Noise is a major concern in mechanical systems and poor acoustic facilities. Environmental and health issues of the existing acoustic materials led the researchers to develop comparable sound absorption materials from biomasses. This study utilized Abacá (Musa textilis), Bamboo (Bambusa merrilliana), and Water hyacinth (Eichhornia crassipes) that possess properties for sound absorption. The fibers were extracted, pretreated, blended with polyester (carrier fiber) in the proportion of 50:50 (biomass fiber – polyester), carded, and needle-punched. ASTM E1050-12, Standard Test Method for Impedance and Absorption of Acoustical Material, validated the sound absorption coefficients of the Hibla panels specifically in the high frequencies with test results of 0.82 for Water hyacinth – Polyester, 0.59 for Bamboo – Polyester, and 0.58 for Abacá – Polyester at 6300 Hz. Moreover, the sound absorption coefficient of the control variable Fiberglass (0.96) has a close sound absorption coefficient with the Water hyacinth – Polyester (0.82) at 6300 Hz. As a non-woven fabric, Hibla passed the standardized tests of Thermogravimetric Analysis, Differential Thermal Analysis, Flammability Test, and Breaking Load in Tension Test. With the results given, Hibla is proven to have sound absorption properties, thermal insulation, fire resistance, and high durability.
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2 December 2019
178th Meeting of the Acoustical Society of America
2–6 December 2019
San Diego, California
Architectural Acoustics: Paper 1aAA4
December 02 2019
Hibla: Acoustic fiber
Neil David C. Cayanan
;
Neil David C. Cayanan
1Department of Education,
Angeles City Science High School
, Angeles City, Pampanga, 2009, PHILIPPINES
; neildavidcayanan@gmail.com; shaira.gozun@gmail.com; evanrelletongol@gmail.com; lolitgbautista@gmail.com
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Shaira C. Gozun;
Shaira C. Gozun
1Department of Education,
Angeles City Science High School
, Angeles City, Pampanga, 2009, PHILIPPINES
; neildavidcayanan@gmail.com; shaira.gozun@gmail.com; evanrelletongol@gmail.com; lolitgbautista@gmail.com
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E’van Relle M. Tongol;
E’van Relle M. Tongol
1Department of Education,
Angeles City Science High School
, Angeles City, Pampanga, 2009, PHILIPPINES
; neildavidcayanan@gmail.com; shaira.gozun@gmail.com; evanrelletongol@gmail.com; lolitgbautista@gmail.com
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Lolita G. Bautista
Lolita G. Bautista
1Department of Education,
Angeles City Science High School
, Angeles City, Pampanga, 2009, PHILIPPINES
; neildavidcayanan@gmail.com; shaira.gozun@gmail.com; evanrelletongol@gmail.com; lolitgbautista@gmail.com
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Proc. Mtgs. Acoust. 39, 015002 (2019)
Article history
Received:
April 30 2020
Accepted:
May 16 2020
Citation
Neil David C. Cayanan, Shaira C. Gozun, E’van Relle M. Tongol, Lolita G. Bautista; Hibla: Acoustic fiber. Proc. Mtgs. Acoust. 2 December 2019; 39 (1): 015002. https://doi.org/10.1121/2.0001264
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