Authors

  • 1Saitkulov Foziljon Ergashevich
    1Tashkent State Agrarian university, Tashkent
  • 1Xudayarov Maxmasaid Maxmarajabovich
    2Samarkand State university, Samarkand
  • 2Nasimov Khasan Muradovich,
    2Samarkand State university, Samarkand
  • Oxunov Isroil Islomovich
    3Kokand State Pedagogical Institute, Kokand

DOI:

https://doi.org/10.71337/inlibrary.uz.siad.127394

Keywords:

Hydrogels water retention agriculture soil moisture management irrigation efficiency sustainable agriculture crop yield water conservation.

Abstract

Hydrogels are polymeric materials with exceptional water absorption properties, capable of retaining significant amounts of water and gradually releasing it into the soil. This unique characteristic makes hydrogels highly beneficial for managing field water supply, especially in regions experiencing water scarcity and unpredictable rainfall. By integrating hydrogels into the soil, it is possible to enhance water retention, reduce the frequency of irrigation, and promote healthier plant growth. 


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UDC: 846+541.64+631.67

HYDROGEL-BASED STRATEGIES FOR DROUGHT MITIGATION IN

AGRICULTURAL SYSTEMS

1

Saitkulov Foziljon Ergashevich,

1

Xudayarov Maxmasaid Maxmarajabovich,

2

Nasimov Khasan Muradovich, Oxunov Isroil Islomovich

1

Tashkent State Agrarian university, Tashkent

2

Samarkand State university, Samarkand

3

Kokand State Pedagogical Institute, Kokand

Abstract:

Hydrogels are polymeric materials with exceptional water absorption

properties, capable of retaining significant amounts of water and gradually releasing it
into the soil. This unique characteristic makes hydrogels highly beneficial for managing
field water supply, especially in regions experiencing water scarcity and unpredictable
rainfall. By integrating hydrogels into the soil, it is possible to enhance water retention,
reduce the frequency of irrigation, and promote healthier plant growth. This study
investigates the potential applications of hydrogels in agriculture, focusing on their role
in improving water use efficiency. Furthermore, it explores the interaction between
hydrogels, soil properties, plant growth, and environmental sustainability. The results
indicate that hydrogel technology can play a key role in water conservation, boost crop
yields, and support sustainable farming practices. However, the effectiveness of
hydrogels depends on factors such as soil type, polymer composition, and environmental
conditions. Future studies should address the long-term impacts of hydrogels on soil
health and evaluate their economic viability for large-scale agricultural implementation.

Keywords:

Hydrogels, water retention, agriculture, soil moisture management,

irrigation efficiency, sustainable agriculture, crop yield, water conservation.

Introduction

Water is one of the most vital resources for agriculture, directly affecting crop growth,
yield, and overall productivity. However, water scarcity and irregular rainfall patterns
are major challenges in many regions around the world, threatening the sustainability of
agricultural practices. Consequently, there is an increasing demand for innovative water
management strategies to optimize the use of available water resources. One promising


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solution is the use of hydrogels—superabsorbent polymeric materials that can

absorb and gradually release water into the soil[1-8].
In recent years, hydrogels have attracted considerable attention for their ability to
enhance soil moisture retention and reduce the frequency of irrigation. These polymers
can absorb water up to several hundred times their weight, releasing it slowly according
to the needs of the soil and plants. By incorporating hydrogels into agricultural soils,
farmers can improve water availability for crops, especially in arid and semi-arid regions
where drought stress often hampers agricultural productivity[9-18].
The effectiveness of hydrogels in agricultural applications is influenced by various
factors such as soil type, polymer composition, and environmental conditions. Research
has demonstrated that hydrogels can improve soil structure, enhance water-use
efficiency, and support plant growth by maintaining optimal moisture levels.
Additionally, hydrogels reduce water loss through evaporation and leaching,
contributing to more sustainable water management. Despite these benefits, the large-
scale implementation of hydrogel technology in agriculture requires careful evaluation
of its economic feasibility and potential long-term environmental impacts[18-22].
This paper aims to explore the applications of hydrogels in field water management. It
examines the interactions between hydrogels, soil, and plants, highlighting their role in
reducing irrigation needs and promoting sustainable agricultural practices. Furthermore,
the paper discusses the challenges and limitations of hydrogel use, including cost
considerations and potential effects on soil health. Understanding these factors is
essential to assess the viability of hydrogels as a solution for improving water supply
management in agricultural fields.
By adopting hydrogel-based water retention techniques, farmers can mitigate drought
impacts, enhance crop yields, and create more resilient agricultural systems. This
research emphasizes the importance of hydrogel applications in modern agriculture and
underscores the need for further studies to optimize their use under varying climatic and
soil conditions.

