SHAHARLARDA URBAN SHOVQINNI TAHLİL QILISH VA AKUSTIK PANELLAR YORDAMIDA KAMAYTIRISH
Keywords:
urban shovqin, shovqin yutuvchi yo‘l qoplamalari, yashil tizimlar, akustik panellar, akustik tahlil.Abstract
Ushbu maqolada shaharlarda urban shovqinning kelib chiqishi va uni kamaytirishga qaratilgan turli yondashuvlar ko‘rib chiqildi. Tadqiqot davomida yo‘l qoplamalari, yashil tom va yashil devor kabi vegetation tizimlarining akustik xususiyatlari, shuningdek avtomagistral bo‘ylab o‘rnatiladigan panellarda yutuvchi materiallar tahlil qilindi. Har bir texnologiyaning o‘ziga xos jihatlari va urban muhitga ta’siri muhokama qilindi. Bundan tashqari, turli usullarni solishtirish va natijalarni tizimlashtirish jarayonida sun’iy intellekt yordamida ma’lumotlarni tartiblash va umumlashtirish imkoniyati e’tiborga olindi. Maqola shovqinni kamaytirish bo‘yicha yondashuvlarni birgalikda ko‘rib chiqish va ularning kombinatsiyadan keladigan samaradorligini tushuntirishga qaratilgan.
References
[1] Kholikov, A., Khoshimov, I., Sobirjonov, S., & Urazmamatov, R. (2024). Analysis of scientific research in the field of noise absorbing pavements. Civil Engineering and Architecture, 120(3). https://doi.org/10.32743/UniTech.2024.120.3.1710
[2] Dimitrijević, D., Živković, P., Dobrnjac, M., & Latinović, T. (2017). Noise pollution reduction and control provided by green living systems in urban areas. Innovations in Discrete Production, V(3), 133–136. ISSN 2534-8469 / 1314-8907.
[3] Menge, C. W. (1979). Sound-absorption treatments for highway noise barriers. Transportation Research Record, 740.
[4] Hernandez, E., Kim, S., & Petrov, R. (2024). Comparative analysis of noise insulation effectiveness of various external wall materials. International Journal of Building Acoustics and Environmental Design, 18(2), 95–110.
[5] Korjakins, A., Sahmenko, G., & Lapkovskis, V. (2025). A short review of recent innovations in acoustic materials and panel design: Emphasizing wood composites for enhanced performance and sustainability. Applied Sciences, 23(15).
[6] Akhatova, N. S., & Miralimov, M. M. (2024). Improvement of noise impact measurement methods on city streets. JournalNX - A Multidisciplinary Peer Reviewed Journal, 10(9). ISSN 2581-4230.
[7] Kumar, S., & Lee, H. P. (2019). The present and future role of acoustic metamaterials for architectural and urban noise mitigations. Applied Sciences, 9(8).
[8] Portugaller, B., Leeb, M., Fallast, K., Struger, N., & Reiter, T. (2018, October). Traffic noise reduction through acoustic absorption panels, integrated in prefabricated facade elements. Conference Paper.
[9] Lam, B., Ong, Z.‑T., Ooi, K., Ong, W.‑H., Wong, T., Watcharasupat, K. N., Boey, V., Lee, I., Hong, J. Y., Kang, J., Lee, K. F. A., & Christopoulos, G., & Gan, W.‑S. (2024). Automating urban soundscape enhancements with AI: In‑situ assessment of quality and restorativeness in traffic‑exposed residential areas. Building and Environment, 266, 112106. https://doi.org/10.1016/j.buildenv.2024.112106
[10] Remolina Soto, M. S., Amaya Guzmán, B., Aya‑Parra, P. A., Perdomo, O. J., Becerra‑Fernandez, M., & Sarmiento‑Rojas, J. (2025). Intelligent classification of urban noise sources using TinyML: Towards efficient noise management in smart cities. Sensors, 25(20), 6361. https://doi.org/10.3390/s25206361
[11] Erdem, H. E., & Leung, H. (2024). LoRaWAN based dynamic noise mapping with machine learning for urban noise enforcement. arXiv. https://doi.org/10.48550/arXiv.2407.21204