Publication date: 14 August 2026
Source: Key Engineering Materials Vol. 1062
Author(s): Rosana Gaggino, Laura Gaetan, Lucas Peisino
In social housing are commonly used panels made with wood particles like partitioning walls, because of its low cost and ease of assembly, dry way. One problem with these panels is their low acoustic insulation. In the Experimental Economical Housing Center of Cordoba, Argentina, a research team has developed panels for housing made from recycled plastics and polyester resin, more ecological than the traditional ones made with wood particles, and with technical advantages. They are manufactured with recycled various plastics from food, perfumery or cleaning packaging, waste production from factories due to failures in sheet thickness or ink application. These panels contribute to the environmental decontamination, because they are made from plastic residues. Most of this waste is buried, accumulated or burned in municipal garbage dumps without any use, causing environmental degradation. The technical advantages of these panels are that they have higher acoustic insulation than conventional panels made with wood chips or fibers. They are also water resistant, and they have higher flexural resistance. This paper presents the study about the acoustic insulation property of this panel, comparatively with other conventional panels made with wood particles. Besides, different designs of multilayer panels for housing enclosures are presented, with steel frame structure, and the corresponding Sound Reduction Index of each alternative was calculated. The results were compared with the regulations in force in our country (IRAM Standard 4044 - 2014) regarding acoustic requirements, to verify its compliance.
[1] National Institute on deafness and other communication disorders -NIH, Digital publication of the US Government., Noise-Induced Hearing Loss. (2025).
[2] CEPAL, Latin America and the Caribbean facing the challenge of accelerating progress towards achieving the 2030 Agenda: Transitions towards sustainability. Digital publication.
[3] C. Castro,Why do plastics take so long to decompose? Digital publication.
[4] J. Pan, J. Li, B. Shan, Y. Yao, C. Huang, A Comprehensive Review of Applications and Environmental Risks of Waste Plastics in Asphalt Pavements, Materials 18 (2025) 1–23.
DOI: 10.3390/ma18153441
[5] K.A. Ahmed, A.N. Abdulqudos, Recycling Plastic Waste into Eco-Friendly Concrete: A State of the Art Review, Journal of Civil Engineering Frontiers 5 (2024) 63–78.
DOI: 10.38094/jocef50298
[6] P. Minde, M. Kulkarni, J. Patil, A. Shelake, Comprehensive review on the use of plastic waste in sustainable concrete construction, Discover Materials 4, 58 (2024).
[7] M.B. Khan, T. Najeh, H. Almujibah, M.G. Al Zouabi, O. Benjeddou, Evaluating the mechanical and environmental impact of PEF plastic waste incorporated with graphene nano-platelets in concrete, Frontiers in Materials 11 (2024) 1–23.
[8] N.M.N. Azline, K.N. Byron, F.N.A.A. Aznieta, M. Ernaleza, A brief review on polyvinyl chloride plastic as aggregate for construction materials, Journal of Engineering and Applied Science 70 (2023) 1–20.
[9] E.N. Buenaño Buenaño, J.E. Montenegro Carvajal, E.C. Villón Ramírez, A.M. Clemente González, M.I. Paredes Castro, Environmental and structural impact of plastic materials in green roofs: a meta-analysis based on systematic reviews, Arandu UTIC 12 (2025) 3297–3321.
[10] A.J. Das, M. Ali, Prospective Use and Assessment of Recycled Plastic in Construction Industry, Recycling 10, 2 (2025).
[11] K. Turk, G. Kalčikova, A.J. Kokalj, B. Mušič, From plastic use in the construction and built environment to state-of-the-art circular economy solutions to combat microplastic pollution, Environmental Sciences Europe 37 (2025).
[12] S. Ahmed, M. Ali, Potential Applications of Different Forms of Recycled Plastics as Construction Materials—A Review, Engineering Proceedings 53 (2023).
[13] R. Gaggino, Water-resistant panels made from recycled plastics and resin, Construction and Building Materials 35 (2012) 468–482.
[14] L. Nabukalu, E. Kayongo, V.A. Yiga, M. Lubwama, Characteristics of agro-residue reinforced plastic ceiling board composites from rice husks and polyethylene terephthalate, Discover Mechanical Engineering 4 (2025).
[15] D. Basalp, F. Tihminlioglu, S.C. Sofuoglu, F. Inal, A. Sofuoglu, Utilization of Municipal Plastic and Wood Waste in Industrial Manufacturing of Wood Plastic Composites, Waste and Biomass Valorization 11 (2020) 5419–5430.
[16] W. Hassona, A.M. El-Kassas, N.N. Zaafarani, A new mixing technique in the production of wood plastic composites from recycled materials, International Journal of Environmental Science and Technology 22 (2025) 331–340.
[17] C. Oliveros-Gaviria, E. Cumbalaza, J.H. Mina-Hernandez, M.E. Valencia-Zapata, J.N. Suarez-Bonilla, N. Martinez-Mera, Wood Plastic Composite Based on Recycled High-Density Polyethylene and Wood Waste (Sawdust), Polymers 16 (2024) 1–21.
[18] K.D. Ayana, A.Y. Ali, C.S. Ha, Wood Polymer Composites Based on the Recycled Polyethylene Blends from Municipal Waste and Ethiopian Indigenous Bamboo (Oxytenanthera abyssinica) Fibrous Particles Through Chemical Coupling Crosslinking, Polymers 16 (2024).
