Ge3451 Ess Unit-4
Ge3451 Ess Unit-4
Sustainable Development
Defn: Sustainable development is a concept that refers to meeting the needs of the present
generation without compromising the ability of future generations to meet their own needs.
It involves integrating economic, social, and environmental considerations to ensure long-
term prosperity and well-being for both current and future generations.
The term “Sustainable Development” was popularized in 1987 by the Brundtland
Commission, formally known as the World Commission on Environment and Development,
in its report "Our Common Future." The report defined sustainable development as
"development that meets the needs of the present without compromising the ability of future
generations to meet their own needs."
Sustainable development recognizes the interdependence of economic growth, social equity,
and environmental protection.
It emphasizes the importance of balancing economic development with social inclusion and
environmental stewardship to achieve a more equitable, resilient, and sustainable society.
Key principles of sustainable development include:
1. Environmental stewardship: Protecting and conserving natural resources and ecosystems to
maintain biodiversity and ecosystem services.
2. Social equity: Ensuring fair distribution of resources and opportunities, promoting social
cohesion, and addressing issues of poverty, inequality, and social injustice.
3. Economic prosperity: Fostering inclusive and sustainable economic growth that enhances
quality of life, creates decent work opportunities, and promotes innovation and resource
efficiency.
4. Inter-generational equity: Considering the needs and interests of future generations in
decision-making processes and resource management practices.
5. Participatory decision-making: Engaging stakeholders, including communities, civil society
organizations, businesses, and governments, in decision-making processes to ensure
transparency, accountability, and legitimacy.
Page |2
and decision-making processes, adopt eco-friendly practices, and engage in CSR initiatives
that benefit the environment and local communities.
7. Stakeholder Engagement and Collaboration: Achieving sustainability goals requires
collaboration among governments, businesses, civil society organizations, and local
communities. Sustainable environmental management involves engaging stakeholders,
fostering partnerships, and promoting participatory decision-making processes.
8. Education and Awareness: Raising awareness and educating the public about environmental
issues and sustainable practices are essential for fostering a culture of sustainability.
Sustainable environmental management includes educational initiatives, outreach programs,
and campaigns to promote environmental literacy and behaviour change.
9. Policy Development and Implementation: Governments play a crucial role in setting
policies and regulations that promote environmental sustainability. Sustainable environmental
management involves developing and implementing policies that encourage sustainable
practices, regulate pollution, and promote conservation efforts.
10. Monitoring and Evaluation: Continuous monitoring and evaluation are essential for
assessing the effectiveness of sustainability initiatives and identifying areas for improvement.
Sustainable environmental management involves collecting data, tracking progress towards
sustainability goals, and adjusting strategies as needed.
Economic aspects of Sustainability
The economic aspects of sustainable development focus on finding ways to grow the economy
while minimizing negative impacts on the environment and ensuring long-term prosperity.
1. Resource Efficiency: Encouraging industries and businesses to use resources more efficiently
can reduce costs, increase productivity, and minimize waste generation. This often involves
adopting cleaner production methods, improving energy efficiency, and promoting recycling
and reuse.
2. Green Technologies and Innovation: Investing in research and development of green
technologies and innovation can drive economic growth while reducing environmental
impact. This includes renewable energy technologies, sustainable agriculture practices, eco-
friendly manufacturing processes, and clean transportation solutions.
3. Eco-Tourism and Sustainable Tourism: Promoting eco-tourism and sustainable tourism
practices can generate economic benefits while preserving natural ecosystems and cultural
Page |4
2. Public Health and Safety: Protecting public health and safety from environmental hazards,
such as air and water pollution, hazardous waste, and exposure to toxic chemicals, is a priority
of sustainable environmental management. This involves implementing regulations,
monitoring programs, and public health interventions to mitigate risks and ensure a healthy
environment for communities.
3. Community Engagement and Participation: Sustainable environmental management
involves engaging local communities and stakeholders in decision-making processes,
planning efforts, and environmental initiatives to ensure their voices are heard, their needs are
addressed, and they have a sense of ownership and empowerment.
4. Livelihoods and Economic Opportunities: Sustainable environmental management seeks to
create economic opportunities and improve livelihoods for local communities through
initiatives such as sustainable agriculture, eco-tourism, renewable energy projects, and green
jobs creation.
