Eutrophication Overview Eutrophication begins when an imbalance in nutrient levels occurs within an aquatic ecosystem. While nutrients like nitrogen and phosphorus are essential for the growth of aquatic plants and algae, an excess of these nutrients can trigger a cascade of events that lead to eutrophication. When nutrients are in surplus, phytoplankton (microscopic algae) and aquatic plants experience rapid growth. This phenomenon is commonly referred to as an algal bloom or phytoplankton bloom. These blooms can have detrimental effects on the ecosystem. Eutrophication is not limited to a specific type of water body. It can affect freshwater ecosystems, such as lakes and rivers, as well as coastal and marine environments, like estuaries and coastal bays. The presence of excess nutrients and the potential for eutrophication depend on local conditions, nutrient sources, and hydrology. Eutrophication is a significant environmental concern worldwide due to its impacts on water quality, aquatic life, and ecosystem stability. Preventing and managing eutrophication is essential for maintaining the health and sustainability of aquatic environments and ensuring clean water resources for future generations. Solutions to Control and Manage Eutrophication 1. Nutrient Management a. Reduced Fertilizer Use In agriculture, the implementation of precision farming practices can optimize the application of fertilizers. This reduces the risk of excess nutrients running off into nearby water bodies. Precision agriculture uses technology like GPS-guided tractors and sensors to apply fertilizers only where and when needed. b. Buffer Strips Establishing vegetative buffer strips along the edges of agricultural fields can effectively filter nutrients from runoff water before they enter nearby water bodies. These buffer strips are typically planted with native vegetation that absorbs excess nutrients. c. Wastewater Treatment Upgrading and enhancing wastewater treatment plants is crucial to reducing the discharge of nutrients, especially nitrogen and phosphorus, into rivers and lakes. Advanced treatment technologies can help remove these nutrients more effectively from sewage and industrial effluents before they are released into the environment. 2. Wetland Restoration a. Wetland Creation Establishing new wetlands or restoring degraded ones can significantly contribute to eutrophication control. Wetlands are natural nutrient sinks, as they can trap and remove excess nutrients from water, preventing them from flowing downstream. b. Constructed Wetlands Constructed wetlands, designed specifically for nutrient removal, can be strategically placed to treat nutrient-rich runoff before it enters water bodies. These artificial wetlands are engineered to mimic the nutrient-filtering functions of natural wetlands. 3. Riparian Buffers a. Buffer Establishment Encouraging landowners, particularly those along rivers and streams, to establish and maintain riparian buffer zones is essential. Buffer zones act as nutrient filters and help prevent nutrients from entering water bodies. b. Revegetation Planting native vegetation in riparian buffer zones enhances their nutrient uptake and filtration capabilities. Native plants are well-suited to the local ecosystem and can effectively absorb excess nutrients. 4. Algae Control a. Aeration In water bodies affected by eutrophication, aeration techniques can be employed to increase oxygen levels. Improved oxygen levels discourage the growth of certain algae species that thrive in low-oxygen conditions. b. Algaecides In cases of severe algal blooms, safe and targeted algaecides can be used to control and reduce excessive algal populations. Care must be taken to choose environmentally friendly options that minimize harm to non-target species. 5. Sustainable Land Use Practices a. Cover Crops Encouraging farmers to use cover crops during non-growing seasons helps retain nutrients in the soil. These cover crops prevent soil erosion, thus soil pollution and leaching of nutrients into nearby water bodies. b. Urban Planning Incorporating green infrastructure practices into urban planning can effectively manage stormwater runoff. Techniques like green roofs, permeable pavements, and rain gardens can capture and filter runoff, reducing the transport of nutrients into urban waterways. 6. Climate Change Mitigation Addressing climate change through reducing greenhouse gas emissions can indirectly help prevent eutrophication. Climate change can exacerbate eutrophication by altering precipitation patterns and temperatures, which can affect nutrient cycling. Mitigating climate change helps maintain stable environmental conditions that are less conducive to eutrophication. 7. Reduced Fossil Fuel Emissions Airborne nitrogen compounds can contribute to eutrophication when they deposit into water bodies. Reducing emissions of nitrogen oxides from vehicles and industrial sources can help prevent atmospheric deposition: 8. Responsible Recreational Activities Recreational activities can introduce nutrients into water bodies through sewage discharge from boats, fishing practices, and other human activities: Encourage and provide facilities for proper sewage disposal from recreational boats. Educate the public about responsible recreational practices to minimize nutrient inputs. By improving agricultural practices, wastewater treatment, land use management, and public awareness, we can create an effective strategy to combat eutrophication. Eutrophication is a complex problem having multiple sources and drivers; thus, it requires a multifaceted solution. When implemented collectively, these measures can help us preserve the health of our water bodies, ensuring they remain sustainable for generations to come. It is our responsibility that the promise of a cleaner and healthier environment for all can be achieved.

