh the costs, for instance those that result from carrying out renovations.

  • Smart Cities, Cities That Run Themselves
  • Distributed Generation in Smart Cities
  • The Electric Vehicle, a Reality Today
  • Electric Energy Management from Mobile
  • Big Data, the Classic "Information Is Power"

Energy Storage:

Energy storage is the capture of energy produced at one time for use at a later time. A device that stores energy is sometimes called an accumulator or battery. Energy comes in multiple forms including radiation, chemical, gravitational potential, electrical potential, electricity, elevated temperature, latent heat and kinetic. Energy storage involves converting energy from forms that are difficult to store to more conveniently or economically storable forms. Bulk energy storage is currently dominated by  hydroelectric dams, both conventional as well as pumped.

  • Fossil Fuel Storage
  • Mechanical
  • Electrical, Electromagnetic
  • Biological
  • Electrochemical (Battery Energy Storage System, BESS)
  • Thermal
  • Chemical

Strategies to Control Environmental Damage:

Many environmentalist and scientist are working to make certain strategies to reduce environmental pollution. In addition to solid waste which we see in our household garbage bins, there are medical, industrial, agricultural and mining wastes. Environment is polluted mostly by improper disposal of waste. Therefore there is a need to keep a check over waste disposal.

Green Power:

Green energy comes from natural sources like wind, water, and sunlight. It is much more environmentally friendly than other types of energy and doesn’t contribute to climate change or global warming. Unlike fossil fuels, green energy sources replenish naturally and are in continuous supply.

Water Conservation Program:

Water conservation includes all the policies, strategies and activities to sustainably manage the natural resource of fresh water, to protect the hydrosphere, and to meet the current and future human demand. Population, household size, and growth and affluence all affect how much water is used. Factors such as climate change have increased pressures on natural water resources especially in manufacturing and agricultural irrigation.

Alternate Water Resources:

Alternative water is often treated to non-potable standards, meaning it is not safe for human consumption. Common uses of alternative water include landscape irrigation, ornamental pond and fountain filling, cooling tower make-up, and toilet and urinal flushing.

  • Harvested Rainwater from Roofs
  • Onsite Storm Water
  • Grey Water
  • Discharged Water from Water Purification Processes
  • On-Site Reclaimed Wastewater
  • Captured Condensate from Air Handling Units.

Urban planning, design and communication:

Improved collection, management and disposal of urban waste is one important strategy that can yield multiple improvements in both climate and health. Using anaerobic digestion, methane emissions can be captured from sewage, livestock manure, and landfill solid waste, and used as biogas or bio-methane, a fuel for cooking, heating or power needs.

Global Warming:

Global warming refers to the upward temperature trend across the entire Earth since the early 20th century, and most notably since the late 1970s, due to the increase in fossil fuel emissions since the industrial revolution. Worldwide since 1880, the average surface temperature has gone up by about 0.8 °C (1.4 °F), relative to the mid-20th-century baseline (of 1951-1980).

Climate Change:

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

  • Climate Change & Climatology
  • Evidence of Climate Changes
  • Biodiversity Scenarios
  • Carbon Cycle
  • CO2 Capture and Sequestration
  • Climate Hazards
  • Risks of Climate Change
  • Energy Policy

Environment Legislation:

Environmental legislation is a collection of many laws and regulations aimed at protecting the environment from harmful actions.

  • Water Quality
  • Waste Management
  • Contaminant Clean-up
  • Chemical Safety
  • Trans-boundary Responsibility
  • Public Participation and Transparency
  • Precautionary Principle
  • Prevention
  • Polluter Pays Principle

Solar Power:

Solar power is energy from the sun that is converted into thermal or electrical energy. Solar energy is the cleanest and most abundant renewable energy source available, and the U.S. has some of the richest solar resources in the world. Modern technology can harness this energy for a variety of uses, including generating electricity, providing light or a comfortable interior environment, and heating water for domestic, commercial, or industrial use.

Effluent Treatment:

The effluent treatment facility is installed for biological treatment of the effluents. The effluent bears large amounts of organic matter. The direct discharge of the effluent into the water bodies causes depletion of DO of the water. Hence, in order to meet the recommended standards of quality of the effluent, it is necessary to treat the effluent before it is finally disposed of. This treatment facility provides for removal of major pollutants from the effluent.

