Udoh Akpan

Mr. Udoh Akpan


Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 July 2021 in Optical and Quantum Electronics
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Journal Article
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Lanre AkinyemiLanre Akinyemi
Lanre Akinyemi
MSMehmet Senol
Mehmet Senol
UAUdoh Akpan
Udoh Akpan
KOKayode Oluwasegun
Kayode Oluwasegun

9 February 2024 in International Journal of Geometric Methods in Modern Physics
Verified
Journal Article
Closed access
UAUdoh Akpan
Udoh Akpan
Lanre AkinyemiLanre Akinyemi
Lanre Akinyemi
DNDaniel Ntiamoah
Daniel Ntiamoah
AHAlphonse HOUWE
Alphonse HOUWE
SASouleymanou Abbagari
Souleymanou Abbagari

15 October 2024 in Modern Physics Letters B
Verified
Journal Article
Closed access
KOKayode Oluwasegun
Kayode Oluwasegun
SASamuel Ajibola
Samuel Ajibola
UAUdoh Akpan
Udoh Akpan
Lanre AkinyemiLanre Akinyemi
Lanre Akinyemi
MSMehmet Senol
Mehmet Senol

18 April 2024 in Research Square
Verified
Preprint
Open access
PDF file
KOKayode Oluwasegun
Kayode Oluwasegun
SASamuel Ajibola
Samuel Ajibola
UAUdoh Akpan
Udoh Akpan
Lanre AkinyemiLanre Akinyemi
Lanre Akinyemi
MSMehmet Senol
Mehmet Senol
This paper explores the oceanic wave characteristics exhibited by a modified integrable generalized (2+1)-dimensional nonlinear Schrodinger system of equations through variable coefficients. Two newly modified methods, specifically the improved nonlinear Ricatti equation method and the improved sub-equation method, have been proposed to investigate the aforementioned nonlinear system. Through the utilization of these methods, we successfully obtain traveling and solitary waves solutions for this nonlinear system. We emphasize several constraint conditions that serve to guarantee the existence of these solutions. More comprehensive information about the physical dynamical representation of some of the solutions presented is illustrated through graphical depictions. The Mathematica software package is employed to produce both three-dimensional and their corresponding contour plots, thereby improving the visualization and comprehension of the solutions. This paper illustrates that the two proposed approaches provide straightforward and efficient means of acquiring various types of soliton, rational, trigonometric, hyperbolic and exponential solutions. Moreover, they present a more potent mathematical tool for addressing a variety of other nonlinear partial differential equations that hold significance in the field of applied science and engineering.