Eutrophication Definition and Meaning Eutrophication is a process that occurs in aquatic ecosystems when there is an excessive accumulation of nutrients, primarily nitrogen and phosphorus. This nutrient enrichment leads to an overgrowth of algae and aquatic plants, often resulting in harmful ecological consequences. Eutrophication can occur in various water bodies, including lakes, rivers, reservoirs, and coastal areas. This process has significant consequences for aquatic ecosystems, leading to algal blooms, oxygen depletion, and disruptions in biodiversity. These nutrients can originate from various sources, including agricultural runoff, sewage discharges, industrial effluents, and atmospheric deposition. Mechanism or Process of Eutrophication 1. Nutrient Input Excess nutrients, especially nitrogen and phosphorus, enter the aquatic ecosystem from external sources. These nutrients serve as fertilizers, promoting the growth of algae and aquatic plants. 2. Algal Blooms The increased availability of nutrients triggers rapid and often excessive growth of algae (algal blooms) and aquatic plants in the water body. These organisms may form dense mats on the surface or become suspended in the water column. 3. Oxygen Depletion As the algae and aquatic plants proliferate, they eventually die and sink to the bottom, where they are decomposed by bacteria. This decomposition process consumes oxygen from the water, leading to reduced oxygen levels, a condition known as hypoxia or anoxia. 4. Negative Impacts The reduced oxygen levels negatively affect the survival of fish and other aquatic organisms that depend on oxygen for respiration. Fish kills, declines in biodiversity, and disruptions in the food web can result from severe eutrophication. Eutrophication can also lead to deteriorated water quality, including reduced clarity, foul odors, and unsightly surface scums. Causes of Eutrophication Understanding the causes of eutrophication will help in the implementation of effective measures and strategies to control and prevent eutrophication. 1. Excess Nutrient Inputs The primary cause of eutrophication is the excessive input of nutrients, specifically nitrogen and phosphorus, into aquatic ecosystems. These nutrients are essential for plant and algal growth, but when present in abundance, they can trigger the uncontrolled proliferation of aquatic plants and algae, leading to the formation of algal blooms. 1. Nutrient Runoff from Agriculture Agriculture is a significant contributor to eutrophication. Excess nutrients from fertilizers, manure, and other agricultural practices can wash into nearby water bodies through runoff. Nitrogen and phosphorus are particularly problematic as they act as fertilizers, promoting excessive algal growth when present in high concentrations. 2. Urban and Industrial Discharges Urban and industrial areas release wastewater that contains elevated nutrient levels into water bodies. Sewage treatment plants may not always effectively remove nitrogen and phosphorus compounds, allowing them to enter aquatic ecosystems. Stormwater runoff from urban areas can also transport nutrients from streets, lawns, and construction sites into nearby water bodies. 3. Atmospheric Deposition Nitrogen compounds from the atmosphere can contribute to eutrophication when they are deposited into water bodies. These compounds can come from various sources, including vehicle emissions, industrial processes, and agricultural activities. They settle on the Earth's surface and are subsequently washed into water bodies during rainfall events. 4. Deforestation and Land Use Changes Deforestation and changes in land use can disturb the natural balance of nutrient cycling. When forests are cleared for agriculture, construction, or development, nutrients previously retained in vegetation and soil can be released into water bodies. This release disrupts the equilibrium of nutrient cycling in ecosystems. 5. Climate Change Climate change can indirectly influence eutrophication by altering precipitation patterns and increasing temperatures. More frequent and intense rainfall events can lead to greater nutrient runoff from land surfaces, while rising temperatures can accelerate nutrient cycling and microbial activity in water bodies, promoting algal blooms. 