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ENERGY ECONOMICS AND THE ECONOMICS OF CLIMATE CHANGE
I. Energy Demand and Supply
1.1. Determinants of energy demand
The demand for energy is pegged on many factors such as level of economic development,
technological incorporation, the population size, and policy interventions. Rate of economic
growth has a huge impact on energy demand this is due to the fact that with higher economic
activities will definitely lead to high energy usage. Thus, as industries grow and production rises
the demand for energy increases due to the apparent positive relation between the global GDP
and energy requirements. For instance, when manufacturing sectors are set to boost up the scale
of operations and service sectors are extending the coverage areas, the energy demand to fuel the
operations of machinery, vehicles, and commercial establishments rises significantly. But what is
also important to note is that technology increases or decreases the demand for energy. Increased
technological demand in industries and households can increase the energy demand while
inventions in energy efficiency and renewable energy technologies possess the capability of
reducing or limiting energy consumption (Stern & Kander, 2012). For instance, electric cars that
consume a huge amount of energy to power and recharge are on the same bracket with
advancements in LED lighting and smart grids, which improve energy utilization. Population
size is another important factor; as the number of people in the world increases, their need for
electricity for lighting and heating or cooling of homes and use of appliances will also increase
(Ekins, Bradshaw & Watson 2015). More people equate to more households, more usage of
electric gadgets, lights and thereby more energy. However, there are other forms of energy which
dictate energy demand control measures including energy conservation programs and incentives
for exploration of renewable energy sources. It is through these policies that the demand side can
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be managed through the use of appropriate incentives and sanctions to control energy
consumption and promote the use of sustainable energy practices (Tol, 2018). Some examples
may be, providing incentives such as rebates for putting up solar power, provisions of incentives
such as tax credits for organizations that engage in purchasing of green products or establishment
of strict efficiency standards for devices and structures. These determinants point to the fact that
the demand for energy is not just unilateral but complex, which means that the factors should be
considered in equal proportion so as to address economic factors, technological advancements,
population growth, and policies.
1.2. Energy production and distribution
Generation of power and transmission of power or rather Energy production is another key factor
in provision of energy. The sources of energy production have also shifted major from a fossil
base to contain a large portion of renewed such as solar, wind and hydroelectric sources (Zou et
al. , 2016). Non renewable source of energy though they pollute the environment, they still
provide energy since they have huge networks and high energy to volume ratio. Many developed
nations still employ coal, natural gas, and oil as energy sources because these fuels remain
dependable for large-scale power requirements, and the economic returns from the established
investments in extraction and refining plants. The transition towards the use of RE is ongoing,
given that energy policies seek to decrease the emission of greenhouse gases and create more
sustainable systems. This transition therefore, is facilitated by international cooperation like Paris
Agreement that seeks to mitigate global warming by promoting innovative techniques in
electricity generation. Energy transmission and distribution is done in high transmission and
distribution lines to ensure the supply of the energy gets to the consumers directly and efficiently
(Edenhofer et al. , 2014). Such networks need to be able to manage by the amount of energy that
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flows through them and bring in energy from different sources and distribute this energy evenly
regardless of the production and consumption cycles. There are advances in smart grids
technology which increases the flexibility in managing the flow of electricity distribution and
includes the integration of renewable energy generation and real time monitoring and control
(Jacobson et al. , 2017). Apparently, smart grids integrate communication digital technology that
enables monitoring and handling of local changes in the usage of energy in a way that may help
prevent outages and or efficiently distribute energy. Furthermore, there is growing deployment of
distributed generation including photovoltaic systems installation at rooftops and other local
wind power generators among others making the energy system more resilient and safe from
large conventional centralized power stations (Burke et al. , 2015). It is very important to notice
that decentralized systems can give ability to provide energy to isolated locations, increase the
reliability of the power grid through the distribution of the sources of electricity and diminish
shedding. The change in energy production and supply an aspect that has demonstrated the
technological evolution of energy production and distribution as well as the strategic shift
towards much more robust energy supply systems.
1.3. Energy pricing and markets
Pricing of energy and the markets involve determining supply and demand for energy as well as
making the energy price affordable and encouraging investment in the energy sector. Energy
price fluctuations depend on production costs, demand factors, political happening, or even
government policies (Stavins, 2019). For example, changes in oil prices may significantly affect
the global economy because oil continues to be the most widely used form of energy. In cases
where geopolitical issues interfere with oil distribution networks or natural calamities beset
production sites, the consequent flaring of prices can have a network effect on other segments of
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the economy such as transport and manufacturing. Different types of energy sources need other
mechanisms of pricing since they are characterized by production costs of distinct types and
relatively high initial investments. Some renewable energy sources such as solar and wind power
have a relatively high initial capital investment, albeit considerably lower operating expenses,
hence the need to devise appropriate financial structures for their funding. Renewable energy
markets are generally assisted by policies including feed-in tariffs, tax credits, and renewable
energy certificates that are supposed to make the renewable energy product cost as much as the
conventional energy sources (Mercure et al. , 2018). It enables public finance and private
investment security for renewable power and the development of green energy facilities. This
liberalization is characterized by heightened competition, innovation and efficiency of energy
markets, despite these changes some challenges that arise from the liberalization include the
provision of adequate and fair energy for all. It increase competition opening opportunities to
reduce prices and promote technological innovation; however, it weakens social equity by
potentially deepening energy poverty for specific groups. Also, carbon prices through carbon
taxes and cap-and-trade measures are being deployed for socializing the environmental cost of
energy production thus encouraging cleaner energy sources and emerging technologies
(Gillingham & Stock, 2018). Historic and current dynamics of energy pricing structures and
markets reveal a system of interaction and interdependence that points to a central theme of
efficiency, sustainability, and equity. Maintaining this balance is about the right policies and
international approach to address the complexity of the energy system.