5. Education and Capacity Building: Promoting environmental education, awareness, and
capacity building at all levels of society is crucial for fostering a culture of sustainability and
empowering individuals and communities to participate in environmental stewardship and
decision-making processes.
6. Human Rights Protection: Recognizing and upholding human rights, including the right to
a clean and healthy environment, is fundamental to sustainable development. Sustainable
environmental management strives to protect human rights, promote social justice, and
enhance the well-being and dignity of all people.
Millennium Development Goals and protocols
The transition from unsustainability to sustainability, as reflected in the Millennium
Development Goals (MDGs), involved a concerted global effort to address various social,
economic, and environmental challenges.
The MDGs were established by the United Nations in 2000 with the aim of tackling poverty,
hunger, disease, and environmental degradation by the target year of 2015.
While the MDGs primarily focused on social and economic development, they also indirectly
contributed to sustainability by addressing key issues that intersect with environmental
concerns.
Page |6
- Paris Agreement: Held in Paris in 2015, builds upon the principles of the Kyoto Protocol,
focusing on limiting global temperature rise, adapting to climate change impacts, and fostering
sustainable development pathways.
- Convention on Biological Diversity (CBD): The Convention was held at Rio de Janeiro,
Brazil on 5 June 1992 and entered into force on 29 December 1993. Aims to conserve biodiversity,
ensure sustainable use of biological resources, and promote equitable sharing of benefits arising
from genetic resources.
Page |8
- Montreal Protocol: It was held in Montreal, Canada and was agreed on 16 September 1987,
and entered into force on 1 January 1989 Addresses ozone depletion by phasing out ozone-
depleting substances, contributing to environmental sustainability and human health protection.
- Manufacturing: 16,500 ₹
- Services: 24,800 ₹
GDP (Production Approach) = Agriculture + Manufacturing + Services
= 8200 ₹+ 16,500 ₹+ 24,800 ₹
= 49,500 ₹
So, the GDP using the production approach is 49,500 ₹.
Expenditure Approach:
To calculate GDP using the expenditure approach, we sum up all expenditures in the economy,
including consumption (C), investment (I), government spending (G), and net exports (NX).
Ex: - Consumption (C): 33,150 ₹
- Investment (I): 12,400 ₹
- Government Spending (G): 8200 ₹
- Net Exports (Exports - Imports) (NX): 4,100 ₹
GDP (Expenditure Approach) = C + I + G + NX
= 33,150 ₹+ 12,400 ₹+ 8200 ₹+ 4100
= 57,850 ₹
So, the GDP using the expenditure approach is 57,850 ₹.
GDP and Economic well being
GDP is often used as a measure of economic well-being.
Higher GDP per person indicates higher standard of living.
Limitations of GDP
Gross Domestic Product (GDP) has several limitations that make it an incomplete indicator
of overall well-being and economic health.
Some of the key limitations of GDP include:
1. Excludes Non-Market Transactions: GDP primarily measures market transactions, excluding
non-market activities such as household work, volunteer work, and informal sector activities.
This exclusion can lead to an incomplete understanding of the economy's true output and
contributions to well-being.
P a g e | 11
2. Ignores Income Distribution: GDP does not account for how income is distributed among the
population. High GDP per capita does not necessarily imply equitable distribution of income,
and income inequality can have significant social and economic implications.
3. Quality of Life Considerations: GDP does not capture aspects of quality of life such as health,
education, environmental quality, and social capital. Countries with high GDP levels may still
face challenges related to healthcare accessibility, education attainment, and overall happiness.
4. Environmental Externalities: GDP does not account for environmental costs or degradation
associated with economic activities. Pollution, depletion of natural resources, and climate
change impacts are not reflected in GDP figures, leading to an incomplete assessment of
economic sustainability.
5. Qualitative Factors Ignored: GDP focuses on the quantitative aspects of economic output and
does not consider qualitative factors such as innovation, creativity, and social progress. These
factors are crucial for long-term economic development and societal well-being but are not
captured by GDP alone.
Intervention Areas:
- Income generation programs.
- Social safety nets.
- Access to basic services like education and healthcare.
Zero Hunger (Goal 2)
Targets:
- End hunger and ensure access to nutritious food.
- Achieve food security and promote sustainable agriculture.
