Authors

  • Bobur Matyokubov
    Samarkand State Architecture and Construction University named after Mirzo Ulugbek
  • Elmira Zoyirova
    Samarkand State Architecture and Construction University named after Mirzo Ulugbek

DOI:

https://doi.org/10.71337/inlibrary.uz.ijai.77603

Abstract

This article highlights the significance of heat insulation and energy-saving materials in modern construction. Preventing heat loss is a crucial factor in increasing energy efficiency and ensuring environmental sustainability in the construction industry. Research findings indicate that materials such as polyurethane foam, mineral wool, extruded polystyrene (XPS), and vacuum panels exhibit high insulation properties. This paper analyzes the characteristics of these materials, their evaluation methods, and their effectiveness in construction.

 

 

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INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1378

HEAT INSULATION AND ENERGY-SAVING CONSTRUCTION MATERIALS

Matyokubov Bobur Polatovich,

Lecturer;

Zoyirova Elmira Bakhriddinovna,

Student;

Samarkand State Architecture and Construction

University named after Mirzo Ulugbek (SamSACU), Uzbekistan.

pulatovich93@gmail.com

Abstract:

This article highlights the significance of heat insulation and energy-saving materials

in modern construction. Preventing heat loss is a crucial factor in increasing energy efficiency

and ensuring environmental sustainability in the construction industry. Research findings

indicate that materials such as polyurethane foam, mineral wool, extruded polystyrene (XPS),

and vacuum panels exhibit high insulation properties. This paper analyzes the characteristics of

these materials, their evaluation methods, and their effectiveness in construction.

Keywords:

Heat insulation, energy-saving materials, polyurethane foam, mineral wool, XPS,

vacuum panels, construction efficiency.

Introduction:

Energy efficiency and heat insulation play a significant role in modern

construction. Preventing heat loss in buildings not only ensures energy savings but also supports

environmental sustainability. The thermal conductivity coefficient of construction materials is

one of the primary factors determining their effectiveness. This article examines energy-saving

construction materials and their role in heat insulation.

Methods

The following methods are used to evaluate the heat insulation properties of construction

materials:

1.

Determining thermal conductivity

– The λ (lambda) coefficient of construction

materials is measured through specialized laboratory tests.

2.

Testing and experiments

– Materials are tested under real conditions to assess their heat

retention properties.

3.

Composite material research

– The efficiency of multilayer materials is compared, and

innovative approaches are proposed.

4.

Energy efficiency analysis

– The heat-saving characteristics of construction materials

are evaluated based on their impact on the overall energy consumption of buildings.

Results:

The conducted studies demonstrate that the use of high-performance thermal insulation materials

significantly reduces the energy consumption of buildings. The following materials have been

identified as particularly effective:


background image

INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1379

1.

Polyurethane foam

– With low density, it provides excellent thermal insulation and is

actively used for insulating industrial, public, and residential buildings.Polyurethane foam has

proven to be one of the best insulation materials, especially when applied by spraying. This

technology offers several advantages. First, compared to other insulation methods, spray

application saves considerable time and effort. Second, the applied foam fills cracks and gaps,

forming a monolithic coating layer. Additionally, polyurethane foam has low thermal

conductivity, preventing heat loss.

Figure 1: Polyurethane foam

2. Mineral wool

– Environmentally safe with high heat retention capacity.

Mineral wool, which fully meets international standards, is a valuable thermal insulation material

for both industrial and residential buildings. It is produced using natural raw materials, including

quartz, and does not cause allergic reactions or skin irritation.

Mineral wool is completely safe for use in bedrooms. It not only provides long-term heat and

sound insulation but also reduces energy costs over many years. Due to its high efficiency, it is

widely used in gas and hot water pipelines, as well as household ventilation systems.


background image

INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1380

Figure 2: Mineral wool

3. Extruded polystyrene (XPS)

– Moisture-resistant and highly durable.

Extruded polystyrene foam is a synthetic insulation material obtained by extruding polystyrene

granules. XPS boards have a smooth surface and a dense fine-cell structure, providing high

strength, flexibility, and durability. This material does not absorb water, shrink, or decompose

and is resistant to chemicals and microorganisms. XPS is widely used for insulating roofs,

facades, floors, foundations, walls, and various engineering structures. It is suitable for both civil

and industrial construction.


background image

INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1381

Figure 3; Extruded polystyrene material.

4. Vacuum panels

– The latest technology with the lowest thermal conductivity coefficient.

