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<title>Department of  Mechanical Engineering</title>
<link>http://suspace.su.edu.bd/handle/123456789/3</link>
<description/>
<pubDate>Sat, 18 Apr 2026 12:36:49 GMT</pubDate>
<dc:date>2026-04-18T12:36:49Z</dc:date>
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<title>COMPARATIVE STUDY ON THE MECHANICAL PROPERTIES OF JUTE-GLASS    EPOXY HYBRID COMPOSITES</title>
<link>http://suspace.su.edu.bd/handle/123456789/2534</link>
<description>COMPARATIVE STUDY ON THE MECHANICAL PROPERTIES OF JUTE-GLASS    EPOXY HYBRID COMPOSITES
Antar, Ahmad;
This research focuses on the mechanical properties and performance analysis of jute fiber and glass fiber &#13;
reinforced epoxy composites, particularly evaluating the effect of fiber orientation under various mechanical &#13;
tests. Hybrid composites were fabricated using jute fibers oriented at 45°, 60°, and 90°, combined with glass &#13;
fibers in an epoxy matrix. Mechanical testing included hardness and impact tests to understand the influence &#13;
of fiber orientation on the overall properties of the composites. The results demonstrated a significant &#13;
correlation between fiber orientation and the mechanical behavior of the composites. The 60° jute fiber &#13;
orientation exhibited superior impact strength, attributed to its ability to absorb and dissipate energy more &#13;
effectively under dynamic loading conditions. On the other hand, the 90° orientation resulted in higher &#13;
hardness values, indicating better resistance to localized deformation. The 45° orientation showed balanced &#13;
performance but did not surpass the other configurations in either hardness or impact strength. This study &#13;
highlights the importance of fiber orientation in designing hybrid composites to achieve desired mechanical &#13;
properties. By optimizing orientation, it is possible to tailor the composite for specific applications, such as &#13;
automotive, aerospace, and structural components, where lightweight materials with enhanced strength and &#13;
durability are crucial. These findings provide valuable insights for future development of sustainable, high&#13;
performance composite materials.
</description>
<pubDate>Fri, 11 Jul 2025 00:00:00 GMT</pubDate>
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<dc:date>2025-07-11T00:00:00Z</dc:date>
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<item>
<title>Analysis of Jute-Glass Fiber Reinforced Epoxy  Hybrid Composite</title>
<link>http://suspace.su.edu.bd/handle/123456789/2533</link>
<description>Analysis of Jute-Glass Fiber Reinforced Epoxy  Hybrid Composite
Md., Mostafizur Rohaman
This study investigates the mechanical behavior and performance of jute–glass fiber &#13;
reinforced epoxy hybrid composites, focusing on the role of fiber orientation in determining &#13;
their properties. Hybrid laminates were fabricated by combining natural jute fibers with &#13;
synthetic glass fibers in an epoxy resin matrix, with the jute fibers oriented at 45°, 60°, and &#13;
90°. Mechanical evaluations were carried out through hardness and impact strength tests to &#13;
assess the influence of fiber alignment on the composite’s response to static and dynamic &#13;
loading. The experimental results revealed that fiber orientation plays a critical role in &#13;
governing the overall mechanical performance of the composites. Among the tested &#13;
configurations, the 60° jute fiber orientation achieved the highest impact resistance, attributed &#13;
to enhanced energy absorption and dispersion capabilities. Conversely, the 90° orientation &#13;
produced superior hardness values, indicating better localized load resistance. The 45° &#13;
orientation demonstrated moderate performance, balancing between hardness and impact &#13;
properties but not exceeding the other two orientations. These outcomes emphasize the &#13;
significance of optimizing fiber orientation in hybrid composites to tailor material properties &#13;
for diverse engineering applications. The findings contribute to the development of &#13;
sustainable and high-performance composite materials, suitable for automotive, aerospace, &#13;
and structural components where lightweight design and mechanical efficiency are essential.