6. Aquaculture and Fish Farming Aquaculture and fish farming can introduce excess nutrients into aquatic systems. Fish waste and uneaten feed release nitrogen and phosphorus into the water, contributing to nutrient enrichment. Without proper management practices, aquaculture facilities can become sources of eutrophication. Effects of Eutrophication 1. Algal Blooms a. Water Clarity Algal blooms consist of dense populations of algae that can turn the water dark and gloomy reducinng water clarity. The excessive growth of algae shades the water surface, limiting the penetration of sunlight. This reduced sunlight hinders the growth of submerged aquatic vegetation, such as seagrasses, which are essential habitats for many aquatic species. The decline in water clarity not only disrupts the ecosystem but also affects recreational activities like diving and boating. b. Oxygen Depletion As algal blooms die off and settle to the bottom, they undergo decomposition by bacteria. During this decomposition process, a significant amount of oxygen is consumed. In cases of severe eutrophication, this can lead to the creation of hypoxic (low oxygen) or anoxic (no oxygen) conditions in the water column. Such "dead zones" are detrimental to fish and other aquatic organisms, as they struggle to find sufficient oxygen to survive. The disruption of oxygen levels can lead to fish kills and negatively impact the entire aquatic food web. c. Toxic Blooms Certain types of algae in eutrophic waters can produce toxins, leading to what are known as harmful algal blooms (HABs). These toxins can be harmful to aquatic life and pose health risks to humans. When fish and other aquatic organisms ingest these toxins, they can suffer from various health issues, and in severe cases, it can lead to fish kills. Moreover, HABs can contaminate drinking water supplies, posing a threat to human health if not properly managed. The toxins can cause illness or even death in humans if consumed through contaminated water or seafood. 2. Decline in Biodiversity a. Algae Dominance The proliferation of algae, especially phytoplankton, can lead to the dominance of these organisms over other native aquatic plants. Algal blooms can outcompete submerged aquatic vegetation and macrophytes, reducing plant diversity in aquatic ecosystems. This reduction in plant diversity can disrupt the habitats and food sources for various aquatic organisms. b. Fish and Macroinvertebrates Eutrophication-induced oxygen depletion can create conditions where fish and macroinvertebrates struggle to survive. Oxygen is vital for their respiration, and when oxygen levels drop too low, fish kills can occur. The depletion of oxygen in "dead zones" can displace fish from their usual habitats, affecting both their feeding and reproductive behaviors. Macroinvertebrates, such as insects and crustaceans, also depend on oxygen and are similarly affected by these conditions. c. Biodiversity Loss The decline in plant diversity and the disruption of the aquatic food web can lead to overall biodiversity loss in eutrophic ecosystems. When one species experiences a decline or is outcompeted, it can have cascading or interlinked effects throughout the ecosystem, affecting the populations of predators, prey, and other interconnected species. 3. Economic Impact a. Fisheries Eutrophication can have substantial economic implications, particularly for commercial and recreational fisheries. Reduced water quality, fish kills, and habitat degradation can lead to declining fish populations. This, in turn, affects the livelihoods of fishermen and the availability of seafood for consumers. b. Tourism Tourism is another economic sector that can suffer due to eutrophication. Algae-covered water bodies with foul odours are unattractive to tourists. Reduced tourism can harm local economies that rely on visitors for revenue. c. Water Treatment Costs Water treatment facilities must be advanvced and sophisticated as per the effects of eutrophication, including the removal of algal toxins and excess nutrients from drinking water supplies. These additional treatment requirements can increase the cost of providing clean and safe drinking water to communities. 