− 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