[1] Pecas, P., Carvalho, H., Salman, H., and Leite, M., 2018. Natural fibre composites and their applications: a review. Journal of Composites Science, 2(4), 66. doi.org/10.3390/jcs2040066.
[2] Elwaleed, A. K., Nikabdullah, N., Nor, M. J. M., Tahir, M. F. M., Nuawi, M. Z., and Abakr, Y. A., 2014. Experimental study on the effect of compression on the sound absorption of date palm fibers. World Applied Sciences Journal, 31(ARSEM)), pp. 40-44.
[3] Cornaro, C., and Buratti, C., 2020. Energy efficiency in buildings and innovative materials for building construction. Applied Sciences, 10(8), 2866.
[4] I.N.S.O, (5032), 2014. Gypsum - Gypsum Concrete- Specifications, Iranian National Standardization Organization, ICS, 91.100.10, ICS, 91.100.10. (In Persian).
[5] I.N.S.O, (2786), 2013. Gypsum - Gypsum Blocks Definitions, Requirements and Test Methods. Iranian National Standardization Organization. ICS, 91.100.10. (In Persian).
[6] Construction industry - Law and legislation - Iran. 2017. Architectural acoustics – Soundproofing - Architectural acoustics Standards. Road, Housing and Urban Development Research Center. ISBN: 978-600-113-167-7. (In Persian).
[7] Cavanaugh, W. J., Tocci, G. C., and Wilkes, J. A., 2009. Architectural acoustics: Principles and practice. John Wiley & Sons.
[8] Ohadi Hamedani, A., and Hassani Bagherani, A. A. 2021. Porous Sound-Absorbing Materials – Part II: Sound Absorption Mechanisms and Modeling, Scientific Journal of Acoustics and Vibration. 10(20), pp. 3-23. (In Persian).
[9] Perivoitos, P., Heidemann, L., Weinhold, J., and Zeitler, B., 2025. Improving Sound Insulation in Cross-Laminated Timber (CLT) Wall Assemblies: A Systematic Investigation. DAS|DAGA 2025 Copenhagen, pp. 340-343.
[10] Edalat, H.R., Najafi Amiri, A., Tabarsa, T. and Madhooshi, M. 2020. Investigation on the influence of raw material type on properties of ligno-cellulosic green insulation composite. Journal of Wood and Forest Science and Technology Research, 27(3), pp. 73-91. (In Persian).
[11] Najim, T.S., Al-Zubaidy, A.A., and Yassin, S. A., 2011. Physical and mechanical properties of polymer-gypsum composite. In: Proceedings of First Polymers/Composites Symposium, May 5-6 Al-Mustansiria University, Baghdad, Iraq, pp. 1-13.
[12] Gomes, C.E.M., Sousa, A.K.D., Araujo, M.E.S.O., Ferreira, S.B., and Fontanini, P., 2019. Mechanical and Microstructural Properties of Redispersible Polymer-Gypsum Composites. Materials Research, 22(3), e20180119.
[13] Doost, A., Bayat Kashkoli, A., and Farrokh-Payam, S., R., 2025. Improving the Performance of Polymer-Based Gypsum Board Using Waste Office Paper Fibers: Analysis of Physical and Mechanical Properties, Journal of Forest and Wood Products, 77(4), pp. 377-390. (In Persian).
[14] I.N.S.O, (14478-2), 2013. Gypsum - Gypsum board with fibrous reinforcement definitions requirements and test methods, Part 2, Gypsum fiber board. Iranian National Standardization Organization. ICS, 91.100.10. (In Persian).
[15] ISO (10534-2. 1998. Determination of sound absorption coefficient and impedance in impedance tubes, Part 1: Transfer-function method. ISO 10534-2. International Standardization Organization, 11-15.
[16] A.S.T.M-E1050-10: 2010. Standard Test Method for Impedance and Absorption of Acoustical Materials Using a Tube, Two Microphones and a Digital Frequency Analysis System. ASTM international.
[17] A.S.T.M-E2611-09. 2009. Measurement of Normal Incidence Sound Transmission of Acoustical Materials Based on the Transfer Matrix Method. ASTM international.
[18] ISIRI (8184). 2005. Acoustics – Sound absorbers for use in buildings – Rating of sound absorption. Institute of Standards and Industrial Research of Iran.
[19] I.S.O. (11654). Acoustics - Sound absorbers for use in buildings - Rating of sound absorption. International Standardization Organization.
[20] I.N.S.O, (8834-1), 2018. Acoustics - Rating of sound insulation in buildings and of building elements - Part 1: Airborne sound insulation. Iranian National Standardization Organization. ICS, 91.120.20. (In Persian).
[21] Arjunan, A., Baroutaji, A., Robinson, J., Vance, A., and Arafat, A., 2024. Acoustic metamaterials for sound absorption and insulation in buildings. Building and Environment, 251, 111250.
[22] Mania, P., Flach, A., and Pilarska, M.. 2023. Sound wave absorption coefficient and sound velocity in thermally modified wood. Applied sciences, 13, 8136. doi.10.3390/app13148136.
[23] Ismail, F. Z., Rahmat, M. N., Mohd Yussof, F. N., and Mohammad Noor, M. A. F., 2014. April. Sustainable absorption panels from agricultural waste. Research Innovation Business Unit, Innovation and design exposition (Conference 2014). 15,1-8. https://doi.org/10.1051/matecconf/20141501035.
[24] Guna, V., Yadav, C., Maithri, B. R., Ilangovan, M., Touchaleaume, F., Saulnier, B., ... and Reddy, N. 2021. Wool and coir fiber reinforced gypsum ceiling
tiles with enhanced stability and acoustic and thermal resistance. Journal of Building Engineering, 41, 102433.
[25] Dusthoseini K., and Elyasi, A., 2012. Study on the possibility of using bagasse in manufacture of sound-proof Particleboard. Iranian Journal of Wood and Paper Industries,(3)1, PP. 43-52. (In Persian).
[26] Poudinehpour M., Ebrahimi Gh., Tajvidi M., Charmahali M. and Ramtin A., 2006. The effects of two kinds of agricultural wastes (wheat and barely straws) on nrc% of aspen particleboards. Iranian Journal of Wood and Paper Science Research , (21)2, PP. 61-69. (In Persian).
[27] Taiwo, E. M., Yahya, K. B., Haron, Z., Dare, G. M., and Sunday, A., 2023. Acoustic characterization of composites made of gypsum and pineapple leaf fibres. American Journal of IR 4.0 and Beyond, 2(2), 30-38. DOI:10.54536/ajirb.v2i2.1802.