Indicators:
- Prevalence of undernourishment.
- Prevalence of wasting and stunting in children.
- Agricultural productivity and sustainability.
Intervention Areas:
- Agricultural productivity improvement.
- Food distribution systems.
- Nutrition education and interventions.
Good Health and Well-being (Goal 3)
Targets:
- Reduce maternal mortality.
- End preventable deaths of new-borns and children.
- Combat communicable diseases.
Indicators:
- Maternal mortality ratio.
- Infant mortality rate.
- Prevalence of HIV/AIDS, malaria, and other diseases.
Intervention Areas:
- Accessible healthcare services.
- Disease prevention and control programs.
- Health infrastructure development.
P a g e | 13
Defn: The periodic modification of Earth’s climate brought about due to the changes in the
atmosphere as well as the interactions between the atmosphere and various other geological,
chemical, biological and geographical factors within the Earth’s system is called Climate
change.
Natural Factors – affect the climate over a period of thousands to millions of years, such as –
Continental Drift – have formed millions of years ago when the landmass began to drift apart
due to plate displacement. This impacts climate change due to the change in the landmass’s
physical features and position and the change in water bodies’ position like the change in the
follow of ocean currents and winds.
Volcanism – Volcanic eruption emits gasses and dust particles that last for a longer period causing
a partial block of the Sun rays thus leading to cooling of weathers and influencing weather
patterns.
Changes in Earth’s Orbit – A slight change in the Earth’s orbit has an impact on the sunlight’s
seasonal distribution reaching earth’s surface across the world.
Anthropogenic Factors – is mainly a human-caused increase in global surface temperature. Such
as –
Greenhouse Gasses – these absorb heat radiation from the sun resulting in an increase in Global
Temperature. GHGs mostly do not absorb solar radiation but absorb most of the infrared emitted
by the Earth’s surface. Global warming begins with the greenhouse effect, which is caused by
the interaction between incoming radiation from the sun and the atmosphere of Earth.
Atmospheric Aerosols – these can scatter and absorb solar and infrared radiation. Solar radiation
scatters and cools the planet whereas aerosols on absorbing solar radiation increase the
temperature of the air instead of allowing the sunlight to be absorbed by the Earth’s surface.
Aerosols have a direct effect on climate change on absorption and reflection of solar radiation.
Indirectly it can affect by modifying clouds formation and properties. It can even be transported
thousands of kilometres away through winds and circulations in the atmosphere.
P a g e | 17
Shift in land-use pattern – Most of the forests and land covers are replaced by agricultural
cropping, land grazing, or for Industrial or commercial usage. The clearing of forest cover
increases solar energy absorption and the amount of moisture evaporated into the atmosphere.
The lower the albedo (reflectivity of an object in space), the more of the Sun’s radiation gets
absorbed by the planet and the temperatures will rise. If the albedo is higher and the Earth is more
reflective, more of the radiation is returned to space, leading to the cooling of the planet.
Global, Regional and local environmental issues and possible solutions-case studies
Global, regional, and local environmental issues related to climate change are multifaceted
and require a variety of solutions. Here are some case studies highlighting these issues and
potential solutions:
Global Issue:
1. Rising Sea Levels
Case Study: The Maldives
The Maldives, an island nation in the Indian Ocean, faces the threat of sea-level rise due to
climate change. With an average ground level of just 1.5 meters above sea level, even a small rise
in sea levels poses a significant risk of inundation. Hence the Maldives government has been
proactive in advocating for global action to reduce greenhouse gas emissions to mitigate climate
change. Implementing coastal protection measures such as building sea walls and artificial reefs
to reduce the impact of rising sea levels. Investing in renewable energy sources such as solar and
wind power to reduce dependency on fossil fuels.
2. Melting Polar Ice Caps
Case Study: Greenland
Greenland's ice sheet is melting at an accelerating rate due to global warming, contributing
to rising sea levels and climate instability. Therefore, implementing measures to reduce carbon
emissions globally to slow down the rate of polar ice melt. Investing in adaptation strategies for
communities affected by sea-level rise, such as relocating infrastructure and enhancing coastal
defences.
