Numerical and Symbolic Analysis for Mathematical Problem-Solving with Maple

Authors

  • Nasima Sawlat Faryab University, Department of Mathematic, Faculty of Education, Maymana, Afghanistan
  • Yalda Qani Faryab University, Department of Mathematic, Maymana, Afghanistan
  • Naqibullah Sadeqi Faryab University, Department of Mathematic, Maymana, Afghanistan

DOI:

https://doi.org/10.62810/jnsr.v2i3.75

Keywords:

Maple, Numerical integration, Solving nonlinear equations, Polynomial interpolation, Symbolic integration, Numerical methods

Abstract

This study explores the versatile capabilities of Maple, a widely used mathematical software, in addressing a wide range of numerical and symbolic computations essential for scientific and engineering applications. The researchers investigated Maple's diverse suite of tools, including numerical integration, nonlinear equation solving, polynomial interpolation, symbolic integration, and various numerical methods. Through an in-depth literature review, illustrated case studies, and detailed performance evaluations, the paper demonstrates the effectiveness and accuracy of Maple's computational approaches in dealing with complex problems in various areas of applied mathematics. This study's findings underscored Maple's tremendous value as a reliable and comprehensive software package for researchers, scientists, and professionals involved in advanced mathematical analysis and scientific computing. Furthermore, the paper highlighted Maple's versatility in creating high-quality three-dimensional plots, crucial for visualizing and analyzing complex mathematical and scientific data. Using either sets or lists, the ability to display multiple surfaces in a single three-dimensional plot showcases Maple's power in data visualization and communicating complex ideas. By positioning Maple as a powerful platform for solving versatile mathematical problems, this study highlights the software's indispensable role in advancing scientific discoveries and engineering innovations.

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Published

2024-09-30

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