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II. Fossil Fuel Energy Economics
2.1. Oil and gas markets
The markets of oil and gas are core to the economics of energy in the world, deeply impacting on
the economics both of the exporting and the importing countries making oil and gas prices
variable features that depend on a number of aspects such as; politics, availability of supplies,
and market expectations. For example, conflicts in chokepoints, that is, strategic regions through
which most of the world’s oil is transported, can create massive price fluctuations, which pose a
threat to the global economy (Ekins, Bradshaw, & Watson, 2015). Finally, it is crucial to note
OPEC’s production quotas as an example of both a producer cartel and an attempt at controlling
supply to impact prices (Blazquez, Manzano, & Gómez-Loscos, 2022). Besides, new methods in
production like hydraulic fracturing and deep-sea drilling have changed the proven resources,
supply and demand in a market. For example, the shale oil revolution in the United States shifted
supply and demand by the acreage of oil configurable across the global markets at cheaper prices
(Mercure et al. , 2018). On the demand side, economic advancement of the developing nations
helped their population absorb larger quantities which in turn affected markets. But the future of
oil and its correlation with the financial stability is questionable due to the continuous demand
for renewable sources of energy and environmental protection laws that regulate an output of
greenhouse gases (Tol, 2018). It goes without saying that countries with varying measures of
development are gradually shifting their focus towards cleaner forms of power generation, which
also indirectly affects the place of oil and gas in the energy equation as well as future market
trends and investment plans.
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2.2. Coal industry economics
For many years the provision of energy through coal has been a fundamental source in most
industries and today the main subject is still in a process of change due to economical factors that
emanate from the environment and competitiveness in energy sources such as the clean energy.
Coal continues to be a dominant energy supply globally; it is expected more so in the emerging
economies, where the resource is famous for being cheap (Burke et al. , 2015). China and India
are so addicted to coal as means of cheap and available energy to fuel their quickly developing
economies. But the economics of coal are becoming really more complex and complicated by
ever-increasing legislation, regulation, and governmental initiatives to reduce carbon emissions
and combat global warming. Carbon pricing, emissions trading, and direct measures targeting the
construction of new coal plants put upward pressure on the cost of coal-based electricity
generation (Gillingham & Stock, 2018). New regulations that call for environmental compliance
and developments of expensive technology to be used in the removal of pollutants make the
operation of coal fired plants more expensive therefore less competitive. Moreover, due to
technological advancement and increased awareness of climate change impacts, greenhouse
technology has become cheaper than conventional energy like coal, thus moving a distance in
isuenng coal’s market share (Stern, 2007). The trend toward a decline in costs for renewable
technologies combined with their elasticity and advantages in the area of environmental impact
are certain to ensure that they are more viewed as the preferred option for new investments in
energy. Some related changes and improvements in storage innovation and grid management
also facilitate this transition and shift off the coal-reliant power grid by incorporating variable
renewable resources in the grid. Moreover, the life cycle is long and the financial risks and
environmental costs of coal are seen to be unfavorable, and many financiers and stock exchanges
are opting for divestment from coal (Stavins, 2019). There remain grey areas on issues such as
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possible carbon pricing of assets in the future and risk on a similar bet for Australian coking coal
assets that is leading investors to assess their risks on linked coal-related investments. Therefore,
the feasibility of the coal and its associated industries becomes a subject to considerable risks;
many of the companies become oblige to shift their business strategies in response the changing
environment that is not favorable for the coal industry.
2.3. Environmental externalities of fossil fuels
Externality of Fossil fuel; This involves the unfavorable effects of Fossil fuel to the environment
which include; Poor quality air, disease endemics and climate change. Burning of the fossil is a
primary reason for the releasing of the greenhouse gases mainly carbon di oxide which is a
significant cause of global warming and other catastrophes such as the natural calamities
(Jacobson et al. , 2017). These emissions have considerable macroeconomic impacts in form of
costs regarding health due to effects of pollution and loss caused by floods and other calamities
that are worsened by climate change effects (Ekins, Bradshaw, & Watson, 2015). Again, the
notion of social cost of carbon which seek to place price tags to cost implications per unit of
Carbon dioxide emissions further opens up the economic impacts of fossil fuel usage (Tol,
2018). Calculating the social cost of carbon is very essential for policymakers and businesses’
decision-making as it helps to reveal the actual cost of carbon emissions, and making the
appropriate adjustments regarding energy policies and investments. Moreover, emissions of
sulfur dioxide and nitrogen oxides are also result in damages to human health: the formation of
acid rain and respiratory hnclude the pollution of air and water through emissions, hence; The
Clean Air Act in the U. S alongside others intend to eliminate these by setting the emissions
standards and instituting proper pollution control measures as noted by Burke et al. (2015).
These regulations assist in the limitation of adverse emissions, provision of quality air, and at the
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same time safeguarding the health of people, but at a cost to the industrial players. In addition,
multinational accords such as the Paris accord focus on mitigating efforts of the worldwide
release of GHG to regulate the global temperatures. Analyzing global impacts of
climate changes and the effects on both economy and society reveals cooperation as
critical globally . To achieve these externalities user acceptance must be addressed with
economic, environmental and policy strategies as part of a societal shift towards sustainable
energy systems. This entail more than a transition from fossil energy sources to efficient energy
forms, to more efficient renewable energy sources, and a strict permit on the social costs of
continued fossil fuel utilization, to human society and the environment.
