Analysis of the Economic Dynamics of the Implementation of the
Green Course in Russia
Ruslan Ilyasov
a
Chechen State University, Grozny named after A.A. Kadyrova, Grozny, Russian Federation
Keywords: Economy, climate, global nature, green technologies, renewable energy, national conditions, climate change,
economic and environmental priorities.
Abstract: Reducing net greenhouse gas emissions to zero even within 30 years by 2050 is a highly ambitious goal,
especially for Russia, which has so far not taken active action in the field of combating climate change. This
goal must be achieved through a fair, inclusive and gradual economic transformation that takes into account
the interests of all and everyone. To avoid giving wrong market signals and creating new imbalances in the
economy, the transition to a new development model should eliminate direct public spending to the maximum
extent and should focus on stimulating private investment in green sectors of the economy, reallocating
subsidies from the fossil fuel and nuclear energy sectors to benefit of renewable energy, as well as improving
institutions and regulation.
1 INTRODUCTION
The key goal in the field of clean energy should be to
provide at least 20% of electricity generation
excluding large hydroelectric power plants and at
least 10% in the transport and heating sectors, taking
into account the electrification of these sectors
through renewable energy and excluding traditional
biomass by 2030 and the transition to 100 % RES in
the entire energy sector by 2050. Also, for the period
up to 2030, it is planned to reduce the energy intensity
of Russian GDP by 40% compared to the level of
2007 (fulfillment of the goal that was set for the
period up to 2020), for the period up to 2050 - a
decrease in the energy intensity of Russian GDP to
the world average level. In addition, by 2050 there
should be no vehicles with internal combustion
engines left in Russia. Each subject of the Russian
Federation must develop and fulfill its regional goals
for the share of renewable energy and energy
efficiency (Babina, 2020).
With the large-scale development of renewable
energy and related industries, special attention should
be paid to the participation of civil society in this
process and the creation of opportunities for the
development of small and medium enterprises, local
a
https://orcid.org/0000-0001-7040-798X
initiatives and local economies of regions, cities and
settlements. Clean energy should not become an
oligopoly with a few big players and closed market
entry. It also needs to eliminate support for false
green technologies such as carbon capture and storage
(CCS), large hydropower, and nuclear power,
including controlled fusion. The replacement of coal
with natural gas in electricity generation should not
be seen as an intermediate step in the energy
transition and decarbonization of the energy sector.
To achieve these goals, the following measures must
be taken (Lapaeva, 2019; Gakaev, 2019; Murtazova,
2021):
General measures to support the development of
clean energy
development and implementation of the phase-
out of subsidies for fossil fuels and nuclear
energy and the reorientation of subsidies to the
renewable energy sector, as well as the
development of international cooperation in the
field of phase-out of subsidies for fossil fuels
and nuclear energy;
development and implementation of a phase-
out of cross-subsidizing in the electric power
industry;
development and implementation of plans for
the gradual abandonment of (1) the expansion
Ilyasov, R.
Analysis of the Economic Dynamics of the Implementation of the Green Course in Russia.
DOI: 10.5220/0011556500003524
In Proceedings of the 1st International Conference on Methods, Models, Technologies for Sustainable Development (MMTGE 2022) - Agroclimatic Projects and Carbon Neutrality, pages
153-158
ISBN: 978-989-758-608-8
Copyright
c
2023 by SCITEPRESS Science and Technology Publications, Lda. Under CC license (CC BY-NC-ND 4.0)
153
of the geography of fossil fuel production (the
introduction of a ban on the development of
new deposits of coal, oil and gas),
(2) extraction and (3) combustion of fossil
fuels;
development of strategies for a just energy
transition for regions with coal mono-
specialization, primarily for the Kemerovo
region (Kuzbass), taking into account all
economic, environmental and social aspects
and the subsequent expansion of this practice to
the regions of oil and natural gas production;
development of a roadmap for the development
of bioenergy based on waste from agriculture,
forestry and public utilities;
development of a roadmap for the development
of green hydrogen energy and other Power-To-
X technologies;
Strengthening measures to control the use of
fuel oil and diesel fuel, especially in the Arctic
regions and places of traditional residence of
indigenous peoples of the North, Siberia and
the Far East.