  • Storage Tank
  • Equalization Tank
  • Neutralization Tank
  • Primary Clarifier
  • Anaerobic Hybrid Reactor
  • Aeration Tanks
  • Final Clarifier
  • Sludge Drying Beds

Biomass Energy:

Biomass is an industry term for getting vitality by consuming wood, and another natural issue. Consuming biomass discharges carbon outflows yet has been classed as a sustainable power source in the EU and UN legitimate systems since plant stocks can be supplanted with new development. It has turned out to be prevalent among coal control stations, which change from coal to biomass keeping in mind the end goal to change over to sustainable power source age without squandering existing producing plant and framework. Biomass regularly alludes to plants or plant-based materials that are not utilized for nourishment or bolster, and are particularly called lignocellulosic biomass.

  • World Resources
  • Woody Crops
  • Biomass Conversation
  • Electrochemical Conversation

Wind Energy:

Wind power is the use of air flow through wind turbines to mechanically power generators for electric power. Wind power, as an alternative to burning fossil fuels, is plentiful, renewable, widely distributed, clean, produces no greenhouse gas emissions during operation, consumes no water, and uses the little land. The net effects on the environment are far less problematic than those of non-renewable power sources.

  • Wind Farms
  • Wind Power and Capacity and Production
  • Small-Scale Wind Power
  • Generator Characteristic and Stability


Hydroelectricity is power created from hydropower. In 2015 hydropower created 16.6% of the world's aggregate power and 70% of all inexhaustible power, and was relied upon to increment around 3.1% every year for the following 25 years. Hydropower is created in 150 nations, with the Asia-Pacific locale producing 33 per cent of worldwide hydropower in 2013. China is the biggest hydroelectricity maker, with 920 TWh of creation in 2013, speaking to 16.9 percent of local power utilities.

  • Conventional Dams
  • Pumped-Storage
  • Run-of-the-River
  • Tidal Energy

Nuclear Energy:

Atomic power is the utilization of atomic responses that discharge atomic vitality to create warm, which most oftentimes is then utilized as a part of steam turbines to deliver power in an atomic power plant. The term incorporates atomic parting, atomic rot, and atomic combination.

Fossil fuels:

Fossil fuel, any of a class of hydrocarbon-containing materials of biological origin occurring within Earth’s crust that can be used as a source of energy. All fossil fuels can be burned in air or with oxygen derived from air to provide heat. This heat may be employed directly, as in the case of home furnaces, or used to produce steam to drive generators that can supply electricity.

E –waste:

The composition of e-waste is diverse, containing more than 1,000 different toxic and non-toxic substances. The onset of technological advancement of electrical and electronic appliances is so rapid that new products quickly replace existing models or make certain items of electronic equipment redundant, useless, thereby generating a constant source of e-waste generation. E-waste is created from all electronic: computers, TVs, monitors, cell phones, PDAs, VCRs, CD players, fax machines, printers and many more.