Method and Results

To evaluate the effectiveness of hydrogels in managing field water supply, an
experimental study was conducted on a selected agricultural plot. The research focused
on soil moisture retention, plant growth, and irrigation efficiency. The experiment was
carried out on a one-hectare field cultivated with the Bukhara-102 cotton variety. The
soil type was sandy loam, which has a moderate water-holding capacity.
A commercial potassium polyacrylate hydrogel was used, applied at a concentration of
2.5 grams per kilogram of soil. The hydrogel was incorporated into the soil at a depth of


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10 centimeters before planting. A control plot without hydrogel treatment was

also maintained for comparison. Drip irrigation was applied uniformly across all plots,
and soil moisture levels were monitored weekly using a TDR soil moisture sensor.
Plant growth parameters, including plant height and leaf area, were recorded every two
weeks. At the end of the growing season, the final crop yield was measured in kilograms
per hectare to determine the impact of hydrogel application on productivity (fig-1).

Fig-1. Hydrogel in plant

The study demonstrated a significant improvement in soil moisture retention and plant
growth in the hydrogel-treated plots compared to the control. The soil in the hydrogel-
treated plots retained 30 to 40 percent more moisture than the control plots, reducing the
need for frequent irrigation. Moisture levels remained stable for a longer duration,
ensuring that plants had consistent access to water.
Plants grown in the hydrogel-treated soil exhibited better growth, being 12 to 15 percent
taller than those in the control plot. Additionally, the leaf area was 20 percent larger,
suggesting improved water and nutrient absorption. The final crop yield in the hydrogel-
treated plot was 17 percent higher than in the control plot, confirming the beneficial
effects of hydrogels on agricultural productivity.
The following diagram illustrates the soil moisture retention trend over 60 days,
comparing hydrogel-treated and control plots table 1.

Table 1


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Days

Hydrogel-Treated Soil (%)

Control Soil (%)

0

28

28

10

25

20

20

22

16

30

19

12

40

17

9

50

15

6

60

12

4

Discussion

The results highlight the potential of hydrogels in improving soil water retention and
enhancing crop performance. By extending soil moisture availability, hydrogels help
reduce irrigation frequency, making them a valuable tool for sustainable agricultural
practices. Future research should focus on the long-term effects of hydrogels on soil
structure and their economic feasibility for large-scale implementation.

Conclusion

The study demonstrated that hydrogels play a significant role in improving soil moisture
retention and enhancing crop productivity. By absorbing and gradually releasing water,
hydrogels help maintain optimal soil moisture levels, reducing irrigation frequency and
preventing water loss through evaporation and leaching. The experimental results
showed that hydrogel-treated soil retained 30 to 40 percent more moisture than untreated
soil, leading to better plant growth and higher crop yields.
The application of hydrogels in agriculture can be particularly beneficial in regions
facing water scarcity and erratic rainfall. By stabilizing soil moisture, these materials
support sustainable farming practices and enhance the resilience of crops against
drought stress. The increase in plant height, leaf area, and yield in hydrogel-treated plots
highlights their effectiveness in improving agricultural productivity.
Despite these benefits, factors such as soil type, hydrogel composition, and economic
feasibility should be considered for large-scale implementation. Further research is
needed to assess the long-term effects of hydrogels on soil health and their
environmental impact. With proper application and continued development, hydrogels
can become a valuable tool for efficient water management in agriculture, promoting
sustainability and food security.


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Literature

1.

Elmuradov, B., Saitkulov, F., Mirvaliev, Z., Ibragimov, A., Karimov, S., &

Karimov, B. (2025, February). Synthesis of urea derivatives based on toluyl isocyanate.
In AIP Conference Proceedings (Vol. 3268, No. 1). AIP Publishing.
2.