III. Renewable Energy Economics
3.1. Solar energy economics
It is worth to note that the structure of cost and benefits in the field of solar energy has changed
considerably due to the technological changes, policies and reduced cost. Largely, the economics
of solar energy depends on photovoltaic (PV) panels, installation costs & solar systems
efficiency. The price of solar PV system has reduced in the past decade due to a reduction in the
price of the panels indicating that solar energy is likely to compete with conventional sources of
energy (Jacobson et al. , 2017). These factors have led to a pronounced decrease in the price of
solar energy, which was facilitated by increasing market shares, development of new
technologies, and optimizing manufacturing techniques, which made solar energy available to a
wider population group. bio-friendly policies like feed-in tariffs, tax credits and net metering
have been shown to have boosted the uptake of rooftop solar systems (Creutzig et al. , 2021).
These policies assist solar energy producers through the granting of financial subsidies; this
ensures that producers receive a faster rate of return in their investment in deployment of solar
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technologies. Moreover, solar leasing and power purchase agreements (PPA) have offered newer
ways of financing thus making the solar electricity more affordable to the end-users (Markard,
2018). These funding mechanisms enable consumers to put in solar PV systems with low or even
no cash outlay, using the solar electricity they produce and pay for over time, often at a cheaper
price than buyers from the conventional utility. The economics of solar energy are a border and
encompass not only electricity generation but also staking technologies of solar heating and
cooling in residential and commercial premises. Nevertheless some risks are still present: flip-
flopping problems, high cost of energy storage systems, and spatial requirements for the
extensive solar farms. Attempts are being made to tackle these problems by work that focuses on
improved energy storage systems, integration of the grid, and the efficient use of land. Solar
energy therefore remains one of the most rapidly expanding types of renewable energy resources
and extracting many economic and environmental advantages.
3.2. Wind energy economics
Improvements on wind energy economics is also another area that has recorded lot of progress,
making wind power cheaper and more competitive in the market. Some of the most important
aspects related to wind energy can be characterized as follows: Turbine technology; cost of
installation and deployable resources. Advancements of technology in the Rotors sizes and
height of towers have greatly enhanced the capability of energy capture raising the bar on the
LCOE from wind energy (Markard, 2018). These two innovations lets the wind turbines capture
more energy from the wind enhancing the capacity factors and energizing more electricity. Also,
thefact that future projects are expected to benefit from economy of scale and manufacturing
efficiencies are also credited to the decrease in cost of wind energy projects. Other advantages
include increased efficiency in production; as seen with the components of a wind turbine, in
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terms of their volumes, the costs of manufacturing have become cheaper thus making the wind
projects more economically feasible. In addition, other policy tools such as production tax credit,
renewable portfolio standard and power purchase for renewable energy also have promoted the
Wind power investment (Aklin & Urpelainen, 2018). Thus, capture federal policies offer the
financial rewards and the regulatory predictability, mitigating the financial costs inherent to wind
energy projects in order to tap private capital. Also, Wind Energy Utility-scale Community wind
projects and Offshore wind farm are extending the horoscope of wind energy through the
geographic location of new wind resources and on the other hand, the energy losses within the
transmission line are also minimized (Jacobson et al. , 2017). Increased wind speeds specifically
within offshore environments are advantageous for larger and more stable wind turbines
ultimately improving their efficiency and profitability. There are some drawbacks like
intermittency, integration, and aesthetic issues that are still hindering this abundant source of
energy implementation despite its benefits in the economy. There is a variability of the amount
of wind speed or intermittency which is a factor that makes wind power generation sometimes
unreliable. Somtimes, wind energy output varies significantly from demand that warrants
intermittent use; this aspect creates the need to invest in grid infrastructure and energy storage
systems. This is because the visual environment impacts, particularly within the high population
zones, are also likely to present social acceptance issues to wind projects.
3.3. Biofuel and geothermal economics
I like the fact that assert that biofuel and geothermal energy are forms of renewable energy and
that have different impacts on balance of payment. Bio-energy, obtained for example from crops
for fuel and energy or the use of forestry residues and waste, can substitute fossil energy in the
transportation and heating industries (Duan & Xie, 2021). Resonantly, the economic feasibility
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of biofuels remains closely linked to feed stock, conversion technologies and incentives. It has
been seen that despite the benefits associated with the bio fuels, problems relating to competition
for land and bio fuel feedstock, food security and impacts of greenhouse gases from changes in
use of land have emerged as major issues against the use of bio fuels (Okulicz-Kozaryn &
Valente, 2019). Sustaining the economic benefits: Social and environmental impacts of biofuels
are important factors needed when positioning biofuels and their production processes.
Hydrothermal power or heat derived from the inside of our planet is a highly efficient and
relatively greenhouse-gas-free electricity generation and direct heat utilisation source. Analysis
of prospect-production relationship and costs derived that geothermal energy economics depend
on the quality of resources, drilling costs, and regulatory systems (van der Ploeg & Rezai, 2020).
Superior quality can be earmarked in geothermal areas that experience frequent tectonic
activities or the volcanic terrain, where probable resources may be abundant but the expense of
drilling might be expensive. The issue of development of geothermal power resource largely
depends on the country’s regulatory structures for the proper use of the resourcefor the benefit of
the society and the environment. However, there are several issues affecting geothermal energy
development including high initial Costs, Location scenarios that may inhibit development of
geothermal energy and geological risks. Actually, geothermal explorations and drilling of
geothermal reservoirs can be expensive processes that involve substantial initial outlay. Physical
accessibility factors including land, water, and seismic issues may influence the feasibility and
cost of undertaking projects on specific sites. Nonetheless, further R&D investments, along with
supportive policies, are designed to promote the economic application of not only biofuels but
also geothermal energy to enhance the energy diversification and sustainability. Those hurdles
are the major impediments to effective exploitation of these renewable energy sources through
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enhanced drilling technologies, reservoir engineering, and supporting policies to improve the
overall economic and environmental impact of operations.
