Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Tribological Behaviour of Furcraea Foetida Fiber-Reinforced Epoxy Composites under Varying Applied Loads

View through CrossRef
This study investigates the tribological behaviour of Furcraea Foetida fibre-reinforced epoxy composites under varying applied loads. The aim is to understand the influence of applied load on the frictional behaviour and wear characteristics of the composites. The study employs a pin-on-disk test to examine the frictional force, coefficient of friction (COF), and specific wear rate (SWR) of identical samples subjected to four different loads (80 N, 100 N, 120 N, 140 N). Scanning electron microscopy (SEM) is used to analyse the surface morphology under different loads. The frictional force versus sliding distance graph demonstrates an increasing trend from 80 N to 120 N, followed by minimal change at 140 N. Similarly, the COF versus applied load graph shows a progressive increase from 80 N to 120 N, with the least increase observed at 140 N. The SWR versus applied load graph indicates an increasing trend from 80 N to 120 N, with marginal variation at 140 N. SEM analysis reveals that only the sample subjected to 140 N shows evidence of plastic deformation. In conclusion, the results indicate that the applied load significantly influences the frictional behaviour and wear characteristics of the Furcraea Foetida fibre-reinforced epoxy composites. At higher loads, the increase in frictional force, COF, and SWR becomes less pronounced, suggesting potential saturation in the composites' response. The presence of plastic deformation at 140 N further highlights the unique behaviour observed at this load. These findings contribute to a better understanding of the tribological performance of the composites and have implications for their practical applications.
Title: Tribological Behaviour of Furcraea Foetida Fiber-Reinforced Epoxy Composites under Varying Applied Loads
Description:
This study investigates the tribological behaviour of Furcraea Foetida fibre-reinforced epoxy composites under varying applied loads.
The aim is to understand the influence of applied load on the frictional behaviour and wear characteristics of the composites.
The study employs a pin-on-disk test to examine the frictional force, coefficient of friction (COF), and specific wear rate (SWR) of identical samples subjected to four different loads (80 N, 100 N, 120 N, 140 N).
Scanning electron microscopy (SEM) is used to analyse the surface morphology under different loads.
The frictional force versus sliding distance graph demonstrates an increasing trend from 80 N to 120 N, followed by minimal change at 140 N.
Similarly, the COF versus applied load graph shows a progressive increase from 80 N to 120 N, with the least increase observed at 140 N.
The SWR versus applied load graph indicates an increasing trend from 80 N to 120 N, with marginal variation at 140 N.
SEM analysis reveals that only the sample subjected to 140 N shows evidence of plastic deformation.
In conclusion, the results indicate that the applied load significantly influences the frictional behaviour and wear characteristics of the Furcraea Foetida fibre-reinforced epoxy composites.
At higher loads, the increase in frictional force, COF, and SWR becomes less pronounced, suggesting potential saturation in the composites' response.
The presence of plastic deformation at 140 N further highlights the unique behaviour observed at this load.
These findings contribute to a better understanding of the tribological performance of the composites and have implications for their practical applications.

Related Results

An effective protocol for optimization of in-vitro micropropagation and genetic transformation of Furcraea foetida
An effective protocol for optimization of in-vitro micropropagation and genetic transformation of Furcraea foetida
Abstract Furcraea foetida (Mauritius hemp) belongs to the family Agavaceae, is cultivated for its ornamental, fiber and medicinal value and can survive in xerophytic condit...
Fabrication and property analysis of treated and untreated bagasse powder-reinforced epoxy resin composites
Fabrication and property analysis of treated and untreated bagasse powder-reinforced epoxy resin composites
Bagasse fiber from sugarcane waste is used with epoxy resin to make natural composites. The raw fibers are treated chemically to improve compatibility and adherence with the epoxy ...
Halloysite Nanotubes Reinforced Epoxy/Epoxy Acrylate Blends: Unlocking the Potential of Hybrid Nanocomposites
Halloysite Nanotubes Reinforced Epoxy/Epoxy Acrylate Blends: Unlocking the Potential of Hybrid Nanocomposites
Unlocking the potential of polymer blends requires innovative strategies that transcend simple mixing. This study presents a novel approach by creating hybrid blends of epoxy and s...
Experimental analysis of epoxy-based functionally graded composite materials
Experimental analysis of epoxy-based functionally graded composite materials
Functionally graded materials (FGMs) are crucial in the mechanical and aerospace industries for improving material quality by combining distinct qualities to create composite subst...
Evaluation of Mechanical and Tribological Properties of Corn Cob-Reinforced Epoxy-Based Composites—Theoretical and Experimental Study
Evaluation of Mechanical and Tribological Properties of Corn Cob-Reinforced Epoxy-Based Composites—Theoretical and Experimental Study
Epoxy is considered to be the most popular polymer and is widely used in various engineering applications. However, environmental considerations require natural materials-based epo...
Carbon fiber-reinforced epoxy with 100% fiber recycling by transesterification reactions
Carbon fiber-reinforced epoxy with 100% fiber recycling by transesterification reactions
Carbon fiber (CF)-reinforced epoxy is the most commonly used advanced composite with high performance. However, these composites usually face intractable disposal problems in their...

Back to Top