Open Access. Powered by Scholars. Published by Universities.®
Ordinary Differential Equations and Applied Dynamics Commons™
Open Access. Powered by Scholars. Published by Universities.®
- Discipline
-
- Life Sciences (17)
- Numerical Analysis and Computation (14)
- Dynamic Systems (12)
- Mathematics (12)
- Medicine and Health Sciences (12)
-
- Other Applied Mathematics (11)
- Non-linear Dynamics (9)
- Data Science (7)
- Computer Sciences (6)
- Education (6)
- Engineering (6)
- Public Health (6)
- Diseases (5)
- Epidemiology (5)
- Immunology and Infectious Disease (5)
- Science and Mathematics Education (5)
- Statistics and Probability (5)
- Artificial Intelligence and Robotics (4)
- Biology (4)
- Control Theory (4)
- Dynamical Systems (4)
- Ecology and Evolutionary Biology (4)
- Other Mathematics (4)
- Aerospace Engineering (3)
- Animal Sciences (3)
- Applied Statistics (3)
- Astrophysics and Astronomy (3)
- Institution
-
- Illinois State University (33)
- Prairie View A&M University (7)
- Claremont Colleges (5)
- Virginia Commonwealth University (5)
- Binghamton University (1)
-
- Brigham Young University (1)
- Clemson University (1)
- Embry-Riddle Aeronautical University (1)
- Faculty of Engineering, Mansoura University (1)
- Gettysburg College (1)
- New Jersey Institute of Technology (1)
- Northern Illinois University (1)
- Old Dominion University (1)
- Southern Methodist University (1)
- University of Nebraska - Lincoln (1)
- University of Richmond (1)
- Utah State University (1)
- Wilfrid Laurier University (1)
- Keyword
-
- Stability (3)
- COVID-19 (2)
- Differential Equations (2)
- Epidemiology (2)
- Sensitivity Analysis (2)
-
- 34K60 (1)
- 60E05 (1)
- 91D30 (1)
- AIDS (1)
- Aedes aegypti (1)
- Albouy (1)
- Algae biofilm (1)
- Analytical solution (1)
- Antibiotic resistance (1)
- Antiretroviral Therapy (1)
- Areal productivity (1)
- Axisymmetric drop shape analysis (1)
- Bacteria (1)
- Bass competition model (1)
- Bass diffusion model (1)
- Bifurcation (1)
- Carrier population (1)
- Central configuration (1)
- Chemical Langevin Equation (1)
- Chemical Master Equation (1)
- Circle map (1)
- Comparison theorem (1)
- Complex Number Differentiation (1)
- Constrained motion (1)
- Convolutional neural network (1)
- Publication
-
- Annual Symposium on Biomathematics and Ecology Education and Research (32)
- Applications and Applied Mathematics: An International Journal (AAM) (7)
- Biology and Medicine Through Mathematics Conference (4)
- CODEE Journal (4)
- All Dissertations (1)
-
- All Graduate Plan B and other Reports, Spring 1920 to Spring 2023 (1)
- Biological Sciences Faculty Publications (1)
- CURE Proceedings (1)
- Department of Mathematics: Dissertations, Theses, and Student Research (1)
- Dissertations (1)
- Doctoral Dissertations and Master's Theses (1)
- HMC Senior Theses (1)
- Honors Theses (1)
- Journal of Nonprofit Innovation (1)
- Mansoura Engineering Journal (1)
- Math Faculty Publications (1)
- Mathematics Theses and Dissertations (1)
- Northeast Journal of Complex Systems (NEJCS) (1)
- Spora: A Journal of Biomathematics (1)
- Theses and Dissertations (1)
- Theses and Dissertations (Comprehensive) (1)
- Publication Type
Articles 61 - 64 of 64
Full-Text Articles in Ordinary Differential Equations and Applied Dynamics
Swarm Intelligence For Solving Some Nonlinear Differential Equations, Ahmed Elzaghal, Mohammed Mohammed Elgamal, Ahmed H. Eltanboly
Swarm Intelligence For Solving Some Nonlinear Differential Equations, Ahmed Elzaghal, Mohammed Mohammed Elgamal, Ahmed H. Eltanboly
Mansoura Engineering Journal
The Euler method is a well-known numerical technique employed for solving initial value problems of ordinary differential equations. The solution obtained through Euler's method is subject to significant inaccuracies, which tend to amplify with each successive iteration. The Particle Swarm Optimization (PSO) algorithm is a highly effective method for finding optimal solutions to both linear and nonlinear optimization problems. In this particular investigation, the PSO technique was utilized to solve initial value problems associated with ordinary differential equations. The Euler method, on the other hand, employs equidistant grid points to approximate solutions, which can result in significant errors and a …
Multipatch Stochastic Epidemic Model For The Dynamics Of A Tick-Borne Disease, Milliward Maliyoni, Holly D. Gaff, Keshlan S. Govinder, Faraimunashe Chirove
Multipatch Stochastic Epidemic Model For The Dynamics Of A Tick-Borne Disease, Milliward Maliyoni, Holly D. Gaff, Keshlan S. Govinder, Faraimunashe Chirove
Biological Sciences Faculty Publications
Spatial heterogeneity and migration of hosts and ticks have an impact on the spread, extinction and persistence of tick-borne diseases. In this paper, we investigate the impact of between-patch migration of white-tailed deer and lone star ticks on the dynamics of a tick-borne disease with regard to disease extinction and persistence using a system of Itô stochastic differential equations model. It is shown that the disease-free equilibrium exists and is unique. The general formula for computing the basic reproduction number for all patches is derived. We show that for patches in isolation, the basic reproduction number is equal to the …
Innovations In Drop Shape Analysis Using Deep Learning And Solving The Young-Laplace Equation For An Axisymmetric Pendant Drop, Andres P. Hyer
Innovations In Drop Shape Analysis Using Deep Learning And Solving The Young-Laplace Equation For An Axisymmetric Pendant Drop, Andres P. Hyer
Theses and Dissertations
Axisymmetric Drop Shape Analysis (ADSA) is a technique commonly used to determine surface or interfacial tension. Applications of traditional ASDA methods to process analytical technologies are limited by computational speed and image quality. Here, we address these limitations using a novel machine learning approach to analysis. With a convolutional neural network (CNN), we were able to achieve an experimental fit precision of (+/-) 0.122 mN/m in predicting the surface tension of drop images at a rate of 1.5 ms^-1 versus 7.7 s^-1, which is more than 5,000 times faster than the traditional method. The results are validated on real images …
Dynamical Aspects In (4+1)-Body Problems, Ryan Gauthier
Dynamical Aspects In (4+1)-Body Problems, Ryan Gauthier
Theses and Dissertations (Comprehensive)
The n-body problem models a system of n-point masses that attract each other via some binary interaction. The (n + 1)-body problem assumes that one of the masses is located at the origin of the coordinate system. For example, an (n+1)-body problem is an ideal model for Saturn, seen as the central mass, and one of its outer rings. A relative equilibrium (RE) is a special solution of the (n+1)-body problem where the non-central bodies rotate rigidly about the centre of mass. In rotating coordinates, these solutions become equilibria.
In this thesis we study dynamical aspects of planar (4 + …