4. Water Quality Degradation a. Taste and Odour Issues Algal blooms can release compounds that impart undesirable tastes and odours to drinking water supplies. Consumers may detect earthy, musty, or fishy odours and flavors in their tap water. b. Recreational Impact The degraded water quality resulting from eutrophication affects recreational activities. Swimmers and boaters may be deterred by murky waters and the presence of algal scums. These conditions can discourage people from engaging in water-based recreational activities, impacting local tourism. c. Aesthetic Concerns The visual appearence of lakes, rivers, and coastal areas is also compromised by eutrophication. Algal scums, floating debris, and turbid waters detract from the natural beauty of these environments. Ultimately, diminish the overall quality of life for residents and visitors. 5. Carbon and Nutrient Cycling a. Shifts in rbonCa Flow Eutrophication can lead to shifts in the flow of carbon within aquatic ecosystems. Algal blooms result in the production of organic matter, which, when decomposed, releases carbon dioxide (CO2) into the water. Increased CO2 concentrations can contribute to a more acidic environment and have implications for the global carbon cycle. b. Nutrient Retention During periods of eutrophication, excess nutrients may be taken up by algae and subsequently deposited in sediments as the algae die and sink. These nutrient-rich sediments can serve

Fossil fuels are a type of fuel that is made from the remains of dead plants and animals that lived millions of years ago. They are the main source of energy for the world today, and they are used to power our homes, businesses, and transportation systems. There are three main types of fossil fuels: There are three main types of fossil fuels: coal, oil, and natural gas. Coal is a solid fuel that is made from the remains of plants that lived millions of years ago. It is used to generate electricity, heat homes and businesses, and make steel. Oil is a liquid fuel that is made from the remains of animals and plants that lived millions of years ago. It is used to make gasoline, diesel fuel, jet fuel, and plastics. Natural gas is a gaseous fuel that is made from the remains of plants and animals that lived millions of years ago. It is used to heat homes and businesses, generate electricity, and make plastics. Fossil fuels are a convenient and reliable source of energy. However, they also have a number of environmental problems. When fossil fuels are burned, they release carbon dioxide into the atmosphere. Carbon dioxide is a greenhouse gas that traps heat, causing the Earth's temperature to rise. This is a major contributor to climate change. Fossil fuels also pollute the air. When fossil fuels are burned, they release pollutants such as sulfur dioxide, nitrogen oxides, and particulate matter into the air. These pollutants can cause respiratory problems, heart disease, and cancer. In India, the overuse of fossil fuels is a major problem. The country is the third-largest consumer of coal in the world, and it is also a major producer of oil and natural gas. The overuse of fossil fuels in India is contributing to climate change and air pollution. The world is working to overcome the problem of fossil fuel overuse. There is a growing movement to switch to renewable energy sources such as solar and wind power. These sources of energy do not produce greenhouse gases or air pollution. There are also a number of ways to reduce our reliance on fossil fuels. We can drive less, use public transportation, and walk or bike more. We can also make our homes more energy efficient. Fossil fuels are a major part of our lives, but they also have a number of environmental problems. We need to find ways to reduce our reliance on fossil fuels and switch to cleaner sources of energy. News Update: In 2023, the Indian government announced a plan to reduce its reliance on fossil fuels. The plan includes investing in renewable energy sources, improving energy efficiency, and promoting public transportation. The government also plans to phase out coal-fired power plants by 2030. The world is also making progress in reducing its reliance on fossil fuels. In 2022, the global investment in renewable energy reached a record high of $303 billion. This investment is helping to drive the development of new renewable energy technologies and make them more affordable. The future of energy is clean and renewable. We are making progress in reducing our reliance on fossil fuels, and we are investing in new technologies that will help us power our world without harming the environment.

