ARJUN M (STM20ME008)

ALAN K A (STM20ME005)

AMARNATH P (STM20ME006)

KALIDAS K V (STM20ME010)

The structural analysis of automotive chassis is a critical facet in the pursuit of enhancing vehicle
performance. safety. and cfficicncy. This abstract delves into the comprchcnsive exploration of
chassis design, cncompassing a spectrum from initial structural analysis to subsequent
modifications and optimization strategies. The investigation begins with a meticulous
examination of the cxisting chassis architccture, cmploying advanced analytical tools and
simulation techniques to scrutinize its structural integrity, load-bearing capacity, and overall
performance under diverse conditions. Subsequently, the study navigates towards design
modifications, clucidating the iterative process of refining the chassis based on identified
weaknesses and opportunities for improvement. This involves the integration of novel materials,
innovative geometries, and advanced manufacturing techniques to bolster the chassis's resilience
and decrease its weight, thereby augmenting fuel efficiency and overall vehicular dynamics.
Furthermore, the abstract delves into the optimization phase, where a multidimensional approach
is employed to fine-tune the chassis design. Optimization encompasses the utilization of
algorithms and computational methods to attain an optimal balance between conflicting design
objectives, such as weight reduction versus structural robustness. Additionally, considerations for
accommodating evolving automotive technologies, such as electric or autonomous systems, are
factored into the optimization process to ensure adaptability and future-proofing. The outcome of
this holistic analysis is a refined and optimized automotive chassis design that not only meets
stringent safety standards but also exhibits superior performance characteristics. The findings of
this study have far-reaching implications for the automotive industry. providing valuable insights
for engineers, designers, and manufacturers striving to enhance the structural integrity, efficiency,
and adaptability of automotive chassis systems in the ever-evolving landscape of vehicle
technology.