dc.description.abstract |
This thesis delves into the application of the natural transform method for solving the intricate
two-dimensional Newell-Whitehead Segal equation of time fractional order. The exploration begins
with a thorough examination of the natural transform method, showcasing its efficacy in address
ing fundamental mathematical challenges such as one-dimensional time diffusion equations and the
nonlinear Burger equation. These foundational problems serve as benchmarks, demonstrating the
method’s prowess and preparing the groundwork for addressing the more complex two-dimensional
Newell-Whitehead Segal equation. The primary focus of this research is to unravel the complexi
ties involved in solving the two-dimensional Newell-Whitehead Segal equation, particularly when
incorporating time fractional orders. Through meticulous mathematical derivations and formula
tions, the natural transform method emerges as a robust and innovative approach capable of navi
gating the intricacies embedded in such equations. The inclusion of test problems further validates
the proposed methodology, highlighting its versatility and reliability across various mathematical
scenarios. This not only strengthens the theoretical foundation of the natural transform method
but also emphasizes its practical utility in addressing real-world challenges. The natural transform
method presented in this thesis proves to be a simple yet highly accurate tool for obtaining approx
imate and analytical solutions to both fractional order ordinary and partial differential equations.
Its efficiency is evident in producing highly accurate solutions with minimal iterations, making it
suitable for solving uni- or multi-dimensional problems |
en_US |