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Synthesis and Analysis of Novel Thermo-Acoustic and Mechanical Behaviour of Rattan Reinforced Composite for Value Added Applications


Affiliations
1 Department of Physics, Veer Surendra Sai University of Technology, Burla, Sambalpur, Odisha, India
2 Department of Mechanical Engineering, Veer Surendra Sai University of Technology, Burla, Sambalpur, Odisha, India
 

The idea of low cost green thermoacoustic composites urge special attention as an alternative candidate for synthetic composites in designing of sound proof and highly flexural components for pollution free electric vehicle and other automotive industries. Short randomly oriented rattan fiber has significant contribution in development of high strength to weight ratio composite with high frequency dispersion capability. The present work employs the hand layup method for synthesis followed by ultrasonic cavitation for surface treatment with compatible methanol blended acrylic acid. The Scanning-Electron-Microscopic (SEM) and Fourier Transform Infrared (FTIR) spectroscopic characterization confirmed the reorientation of different functional groups which facilitate the sound absorption and mechanical properties. The composite with admissible tensile strength 47.5 MPa and high flexural property 121.89 MPa along with 30 HV hardness value has quite distinguishable mechanical characteristics for the fabricated composites. The unique characteristic sound absorption feature of the rattan fiber composite supports the acoustic behaviour with sound absorption coefficient (SAC) of 97% classifies as Class-A type as per ASTM C423-17 standard. A continuous mass loss of 69% from 390.89°C to 475°C is well supported by thermo gravimetric analysis. The regression analysis provides the optimum mechanical performance for which the composites execute its accuracy. Low sound transmissibility of the composite enhances its acoustic performance. The thermo-acoustic insulating properties such as thermal conductivity and acoustic behaviour of the materials are well described converting the rattan fiber for sustainable and eco-friendly applications.

Keywords

Flexural Components, Mechanical Properties, Rattan Fiber, Thermo-Acoustic Performance, Ultrasonic Treatment.
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  • Milan S, Christopher T, Manivannan A, Mayandi K & Winowlin Jappes J T, Mechanical and thermal properties of a novel Spinifex littoreus fiber reinforced polymer composites as an alternate for synthetic glass fiber composites, Mater Res Express, 8 (2021) 035301.

  • Billah M M, Rabbi M S & Hasan A, A review on developments in manufacturing process and mechanical properties of natural fiber composites, J Eng Adv, 2 (2021) 13–23.

  • Ramamoorthy M & Rengasamy R S, Study on the effects of denier and shapes of polyester fibers on acoustic performance of needle-punched nonwovens with air-gap: comparison of artificial neural network and regression modelling approaches to predict the sound absorption coefficient of nonwovens, J Text Inst, 110 (2019) 1–9.

  • Hassani P, Soltani P, Ghane M & Zarrebini M, Porous resin-bonded recycled denim composite as an efficient sound-absorbing material, Appl Acous, 173 (2021) 107710.

  • Billah M M, Rabbi M S & Hasan A, Injection molded discontinuous and continuous rattan fiber reinforced polypropylene composite: Development, experimental and analytical investigations, Results Mater, 13 (2022) 100261.

  • Ding L, Han X, Cao L, Chen Y, Ling Z, Han J, He S & Jiang S, Characterization of natural fiber from manau rattan (Calamus manan) as a potential reinforcement for polymer-based composites, J Bioresour Bioprod, 7 (2022) 190–200.

  • Gholampour A & Ozbakkaloglu T, A review of natural fiber composites: properties, modification and processing techniques, characterization, applications, J Mater Sci, 55 (2020) 829–892.

  • Vigneshwaran S, Sundarakannan R, John K M, Joel Johnson R D, Prasath K A, Ajith S, Arumugaprabu V & Uthayakumar M, Recent advancement in the natural fiber polymer composites: A comprehensive review, J Clean Prod, 277 (2020) 124109.

  • Berardi U & Iannace G, Acoustic characterization of natural fibers for sound absorption applications, Build Environ, 94 (2015) 840–852.

  • Singh P P & Nath G, Development of sustainable thermo acoustic material from residual organic wastes, J Sci Ind Res, 81(3) (2022) 215–225.