P a g e | 18
Regional Issue:
1. Deforestation in the Amazon Rainforest
Case Study: Brazil
Deforestation in the Amazon rainforest, primarily driven by agricultural expansion and
illegal logging, contributes to greenhouse gas emissions and loss of biodiversity. Strategies have
to be made for strengthening law enforcement and implementing policies to combat illegal logging
and land clearing, promoting sustainable land-use practices such as agroforestry and reforestation
efforts and supporting indigenous land rights and empowering local communities to participate in
conservation efforts.
Local Issue: Urban Air Pollution
Case Study: New Delhi, India
New Delhi frequently experiences severe air pollution, particularly during the winter
months, due to vehicle emissions, industrial activities, and agricultural burning. Therefore,
implementing stricter emission standards for vehicles and industries to reduce air pollution,
promoting public transportation, cycling, and walking to reduce reliance on private vehicles and
encouraging the adoption of clean cooking technologies and renewable energy sources to reduce
indoor air pollution.
Case studies on climate change in India
1. Glacial Retreat in the Himalayas
Case Study: Gangotri Glacier
- The Gangotri Glacier, one of the largest glaciers in the Himalayas and a major source of the Ganges
River, has been experiencing rapid retreat due to rising temperatures.
- Studies have shown that the glacier is melting at an accelerated rate, leading to concerns about
water availability for millions of people who depend on the Ganges River for drinking water,
agriculture, and hydropower.
- Efforts to monitor and study glacial retreat, such as the establishment of the National Centre for
Polar and Ocean Research (NCPOR), aim to better understand the impacts of climate change on
Himalayan glaciers and inform adaptation strategies.
P a g e | 19
-Implementation of the report's recommendations has been challenging due to conflicts between
conservation and development interests, but awareness and stakeholder engagement efforts
continue to promote sustainable practices.
8. Climate Change and Agriculture
Case Study: Climate-Resilient Agriculture Initiatives
- Climate change impacts, including changing rainfall patterns and extreme weather events, pose
challenges to agriculture in India, where millions depend on farming for their livelihoods.
- Initiatives like the National Mission for Sustainable Agriculture (NMSA) and the Pradhan Mantri
Krishi Sinchayee Yojana (PMKSY) aim to promote climate-resilient farming practices.
- These initiatives include water conservation, soil health management, crop diversification, and
promotion of climate-resilient crop varieties.
- Community-based approaches, capacity building, and technology dissemination are essential
components of these initiatives to ensure their effectiveness and scalability.
LECTURE V: Concept of Carbon Credit and Carbon Foot print
Carbon Credit
Defn: A Carbon Credit is a tradeable certificate or permit that gives the holder power to emit
carbon dioxide or other greenhouse gases over a certain period. A carbon credit represents a
unit of carbon dioxide (or other greenhouse gases) that is either reduced or removed from the
atmosphere.
These credits are typically issued by governmental or regulatory bodies, or by
organizations involved in carbon offset projects.
How does carbon credit works?
The main motive of Carbon Credit is to reduce the emission of greenhouse gases so that climate
change can be slowed down. Carbon Credit allows the emission of greenhouse gases equivalent to
one ton of carbon dioxide.
With this process, the nations can allot a certain number of carbon credits, and they can trade
them.
It would help to restore the balance of worldwide emissions of greenhouse gases.
The intention is to reduce the number of Carbon Credits with time. It would allow companies
across the globe to figure out innovative ways to reduce greenhouse gases on their own.
P a g e | 22
cleaner technologies and practices to lower their emissions in order to avoid the cost of
purchasing additional carbon credits.
Flexibility: Carbon trading allows for flexibility in meeting emissions reduction targets.
Companies can choose the most cost-effective way to reduce emissions, whether through
internal changes or by purchasing carbon credits from other entities that have achieved greater
emissions reductions.
Cost-effectiveness: Carbon trading can be a cost-effective way to achieve emissions reductions.
It allows companies to find the most efficient and economical ways to reduce emissions, rather
than imposing a one-size-fits-all approach.
Promotes Innovation: By creating a market for carbon credits, carbon trading encourages
innovation in clean technologies and practices. Companies are incentivized to develop and
adopt new technologies that reduce emissions, leading to technological advancement and
progress in addressing climate change.