IV. Energy Efficiency and Conservation
4.1. Energy efficiency measures
Energy conservation as a measures go hand in hand in cutting down the use of energy, and
minimizing the effects of energy wastage on the environment, and increasing energy
security which include, but are not limited to, a broad array of technologies, techniques and
policies that are implemented across different sectors of the economy with the view of enhancing
better utilization of energy. Some ideas towards the enhancement of energy efficiency are
upgrading home appliances, lamps, and constructing building materials (Metcalf & Stock, 2020).
For example, refrigerator with Energy Star rating or LED light bulbs use less energy in
performing their functions as compared to their knockoffs, thus reducing the amount of energy
consumed greatly in the duration of their use. Contrary to a common misconception that energy
efficiency only translates to longer pay back periods, on the longer term consumers and
businesses will need to spend less money on energy bills and carbon emissions will also decrease
whenever energy-efficient appliances are used instead of dated appliances. Besides, different
construction designs, for instance, good insulation, CHO, smart building control, and efficient
heating, ventilating, and air conditioning (HVAC) could go along way in cutting down heating,
cooling, and illumination energy (Heal & Park, 2016). The enforcement of energy efficient
building codes and standards are helpful towards the assurance of long term energy efficient use
when coupled with occupant comfort. Further, in industrial processes, efficiency can be
improved where processes can be reviewed and optimised, new waste heat recovery systems
installed and new and improved motors and drives used (Blazquez, Manzano, & Gómez-Loscos,
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2022). The application of these measures ensures that not only minimal energy is used but also
the firm becomes more competitive and even profitable since costs of operation are cut and
efficiency increases. In a nut shell, it can be said that measures for energy efficiency are relative
inexpensive means and global energy conservation and simultaneously play great role in
decreasing greenhouse gas emissions for sustainable development. Through efficiency
improvements in energy systems, government and organizations, business and households are
able to realize large amount of avoided energy use, pollution reduction, and energy security
improvement. Moreover, energy saving plays a role of multi-win solutions in which energy
efficiency delivers several other advantages including enhancing indoor air quality, comfort, and
insulating against future rises in energy prices.
4.2. Demand-side management strategies
Demand-side management (DSM) plans and objectives designed to regulate consumers’
behavior and their consumption of electricity, so as to achieve better electricity grid efficiency.
DSM incorporates methods such as time-of-use rate method, peak building stripping, load
relocation, and demand management programs (Borenstein & Bushnell, 2018). This means that
through time of use pricing consumers are likely to use most of their electricity during off-peak
hours during which electricity tariffs are cheaper and this helps consume less energy on peak
hours. consumers refocus their consumption habits, they can pay attention to cleaner and cheaper
electricity rates are from, as well as ensure grid stability is maintained. Demand response
programs are voluntary incentive-based programs for consumer’s load shedding during high
demand normally in exchange for incentives or rate reduction (Klaassen et al. , 2018). These
programs let consumers involved in management of the grid, which could help to cut load during
certain time of the day and hence no requirement to build expensive peaker plant. Furthermore,
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smart technologies being applied is used to monitor and regulate the utilitiesconsumption in real
time in order to allow the balancing of supply and demand and the improvement of the overall
functioning of the grid (Markard, 2018). Advanced metering infrastructure such as smart
metering and sensors with automated control also facilitate the actualization of dynamic tariffs
and demand management solutions. Auxiliary to DSM, energy appliances and technologies are
also an important way of decreasing energy consumption to allow consumers to control
consumption efficiently. Consumers are given the freedom, through high-efficient appliances,
smart thermostats, and home energy management systems to manage their usage of electricity
further reducing the load and stabilizing the grid. Optimizing demand and attuning the grid
profiles that involve DSM strategies helps in improving reliability, reduce infrastructure costs,
and support the introduction of renewable energy sources ands also, they assist in the
conservation of energy and promotion of environmentally sustainable energy during different
peak demand hours of the fossil fuel based generators. Further advancement of DSM techniques
and its incorporation in the present-day society is very crucial for establishing a stronger and
more reliable electricity network system that is fit for the future energy demands.
4.3. Energy conservation policies
Energy conservation measures provides guidance for efficient utilization of energy and rational
use of energy by employing legal instruments, financial rewards and penalties, and other
persuasive campaigns which are often sectorial, that is they are aimed at transportation,
buildings, industry and so forth. Energy conservation fees range from using efficiency standards
and labeling measures with appliances as well as equipment (Blazquez, Manzano, & Gómez-
Loscos, 2022). The mandatory standards are the standards that require products offered in the
market to have a minimum efficiency standard while the labels are instruments that provide
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consumers with the information to Choose the most efficient products. Unfortunately, consumer
choice has often been restricted since efficiency standards were set and energy efficient label
induction showed consumers the way to go in order to reduce energy use and therefore utility
bills. Furthermore, there are legal measures that require new buildings to be built with at least
minimum level energy performance standards, and existing buildings’ renovations to reflect
corresponding energy performance standards and specifications (Ekins, Bradshaw, & Watson,
2015). These standards also promote use of energy efficient concepts like insulation, efficient
window and high efficient heating, ventilation and air conditioning systems thereby improving
on the energy utilization and operating expenses of buildings. Other policy brakes like tax
credits, rebates, and even grants encourage investments in efficient technologies and building
retro orbital (Stavins, 2019). These incentives act as a way to make it possible to reduce the
initial cost of investment in energy efficient facilities hence making it more economically viable
for consumers or businesses. Moreover, information dissemination about energy conservation
strategies and developments and ‘sticky’ public campaigns help to change the attitude of the
general public and enterprises as well as consumers (Metcalf & Stock, 2020). Through
consciousness creation on energizing practices and informing the populace of their opportunities,
the public enlightenment campaigns equip individuals and organizations to reduce energy
wastage a situation that makes incentives and technologies accessible to the public. Measures at
the macro-level which include but are not limited to regulatory measures, incentives and public
engagement are vital in articulating energy conservation policies that form part of the need for
energy sustainability, carbon reduction and climate change mitigation.