These panels utilize ultra-thin fibers as the core material and undergo a wet-laying process. They

are characterized by low bulk density, low thermal conductivity, good elasticity, and non-

flammability. Vacuum panels have a fine texture, providing a smooth surface and excellent

handling properties. They are particularly suitable for applications with space constraints and

represent a high-quality thermal insulation material.

Figure 4: Vacuum panels

Discussion:

Key findings regarding energy savings and heat insulation improvement include:

Material quality and technology

– While modern materials offer high efficiency, their

production costs remain relatively high.

Environmental impact

– Some synthetic materials generate higher carbon emissions

during production.

Construction standards and regulations

– Many countries are implementing strict

energy efficiency standards, driving the need for new innovations.

Future prospects

– New-generation insulation materials based on biocomposite

materials and nanotechnologies are being developed.

Conclusion:

Heat insulation and energy-saving materials play a crucial role in construction. Their application

enhances the energy efficiency of buildings and positively impacts the environment. The

development and adoption of high-performance, eco-friendly materials remain a pressing issue.


background image

INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1382

Therefore, further research on innovative materials and their practical implementation is

essential.

References:

1. ҚМҚ 2.01.04-18. “Қурилиш иссиқлик техникаси”. Тошкент 2018 й.

2.

Шукуров ҒШ, И. Д. (2015). Қурилиш физикаси. Дарслик–Самарқанд. 2015й. 226с.

3.

Шукуров ҒШ, Б. С. (2005). Архитектура физикаси. 1-қисм. Қурилиш иссиқлик

иссиқлик физикаси. Дарслик–Т.: Меҳнат.

4.

Salomovich, T. E., & Pulatovich, M. B. (2021). Thermal Insulation Of The Foundation

Walls Of Buildings And Calculation Of Its Thickness. The American Journal of Engineering

and Technology, 3(04), 70-78.

5.

Тулаков, Э. С., Бўронов Ҳ, М. Б., & Абдуллаева, С. А. (2020). Кам қаватли турар-жой

бинолари ертўла деворларининг иссиқлик изоляция қатлами қалинлигини

ҳисоблаш. Me’morchilik va qurilish muammolari Проблемы архитектуры и

строительства. Samarqand, 2, 41-45.

6.

Turakulovna, E. M. U., & Pulatovich, M. B. (2024). Characteristics of Materials that

Increase the Heat Resistance of Walls. Innovative: International Multidisciplinary Journal of

Applied Technology (2995-486X), 2(2), 36-39.

7.

Pulatovich, M. B. (2021). Energy Efficient Building Materials for External Walls of

Residential Buildings Physical Properties of Heat. International Journal of Culture and

Modernity, 9, 1-11.

8.

Turakulovna, E. M. U., & Pulatovich, M. B. (2023). Devorlarning issiqlikka chidamliligini

oshiruvchi materiallarning xususiyatlari. Journal of engineering, mechanics and modern

architecture, 765-768.

9.

Turakulovna, E. M., & Pulatovich, M. B. (2023). Improving the energy efficiency of the

external walls of residential buildings being built on the basis of a new model project. Open

Access Repository, 4(2), 187-193.

10.

Egamova, M., & Matyokubov, B. (2023). Ways to increase the energy efficiency of

buildings and their external barrier structures. Eurasian Journal of Academic Research, 3(1

Part 1), 186-191.

11.

Bolikulovich, K. M., & Pulatovich, M. B. (2022). HEAT-SHIELDING QUALITIES AND

METHODS FOR ASSESSING THE HEAT-SHIELDING QUALITIES OF WINDOW

BLOCKS AND THEIR JUNCTION NODE WITH WALLS. Web of Scientist: International

Scientific Research Journal, 3(11), 829-840.

12.

Bolikulovich, K. M., & Po‘latovich, M. B. (2024). CALCULATION OF THE

TEMPERATURE FIELD OF EXTERNAL ENCLOSING STRUCTURES USING THE

FINITE DIFFERENCE METHOD. Innovative: International Multidisciplinary Journal of

Applied Technology (2995-486X), 165-169.

13.

Nosirova, S., & Matyokubov, B. (2023). Ways to increase the energy efficiency of external

barrier

constructions

of

buildings.

Евразийский

журнал

академических

исследований, 3(3), 145-149.

14.

Turakulovna, E. M. U., Baxodirovna, R. D., & Pulatovich, M. B. (2024). CLIMATE AND

BUILDING ENERGY EFFICIENCY. Научный Фокус, 1(11), 386-389.

15.