Disadvantages of Carbon Credit and Carbon Trading
Complexity: Carbon trading systems can be complex to implement and manage, requiring
robust regulatory frameworks and monitoring mechanisms to ensure transparency and
accountability. This complexity can lead to challenges in enforcement and compliance.
Market Volatility: Carbon markets can be subject to volatility, with fluctuations in the price of
carbon credits influenced by factors such as policy changes, economic conditions, and market
speculation. This volatility can create uncertainty for businesses and investors.
Risk of Greenwashing: There is a risk of greenwashing, where companies may engage in token
gestures or superficial measures to appear environmentally responsible without making
meaningful emissions reductions. This can undermine the effectiveness of carbon trading as a
tool for addressing climate change.
Distributional Impacts: Carbon trading systems can have distributional impacts, potentially
disproportionately affecting certain industries, regions, or communities. It is important to
consider equity and fairness in the design and implementation of carbon trading mechanisms to
avoid exacerbating social inequalities.
P a g e | 24
Carbon Footprint
Defn: A carbon footprint refers to the total amount of greenhouse gases, specifically carbon
dioxide (CO2), emitted directly or indirectly by individuals, organizations, products, events, or
activities. It is typically expressed in equivalent tons of CO2 emitted per year.
The concept of a carbon footprint is used to quantify and understand the environmental impact
of human activities, particularly those related to the burning of fossil fuels for energy consumption,
transportation, industrial processes, and the production and consumption of goods and services.
Calculating and reducing carbon footprints are essential steps in mitigating climate change and
promoting sustainability.
Corporate Social Responsibility (CSR): Calculating and reducing carbon footprints is often
seen as a component of corporate social responsibility (CSR). Many businesses voluntarily
measure and disclose their carbon emissions as part of sustainability reporting, which can
enhance their reputation, attract environmentally conscious consumers, and improve
stakeholder relations.
Disadvantages of Carbon Footprint
Simplification: Carbon footprints, while useful, provide a simplified measure of environmental
impact focused primarily on greenhouse gas emissions. They may not fully capture the complex
environmental and social impacts of human activities, such as resource depletion, habitat
destruction, pollution, or social injustice.
Scope Limitations: Calculating carbon footprints requires making various assumptions and
simplifications, which can lead to discrepancies in results. Different methodologies and
boundary definitions can result in inconsistent or incomplete assessments of emissions, making
it challenging to compare data across different studies or organizations.
Focus on Mitigation over Adaptation: While reducing carbon footprints is crucial for mitigating
climate change, it may sometimes overshadow efforts to adapt to its inevitable impacts.
Focusing solely on emission reductions may neglect the need for resilience-building measures
to address the consequences of climate change, particularly for vulnerable communities.
Risk of Greenwashing: Some organizations may use carbon foot printing as a marketing tool
without implementing meaningful emission reduction strategies. This can lead to greenwashing,
where companies exaggerate or misrepresent their environmental efforts to improve their public
image without delivering substantial environmental benefits.
Complexity and Cost: Calculating carbon footprints can be complex and resource-intensive,
particularly for businesses or organizations with diverse operations or supply chains. It may
require specialized expertise, software tools, data collection, and verification processes, which
can be costly and time-consuming.
P a g e | 26
The company focuses on energy efficiency initiatives to reduce greenhouse gas emissions and
mitigate climate change impacts. Tata Steel has implemented energy-saving technologies,
optimized production processes, and invested in renewable energy sources such as solar and wind
power to reduce reliance on fossil fuels.
Tata Steel emphasizes waste minimization, segregation, and recycling to reduce the
environmental impact of waste generated during steel manufacturing. The plant recycles steel
scrap and by-products such as slag and mill scale for use in various applications, minimizing
landfill disposal and conserving resources.
The company has undertaken various biodiversity conservation initiatives to protect and restore
ecosystems affected by its operations. Tata Steel collaborates with local communities, NGOs,
and government agencies to implement afforestation projects, wildlife conservation programs,
and habitat restoration efforts in and around its operational areas.
Tata Steel actively engages with local communities and stakeholders to address environmental
concerns, promote sustainable development, and enhance livelihood opportunities. The company
supports community development initiatives, education programs, and healthcare services to
improve the well-being of neighbouring communities.
The case study highlights the importance of integrating environmental considerations
into industrial activities to achieve long-term environmental sustainability and socio-economic
benefits.