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V. Climate Change and Environmental Economics
5.1. Greenhouse gas emissions
Reducing greenhouse gases (GHGs) remains very critical in combating climate change and the
negative consequences it brings to the economy. GHGs particularly, CO2, CH4, and N2O raise
the temperature of the Earth’s atmosphere, causing changes in the climate. The sources of the
GHG emissions are numerous but mostly attributed to energy production, transportation system,
industries, farming systems, and land use (Peng et al. , 2019). Measures aimed at decrease of
GHC emissions are technological and policy-focused activities. A shift towards clean energy,
energy efficiency, and cleaner transportation are critical measures necessary for lowering
emission levels from the energy generation and transportation subsectors (van der Ploeg &
Rezai, 2020). Furthermore, addressing emissions from afforestation, implementing sustainable
practices in farming, and developing better industrial methods for sequestration remain
fundamental to fighting emissions associated with land use change and agriculture (Edenhofer et
al. , 2014). Carbon pricing strategies including Carbon Pricing for implementation of Emissions
Trading System and setting of regulatory standards are pivotal in encouraging emissions
reduction across sectors (Stavins, 2019). The Institution of international treaties, legislation, and
conventions like the Paris accord is vital for the formulation of policies and guidelines on how
efforts to limit the global temperature increase can be conducted collectively and at one Page 8
time (Okulicz-Kozaryn & Valente, 2019). Learning about the extent of the emissions of GHG
needs a real and concerted action by governments, organizations, and citizens to adapt to global
changes in order to reduce vulnerability to the impacts of climate change.
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5.2. Economic impacts of climate change
Economic effects of climate change are complex, as it impacts a number of areas and sectors
with primary and secondary effects which also results in more cases of natural disasters like
hurricanes, floods, droughts and heat waves that affect structures, farmland, and forests (Burke et
al. , 2015). These physical effects cause economic losses of damaged structures, crops,
employment opportunities, and interruptions of markets. The costs implicated in repairing and
reconstruction of damaged infrastructure, revitalization of affected ecosystems and eventual
supply of relief also impact national economies. Furthermore, climate change impacts working
capability, people’s health, and food supply, which results in the rise in healthcare expenditures
and overall losses (Hafner & Raalte, 2021). Some of the health effects of climate change include
heat stress, air pollution and vector-borne diseases which lead to reduced productivity of the
workers and augmented costs of health. Variations in rainfall and hot/cold temperatures also
affect crop production thus strains food accessibility and leads to high prices. The economic
losses of climate change are not equitably distributed, those countries and people in the
developing world are more susceptible to the negative effects and bear higher costs
(Monasterolo, 2020). Restricted resource availability compounded by poor infrastructure, and
dependence on climate susceptible sectors makes up the above groups more vulnerable to
climatic disasters and economic shocks. In the same respect, climate change stakeholders also
pose financial risks for businesses, investors, and insurance markets through asset stranding and
high insurance costs (Hallegatte et al. , 2019). The impacts of climate change for businesses
involve risks due to disruptions in the supply chains, rising costs, and regulatory updates.
Climate risks are being integrated into investors’ investment decision making but, this has led to
changes in investment flows and asset pricing. There is also the need to set up climate change
adaptation measures such as Climate change resilient infrastructure, Disaster preparedness and
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Response and Climate change adaptation measures (Repetto et al. , 2012). Investment in climate-
proof structures including flood barriers, water conservation based on rainwater harvesting, and
water rationing based on available water are used to reduce the impacts of climate variation on
people’s livelihoods. Also, embracing cleaner sources of energy and thus decreasing the level of
emitted GHMs is good for the economy because it helps avoid the impacts of climate change
(Nordhaus, 2017).
5.3. Climate change mitigation strategies
Climate change adaptation measures concern measures that address emissions of greenhouse
gases in order to prevent the effects of climate change which are precautionary measures to
address the problems of climate change. These strategies involve a number of initiatives directed
at de-carbonising energy systems, improving energy intensity, better use of land and access to
efficient renewable energy technologies (Méjean, Lecocq & Mulugetta, 2015). De-energyizing
means seeking to eliminate fossil fuel use and utilizing the energy from the sun, wind, and water
in the form of solar, wind, and hydro power respectively (Jacobson et al. , 2017). Opting to put
green electricity generating facilities and enhancing the integration of renewable energy into the
electricity grid, the raw need for fossil fuels and GHGs emissions in electricity generation can be
lowered. Measures such as enhancing insulation standards, upgrading industrial processes, and
encouraging the use of energy efficient household appliances lower the energy consumption and
thereby alleviate the emission of GHGs (Gillingham & Stock, 2018). The standards and policies
can also be used to enforce the adoption of energy efficiency measures through establishing
suitable incentives that will get organizations and people to adopt energy efficient technologies
and techniques. Lamont et al . , (2019) stressed that other conservative land use measures like
afforestation, reforestation and sustainable agriculture also improve the carbon storage and help
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achieve climate objectives. Carbon storing and climate change mitigation through ecosystem
restoration is also accompanied by other co-benefits like enhanced biological diversity and
ecosystems functions. Moreover, policies like carbon pricing, policies to support renewable
energy and penalties on emitting also intermediates reducing emission and supporting low-
carbon investments (Ekins, Bradshaw, & Watson, 2015). CAPM are policies that make citizens
feel the social cost of emitting carbon dioxide by creating an economic price for carbon that
encourages or discourages an activity. Incentivization of renewable energy promotes the growth
of new technologies in the generation of clean power while in emission the guidelines set down
clear goals of emissions limits. UN Framework Convention on Climate Change (UNFCCC)
recognises international cooperation and coordination as pivotal for the implementation of
climate change mitigation strategies that are requisite for the achievement of global climate
change goals (Edenhofer et al . 2014).