Improving Energy Efficiency
introduction of apartment-by-apartment heat
energy metering through the obligatory
requirement to install apartment heat meters in
all new buildings and their phased introduction
in existing buildings, as well as the introduction
of payment for consumed heat energy
according to apartment heat meters;
return of the requirement to conduct an energy
audit at least once every five years for
budgetary institutions and organizations
consuming fuel and energy resources worth
more than 10 million rubles. per year, as well
as for organizations that carry out activities at
the expense of budgets of various levels (the
requirement of Article 16 of the Federal Law
No. 261‑FZ of November 23, 2009 “On Energy
Saving and Energy Efficiency Improvement
and on Amendments to Certain Legislative
Acts of the Russian Federation”, canceled in
2019);
reduction of unreasonable consumption of
electricity in cities through the restriction of
illuminated advertising and the introduction of
minimum lighting standards for establishments
closed at night;
development and implementation of a
comprehensive program to reduce energy
losses in heat and power networks, as well as
water supply networks;
popularization of energy savings among the
population and corporations, as well as
stimulation of the implementation of energy
management standards in organizations,
including the international standard ISO 50001.
RES in the electricity sector (Gakaev, 2018):
development of competition in the electricity
sector (in particular, creation of opportunities
for individuals to choose their electricity
supplier);
waiver of requirements for localization of
production of equipment for RES, as well as
waiver of introduction of requirements for the
export of equipment for RES within the
framework of the RES Capacity Supply
Agreement (PSA) mechanism;
transition to competitive selection of projects at
the second stage of the implementation of the
CSA RES support mechanism in 2025–2035.
based on a one-part price that takes into
account capital and operating costs, cost of
capital and installed capacity utilization factor
(ICU), and not only on the basis of capital
costs, as is currently the case;
granting a non-penalty deferment to RES CSA
projects due to the COVID-19 factor (for
investment projects with a planned start date
for power supply in the period up to
12/31/2021, it is necessary to introduce a non-
penalty deferral of facility commissioning for a
period of up to 9 months, with a shift in the
delivery deadline for RES CSA for the duration
of the declared delay, but not more than 3
months from the initial end date of power
supply under the contract);
Rejection of the CSA mechanism for RES after
2035 and the rejection of other non-market
mechanisms for the development of the electric
power industry;
providing the subjects of the Russian
Federation with the opportunity to make
independent decisions regarding the
development of RES in the retail electricity
market, not limited by the maximum volumes
of compensation for losses of grid
organizations due to electricity from RES at a
level of no more than 5%;
development of a comprehensive plan to equip
all landfills with landfill gas collection
facilities and ensure its use for energy
purposes, as well as reducing the standard
installed capacity utilization factor (ICUF) for
landfill gas power plants from 65% to 50%
(Vladimirov, 2019; Molchanova, 2019);
MMTGE 2022 - I International Conference "Methods, models, technologies for sustainable development: agroclimatic projects and carbon
neutrality", Kadyrov Chechen State University Chechen Republic, Grozny, st. Sher
154
development of a support system for local
small-scale initiatives in the field of renewable
energy (energy cooperatives, microgeneration
projects, distributed networks with a high share
of renewable energy) in the interests of local
communities;
taking measures to reduce and gradually stop
the use of fuel oil and diesel fuel as an energy
source in the places of residence of the
indigenous peoples of the North, Siberia and
the Far East and replace them with renewable
energy sources;
approval of minimum prices for the supply of
surplus electricity to the grid in the
microgeneration segment at a level not lower
than the electricity tariffs for the population.
