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STRATEGIES FOR REDUCING THE CARBON FOOTPRINT OF
INDUSTRIAL PRODUCTION IN THE CONTEXT OF GREEN ECONOMY
Qalbaeva Intizar Esenbay qizi
1st year master's student of the Faculty of
Economics, Karakalpak State University
https://doi.org/10.5281/zenodo.15705584
Abstract.
This article outlines key strategies to reduce the carbon footprint
of industrial production within the green economy framework. It highlights
renewable energy use, energy efficiency, circular economy practices, digital
technologies, carbon capture, and green supply chains.
Keywords:
Carbon footprint, green economy, industrial sustainability,
renewable energy, energy efficiency, circular economy, digitalization.
Introduction.
In the 21st century, the industrial sector has been one of the
primary contributors to greenhouse gas emissions and global climate change.
According to the International Energy Agency (IEA), the industrial sector
accounts for approximately 24% of global CO₂ emissions, a figure that
underscores the urgency for sustainable reforms. In light of this, the concept of
the green economy—defined by the United Nations Environment Programme
(UNEP) as “low carbon, resource efficient, and socially inclusive”—has emerged
as a framework for promoting sustainable industrial development.
First and foremost, one of the most direct and impactful ways industries
can reduce their carbon footprint is by transitioning from fossil fuels to
renewable energy sources. Traditional industrial processes rely heavily on coal,
oil, and natural gas, which emit large quantities of CO₂. In contrast, renewable
energy sources such as solar, wind, hydro, and biomass produce minimal to zero
carbon emissions. For example, Siemens AG, a global industrial manufacturing
company, has implemented renewable energy solutions across its operations. As
of 2022, Siemens announced that all its production sites in Germany are
powered entirely by green electricity, thus significantly cutting down its carbon
output. Moreover, governments are also playing a pivotal role in this transition.
In the European Union, the European Green Deal aims to achieve carbon
neutrality by 2050, encouraging industries to adopt clean energy through tax
incentives and subsidies. In summary, switching to renewable energy is both
feasible and beneficial, contributing not only to emission reduction but also to
energy security and cost stability in the long run.
In addition to switching energy sources, enhancing energy efficiency is
another fundamental strategy. This involves optimizing equipment, improving
manufacturing processes, and adopting energy-saving technologies. For
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instance, the adoption of high-efficiency motors and variable frequency drives
(VFDs) in manufacturing can reduce electricity use by 20–30%. Furthermore,
industries can integrate energy management systems (EMS) to monitor and
control energy consumption in real time. A notable example is Toyota's “Global
Vision 2050,” which includes energy efficiency targets throughout its
manufacturing chain. As a result, the company reduced CO₂ emissions per
vehicle by over 27% between 2001 and 2020. Thus, improving energy efficiency
is not only environmentally responsible but also economically sound, as it
reduces operational costs and increases overall productivity [2, 225-233].
Another effective strategy is the adoption of circular economy principles,
which aim to minimize waste and make the most of resources. Unlike the
traditional linear model—take, make, dispose—the circular economy focuses on
reuse, recycling, remanufacturing, and extending product life cycles. For
example, in the steel industry, recycling scrap metal instead of using raw
materials can save up to 58% of CO₂ emissions per ton of steel produced.
Similarly, the Ellen MacArthur Foundation has shown that implementing
circular practices in the plastic industry could reduce emissions by 30% globally
by 2030. In practical terms, companies like Patagonia and IKEA have embraced
these principles. Patagonia encourages consumers to repair rather than replace
clothing, while IKEA has started furniture leasing pilots and set a target to
become fully circular by 2030. Therefore, embracing the circular economy does
not just contribute to environmental sustainability but also drives innovation
and resilience in industrial supply chains.
Although reducing emissions is the primary objective, industries must also
address the emissions that cannot be avoided. This is where Carbon Capture,
Utilization, and Storage (CCUS) technologies come into play. These technologies
capture CO₂ emissions at the source and either store them underground or use
them for other industrial processes, such as enhanced oil recovery or building
materials. A practical example of this is the Boundary Dam Power Station in
Canada, which became the world’s first commercial carbon capture plant for a
coal-fired power plant. Since its operation began in 2014, it has captured more
than 4 million tons of CO₂. In addition, the Global CCS Institute reported that
over 30 commercial CCUS facilities were operational worldwide by 2023, a
number expected to grow due to increased investment in decarbonization.
However, it is important to note that while CCUS is promising, it should be seen
as a complementary solution rather than a substitute for clean energy or
efficiency improvements [4, 146-155].
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Furthermore, industries must take responsibility not only for their direct
emissions but also for emissions across their supply chains. This includes
sourcing raw materials, transportation, and product delivery. Green Supply
Chain Management (GSCM) focuses on reducing environmental impacts
throughout the product life cycle. Apple Inc. provides a compelling case study.
The company has committed to making its entire supply chain carbon neutral by
2030. This includes encouraging suppliers to transition to renewable energy and
redesigning product packaging to reduce waste. Similarly, logistics companies
like DHL are using electric delivery vehicles and AI-powered route optimization
tools to reduce emissions. Therefore, green supply chain practices offer a holistic
strategy that ensures carbon reduction is not isolated but systemically
implemented across all business functions.
Finally, public policy and international regulations play a critical role in
supporting industries as they transition toward lower emissions. Governments
can establish carbon pricing, provide tax incentives, fund research and
development, and set legally binding emissions targets. For instance, the Carbon
Border Adjustment Mechanism (CBAM) proposed by the European Union will
impose carbon tariffs on imports from countries with lax environmental
regulations, thereby encouraging global industries to reduce their carbon
footprint. Additionally, the Paris Agreement, signed by 196 countries, sets a
collective goal of limiting global warming to well below 2°C, preferably 1.5°C.
Industrial compliance is essential to achieving this goal. Thus, supportive policy
environments accelerate the adoption of green technologies and ensure that
environmental accountability becomes a business imperative rather than a
choice.
Conclusion.
To conclude, reducing the carbon footprint of industrial
production is a multi-dimensional challenge that requires an integrated and
strategic approach. Through the transition to renewable energy, energy
efficiency improvements, adoption of circular economy principles, digitalization,
carbon capture, green supply chains, and regulatory support, industries can not
only mitigate their environmental impact but also gain competitive advantage in
a rapidly evolving global market. Importantly, these strategies are not isolated;
rather, they are interconnected within the broader framework of a green
economy. As industries align their operations with sustainability goals, they
contribute to a healthier planet, a more stable economy, and a resilient society.
Indeed, the green economy is not a futuristic concept—it is a necessary
evolution.
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