VI. Energy and Climate Change Policies
6.1. Carbon pricing mechanisms
Carbon pricing mechanisms play a crucial role as the interventions that are designed to assign the
desired social cost of carbon emissions to the polluters to encourage lowers carbon emission
rates. Two principal manifestations of carbon pricing are carbon taxes and cap-and-trade
schemes. Carbon taxes announce a price per tonne of CO2 emitted by imposing a fixed tax rate
for every tonne of CO2 discharged into the atmosphere (Stavins, 2019). Carbon taxes notable
strengths is that it is simple and definite, giving the carbon price stability, the emitters can plan
on the cost of emissions for investment and production. Carbon taxes work on simple economic
theory making it costly for firms and individuals to emit carbon; this drives innovation in search
of cheaper methods through low carbon technologies and practices. Scheid et al (2007) on there
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part have summarized that while, cap-and-trade systems, which limit the overall emission levels,
and issue or sell emission allowances to controlled facilities. These entities shall either be able to
sell the permits like any other commodity in an open market or even buy the permits based on
their emissions, thus providing a market price to the carbon (Nordhaus, 2017). Cap-and-trade
systems allow the emitters to select their own least-cost abatement practices but guarantee that
total emissions are worked out towards the cap level. Thus, carbon taxes and cap-and-trade
systems set up economic motives for decreasing emissions and at the same time, provide emitters
with the capacity to respond accordingly. It stimulates companies to develop new products and
invest in the environment by offering a financial reward for lowering emissions. Carbon price
revenues can be applied for supporting expenditure on clean energy and other improved
technologies, compensating those affected by carbon prices, or cutting other taxes, thus serving
other public interests in addition to emissions reduction. According to them, they offer the
realism of a relatively smooth shift towards a low-carbon economy that efficiently tackles
climate change at the same time. Nevertheless, the introduction of carbon pricing schemes has to
be done right to meet the goals of policy effectiveness and environmental soundness while at the
same time avoiding western blame game’s injustice.
6.2. Renewable energy incentives
Renewable energy incentives are among the most popular policy instruments through which
agents encourage very clean technologies and advance the change towards a green economy.
Such incentive programs are defined as feed-in tariffs, tax incentives, grants, rebates, and
renewable portfolio standards (RPS). Feed-in tariffs lock in a price for renewable energy
generation for a long period of time which stabilizes and increases revenues from renewable
energy which in turn encourages more investment (Aklin & Urpelainen, 2018). As a policy
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mechanism that guarantees long-term and predictable payments to owners of renewable energy
plants, feed-in tariffs facilitate brand new investments in renewable energy projects and sector
development. Tax credit facilitates the reduction of cost or price of clean energy option hence
enabling more investors and consumer to embrace clean energy technologies. These can be in the
form of investment tax credits, production tax credits, tax credits for the reformation of old
structures, or tax credits for renewable energy structures they want developed by private entities.
RPS require utilities or specific provinces to secure a certain percentage of their electricity from
renewables thereby spurring demand for renewable energy as well as future market for
renewable energy developers (Jacobson et al. , 2017). RPS policies force utilities to purchase a
specified proportion of electricity generated through renewable resources; this stable market
provides renewable energy producers with certainty about future demand and generates
additional business opportunities in the field. Furthermore there are R & D grant and subsides
which encourage more development in the usage or renewable energy technologies which
reduces cost and increases efficiency. A source of funding from the government stresa locks
down technological hurdles that slow down the development of R & D on renewable energy and
also speeds up chances of commercializing renewable energy putting it to a level ground fair
competition with fossil energy. The benefits of renewable energy incentives include the
increased manufacturability of these technologies which reduces greenhouse gas emissions, the
job creation, the promotion of the economy by economic diversification and increased energy
security. The use of incentives to encourage the expansion of renewable energy is a valid policy
instrument, as it allows for the pursuit of multiple goals at once: combating climate change,
enhancing competition in innovative industries, and promoting ecologically friendly economic
growth.
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6.3. International climate agreements
As the last section articulated on the global level climate agreements play a vital role of
maintaining global cooperation to fight climate change and to ensure global targets for emissions
reduction are accomplished, one of the important features of international climate policy is the
system of climate agreements based on the United Nations Framework Convention on Climate
Change (UNFCCC). This agreement has four primary goals which include reducing the global
mean temperature to below 2 °C above pre-industrial levels along with the working towards
achieving a 1 °C reduction. Down by 5 degrees Celsius, actions such as controlling the emission
of greenhouse gases and improving Climate Change Resilience (Edenhofer et al. , 2014).
National commitment mechanism: The Paris agreement is based on nonbinding national
contributions referred as Intended Nationally Determined Contributions (INDC’s), which gives
outline of each Party’s emissions reduction pledge and climate plan. These agreements enhance
the dissemination of information, sharing of technologies, and institution building to enabling
climate actions among countries (Okulicz-Kozaryn & Valente, 2019). It is understood that
through the exchange of information, practices or lessons learned, one country can foster type of
advances the processes of other countries in the transformation of low-carbon economy as well
as increase the climate risk coping capacity. Further, there are climate agreements that exist at
the international level that outline the finance that developed nations must offer to the developing
nations to be used in a bid to adapt and/or implement climate change measures. Even though
they are very vulnerable to problems like enforcement and compliance, it is indisputable that the
international climate agreements are very important as they enable countries to work together on
combating climate change, which is one of the most serious issues facing the world today. These
are bi-lateral and sometimes multi-lateral formulation which seek to bring the nations together in
order to address the global problem of climate change since it is an issue that affects everyone. It
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is imperative therefore that the nations maintain engagement in international cooperation to
implement the targets espoused under the Paris Accord and thus spearhead attainment of
sustainable goals.