Rakhimov, R., Marupova, G., Egamova, M., Matyokubov, B., Rustamova, D., Mamadaliyev,

X., & Razzaqov, N. (2025). Obtaining high-strength mastering mortars using ultra-disperse


background image

INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE

ISSN: 2692-5206, Impact Factor: 12,23

American Academic publishers, volume 05, issue 03,2025

Journal:

https://www.academicpublishers.org/journals/index.php/ijai

page 1383

active mineral additives based on technogenic raw materials of Uzbekistan. In EPJ Web of

Conferences (Vol. 318, p. 06001). EDP Sciences.

16.

Salomovich, T. E., Samariddinovich, S. U., & Pulatovich, M. B. (2023). Improving the Heat

Preservation Properties of the Exterior Walls of Brick Buildings. International Journal of

Culture and Modernity, 28, 15-20.

References

ҚМҚ 2.01.04-18. “Қурилиш иссиқлик техникаси”. Тошкент 2018 й.

Шукуров ҒШ, И. Д. (2015). Қурилиш физикаси. Дарслик–Самарқанд. 2015й. 226с.

Шукуров ҒШ, Б. С. (2005). Архитектура физикаси. 1-қисм. Қурилиш иссиқлик иссиқлик физикаси. Дарслик–Т.: Меҳнат.

Salomovich, T. E., & Pulatovich, M. B. (2021). Thermal Insulation Of The Foundation Walls Of Buildings And Calculation Of Its Thickness. The American Journal of Engineering and Technology, 3(04), 70-78.

Тулаков, Э. С., Бўронов Ҳ, М. Б., & Абдуллаева, С. А. (2020). Кам қаватли турар-жой бинолари ертўла деворларининг иссиқлик изоляция қатлами қалинлигини ҳисоблаш. Me’morchilik va qurilish muammolari Проблемы архитектуры и строительства. Samarqand, 2, 41-45.

Turakulovna, E. M. U., & Pulatovich, M. B. (2024). Characteristics of Materials that Increase the Heat Resistance of Walls. Innovative: International Multidisciplinary Journal of Applied Technology (2995-486X), 2(2), 36-39.

Pulatovich, M. B. (2021). Energy Efficient Building Materials for External Walls of Residential Buildings Physical Properties of Heat. International Journal of Culture and Modernity, 9, 1-11.

Turakulovna, E. M. U., & Pulatovich, M. B. (2023). Devorlarning issiqlikka chidamliligini oshiruvchi materiallarning xususiyatlari. Journal of engineering, mechanics and modern architecture, 765-768.

Turakulovna, E. M., & Pulatovich, M. B. (2023). Improving the energy efficiency of the external walls of residential buildings being built on the basis of a new model project. Open Access Repository, 4(2), 187-193.

Egamova, M., & Matyokubov, B. (2023). Ways to increase the energy efficiency of buildings and their external barrier structures. Eurasian Journal of Academic Research, 3(1 Part 1), 186-191.

Bolikulovich, K. M., & Pulatovich, M. B. (2022). HEAT-SHIELDING QUALITIES AND METHODS FOR ASSESSING THE HEAT-SHIELDING QUALITIES OF WINDOW BLOCKS AND THEIR JUNCTION NODE WITH WALLS. Web of Scientist: International Scientific Research Journal, 3(11), 829-840.

Bolikulovich, K. M., & Po‘latovich, M. B. (2024). CALCULATION OF THE TEMPERATURE FIELD OF EXTERNAL ENCLOSING STRUCTURES USING THE FINITE DIFFERENCE METHOD. Innovative: International Multidisciplinary Journal of Applied Technology (2995-486X), 165-169.

Nosirova, S., & Matyokubov, B. (2023). Ways to increase the energy efficiency of external barrier constructions of buildings. Евразийский журнал академических исследований, 3(3), 145-149.

Turakulovna, E. M. U., Baxodirovna, R. D., & Pulatovich, M. B. (2024). CLIMATE AND BUILDING ENERGY EFFICIENCY. Научный Фокус, 1(11), 386-389.

Rakhimov, R., Marupova, G., Egamova, M., Matyokubov, B., Rustamova, D., Mamadaliyev, X., & Razzaqov, N. (2025). Obtaining high-strength mastering mortars using ultra-disperse active mineral additives based on technogenic raw materials of Uzbekistan. In EPJ Web of Conferences (Vol. 318, p. 06001). EDP Sciences.

Salomovich, T. E., Samariddinovich, S. U., & Pulatovich, M. B. (2023). Improving the Heat Preservation Properties of the Exterior Walls of Brick Buildings. International Journal of Culture and Modernity, 28, 15-20.