This course introduces the interdisciplinary field of sustainable development and draws upon the most recent developments in the social and physical sciences. It discusses the intricate relationships between the global economy and the natural world as well as the problems associated with development that is both socially and environmentally sustainable. In addition to addressing the problems of environmentally sustainable and socially inclusive development, it describes the intricate relationships between the global economy and the natural environment of the planet. By the end of this course, students will have gained a broad overview of the critical challenges and potential solutions for achieving growth in the 21st century. You can expect to learn: An Introduction to Sustainable Development The impact of individuals on inequality, poverty, health, and human rights The function of the planet, including its boundaries, the importance of renewable energy sources, and how to use our natural resources sustainably. How to promote economic growth while ensuring that no one is left behind.

About This Course This course introduces the interdisciplinary field of sustainable development and draws upon the most recent developments in the social and physical sciences. It discusses the intricate relationships between the global economy and the natural world as well as the problems associated with development that is both socially and environmentally sustainable. In addition to addressing the problems of environmentally sustainable and socially inclusive development, it describes the intricate relationships between the global economy and the natural environment of the planet. By the end of this course, students will have gained a broad overview of the critical challenges and potential solutions for achieving growth in the 21st century. Course Learning Objectives You can expect to learn: An Introduction to Sustainable Development The impact of individuals on inequality, poverty, health, and human rights The function of the planet, including its boundaries, the importance of renewable energy sources, and how to use our natural resources sustainably. How to promote economic growth while ensuring that no one is left behind. This course is self-paced, which means you can complete the content anytime.

Module 1: What is Sustainable Development? Chapter 1: Introduction to Sustainable Development Chapter 2: Economic Growth and Progress Chapter 3: Continuing Poverty Chapter 4: Environmental Threats Chapter 5: Business As Usual Versus Sustainable Development Chapter 6: From the MDGs to the SDGs: Agenda 2030 Module 2: Economic Development – How We Measure It, How It Varies Around the World Chapter 1: Incomes Around the World Chapter 2: Urban/Rural Inequality Chapter 3: Income Inequality Within Countries Chapter 4: Measuring Well-being Chapter 5: Convergence or Divergence? Module 3: A Short History of Economic Development Chapter 1: Economic Development is New, Starting Around 1750 Chapter 2: The Industrial Revolution Starts in England Chapter 3: The Great Waves of Technological Change Chapter 4: The Diffusion of Economic Growth Chapter 5: Economic Development Since World War II: The Making of Globalization Module 4: Why Did Some Countries Advance While Others Remained in Poverty? Chapter 1: The Idea of Clinical Economics Chapter 2: The Role of Physical Geography: Transport, Energy, Disease, Crops Chapter 3: The Role of Culture: Demography, Education, Gender Chapter 4: The Role of Politics Chapter 5: Which Countries Are Still Stuck in Poverty? Module 5: The MDGs and the End of Extreme Poverty Chapter 1: The Reasons to Believe that Extreme Poverty Can Be Ended Chapter 2: A Strategy to End Extreme Poverty in Africa Chapter 3: South Asia: The Continuing Challenge of the Food Supply Chapter 4: A Closer Look at Official Development Assistance Chapter 5: Designing Practical Interventions: The Case of Millennium Villages Module 6: Growth within Planetary Boundaries Chapter 1: The Origins of the Boundary Concept: Thomas Malthus Chapter 2: Neo-Malthusian Frameworks: Growth Dynamics Chapter 3: The 9 Planetary Boundaries Chapter 4: Living Within Limits: Energy, Agriculture, Industry Module 7: Human Rights and Gender Equality Chapter 1: The Ethics of Wealth, Poverty, and Inequality Chapter 2: Major UN Covenants and Declarations Chapter 3: Divided Societies Chapter 4: Forces of Widening Inequalities Chapter 5: Gender Inequity Module 8: Education Chapter 1: Life-Cycle Approach to Human Development Chapter 2: Early Childhood Development Chapter 3: The Rising Returns to Education and the Supply Response Chapter 4: Social Mobility Chapter 5: The Role of Higher Education in Sustainable Development Module 