VII. Energy Security and Geopolitics
7.1. Energy dependence and security
Energy dependenc and security is another important category on the international level which
affects the economic conditions and between international relations, and the rated country’s
defense and security. It means that a country that relies much on imports may be in a vulnerable
position to be subject to supply disruptions, fluctuating fuel prices and political
instabilities. Consumer countries particularly oil and natural gas may face challenges in
obtaining its prier and price stability (Arezki & Matsumoto, 2017). Energy crises suggest some
repercussions in the form of inflationary effects, trade deficits and domination of internal and
international competitiveness. Security policies entail methods such as: diversification across
geographical, and place development of domestic sources of supply of energy power and
enhancement of efficiency and stewardship of energy and energy conservation. This means that
several choices are available for one to get the certain product which in turn reduces the
probabilities of infamous shocks due to instabilities in political estates between the producers
and the consumers. At the same time the use of energy efficient instruments and saving energy
reduces the overall overall energy consumption and as a result including a lesser dependence on
imported energy. In managing transport systems,the civil infrastructure and even in
manufacturing industries, energy productivity helps to reduce overall reliance on imported
energy while also improving carbon emission reduction and the fight against climate
change. Actually, energy security and availability of cheap energy resources do not only remain
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an economical matter; instead, it is part of the security dynamics. This point is rather trivial,
however, it is important to state, that energy supply concerns potentially result in the stability
and sovereignty loss. They pose risks since supply alliances of this nature can easily be
manipulated by the aggressors, and such a dependency could be detrimental to the security of the
country. To enhance energy security, countries formulate policies as the following: acquiring the
strategic supply, diverse import supply, or domestic energy construction. In addition, the
Partnership and mutual assistance, as well as integrated multilateral cooperation in energy can
also mitigate threats and provide energy security if supply is disrupted.
7.2. Geopolitical dynamics of energy
The geopolitics of energy can be considered key components in determining the international
relations of the states, the formation of their alliances, development of armed conflicts and
debates on power-sharing among the nations in control over energy resources and its sources,
availability and distribution of energy resources as well as the structures supporting the
availability are some of the crucial deciding on geopolitical rivalry and collaboration (Zou et al. ,
2016). World’s energy rich nations play significant roles in international relations, where energy
happens to be the raw power in diplomacy, bargaining and pressure. Russia uses its energy
resource to manipulate European politics while KSA use its energy to manipulate international
politics and Iran also use its energy resources to wield power in the international system
(Gillingham & Stock, 2018). Through managing either energy supply or energy demand, through
blackmailing the energy requirement, these countries can dictate the international relations, form
alliances and partnerships. Further, an investment in the energy sector mainly in infrastructure
development like pipelines and ports turns into strategic and can alter stability and security of the
area. Military supervision and control over some strategic infrastructure resources give states a
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degree of control over the supply of energy resources and pressure on transit states. World
economic power politics often manifest in military confrontations and can lead to conflicts and
crises related to the extraction and distribution of Resources, for example in the Middle East and
Eastern Europe. Conflict also can threaten the existence of energy resources, pipeline networks,
and maritime boundaries, which can fuel armed conflict among states. Furthermore, competition
in both Arctic and the South China sea over energy resources has triggered conflict amidst
countries that have overlapping sovereignty claims. This is because competition and power
struggles over access to various resources can result in a high military presence and,
subsequently, geopolitical rivalries in these areas. Knowledge of Geopolitics of energy is very
essential when forming policies that will lead to the management of energy in the international
system in a bid to enhance energy security. Understanding the geopolitical consequences of
energy affairs means that decision makers can determine how problematic situations may be
managed, how cooperation can be arranged and how to ensure that regional stability is
maintained within global energy markets.
7.3. Energy conflicts and disputes
Energy crisis and disputes are as a result of rivalry on energy supplies, own means of access to
energy, and divergent energy policies being developed by different nations. It can be in the form
of boundary disputes, trade disagreements or power struggle for geopolitical influence. Over the
years, global disputes regarding oil and natural gas resources like the South China Sea or the
Eastern Mediterranean seen have resulted in tension and even overt conflict between countries.
They contain huge deposits of unrealized energy potential and, given that several countries can
stake an overlapping claim to each province, have led to military confrontations and diplomatic
tension. Issues concerning energy pricing, supply, and transit are sensitive as trade disputes with
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potential to degenerate into diplomatic or / economic crises emerges. For example, controversies
towards the transit fees of natural gas between Russia and Ukraine have caused interruptions in
the energy supply not only to Ukraine but also in several member countries within Europe that
are relayed through this corridor (Gillingham & Stock, 2018). They reveal actually the intimate
link among energy markets and the fact that national and even regional conflicts can affect
energy security worldwide. Furthermore, energy conflicts can be worsened directly through
geopolitical competition since countries strive to gauge power and control important energy
sources and corridors them. This is because the conflict between the two super powers like U S
and china in Middle East and other part of Africa, expectations for energy resources that their
companies require puts them in a position where they become rivals and exhibit signs of conflict.
These geopolitical dynamics make the region rather unpredictable and energy resources can be
both the bone of contention and the weapon at the same time within this region. This reveals that
the energy supply is volatile and when the prices change around the world the global economy
will be affected. Furthermore, often, long engage lasting conflicts have deleterious effects on
international business and they upset supply chain thereby affecting the stability of the global
economy. Such measures that can be taken in achievement of conflict intervention and mitigation
of energy disputes include diplomacy, international relations, negotiation, and conflict solition
mechanisms aimed at enhancing energy security and avoiding expansion of the conflicts to a
large scale.