Saitkulov, F., Zakhidov, Q., Khaydarov, G., Sabirova, D., Ergasheva, H.,

Mirvaliev, Z., & Usnatdinova, S. (2025, February). Methods for the synthesis of 2-
phenylquinazolin-4-one and studying methylation reactions in different solvents. In AIP
Conference Proceedings (Vol. 3268, No. 1). AIP Publishing.
3.

Ashurova Z. B., Khaydarov G. Sh., Saitkulov F. E., Giyasov K. (2024).

Determination of Certain Heavy Metals in Food Composition by Voltammetric Method.
Austrian Journal of Technical and Natural Sciences 2024, No 3 – 4.

https://doi.org/10.29013/AJT-24-11.12-47-51

4.

Saitkulov F.E., Qayumova F. Synthesis of coordination compounds based on

cobalt(ii) salts and quinazolin-4-ONE and the study of their biological activity //
Universum: химия и биология : электрон. научн. журн. 2025. 2(128). URL:

https://7universum.com/ru/nature/archive/item/19240

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Akhmedova, N., Elmuradov, B., & Saitkulov, F. (2024). Optimal synthesis

methods and biological activity study of 2-(4-nitrophenil) quinazolin-4-
one.

Multidisciplinary Journal of Science and Technology

,

4

(12), 1192-1200.

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Shoyimovich, K. G., Orinbaevna, B. G., & Ergashevich, S. F. (2024). Synthesis

and study of biological activity of coordination compounds based on copper (ii) nitrate
and quinazolin-4-one.

Austrian Journal of Technical & Natural Sciences

.

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Shoyimovich, K. G., Ergashevich, S. F., & Kuchkar, G. (2024). Determination of

certain heavy metals in food composition by voltammetric method.

Austrian Journal of

Technical & Natural Sciences

.

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Abduxakimovich, Z. F., Ergashevich, S. F., Jurayevich, E. B., & Xurramovich,

A. R. (2024). Study of benzylation reactions of quinazolin-4-one in the presence of
various solvents.

Austrian Journal of Technical and Natural Sciences

, 52.

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Bekboyevich, O. O., Ergashevich, S. F., Zoxidovich, M. Z., & Orinaevna, B. G.

(2024). Investigation of aromatic properties of xinazolin-4-one.

Austrian Journal of

Technical & Natural Sciences

.

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Juraevich, E. C., Ergashevich, S. F., Kuchkar, G., & Kilichovna, M. N. (2024).

Convenient synthesis of 2-methylquinazolin-4-thione based on anthranyl acid. austrian
journal of technical and natural sciences, 26.


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SYNAPSES:

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ISSN: 3060-4737 Volume 2, Issue 6 IF(Impact Factor) 10.92 / 2024

313

Synapses:

Insights Across the Disciplines

11.

Saitkulov, F., Sapaev, B., Nasimov, K., Kurbanova, D., & Tursunova, N.

(2023). Structure, aromatic properties and preparation of the quinazolin-4-one molecule.
In

E3S Web of Conferences

(Vol. 389, p. 03075). EDP Sciences.

12.

Саиткулов, Ф. Э., Элмурадов, Б. Ж., & Гиясов, К. (2023). Алкилирования

хиназолин-4-она «мягким» и «жестким» алкилирующими агентами.

Universum:

химия и биология

, (1-2 (103)), 53-56.

13.

Baymuratova, G., Nasimov, K., & Saitkulov, F. (2023). Synthesis of 6-

benzylaminopurine and the study of biological active properties of cotton C-6424 plants.
In

E3S Web of Conferences

(Vol. 389, p. 03032). EDP Sciences.

14.

Saitkulov, F. E., & Elmuradov, B. (2024). Zh., Sapaev B. Syntheses and

biological activity of quyinazolin-4-one hydrochloride.

Austrian Journal of Technical

and Natural Sciences

, (1-2), 28-35.

15.

Sapayev, B., Saitkulov, F. E., Normurodov, O. U., Haydarov, G., & Ergashyev,

B.

(2023).

Studying

Complex

Compounds

of

Cobalt

(II)-Chlooride

Gecsacrystolohydrate with Acetamide and Making Refractory Fabrics from Them.

16.

Saitkulov, F., Qilichyeva, N., Abdullayev, B., Anvarov, A., & Ergasheva, M.

(2022). Titrimetric analysis of calcium cation in" megaton" variety of
cabbage.

International Bulletin of Applied Science and Technology

,

2

(10), 134-135.

17.

