Nonlinear Fractional Differential Equations. Some Exact Solitary Wave Solutions

Inhaltsverzeichnis (Table of Contents)

• Abstract
• Acknowledgements
• Introduction and Preliminaries
  • Truncated M-fractional Derivative and it's Properties:
  • Description of the Scheme Strategy:
• Main Results-I
  • Mathematical Analysis of the Fractional Generalized Reaction Duff-ing Model
  • Solutions to Eq. (2.2) with the aforesaid approach
  • The Landua-Ginburg-Higgs equation as a special case of Eq. (1.1)
  • The classical fractional Klein-Gordon equation from Eq. (1.1)
  • The solutions for Phi-4 equation
  • The sine-Gordon equation as a special case of Eq. (1.1)
  • The Duffing equation as a special case of Eq. (1.1)
• Main Results-II
  • Mathematical Analysis of the Fractional Diffusion Reaction Modelwith its Solutions:
  • Solutions to the diffusion reaction equation (3.1).
• Conclusion
• Bibliography

Zielsetzung und Themenschwerpunkte (Objectives and Key Themes)

This thesis examines the application of the truncated M-fractional derivative to obtain solitary wave solutions for both the fractional generalized Duffing model and the fractional diffusion reaction model. The work further explores specific cases of the fractional generalized Duffing model, including the fractional Landau-Ginzburg-Higgs equation, the classical fractional Klein-Gordon equation, the Phi-4 equation, the Sine-Gordon equation, and the Duffing equation. The obtained results offer potential insights into these models and their behavior.

• Analysis of fractional differential equations using the M-fractional derivative.
• Derivation of solitary wave solutions for the fractional generalized Duffing model and the fractional diffusion reaction model.
• Exploration of specific cases of the fractional generalized Duffing model, including the fractional Landau-Ginzburg-Higgs equation, the classical fractional Klein-Gordon equation, the Phi-4 equation, the Sine-Gordon equation, and the Duffing equation.
• Verification of obtained results using symbolic software.
• Application of the extended Sinh-Gordon equation expansion method (EShGEEM) to secure solitary wave solutions.

Zusammenfassung der Kapitel (Chapter Summaries)

• Introduction and Preliminaries: This chapter presents an overview of nonlinear partial differential equations (NLPDEs) and their importance in modeling various physical phenomena. The chapter also introduces the truncated M-fractional derivative and its properties, which are crucial for the subsequent analysis.
• Main Results-I: This chapter delves into the mathematical analysis of the fractional generalized Duffing model. It explores solutions obtained through the novel approach and examines specific cases of the model, including the Landau-Ginzburg-Higgs equation, the classical fractional Klein-Gordon equation, the Phi-4 equation, the Sine-Gordon equation, and the Duffing equation.
• Main Results-II: This chapter focuses on the fractional diffusion reaction model, examining its mathematical analysis and presenting solutions.

Schlüsselwörter (Keywords)

This research focuses on the application of the truncated M-fractional derivative to obtain solitary wave solutions for fractional differential equations, particularly the generalized Duffing model and the diffusion reaction model. Key terms include fractional differential equations, solitary wave solutions, truncated M-fractional derivative, the generalized Duffing model, the Landau-Ginzburg-Higgs equation, the classical fractional Klein-Gordon equation, the Phi-4 equation, the Sine-Gordon equation, the Duffing equation, and the diffusion reaction model.