Utilizing Wind and Solar Energy to Mitigate Desertification in
Mountainous Landscapes
Ozoda Adilova
a
Jizzakh State Pedagogical Institute, Jizzakh, Uzbekistan
Keywords: Livestock, Mountain Landscape, Wood, Unconventional Energy, Solar Energy, Pore, Biogas, Livestock
Farms, Filtration, Condensation, Pasture Capacity, Biomass, Solar Photovoltaic Station.
Abstract: The article discusses the factors influencing the desertification process in mountain and foothill landscapes,
as well as the possibilities of using wind and solar energy in mountainous areas.
1 INTRODUCTION
Presently, the phenomenon of desertification is
extensive, affecting not only flat desert terrains but
also foothills and mountainous landscapes. A key
factor contributing to this issue is the increasing
anthropogenic pressure on the local population. To
illustrate this, we examine the case of mountain and
foothill landscapes surrounding the Middle Zarafshan
valley, where the desertification process is gaining
momentum.
2 DISCUSSION OF KEY
FINDINGS
The Nurata mountain system, encircling the Middle
Zarafshan valley from the north, comprises Gobdin
Mountain, Karachatagy, Aktag, and Karatags from
east to west, along with the Nurata ridge. In the
valley's south, you find Chaqilqalan, Qoratepa,
Zirabulak, and Ziyovutdin mountains. The highest
peaks in both ranges slightly surpass 2,000 meters.
These mountains slope down from east to west,
transitioning into high hills at the western edges.
Many mountains feature streams and extensive karst
springs, predominantly flowing on the northern and
southern slopes, with surrounding villages varying in
size based on water availability.
Due to moderate mountain heights, cattle can
graze in most places. However, areas distant from
a
https://orcid.org/0000-0002-1523-0816
villages with scarce and fragmented springs see
minimal livestock grazing. Villagers near springs
graze their livestock year-round. Considering an
average-sized village with a hundred families, each
having around ten sheep and goats, approximately
1,000 sheep and 300 cattle graze within a 5-6 km
radius daily. Larger villages, such as Gos, Zinak,
Qoratepa, Ohalik, Sazaghan, Aksay, Josh, Chuya,
Jizmon, and Maidan on the northern slopes of the
Chaqilqalan Mountains, have populations exceeding
10,000. As populations grow, cattle numbers
increase, resulting in 5-15 times more livestock than
pasture capacity. The rising goat population,
particularly, poses a threat to shrubs and trees,
causing substantial damage to the mountain
environment.
Villagers in the mountain foothills utilize tree
branches, shrubs, and mountain vegetation for baking
bread in ovens. Additionally, they use bushes, trees,
and livestock waste for cooking and heating homes in
winter. Unfortunately, near villages, trees and shrubs
have been completely cleared from mountain slopes.
In recent years, "woodcutter" groups have
emerged in villages, selling truckloads of firewood at
prices ranging from 1,000,000 to 1,500,000 sums. In
the Samarkand region cities, firewood prices have
surpassed 2,000,000 sums.
The extensive felling of trees, coupled with
increased cattle numbers, is severely impacting
mountain ecology. Erosion and soil loss occur on bare
slopes, contributing to reduced spring water levels
and drying springs. This process of mountain
Adilova, O.
Utilizing Wind and Solar Energy to Mitigate Desertification in Mountainous Landscapes.
DOI: 10.5220/0012949300003882
Paper published under CC license (CC BY-NC-ND 4.0)
In Proceedings of the 2nd Pamir Transboundary Conference for Sustainable Societies (PAMIR-2 2023), pages 1037-1039
ISBN: 978-989-758-723-8
Proceedings Copyright © 2024 by SCITEPRESS – Science and Technology Publications, Lda.
1037
desertification is expected to intensify with
population growth.