9: Universal Health Coverage Chapter 1: The Human Right to Health Chapter 2: Poverty and Disease Chapter 3: Designing and Financing a Primary Health System in Low-Income Settings Chapter 4: Ten Recommended Steps to Health for All in the Poorest Countries Chapter 5: The Challenges of Health Coverage in High-Income Countries Module 10: Sustainable Food Supply and the End of Hunger Chapter 1: Malnutrition Chapter 2: Farm Systems, Ecology, and Food Security Chapter 3: How Environmental Change Threatens the Food System Chapter 4: How the Food System Threatens the Environment Chapter 5: Towards a Sustainable Global Food Supply Module 11: Sustainable Cities Chapter 1: The Patterns of Urbanization Around the World Chapter 2: What Makes a City Sustainable? Chapter 3: Smart Infrastructure Chapter 4: Urban Resilience Chapter 5: Planning for Sustainable Development Module 12: Curbing Climate Change Chapter 1: The Basic Science of Climate Change Chapter 2: Consequences Chapter 3: Mitigation Chapter 4: Adaptation Chapter 5: Mitigation Policies Module 13: Saving Biodiversity Chapter 1: What is Biodiversity? Chapter 2: Biodiversity Under Threat Chapter 3: Oceans and Fisheries Chapter 4: Deforestation Chapter 5: International Dynamics Module 14: The Proposal for Sustainable Development Goals Chapter 1: The Sustainable Development Goals Chapter 2: Goal-Based Development Chapter 3: Financing for Sustainable Development Chapter 4: Principles of Good Governance Chapter 5: Is Sustainable Development Feasible

About Us Global Youth for Environment and Sustainability - GY4ES.ORG Empowering youth with green skills to make them successful green professionals. Our Vision “A world where youth-led action drives sustainable change, with one million young green professionals leading the charge towards achieving the Sustainable Development Goals (SDGs) by 2030.” Our Mission Our mission is to build the capacity of youth and empower them to become successful green professionals. We achieve this by providing access to the latest knowledge, skills, and opportunities in the field of environment and sustainability. Through industry-oriented short-term courses, mentorship programs, and a vast network of green professionals, we bridge the gap between education and the needs of the green job market. Our goal is to equip young individuals with the necessary tools and resources to kick-start and grow their green careers, ultimately contributing to achieving Sustainable Development Goals and creating a sustainable future for future generations. Our Work Introducing Global Youth for Environment and Sustainability, the ultimate platform for young individuals aspiring to make a difference in the world of green jobs. What sets us apart? It's our unwavering dedication to equipping youth with the latest knowledge, skills, and opportunities needed to become successful green professionals. Our secret sauce lies in our industry-oriented short-term courses, meticulously designed to bridge the gap between education and the demands of the green job market. We empower our members with cutting-edge skills that are relevant and sought-after in the developmental sector. But it doesn't stop there. Our extensive network of green professionals provides a vibrant community for knowledge exchange and collaboration, helping our members grow and thrive in their green careers. And with our Global Green Jobs Portal, we ensure they stay updated on the latest green career opportunities worldwide. What truly sets us apart is our unwavering commitment to the future. We envision a world where one million young green professionals actively contribute to achieving Sustainable Development Goals by 2030. Together, we can make a tangible impact, creating a sustainable and thriving planet for future generations. Join us at Global Youth for Environment and Sustainability, where we empower youth with green skills and guide them towards becoming successful green professionals. Together, let's unlock the potential of the next generation to build a greener and more sustainable future. Legal We are registered under the "Society's registration act 1860" as well as "Public trust act 1950" in India. Societies Registration Act 1860 Download Document Public Trust Act, 1950 Download Document