Саиткулов, Ф. Э., Гиясов, К., & Элмурадов, Б. Ж. (2022). Метилирование 2-

метилхиназолин-4-она

«мягкими»

и

«жесткими»

метилирующими

агентами.

Universum: химия и биология

, (11-2 (101)), 49-51.

18.

Boymuratova, G. O., Saitkulov, F. E., Nasimov, K. M., & Tugalov, M. (2022).

To Examine the Processes of Biochemical Action Of 6-Benzylaminopurine with Cobalt-
II Nitrate Dihydrate on the “Morus Alba” Variety of Moraceae Plant.

Eurasian Journal

of Physics, Chemistry and Mathematics

,

3

, 39-42.

19.

Saitkulov, F., Begimqulov, I., Oʻralova, N., Gulimmatova, R., & Rahmonqulova,

D. (2022). Biochemical effects of the coordination compound of cobalt-II nitrate
quinazolin-4-one with 3-indolyl acetic acid in the “amber” plants grades phaseolus
aureus.

Академические исследования в современной науке

,

1

(17), 263-267.

20.

Saitkulov, F., Ibragimov, B. R., Allaqulova, M., Umarov, S., & Xolmatova, M.

(2022). The role in the plant and the functions of nutrients.

Инновационные

исследования в науке

,

1

(16), 29-31.

21.

Saitkulov, F., Elmuradov, B., O’lmasova, K., & Alijonova, A. (2023). preparation

of a mixed coordination compound cobalt-ii nitrate hexahydrate with quinazoline-4-one
and 3-indolylacetic acid on “amber” plants of the phaseolus aureus variety.

Science and

innovation in the education system

,

2

(1), 81-87.


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22.

Sapaev, B., Saitkulov, F. E., Abdinazarov, A. B., Nasimov, K. M., &

Isoqjonova, M. (2023). Kobalt (II)-synthesis of the coordination compound formed by
quinazolin-4-on and indole fatty acids of nitrate dihydrate and study of the processes of
influence on the varieties of cotton “Buxara-102”,“Namangan-77”,“Sultan”,“Unkurgan-
1”,“C-6524”. In

E3S Web of Conferences

(Vol. 452, p. 01033). EDP Sciences.

References

Elmuradov, B., Saitkulov, F., Mirvaliev, Z., Ibragimov, A., Karimov, S., & Karimov, B. (2025, February). Synthesis of urea derivatives based on toluyl isocyanate. In AIP Conference Proceedings (Vol. 3268, No. 1). AIP Publishing.

Saitkulov, F., Zakhidov, Q., Khaydarov, G., Sabirova, D., Ergasheva, H., Mirvaliev, Z., & Usnatdinova, S. (2025, February). Methods for the synthesis of 2-phenylquinazolin-4-one and studying methylation reactions in different solvents. In AIP Conference Proceedings (Vol. 3268, No. 1). AIP Publishing.

Ashurova Z. B., Khaydarov G. Sh., Saitkulov F. E., Giyasov K. (2024). Determination of Certain Heavy Metals in Food Composition by Voltammetric Method. Austrian Journal of Technical and Natural Sciences 2024, No 3 – 4. https://doi.org/10.29013/AJT-24-11.12-47-51

Saitkulov F.E., Qayumova F. Synthesis of coordination compounds based on cobalt(ii) salts and quinazolin-4-ONE and the study of their biological activity // Universum: химия и биология : электрон. научн. журн. 2025. 2(128). URL: https://7universum.com/ru/nature/archive/item/19240

Akhmedova, N., Elmuradov, B., & Saitkulov, F. (2024). Optimal synthesis methods and biological activity study of 2-(4-nitrophenil) quinazolin-4-one. Multidisciplinary Journal of Science and Technology, 4(12), 1192-1200.

Shoyimovich, K. G., Orinbaevna, B. G., & Ergashevich, S. F. (2024). Synthesis and study of biological activity of coordination compounds based on copper (ii) nitrate and quinazolin-4-one. Austrian Journal of Technical & Natural Sciences.

Shoyimovich, K. G., Ergashevich, S. F., & Kuchkar, G. (2024). Determination of certain heavy metals in food composition by voltammetric method. Austrian Journal of Technical & Natural Sciences.