2 RESULTS AND DISCUSSIONS
The transition to a circular economy is a huge
challenge even for many European countries that
have been dealing with this problem for several
decades (Egorova, 2020). The development of a
circular economy requires the introduction of new
business models based on less carbon-intensive
materials and processes, as well as the transition from
a linear consumption economy in favor of a more
sustainable model that involves the long-term use of
goods, the development of joint consumption
(sharing), the elimination of unnecessary and
dangerous for the environment of disposable goods
and packaging (particularly plastic), waste reduction,
waste recycling and the use of recycled materials. By
2050, carbon neutrality must be achieved in the
industrial sectors that currently generate the most
greenhouse gas emissions from industrial processes,
at least in the production of iron and steel, as well as
cement. In the world, some of the largest producers of
these materials are already taking on such obligations
on their own. So, on September 1, 2020, a group of
40 leading cement producers committed to switch to
the production of carbon-neutral cement by 2050. The
initiative was initiated by the Global Cement and
Concrete Association (GCCA). Companies intend to
achieve carbon neutrality by reducing (1) direct and
(2) indirect emissions associated with the use of
energy for cement production, (3) the introduction of
carbon capture and storage technologies, (4) reducing
the content of cement clinker in cement and cement
in concrete , as well as more efficient use of concrete
in the construction of buildings and infrastructure, (5)
recycling of concrete contained in construction debris
and demolition waste, (6) increasing the absorption of
carbon dioxide by concrete as a result of the
recarbonization (absorption) process.
The EU is implementing the Green Steel for
Europe project, aimed at developing a roadmap for
the decarbonization of the European steel industry.
Currently, the metallurgical industry lacks uniform
standards and a clear definition of green metal. There
is also a lack of actions aimed at reducing emissions
directly from production processes, and not from
energy sources, although several large foreign steel
companies are already implementing projects to
radically reduce emissions from production processes
(for example, by using green hydrogen instead of
natural gas to restore ores). In agriculture, the main
ways to reduce greenhouse gas emissions can be (1)
regenerative or regenerative farming practices, (2)
waste reduction, and (3) composting. Regenerative
agriculture involves minimizing soil disturbance and
increasing soil carbon content (Meckling, 2020).
Examples of regeneration methods include the use
of organic fertilizers, crop rotation, reduced tillage,
growing more varieties crops to promote
agrobiodiversity. Reducing the amount of food waste
can be achieved through the development of food
sharing and discounts on products with an expiration
date. Carbon sequestration through improved
agricultural practices has huge potential to reduce
greenhouse gas emissions. Indigo Ag estimates that if
the organic matter content of all the world's
agricultural land is increased from today's 1% to pre-
industrial levels of about 3%, 1 trillion tons of carbon
would be sequestered, the equivalent of all industrial
emissions since the industrial revolution. Soil carbon
content can be increased through a variety of so-
called carbon farming practices. No other sector of
the economy has such a potential to absorb carbon
from the atmosphere. Russia’s key goals in the area
of the circular economy should be: transition to
carbon-neutral production of metals and concrete, as
well as carbon-neutral agriculture by 2050, reducing
greenhouse gas emissions from per capita food
consumption to a level consistent with preventing an
increase in the global average temperatures by more
than 1.5°C by 2050, including a 50% reduction in the
production and consumption of animal products by
2050, transition of at least 40% of the population to
sustainable diets by 2030 and 75% of the population
by 2050, reduction of municipal solid waste
generation per inhabitant by 30% by 2030 and by
60% by 2050 compared to 2020, as well as achieving
a recycling rate of at least 80% of generated waste by
2050 and taking steps to develop modern, low-waste
business models that do not encourage excess
Analysis of the Economic Dynamics of the Implementation of the Green Course in Russia
155
consumption. To achieve these goals, the following
actions should be taken (Reynard, 2020).