  • Liu X, Wang R, Tian G, Yang S, Wang Y & Jiang Z, Tensile properties of single rattan fibers, Wood Sci Technol, 46 (2014) 519–526.

  • Joshi M, Charles B, Ravikanth G & Aravind N A, Assigning conservation value and identifying hotspots of endemic rattan diversity in the Western Ghats, India, Plant Divers, 39 (2017) 263–272.

  • Belcher B, Imang N & Achdiawan R, Rattan, rubber or oil palm: Cultural and financial considerations for farmers in Kalimantan, Econ Bot, 58 (2004) 77–87.

  • Shaanker R U, Bamboos and Rattans of the Western Ghats: Population Biology, Socio-Economics and Conservation Strategies (Ashoka Trust for Research in Ecology and the Environment) 2004.

  • Singh P P & Nath G, Ultrasonic processing and thermo-acoustic analysis of orange peel waste as smart acoustic material: Waste and biomass valorization, Waste Biomass Valor, 13 (2022) 2905–2916.

  • Li M, Pu Y, Thomas V M, Yoo C G, Ozcan S, Deng Y, Nelson K & Ragauskas A J, Recent advancements of plant-based natural fiber–reinforced composites and their applications, Compos B Eng , 200 (2020) 108254.

  • Jain J & Sinha S, Potential of pineapple leaf fibers and their modifications for development of tile composites, J Nat Fibers, 1 (2021) 4822–4834.

  • Nayak S & Mohanty J R, Influence of chemical treatment on tensile strength, water absorption, surface morphology, and thermal analysis of Areca sheath fibers, J Nat Fibers, 16 (2019) 589–599.

  • Cao L, Fu Q, Si Y, Ding B & Yu J, Porous materials for sound absorption, Compos Commun, 10 (2018) 25–35.

  • Arenas J & Crocker M, Recent Trends in porous sound-absorbing materials, Sound Vib, 44 (2010) 12–17.

  • Fan M, Dai D & Huang B, Fourier transform infrared spectroscopy for natural fibersin fourier transform - Materials analysis, Intech Open, (2012) 45–68.

  • Khan M Z H, Sarkar M A R, Al Imam F I, Khan M Z H & Malinen R O, Paper making from banana pseudo-stem: Characterization and comparison, J Nat Fibers, 11 (2014) 199–211.

  • Bakri M K & Jayamani E, Comparative study of functional groups in natural fibers: Fourier Transform Infrared analysis (FTIR), Int Conf Futuristic Trends Eng Sci, Human, Technol, 23–24, January 2016, 167–174.

  • Petrov R H, García O L, Mulders J J L, Reis A C C, Bae J H, Kestens L & Houbaert Y, Three dimensional microstructure–microtexture characterization of pipeline steel, Mater Sci Forum, 550 (2007) 625–630.

  • Sathishkumar T P, Navaneethakrishnan P, Shankar S & Rajasekar R, Characterization of new cellulose Sansevieria ehrenbergii fibers for polymer composites, Compos Interfaces, 20 (2013) 575–593.

  • Singh P P & Nath G, Fabrication and analysis of luffa natural fiber based acoustic shielding material for noise reduction, J Nat Fibers, 19 (2022) 11218–11234.

  • Iqbal M N, Malek Mohd F, Lee Y S, Zahid L & Mezan M S, A study of the anechoic performance of rice husk-based, geometrically tapered, hollow absorbers, Int J Antennas Propag, 2014 (2014) 1–9.

  • Atmakuri A, Palevicius A, Janusas G & Eimontas J, Investigation of hemp and flax fiber-reinforced Eco Poxy matrix biocomposites: morphological, mechanical, and hydrophilic properties, Polymers, 14 (2022) 4530–4551.

  • Burger N, Laachachi A, Ferriol M, Lutz M, Toniazzo V & Ruch D, Review of thermal conductivity in composites: Mechanisms, parameters and theory, Prog Polym Sci, 61 (2016) 1–28.

  • Tsekmes A, Kochetov R, Morshuis P & Smit J J, Thermal conductivity of polymeric composites: A Review, in IEEE Int Conf Sol Dielectr ICSD (Bologna, Italy) 30 June – 04 July 2013, 678–681.