Mountains act as significant water accumulators,
absorbing atmospheric precipitation. Some
groundwater, formed through filtration,
condensation, and siltation, surfaces as springs. To
counter desertification, it is crucial to provide
adequate heating and fuel to mountain communities,
and the viable solution lies in harnessing
unconventional energy resources.
Uzbekistan benefits from 290-320 sunny days
annually, with a solar energy potential of 50,973
million tons of oil equivalent. Currently, only 0.3% of
solar energy is utilized in the country. Solar energy
applications in mountainous and foothill landscapes
include electricity generation, heating houses,
pumping groundwater, drying fruits, and irrigating
hillsides.
While the cost of electricity from solar
photovoltaic stations (FES) is currently slightly
higher, installing solar panels in remote residential
areas without power grids proves more economical.
With village expansion and increased electricity
usage, there's a growing need to expedite solar energy
adoption to meet population demands.
Wind energy stands as an inexhaustible resource
in Uzbekistan. The technical potential of wind energy
is 9.9 billion kW/s per year at 10 meters above the
surface. Globally, wind energy is a rapidly growing
industry, accounting for varying percentages of
electricity generation in different countries. The
average annual wind speed in Uzbekistan's open
plains ranges from 4-7 m/s, making wind energy
viable, even in mountainous areas with constant wind
paths.
The value of electricity generated by wind farms
decreases with increasing wind speed, making wind
power competitive with coal-fired power plants. The
use of wind energy, along with solar and biogas, can
contribute significantly to meeting the energy needs
of mountain and foothill communities.
Livestock herds, abundant in these areas, provide
a valuable resource for biogas production. Biogas
plants can utilize livestock waste, as well as other
biomass like aquatic plants and tree branches. Biogas
energy already plays a substantial role in some
developed countries.
In addition to solar and wind power, small
hydropower plants can generate electricity using
rivers in mountainous and foothill regions. Numerous
experiments with solar and wind power plants have
been undertaken in the Zarafshan Valley, particularly
in hospitals and villages, demonstrating the feasibility
and benefits of renewable energy sources. Hand-
made wind power plants have been successfully
operating in Bulungur district for over a decade.
3 CONCLUSIONS
In mountain and foothill plains, the construction of
solar and wind power plants in close proximity is
advisable due to their complementary nature. Wind
stations prove beneficial during winter and spring
when solar panel activity decreases. Concurrently,
efforts are underway to develop and promote small
biogas plants. Methane, constituting 55-70% of cattle
rot, can be utilised for cooking, heating, and
electricity generation.
The implementation of non-traditional energy
resources in mountain and foothill landscapes not
only enhances local convenience but also creates
opportunities for developing vast expanses of land.
Currently, large foothill areas serve as pastures due to
water scarcity, but with the use of wind and solar
energy, groundwater extraction and drip irrigation
technologies can transform these areas into orchards,
vineyards, and fields for growing vegetables and
melons on tens of thousands of hectares.
By employing solar, wind, biogas, and hydropower
for heating homes in mountainous and foothill
landscapes, there is a significant reduction in the
population's reliance on firewood. This results in the
restoration of natural trees and shrubs on mountain
slopes, thereby improving the overall mountain
ecology. Access to electricity in mountainous
regions, coupled with the development of mountain
gardening through irrigation from springs and
streams using motors, contributes to the creation of
picturesque landscapes. In essence, the effective use
of non-conventional energy sources stands as a
crucial tool in halting the rapidly accelerating
desertification process in mountains and foothills.
The exploration of non-conventional energy
resources represents a paramount task in
contemporary geographical sciences. Maps detailing
the distribution of these resources serve as a
foundation for planning the installation of power
generation equipment and the efficient utilisation of
non-conventional energy resources.
A pivotal task for geographical sciences involves
studying the wind and solar energy reserves in all
regions and districts of the country. This exploration
aims to assess non-traditional energy resources,
conduct scientific research, and ascertain their
strength and magnitude.
PAMIR-2 2023 - The Second Pamir Transboundary Conference for Sustainable Societies- | PAMIR
1038
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