Work With Us Join the versetile team of global youth. Our Internship Program offers a unique opportunity to learn digital skills and gain valuable experience. Interns will be able to participate in hands-on projects and have access to training and mentorship from our team of experts. Upon successful completion of the program, interns will receive an official certificate and a letter of experience. This is an excellent way to develop digital skills and gain valuable work experience while contributing to the success of our organization. Know More Global Youth Green Internship Program A degree is not enough to get a job; an internship counts. 95% of employers prefer candidates with internship experience over fresher ones. So it's always better to have good professional internship experience. For Whom? For freshers Looking for professional work experience. Confused about where to start a career. Not confident about a job interview. Has nothing to tell about their achievements. For Students, Struggling to choose the right career. Has skills but is not sure about the results. Want to practice their skills on real projects Has Time but does not have an opportunity. Why Internship? Internship Helps you with Building a strong resume. Showcasing a success story and achievements. Showcasing a proven track record of professional work. Out of thousands of applicants, employers prefer to hire experienced ones or those with Internship/practical work experience. Eligibilities Duration Benefits You must have your own laptop/PC with stable Internet connection. You have to commit 30 hrs per week. i.e. 5 hrs daily for 3 Months You must attend all daily meetings at 9 AM You must aware as this is an UNPAID Internship 3 Months 1. Digital Tools training and online working essential skills 2. Personal Leadership skills 3. Professional communication skills 4. Team-building skills 5. Job readiness soft skills [IMP NOTE - This is an UNPAID Internship, Which means it does NOT have any economic benefit] Apply Now

Green Skiils Academy Green Skills Academy Green Professionl's Network Green Proffesional's Network Green Jobs Listing Empowering youth with green skills to make them successful green professionals About Us Green Skill Academy Global Youth Green Skill Academy is a comprehensive education platform designed to help develop the next generation of sustainability changemakers. We offer pioneering courses in Environmental, Social, and Governance (ESG), Environment, Health, and Safety (EHS), Corporate Social Responsibility (CSR) Green Audit, Circular Economy, corporate sustainability, and climate mitigation, providing a holistic approach to an environmentally sustainable future. All programs Expert Level Certification Basic Level Certification Professional Certification Climate Change and Sustainable Development 62 Participants ₹999.00 Join Climate Change 101 : Challenges and Opportunities 40 Participants ₹999.00 Join Sustainable Development 101: Ways 2 Secure Future 28 Participants ₹999.00 Join Global Green Blogs explore the ocean of the knowledge in the green career feild. Environmental Pollution From Gadgets to Garbage: Understanding the Impact of E-Waste ratings-display.rating-aria-label (1) 24 Post not marked as liked Environment The Ozone Layer: A Shield of Protection for Our Planet 11 1 like. Post not marked as liked 1 Sustainable Development "Sustainable Development: Navigating the Path to Better Tomorrow" 19 2 likes. Post not marked as liked 2 1 2 3 4 5 Find GREEN JOBS BHAVANA UPADHYAY 1 ngày trước Project Manager (Environment) AT SAI BIOCARE IN ODISHA Like Reactions 1 0 comments 0 Views BHAVANA UPADHYAY 1 ngày trước Project/Senior Environmental Chemist – Data Validation AECOM Bengaluru, India Like Reactions 1 0 comments 0 Views BHAVANA UPADHYAY 1 ngày trước Principal Engineer- Waste Water Modeling AECOM Bangalore, India Like Reactions 1 0 comments 0 Views ​ Upcoming Events No upcoming events at the moment GLOBAL YOUTH Green Professional's Network Connect with Experts in the field of Environmental Science, Sustainability, Climate C hange, ESG, EHS, CSR, Advocacy Policy & Social Developmental Sector. JOIN NOW Our Top Recruiters "Thinking of Green Career, Think GY4ES." Amanda Johns, COO, HORIZON Success Stories Our students achieved their dream job with the help of our professional certification courses, and today they are serving and conserving nature with extraordinary career growth. Snehank Shekhar Sustainability Expert Chandni Rupani Environmental Manager Pranita Herwade Environmental Activist Work With Us Join our diversified team to experience creative work culture and inclusiveness. APPLY NOW Join Our Green Community Email Submit Thanks for submitting! Be the first to receive information about green job opportunities and the latest updates in the green career field. WORLD ENVIRONMENT DAY QUIZ The 2023 World Environment Day campaign #BeatPlasticPollution calls for global solutions to combat plastic pollution. Check your knowledge about #solutions to plastic pollution and get certificate of participation by clicking on the link below Take a quiz now for the 2023 #WorldEnvironmentDay celebrations because we can #BeatPlasticPollution! TAKE A QUIZ