General Measures for the Development of the
Circular Economy in Russia (Egorova, 2020):
introduction of a carbon price (carbon tax);
integration of the principles of the circular
economy into all key strategic documents of the
country, including all strategies, road maps,
programs for the development of industries,
etc.;
development and inclusion of clear quantitative
requirements for greenhouse gas emissions and
compliance with the principles of the circular
economy in the requirements for public
procurement;
promoting remote work as the new norm for
office workers during and after the end of the
COVID-19 pandemic, including the possibility
of remote work from other localities;
development and adoption of a framework
document for the implementation of the
circular economy on the territory of the Russian
Federation according to the principles of "zero
waste", with prioritization of the stage of
conservation of primary resources and
minimization of waste production, including in
the field of production and consumption waste
management by fractions, electronic, food
waste, textiles, as well as hazardous, medical
and biological waste;
introduction of positive economic incentives
and regulatory support for the principles of
waste prevention, maximum use of raw
materials and materials, reuse, maintainability
and product life extension, legislative
restrictions and negative economic incentives
for the circulation of disposable goods;
development of fiscal measures and measures
of positive economic incentives, other
measures to prioritize the use of products and
materials intended for reuse with the exclusion
of the stage of material utilization, as well as
products and goods from secondary raw
materials;
development of a public education system,
including federal channels and the media, on
the principles of "zero waste" and
popularization of a green lifestyle among the
population;
assistance in the implementation of initiatives
for the reuse of goods and the dissemination of
cooperation in this area;
formulation and implementation of priorities
according to the principles of "zero waste" in
the implementation of public procurement and
activities;
implementation of fiscal policy based on the
principle “the polluter and the waste producer
pays for the amount of waste generated” and
the introduction of a “pay what you pollute”
scheme, which charges waste producers based
on the actual amount of waste generated and
provides incentives to reduce the volume of
waste, both mixed and segregated at source;
development of a framework document for the
implementation in the territory
Russian standards for the life of goods and their
maintainability in order to prevent the
implementation of planned aging at the stage of
production of goods and to maximize the life of
goods;
development of measures to improve the
resource efficiency of manufactured products,
especially in construction, automotive and
electronics, which can be used as mandatory
product standards;
introduction of the obligation of manufacturers
of goods and equipment to cover 100% of the
costs of processing and reusing materials
(Reynard, 2020).
3 CONCLUSIONS
Forest loss and climate change are interdependent
processes. The restoration and protection of forests
and swamps, the development of sustainable forestry
and the use of abandoned agricultural land are the
most important tasks that Russia needs to solve in the
next decade. A key qualitative achievement should be
the transition from the development of the remaining
wild forests to intensive forestry on previously
developed lands and plantation forestry. Up to 300
million m3 of wood per year should be grown on 50
million hectares of agricultural land that has been
retired from use in Russia, which will create up to
100,000 jobs. In the world, there is an intensive
involvement of land that is being retired from
agricultural use, limited or unsuitable for modern
agriculture, in forestry (from protective afforestation
and classical forestry to plantation forestry) or
agroforestry (growing forests on agricultural land
with the dual purpose of obtaining forest products and
forming more favorable conditions for growing
crops). Large pulp and paper enterprises built in the
world in the 21st century, as well as most large
woodworking enterprises, are oriented towards the
MMTGE 2022 - I International Conference "Methods, models, technologies for sustainable development: agroclimatic projects and carbon
neutrality", Kadyrov Chechen State University Chechen Republic, Grozny, st. Sher
156
provision of raw materials through forest plantations
or through highly developed intensive forestry.
Similar changes are needed in Russia. Particular
attention should be paid to ensuring the fire safety of
forests. It is necessary to reduce the areas of "control
zones" of forest fires, where non-extinguishing is
allowed, from about half to about a quarter of the area
of forest land. To ensure the full protection of forests
and effective extinguishing of forest fires, the total
amount of funding for the powers transferred to the
constituent entities of the Russian Federation in the
field of forestry should be tripled, up to 90 billion
rubles a year in the prices of early 2020.
