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Received 12.11.2024

Revised 03.03.2025

Accepted 29.03.2025

Retrieved from Iss. 117, P. 1, 2025

Pages 100 -108

  • 206 Views

Suggested citation

Kharin, P., & Plytus, R. (2025). CALCULATION METHOD OF FLEXIBLE ROAD PAVEMENT REINFORCED WITH POLYMERIC RIGID MULTIAXIAL POLYMER GEOGRIDS. Automobile Roads and Road Construction, (117.1), 100-108. https://doi.org/10.33744/0365-8171-2025-117.1-100-108

CALCULATION METHOD OF FLEXIBLE ROAD PAVEMENT REINFORCED WITH POLYMERIC RIGID MULTIAXIAL POLYMER GEOGRIDS

Pavlo Kharin Rostyslav Plytus

Abstract

Due to the significant increase in traffic loads and increased requirements for the transport and operational condition of highways, strengthening road pavement structures with geogrids is a pressing issue. To date, the issue of creating theoretical foundations for the design, construction and operation of road structures using geosynthetic materials remains open. In this article, the authors propose an improved method for designing and calculating road pavement reinforced with a polymer rigid multiaxially oriented geogrid. To take into account the reinforcement effect due to the use of a polymer rigid multiaxially oriented geogrid TM Tensar, it is proposed to introduce a reinforcement coefficient obtained in the course of experimental studies to the traditional calculation method (GBN B.2.3-37641918-559). The choice of reinforcement material and the effect achieved as a result of its use depend on the type of geogrid, foundation characteristics, strength and deformation properties of underlying soils, as well as on the location of the geogrid in the structure. The resulting reinforcement effect is manifested in an increase in the service life of road structures, an increase in their operational reliability, an improvement in the transport and operational performance of highways, as well as the possibility of reducing the thickness of the road surface layers

Keywords:

road blanket, geogrid, strength coefficient, intensity, tension, modulus of elasticity, highway

References

  1. State Standard of Ukraine. (2019). DSTU 8888:2019 Polymer rigid triaxial oriented geogrids. General technical requirements. Kyiv: State Enterprise “UkrNDNC”.
  2. Sectoral Building Norms of Ukraine. (2014). HBN V.2.3-37641918-544:2014 Highways. Application of geosynthetic materials in road structures. Basic requirements. Kyiv: State Road Agency of Ukraine.
  3. Sectoral Building Norms of Ukraine. (2019). HBN V.2.3-37641918-559:2019 Highways. Flexible pavement. Design. Kyiv: State Road Agency of Ukraine.
  4. State Building Norms of Ukraine. (2015). DBN V.2.3-4:2015 Highways. Part I. Design. Part II. Construction. Kyiv: Ministry of Regional Development, Construction and Housing and Communal Services of Ukraine.
  5. Corporate Standard of Ukraine. (2017). SOU 42.1-21483639-004:2017 Polymer rigid triaxial oriented geogrids “TENSAR TX”. Methods of design of road pavements and artificial bases with geogrids. Kyiv: State Road Agency of Ukraine.
  6. Tensar, A Division of CMC. (n.d.). Roads, pavements & trafficked areas. Retrieved from https://www.tensarinternational.com/applications/roads-pavements-trafficked-areas.
  7. Ryapukhin, V.M., & Pavlenko, N.V. (2011). Influence of discreteness of road pavement layers on the strength of the soil subgrade. Scientific and Technical Collection, 40, 264-269.
  8. Usychenko, O.Yu., & Kharin, P.L. (2024). Experimental studies of road pavement structures reinforced with rigid multiaxial oriented polymer geogrids. Automobile Roads and Road Construction, 115, 284-291.
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https://doi.org/10.33744/0365-8171-2025-117.1-100-108

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