</description>
<pubDate>Wed, 11 Jun 2025 00:00:00 GMT</pubDate>
<guid isPermaLink="false">http://suspace.su.edu.bd/handle/123456789/2533</guid>
<dc:date>2025-06-11T00:00:00Z</dc:date>
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<item>
<title>EXPERIMENT OF A COMPOSITE MATERIAL  BASED ON SYNTHETIC FIBER (GLASS FIBER)  AND NATURAL FIBER  (JUTE FIBER)</title>
<link>http://suspace.su.edu.bd/handle/123456789/2532</link>
<description>EXPERIMENT OF A COMPOSITE MATERIAL  BASED ON SYNTHETIC FIBER (GLASS FIBER)  AND NATURAL FIBER  (JUTE FIBER)
Muzammel, Hossain;
This study investigates the mechanical behavior of hybrid composites made from jute &#13;
fiber and glass fiber reinforced with epoxy resin, with particular emphasis on the role &#13;
of fiber orientation. Hybrid samples were fabricated with jute fibers arranged at 45°, &#13;
60°, and 90°, in combination with glass fibers within the epoxy matrix. The composites &#13;
were evaluated through impact and hardness tests to determine how orientation affects &#13;
their overall performance.The experimental findings revealed a clear dependence of &#13;
mechanical properties on fiber orientation. Composites with a 45° jute fiber alignment &#13;
displayed the highest impact,hardness and bending strength, owing to their enhanced &#13;
energy absorption capacity during dynamic loading. Meanwhile, the 60° orientation &#13;
resulted in superior hardness, indicating stronger resistance against localized surface &#13;
deformation. The 90° orientation showed balanced performance but did not surpass the other &#13;
configurations in either hardness,impact or bending strength.These results emphasize the &#13;
importance of selecting appropriate fiber orientations to tailor composites for specific &#13;
applications. Optimized orientation can significantly enhance the design of lightweight &#13;
structural materials, making them suitable for use in automotive, aerospace, and &#13;
construction industries. Overall, the study contributes useful insights toward the &#13;
development of sustainable and high-performance hybrid composites
</description>
<pubDate>Mon, 11 Aug 2025 00:00:00 GMT</pubDate>
<guid isPermaLink="false">http://suspace.su.edu.bd/handle/123456789/2532</guid>
<dc:date>2025-08-11T00:00:00Z</dc:date>
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<item>
<title>INVESTIGATION OF MECHANICAL PROPERTIES OF  HARDENER RESIN COMPOSITES REINFORCED WITH  JUTE AND GLASS FIBERS</title>
<link>http://suspace.su.edu.bd/handle/123456789/2531</link>
<description>INVESTIGATION OF MECHANICAL PROPERTIES OF  HARDENER RESIN COMPOSITES REINFORCED WITH  JUTE AND GLASS FIBERS
Alamin, Mia
This thesis investigates the mechanical  properties of epoxy resin composites reinforced with &#13;
jute and glass fibers, aiming to develop eco-friendly materials with industrial applicability. &#13;
This research focuses on the mechanical properties and performance analysis of jute fiber and &#13;
glass fiber reinforced epoxy composites, particularly evaluating the effect of fiber orientation &#13;
under various mechanical tests. Hybrid composites were fabricated using jute fibers oriented &#13;
at 45°, 60°, and 90°, combined with glass fibers in an epoxy matrix. Mechanical testing &#13;
included hardness and impact tests to understand the influence of fiber orientation on the &#13;
overall properties of the composites. The results demonstrated a significant correlation &#13;
between fiber orientation and the mechanical behavior of the composites. The 60° jute fiber &#13;
orientation exhibited superior impact strength, attributed to its ability to absorb and dissipate &#13;
energy more effectively under dynamic loading conditions. On the other hand, the 90° &#13;
orientation resulted in higher hardness values, indicating better resistance to localized &#13;
deformation. The 45° orientation showed balanced performance but did not surpass the other &#13;
configurations in either hardness or impact strength. This study highlights the importance of &#13;
fiber orientation in designing hybrid composites to achieve desired mechanical properties. By &#13;
optimizing orientation, it is possible to tailor the composite for specific applications, such as &#13;
automotive, aerospace, and structural components, where lightweight materials with &#13;
enhanced strength and durability are crucial. These findings provide valuable insights for &#13;
future development of sustainable, high-performance composite materials. Biodegradability &#13;
studies revealed faster degradation rates for composites with higher natural fiber content, &#13;
reflecting their environmental sustainability. They hold significant potential for applications &#13;
in automotive, construction, and packaging industries. Future research should focus on &#13;
optimizing material formulations, scaling up production processes, and conducting long-term &#13;
performance studies to enhance commercial viability.
</description>
<pubDate>Sat, 07 Jun 2025 00:00:00 GMT</pubDate>
<guid isPermaLink="false">http://suspace.su.edu.bd/handle/123456789/2531</guid>
<dc:date>2025-06-07T00:00:00Z</dc:date>
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