Abduxakimovich, Z. F., Ergashevich, S. F., Jurayevich, E. B., & Xurramovich, A. R. (2024). Study of benzylation reactions of quinazolin-4-one in the presence of various solvents. Austrian Journal of Technical and Natural Sciences, 52.

Bekboyevich, O. O., Ergashevich, S. F., Zoxidovich, M. Z., & Orinaevna, B. G. (2024). Investigation of aromatic properties of xinazolin-4-one. Austrian Journal of Technical & Natural Sciences.

Juraevich, E. C., Ergashevich, S. F., Kuchkar, G., & Kilichovna, M. N. (2024). Convenient synthesis of 2-methylquinazolin-4-thione based on anthranyl acid. austrian journal of technical and natural sciences, 26.

Saitkulov, F., Sapaev, B., Nasimov, K., Kurbanova, D., & Tursunova, N. (2023). Structure, aromatic properties and preparation of the quinazolin-4-one molecule. In E3S Web of Conferences (Vol. 389, p. 03075). EDP Sciences.

Саиткулов, Ф. Э., Элмурадов, Б. Ж., & Гиясов, К. (2023). Алкилирования хиназолин-4-она «мягким» и «жестким» алкилирующими агентами. Universum: химия и биология, (1-2 (103)), 53-56.

Baymuratova, G., Nasimov, K., & Saitkulov, F. (2023). Synthesis of 6-benzylaminopurine and the study of biological active properties of cotton C-6424 plants. In E3S Web of Conferences (Vol. 389, p. 03032). EDP Sciences.

Saitkulov, F. E., & Elmuradov, B. (2024). Zh., Sapaev B. Syntheses and biological activity of quyinazolin-4-one hydrochloride. Austrian Journal of Technical and Natural Sciences, (1-2), 28-35.

Sapayev, B., Saitkulov, F. E., Normurodov, O. U., Haydarov, G., & Ergashyev, B. (2023). Studying Complex Compounds of Cobalt (II)-Chlooride Gecsacrystolohydrate with Acetamide and Making Refractory Fabrics from Them.

Saitkulov, F., Qilichyeva, N., Abdullayev, B., Anvarov, A., & Ergasheva, M. (2022). Titrimetric analysis of calcium cation in" megaton" variety of cabbage. International Bulletin of Applied Science and Technology, 2(10), 134-135.

Саиткулов, Ф. Э., Гиясов, К., & Элмурадов, Б. Ж. (2022). Метилирование 2-метилхиназолин-4-она «мягкими» и «жесткими» метилирующими агентами. Universum: химия и биология, (11-2 (101)), 49-51.

Boymuratova, G. O., Saitkulov, F. E., Nasimov, K. M., & Tugalov, M. (2022). To Examine the Processes of Biochemical Action Of 6-Benzylaminopurine with Cobalt-II Nitrate Dihydrate on the “Morus Alba” Variety of Moraceae Plant. Eurasian Journal of Physics, Chemistry and Mathematics, 3, 39-42.

Saitkulov, F., Begimqulov, I., Oʻralova, N., Gulimmatova, R., & Rahmonqulova, D. (2022). Biochemical effects of the coordination compound of cobalt-II nitrate quinazolin-4-one with 3-indolyl acetic acid in the “amber” plants grades phaseolus aureus. Академические исследования в современной науке, 1(17), 263-267.

Saitkulov, F., Ibragimov, B. R., Allaqulova, M., Umarov, S., & Xolmatova, M. (2022). The role in the plant and the functions of nutrients. Инновационные исследования в науке, 1(16), 29-31.

Saitkulov, F., Elmuradov, B., O’lmasova, K., & Alijonova, A. (2023). preparation of a mixed coordination compound cobalt-ii nitrate hexahydrate with quinazoline-4-one and 3-indolylacetic acid on “amber” plants of the phaseolus aureus variety. Science and innovation in the education system, 2(1), 81-87.

Sapaev, B., Saitkulov, F. E., Abdinazarov, A. B., Nasimov, K. M., & Isoqjonova, M. (2023). Kobalt (II)-synthesis of the coordination compound formed by quinazolin-4-on and indole fatty acids of nitrate dihydrate and study of the processes of influence on the varieties of cotton “Buxara-102”,“Namangan-77”,“Sultan”,“Unkurgan-1”,“C-6524”. In E3S Web of Conferences (Vol. 452, p. 01033). EDP Sciences