V. Gautham’s research while affiliated with Kumaraguru College of Technology and other places

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Publications (4)


Characterization of alkali treated and untreated Abutilon indicum FIBERS
  • Article

December 2024

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22 Reads

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9 Citations

Industrial Crops and Products

R. Arun Ramnath

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V. Gautham

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[...]

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Femiana Gapsari

An investigation on tribology performance of Abutilon Indicum fibre reinforced polymer composites

October 2024

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17 Reads

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1 Citation

Proceedings of the Institution of Mechanical Engineers Part E Journal of Process Mechanical Engineering

This research work investigates the tribological characteristics of Abutilon Indicum Fiber (AIF) reinforced composites with epoxy as the binding agent. The Abutilon Indicum fiber reinforced composites were manufactured by compression molding technique. These composites were fabricated by varying the fiber volume fraction ranging from 5%, 10%, 15% and 20% respectively and considering the fiber length as a fixed factor due to its short length. This research paper illustrates the effects of different fiber volume fractions (5,10,15 and 20%) on the tribological properties such as Specific wear rate (SWR) and Coefficient of friction (µ) of Abutilon Indicum fiber reinforced composites. Sliding wear tests were carried out under dry environment conditions with pin-on-disc wear testing machine. The experiments were performed for each composite with different combinations of testing parameters, sliding loads (10, 20 and 30 N); sliding distances (1,2 and 3 km); sliding speeds (1,2 and 3 m/s). Shore D hardness of 78.22 is determined to be higher for 15% volume fraction of AIF composites. Results conclude that the addition of AIFs in these composites enhanced the tribological performance with good wear resistance in relation with the pure epoxy-based composites with 15% volume fraction of AIFs displaying best results with higher resistance to wear at various operating conditions. Composites produced with 20% volume fraction displays the effects of fiber agglomeration which in turn has an inverse effect on hardness; limits the wear resistance with higher friction and wear rate and such results agree well with the wear debris, pits and contact patches in micrographs. Optimal fiber volume fraction of 15% was suggested in fabrication of composites for usage of AIFs as friction material.


Figure 1: Abutilon Indicum Fiber (AIF) extraction (Reproduced with permission from Wiley, License Number: 5570010817842) [5]
Composition of Abutilon Indicum Fiber reinforced composites S. No Wt. % of AIF reinforcement Polymer content
Different levels of testing parameters
Hardness of Abutilon Indicum Fiber reinforced composites
Decrease in % of SWR for AIF composites compared to pure epoxy

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An Investigation on Tribology Properties of Abutilon Indicum Fibre Reinforced Polymer Composites
  • Preprint
  • File available

January 2024

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109 Reads

This research work investigates the tribological characteristics of Abutilon Indicum Fiber (AIF) reinforced composites with epoxy as the binding agent. The Abutilon Indicum fiber reinforced tribo-composites were manufactured by compression molding technique. These composites were fabricated by varying the fiber volume fraction ranging from 5%, 10%, 15% and 20% respectively and considering the fiber length as a fixed factor due to its short length. This research paper illustrates the effects of different fiber volume fractions (5,10,15 and 20%) on the tribological properties such as Specific wear rate (SWR) and Coefficient of friction (µ) of Abutilon Indicum fiber reinforced composites. Sliding wear tests were carried out under dry environment conditions with pin-on-disc wear testing machine. The experiments were performed for each tribo-composites with different combinations of testing parameters, sliding loads in the range of (10, 20 and 30 N); sliding distances (1,2 and 3 km); sliding speeds (1,2 and 3 m/s). Shore D hardness of these composites was determined. Results conclude that the addition of AIFs in these tribo-composites enhanced the tribological performance with good wear resistance in relation with the pure epoxy-based composites. Specifically, composites produced with 15% volume fraction of AIFs displayed best results with higher resistance to wear at various operating conditions. Optimal fiber volume fraction of 15% was suggested in fabrication of composites for usage of AIFs as friction material and for other commercial applications. Additionally, the surface texture of these different tested composites was analysed by scanning electron microscopic images to examine the wear patterns and mechanism.

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Citations (2)


... It is deemed that the low thickness of the fiber is owing to the structure of the inkberry plant fiber. Because the fiber contains a large amount of cellulose, its high density can be explained [71]. Inkberry fiber density is determined as higher than some original cellulosic fibers, such as Abutilon indicum (1170 kg/m 3 ) [71], Streblus asper (1388 kg/m 3 ) [72], Spinifex littoreus (780 kg/m 3 ) [73], and Himalayacalamus falconeri culms (1300 kg/m 3 ) [74] and lower than Hibiscus canescens (1425 kg/m 3 ) [75]. ...

Reference:

Extraction and characterization of novel cellulosic fiber from Phytolacca americana plant stem
Characterization of alkali treated and untreated Abutilon indicum FIBERS
  • Citing Article
  • December 2024

Industrial Crops and Products

... 45−47 Physical modifications, such as cross-linking and nanostructure formation, contribute to increased mechanical strength and a higher surface area, enhancing accessibility to active adsorption sites. 48,49 Ionic modifications, achieved through sulfonation or phosphorylation, impart ionic properties to cellulose, rendering it effective for sorbing heavy metals and ions. 50−52 Biological modifications, including enzymatic treatments, offer a sustainable approach to altering cellulose surface characteristics. ...

Physical modification of cellulose fiber surfaces
  • Citing Chapter
  • January 2023