[19] L.S. Ribeiro, C.M. Stolz, M. Amario, A.L.N. da Silva, A.N. Haddad, Use of Post-Consumer Plastics in the Production of Wood-Plastic Composites for Building Components: A Systematic Review, Energies 16 (2023).
DOI: 10.3390/en16186549
[20] A.H. Elsheikh, H. Panchal, S. Shanmugan, T. Muthuramalingam, A.M. El-Kassas, B. Ramesh, Recent progresses in wood-plastic composites: Pre-processing treatments, manufacturing techniques, recyclability and eco-friendly assessment, Cleaner Engineering and Technology 8 (2022) 100450.
[21] I.T. Amarasinghe, Y. Qian, T. Gunawardena, P. Mendis, B. Belleville, Composite Panels from Wood Waste: A Detailed Review of Processes, Standards, and Applications, Journal of Composites Science 8 (2024).
DOI: 10.3390/jcs8100417
[22] I.G. Amadi, J. Mahachi, Towards Sustainable Concrete: Current Trends and Future Projections of Supplementary Cementitious Materials in South Africa, Construction Materials 5 (2025) 1–21.
[23] K. Gounden, F.M. Mwangi, T.P. Mohan, K. Kanny, Improving the performance properties of plastic-sand bricks with Kaolin Clay, Environment, Development and Sustainability (2024).
[24] H. Sulaiman, B. Constantini, L. Peisino, Design of recycled rubber construction material based on its hygrothermal properties, Arquitecno (2025) 1–11.
[25] E.S. Shafik, D.A. Wissa, A.M. Labeeb, A.A. Ward, S.L. Abd-El-Messieh, Green polymeric composites based on construction and packaging waste: toward advanced insulating materials, Scientific Reports 15 (2025).
[26] T-Plak, T-Plak ecological plates, (2025).
[27] A. Islam, W. Ferdous, P. Burey, K. Nahar, L. Yan, A. Manalo, Polymer Composite Sandwich Panels Composed of Hemp and Plastic Skins and Composite Wood, Recycled Plastic, and Styrofoam Cores, Polymers 17 (2025) 1–17.
[28] R. García-Sobrino, A. Cortés, J.I. Sevilla-García, M. Muñoz, Sustainable Multi-Cycle Physical Recycling of Expanded Polystyrene Waste for Direct Ink Write 3D Printing and Casting: Analysis of Mechanical Properties, Polymers 16 (2024).
[29] J.J. Valenzuela Expósito, E. Picazo Camilo, F.A. Corpas Iglesias, Development of a Modular Sandwich Panel with a Composite Core of Recycled Material for Application in Sustainable Building, Polymers 16 (2024).
[30] S.P.B. Sousa, H.C. Teixeira, G. Autretto, V.V. Cárdenas, S. Fantucci, F. Favoino, P. Voigt, M. Stelzmann, R. Böhm, G. Beltrán, N. Escribano, B. Hernández-Gascón, M. Tietze, A. Araújo, Eco-Friendly Sandwich Panels for Energy-Efficient Façades, Sustainability (Switzerland) 17 (2025) 1–25.
DOI: 10.3390/su17156848
[31] M.F. Ghazy, M. abd allah Abd Elaty, M.A.E. Sakr, E.M. Arafa, Thermo-Mechanical Performance of Sustainable Lightweight Sandwich Panels Utilizing Ultra-High-Performance Fiber-Reinforced Concrete, Buildings 15 (2025).
[32] F.F. Pozo-Lora, T.J. Sorensen, S. Al-Rubaye, M. Maguire, State-of-the-Art and Practice Review in Concrete Sandwich Wall Panels: Materials, Design, and Construction Methods, Sustainability (Switzerland) 17 (2025) 1–36.
DOI: 10.3390/su17083704
[33] S. Pradhan, M. Mohammadabadi, E. Entsminger, K. Ragon, L. Khademibami, S. Jason, Development of a High-Performance Building Material Using Wood-based Corrugated Panels Manufactured via Cold-Forming Technique, BioResources 18 (3) (2023).
[34] J. Rao, D. Hagare, Z. Tao, Upcycling mixed plastic waste as a replacement for natural aggregates in concrete : A critical review, Journal of Building Engineering 114 (2025) 114037.
[35] Berger R., About sound permeability, T.H. München. Germany (1911).
[36] Estelles R., Acoustic Conditioning Course. Faculty of Architecture, University of the Republic, Montevideo, Uruguay (2005).11-12.
[37] Argentine Institute of Standardization and Certification, IRAM Standard 4044. Acoustics. Noise protection in buildings (2014).
[38] Argentine Institute of Standardization and Certification, IRAM Standard 4061: Acoustics. Normal frequencies for use in measurements (1991).
[39] Argentine Institute of Standardization and Certification, IRAM Standard 4063-4: Acoustics, Measurement of sound insulation in buildings and construction elements. Part 4: On-site measurement of airborne noise insulation between rooms, (2002).
DOI: 10.3403/01502663
[40] Osama A. B. Hassan, Building Acoustics and Vibration: Theory and Practice, (2009).
[41] H. Informationsdienst, Schallschutz in timber – Basics and preliminary design (1st ed.)., (2019).
[42] Dry Construction Institute -INCOSE, Manual of Recommendations for Building with Steel Framing, INCOSE, (2023).
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