There are several principles of the cyclical
economy in metallurgy (Egorova, 2020):
development of a roadmap for the
decarbonization of the metallurgical industry;
development of a system of government grants
for research and commercialization of new
technologies in the production of metals with
low greenhouse gas emissions;
development of a definition and methodology
for assessing carbon-neutral metals;
provision of tax incentives and preferential
loans to producers and consumers of carbon-
neutral metals;
Encouraging the use of arc steel-smelting
furnaces using electricity from renewable
energy sources and green hydrogen, with a
gradual phase out of blast furnaces and
converter furnaces, which are mainly fueled by
metallurgical coal (Molchanova, 2019).
And also we can distinguish the following principles
of the cyclical economy in the production of cement
and concrete:
development of a roadmap for the
decarbonization of cement and concrete
production;
development of a system of state grants for
scientific research and commercialization of
new technologies in the production of low-
carbon and carbon-negative concrete;
development of a definition and methodology
for assessing carbon neutral cement and
concrete, as well as carbon negative concrete;
provision of tax incentives and preferential
loans to producers and consumers of carbon-
neutral cement and concrete;
encouragement to reduce the content of clinker
in cement and cement in concrete;
promotion of the use of waste from other
sectors of the industry in the composition of
cement;
encouragement of long-term operation of
buildings, close to the normative service life, to
prevent premature demolition of buildings.
Implementation of the principles of the circular
economy in agriculture (Reynard, 2020):
development of a roadmap for the
decarbonization of agriculture, including the
potential for soil carbon storage and the use of
animal waste for energy and fertilizer
production;
development and adoption of a law on carbon
agriculture, aimed at stimulating the
development of climate-friendly agricultural
practices, sequestration and storage of carbon
in the soil (reduction of tillage, preservation of
crop residues and cover on the soil surface, the
use of crop rotation);
Introducing a ban on keeping animal waste in
lagoons, with the ensuing obligation of farms
to send animal waste for processing into
biofuels and fertilizers;
creation of a system of concessional lending
and tax incentives
for farms that apply regenerative and organic
farming methods;
implementation of a free training program for
farmers in regenerative and organic farming
methods;
Development of a support system for local
small-scale initiatives in the field of organic,
regenerative and carbon agriculture (farms,
cooperatives) for the benefit of local
communities and the reorientation of the
agricultural industry from the production of
food in large quantities to the production of
food suitable for the transition to sustainable
diets.
REFERENCES
Babina, S. I., 2020. Digital and information technologies in
enterprise management: reality and a look into the
future. р. 89.
Lapaeva, M. G., 2019. Region as a spatial socio-economic
system of the state. р. 138.
Gakaev, R. A., 2019. Mountain meadow landscapes of the
Chechen Republic and features of their distribution. рр.
108-121.
Murtazova, K. M.-S., 2021. Ecological and economic
assessment of sectoral agricultural technologies. 3(15),
pp. 68-71.
Gakaev, R. A., Bayrakov, I. A., Bagasheva, M. I., 2018.
Ecological foundations of the optimal structure of
forest landscapes in the Chechen Republic. In the
Analysis of the Economic Dynamics of the Implementation of the Green Course in Russia
157
collection: Environmental problems. Looking into the
future. pp. 50-52.
Vladimirov, A. M., Imanov, F. A., 2019. Principles for
assessing the ecological flow of rivers. pp. 225-229.
Molchanova, Ya. P., 2019. Hydrochemical indicators of the
state of the environment. p. 192.
Egorova, N. I., Mityakova, O. I., 2020. Environmental
Innovation and Sustainable Development. pp. 209-215.
Meckling, J., Hughes, L., 2020. Protecting Solar: Global
Supply Chains and Business Power. New Political
Economy. pp. 88–104.
Reynard, E., Panizza, M., 2020. Geomorphosites:
definition, assessment, and mapping. Geomorphol
Relief. рр. 82-105.
MMTGE 2022 - I International Conference "Methods, models, technologies for sustainable development: agroclimatic projects and carbon
neutrality", Kadyrov Chechen State University Chechen Republic, Grozny, st. Sher
158