VIII. Future Energy Trends and Innovations
8.1. Technological advancements in energy
Technologies are key in increasing the relevance of the energy sector, decreasing the overall
costs and paving way for low-carbon energy systems, the technologies of most renewable energy
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sources especially the solar and wind power have On the other hand been enhanced and made
cheaper. For example, the photovoltaic cell technology in the solar panels has enhanced the
efficiency of producing the solar power and the solar power is now among the cheapest sources
of electricity (Jacobson et al. , 2017). Improvements in material quality and technology have also
brought low cost of power in solar energy thus increasing the technological advancement. And
further advancements have been observed in the technology realm, with new and larger turbines
and improved energy storage options. Advancements in turbines like increased blade length and
capacity of the tower has seen the energy yielded from wind power increase, making the
electricity output cheaper (Markard, 2018). Another development is the offshore wind farms;
these are wind farms that harness power from wind over the seas which is stronger, more
consistent than the one over the land, thus expanding the supremacy of wind energy.
Advancements have occurred in battery cell technologies which include the lithium-ion batteries
that provide an improvement in energy storage which is a drawback of intermittent resources.
Advanced battery technology ensures that the disruptive energy sources such as solar and wind
become more active in the country’s power Grid, despite of their variability due to factors such
as; limited sunshine and/or wind. Advanced battery systems such as the solid-state batteries pave
way to energy density and safety surpassing conventional systems in energy storage solutions
and entire sector. Others are more superior nuclear reactors as a safer and more efficient version
of the general nuclear power. SMRs are being in pipeline for operation optimization and safety
provisions in the mode of operation. To this end, carbon capture and storage (CCS) solutions that
effectively capture carbon dioxide emissions produced from fossil fuel power plants and
industrial processes, and store it under the ground thereby avoiding its release into the
atmosphere are also employed. Smart grid technology is being developed to new heights of
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innovation as it pertains to energy management and distribution. These systems rely on digital
communication technology features to identify variations in Call-trace in different regions and
respond to them effectively and accurately.
8.2. Future energy demand projections
Energy demand can be predicted for the future by certain factors pulls such as increase in
population, increase in economic activities, advancement of technology and certain policies
which are being employed. It is projected that as the world populations continue to grow and
with development of new economies especially of the growing developing economy; energy
demands will also continue to rise (Creutzig et al. , 2021). But the current rapid energy demand
increase could slow down with improved efficiency and application of alert energy using
technologies within industries and households. For example, based on the current policies the
International Energy Agency IEA has predicted that the global energy demand is likely to rise by
around 25 per cent by 2040, nonetheless, this will be highly achievable provided that there are
improved efficiency in energy consumption and shifting towards renewable forms of energy (van
der Ploeg & Rezai, 2020). In addition, as a result of the decarbonisation processes of transport ,
including the switch towards the use of electric vehicles as well as heating and industrial
processes, the use of electricity is projected to rise in parallel to the shift in energy demand from
fossil fuels. Uncertainly spurred by constantly evolving battery technology and increasing
institutional support for the uptake of electric vehicles, their overall prevalence will radically
reshape electricity grids and requirements for infrastructure. Also, industrial electrification which
entails the change over of industrial practices from using fossil based fuels to electricity will also
aid in higher demand for electricity. In this connection, regulating future demand, which is
effected by policy instruments like carbon price, renewable energy targets, and efficiency
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standards, deserves attention. The authorities should demand less energy and encourage demand
side measures and support agencies, utilities, regulatory bodies, and other interested parties in
favour of better policies and standards for increasing the supply of renewable energy and energy
efficiency. Advance in technology specifically smart grids too in the upliftment of energy storage
systems will also decide the future challenges in upgrading the existing energy scenario,
maintaining reliability and effective integration of fluctuating renewable resources. Forecasting
energy demand is important for assessing the overall requirements which are viable to meet the
power requirement in the future, and it is doable only when the population growth, economic
growth along with the technological revolution is well forecasted.
8.3. Emerging energy technologies
There is always potential for new and improved technologies to bring forth transitional changes
that will help provide clean and renewable energy and on the other on-going emerging
technologies conducive to environmental quality are the hydrogen energy technologies since this
energy can be derived from renewable resources and can be used to power several automobile
and industrial applications as well as in power generation (Gillingham & Stock, 2018).
Composed of a proton exchange membrane and stacks of electrochemical cells, hydrogen fuel
cells are a clean substitute of conventional internal combustion engines and applicable to
automobiles, electric utilities, and other usages. The applicability of the use of hydrogen in the
attempt to create a sustainable energy system should not be underestimated as the gas can
contribute to emissions reduction in multiple sectors. Another new emerging technology is next-
generation nuclear power, for instance Small Modular Reactors (SMRs) and advanced fusion
ones. SMRs present more safety, efficiency, and improvement in energy wastage as opposed to
the commonly used nuclear reactors. These reactors are found to be cheaper and more modular,
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thus helping nuclear power to become affordable and versatile in meeting the energy demands of
a nation or any power consumer (Markard, 2018). Superconducting tokamak machines, currently
under construction or still at design and construction planning stage, offer an even cleaner and
nearly inexhaustible source of energy, mimicking the nuclear fusion processes at the heart of the
sun. The development of smart grid and advances in the Internet of Things (IoT) have led to the
increase of the integrity of the energy systems. Smart grids help to control the supply and
demand of power and thus integrate renewables effectively in the energy mix including the use
of solar and wind power. This efficiency is supplemented by IoT which engages in the real-time
management of energy use hence contributing to the improvement of the grid stability and
reliability. These technologies can help sustain a smaller centralize dispatch and much larger
distributed generation of renewable based power and less reliance on large centralize fossil fuel
power plants. Summing up, one can define that the main trends of modern development of
technologies and further scientific research are to solve the two problems at once – the growing
demand for energy resources and reducing the emissions of greenhouse gases.
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