| dc.description.abstract | This thesis investigates the mechanical properties of epoxy resin composites reinforced with
jute and glass fibers, aiming to develop eco-friendly materials with industrial applicability.
This research focuses on the mechanical properties and performance analysis of jute fiber and
glass fiber reinforced epoxy composites, particularly evaluating the effect of fiber orientation
under various mechanical tests. Hybrid composites were fabricated using jute fibers oriented
at 45°, 60°, and 90°, combined with glass fibers in an epoxy matrix. Mechanical testing
included hardness and impact tests to understand the influence of fiber orientation on the
overall properties of the composites. The results demonstrated a significant correlation
between fiber orientation and the mechanical behavior of the composites. The 60° jute fiber
orientation exhibited superior impact strength, attributed to its ability to absorb and dissipate
energy more effectively under dynamic loading conditions. On the other hand, the 90°
orientation resulted in higher hardness values, indicating better resistance to localized
deformation. The 45° orientation showed balanced performance but did not surpass the other
configurations in either hardness or impact strength. This study highlights the importance of
fiber orientation in designing hybrid composites to achieve desired mechanical properties. By
optimizing orientation, it is possible to tailor the composite for specific applications, such as
automotive, aerospace, and structural components, where lightweight materials with
enhanced strength and durability are crucial. These findings provide valuable insights for
future development of sustainable, high-performance composite materials. Biodegradability
studies revealed faster degradation rates for composites with higher natural fiber content,
reflecting their environmental sustainability. They hold significant potential for applications
in automotive, construction, and packaging industries. Future research should focus on
optimizing material formulations, scaling up production processes, and conducting long-term
performance studies to enhance commercial viability. | en_US |