South-Eastern Finland University of Applied Sciences, Finland || Tallinn University of Technology,Estonia || Peter the Great St. Petersburg Polytechnic University, Russia || Politecnico di Milano, Italy || Kaunas University of Technology, Lithuania || University of Central Lancashire, England || University of Central Lancashire, England || Peter the Great St. Petersburg Polytechnic University, Russia || Peter the Great St. Petersburg Polytechnic University, Russia || University of Pavia, Italy || Aalto University, Finland || University of Glasgow, Scotland || RWTH International Academy, Germany || Peter the Great St. Petersburg Polytechnic University, Russia || Budapest University of Technology and Economics (BME), Hungary || Peter the Great St. Petersburg Polytechnic University, Russia || VHL University of Applied Sciences, Netherlands || University of Glasgow, Scotland || University of Debrecen, Hungary || Teesside University, United Kingdom || University Carlos III of Madrid, Spain || University of Central Lancashire, England || Linköping University, Sweden || University of Central Lancashire, England || University of Central Lancashire, England || Mälardalen University, Sweden || Iuss Institute For Advanced Study, Pavia, Italy || University of Central Lancashire, England || Chalmers University of Technology, Sweden || Aalto University, Finland || Tallinn University of Technology, Estonia || Linnaeus University, Sweden ||  Centrale Nantes, France || Teesside University, United Kingdom || Chalmers University of Technology, Sweden || Linnaeus University, Sweden || Delft University of Technology, Netherlands || Szent István University, Hungary || University of Debrecen, Hungary || Ca' Foscari University of Venice, Italy || Centrale Nantes, France
International Conference on Civil and Environmental Engineering, Germany || International Conference on Food and Environmental Sciences, Vietnam || International Conference on Environment and Renewable Energy, Vietnam || International Conference on Environmental Sustainability, Development and Protection, Hungary || International Conference on Civil and Environmental Engineering , Austria || International Convention On Geochemistry And Environmental Chemistry , Canada || International Conference On Geological And Environmental Sustainability, Indonesia || International Conference on Sustainability, Human Geography and Environment 2018 , Poland || Ecolgy Ecosystems 2018, Canada || Climate 2018, USA || Marine Science 2018, USA || Global Warming 2018, Canada || Recycling Expo-2018, Germany || Green Energy Congress 2018, UK || Climate Change 2018, UK || Recycling Congress 2018, Netherlands || Bio-diversity Con gress-2018, Australia || Natural Hazards Congress-2018, Australia || Recycling Summit 2018, Japan || Environment and Health Congress 2018, Australia
Bioresource Technology || Building and Environment || Coastal Engineering || Environmental Modelling and Software || Journal of Hazardous Materials || Critical Reviews in Environmental Science and Technology || Science of the Total Environment || Reviews in Environmental Science and Biotechnology || Agronomy for Sustainable Development || Indoor Air || Ocean Engineering || Stochastic Environmental Research and Risk Assessment || Journal of Environmental Management || Ecological Engineering || Journal of Environmental Quality || AICHE Journal || International Journal of Marine Energy || International Journal of Sustainable Transportation || Journal of Environmental Sciences || Environmental Processes || Biodegradation || Environmental Geochemistry and Health || Clean Technologies and Environmental Policy || Process Safety and Environmental Protection: Transactions of the Institution of Chemical Engineers, Part B || Journal of Flood Risk Management || Waste Management and Research || Engineering in Life Sciences || Journal of Hydro-Environment Research || Sustainable Production and Consumption || Science and Technology for the Built Environment || Water, Air, and Soil Pollution || International Journal of Environmental Science and Technology || Journal of Polymers and the Environment  || Applied Biochemistry and Biotechnology || Environmental Progress and Sustainable Energy || Journal of Environmental Science and Health - Part A Toxic/Hazardous Substances and Environmental Engineering || Environment || Greenhouse Gases: Science and Technology || Paddy and Water Environment || Waste and Biomass Valorization || Journal of Environmental and Engineering Geophysics || Bio Resources || International Journal of Energy and Environmental Engineering || Journal of Environmental health science and Engineering || Journal of biological engineering || Asian Journal of Plant Science & Research || Journal of Petroleum & Environmental Biotechnology || Journal of Bioremediation & Biodegradation || Advances in Applied Science Research
Eco-Science || Climate Change || Natural Resources || Pollution || Green Science || Global Warming || Renewable Sources Of Energy || Non-Renewable Sources Of Energy || Earth Science || Environmental Issues || Recycling || Sustainability || Carbon dioxide || Free Energy || Waste Management || Pollution Control || Deforestation || Earth Science || Natural Resources || Environmental Laws || Ecosystem|| Greenhouse Effect || Environmental Agency || Wind Energy || Solar Energy || Geothermal Energy || Air Pollution || Water Pollution || Land Pollution || Noise Pollution || Environmental Biotechnology || Hazardous Waste || Ozone || Pollutant || Smoke || Smog || Waste Water Treatment || Toxicity || Toxic Substance || Waste Recycling and Reuse || Coastal Zones and Oceanography || Green Energy || Environmental Pollution || Ecology and Ecosystems || Environmental Toxicology || Green Chemistry || Green Engineering || Sustainable Environment || Pollution Control || Natural Hazards || Disaster Management || Biodiversity Conservation || Ecosystem Management || Coastal Dynamics and Management || Water Resource Management || Environmental Chemistry || Biosphere || Landscape Conservation || Environmental Genomics || Special Ecology || Restoration Ecology || Industrial Pollution || Pollution Sources || Bioenergy || Biofuels || Bio-Degradable || Non Bio-Degradable || stratosphere || Habitat || Ground Water || Bio-accumulation || Biosphere || Conservation Of Nature ||  Energy Conservation || Sustainable Development || World Environment Day || Geo-Science || Atmospheric Science


Media Partners/Collaborator

A huge thanks to all our amazing partners. We couldn’t have a conference without you!

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A huge thanks to all our amazing partners. We couldn’t have a conference without you!