  • Wang C, Zuo Q, Lin T, Anuar N I S, Mohd Salleh K, Gan S, Yousfani S H S, Zuo H & Zakaria S, Predicting thermal conductivity and mechanical property of bamboo fibers/polypropylene nonwovens reinforced composites based on regression analysis, Int Commun Heat Mass Transf, 118 (2020) 104895.

  • Gopinath A, Kumar M S & Elayaperumal A, Experimental investigations on mechanical properties of jute fiber reinforced composites with polyester and epoxy resin matrices, Procedia Eng, 97 (2014) 2052–2063.

  • Reddy B M, Mohana Reddy Y V, Mohan Reddy B C & Reddy R M, Mechanical, morphological, and thermogravimetric analysis of alkali-treated Cordia-Dichotoma natural fiber composites, J Nat Fibers, 17 (2020) 759–786.

  • Dong K & Wang X, Development of cost effective ultra-light weight cellulose-based sound absorbing material over silica sol/natural fiber blended substrate, Carbohydr Polym, 255 (2021) 117369.

  • Tan W & Sin C F, Sound transmission loss analysis on building materials, Int J Automot Mech Eng, 15 (2018) 6001–6011.

  • Singh V K & Mukhopadhyay S, Studies on the effect of hybridization on sound insulation of coir-banana-polypropylene hybrid biocomposites, J Nat Fibers, 19 (2022) 349–358.

  • Vinay C H, Goudanavar P & Acharya A, Development and characterization of pomegranate and orange fruit peel extract based silver nanoparticles, J Manmohan Memorial Inst Health Sci, 4 (2018) 72–85.

  • Asim M, Paridah M T, Chandrasekar M, Shahroze R M, Jawaid M, Nasir M & Siakeng R, Thermal stability of natural fibers and their polymer composites, Iran Polym J, 29 (2020) 625–648.

  • Sinha E & Rout S K, Influence of fiber-surface treatment on structural, thermal and mechanical properties of jute fiber and its composite, Bull Mater Sci, 32 (2009) 65–76.


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  • Synthesis and Analysis of Novel Thermo-Acoustic and Mechanical Behaviour of Rattan Reinforced Composite for Value Added Applications

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Authors

S Behera
Department of Physics, Veer Surendra Sai University of Technology, Burla, Sambalpur, Odisha, India
J R Mohanty
Department of Mechanical Engineering, Veer Surendra Sai University of Technology, Burla, Sambalpur, Odisha, India
G Nath
Department of Physics, Veer Surendra Sai University of Technology, Burla, Sambalpur, Odisha, India

Abstract


The idea of low cost green thermoacoustic composites urge special attention as an alternative candidate for synthetic composites in designing of sound proof and highly flexural components for pollution free electric vehicle and other automotive industries. Short randomly oriented rattan fiber has significant contribution in development of high strength to weight ratio composite with high frequency dispersion capability. The present work employs the hand layup method for synthesis followed by ultrasonic cavitation for surface treatment with compatible methanol blended acrylic acid. The Scanning-Electron-Microscopic (SEM) and Fourier Transform Infrared (FTIR) spectroscopic characterization confirmed the reorientation of different functional groups which facilitate the sound absorption and mechanical properties. The composite with admissible tensile strength 47.5 MPa and high flexural property 121.89 MPa along with 30 HV hardness value has quite distinguishable mechanical characteristics for the fabricated composites. The unique characteristic sound absorption feature of the rattan fiber composite supports the acoustic behaviour with sound absorption coefficient (SAC) of 97% classifies as Class-A type as per ASTM C423-17 standard. A continuous mass loss of 69% from 390.89°C to 475°C is well supported by thermo gravimetric analysis. The regression analysis provides the optimum mechanical performance for which the composites execute its accuracy. Low sound transmissibility of the composite enhances its acoustic performance. The thermo-acoustic insulating properties such as thermal conductivity and acoustic behaviour of the materials are well described converting the rattan fiber for sustainable and eco-friendly applications.

Keywords


Flexural Components, Mechanical Properties, Rattan Fiber, Thermo-Acoustic Performance, Ultrasonic Treatment.

References