Modeling of two-phase flows in electric and magnetic fields

In summary, there are several recommended resources for understanding the numerical solution of full Maxwell's equations and Navier-Stokes equations for two-phase/multi-phase flows in coupled electric and magnetic fields. These include books such as "Computational Methods in Electromagnetism" and "Computational Electromagnetics for RF and Microwave Engineering," as well as "Numerical Methods for Fluid Dynamics with Applications to Geophysics." These resources cover various aspects of the topic and can provide a strong foundation for further research.
  • #1
Shivam Sinha
12
1
Hi,

Can anyone direct me to some literature that describes the numerical solution of full Maxwell's equations and Navier-Stokes equations for two-phase/multi-phase flows in coupled electric and magnetic fields.

Thanks!
 
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  • #2


Hi there,

There are many resources available that describe the numerical solution of full Maxwell's equations and Navier-Stokes equations for two-phase/multi-phase flows in coupled electric and magnetic fields. Here are a few that I would recommend:

1. "Computational Methods in Electromagnetism," by Thomas A. DeFanti and Anthony V. O'Neil. This book provides a comprehensive overview of numerical methods for solving Maxwell's equations in both time and frequency domains, as well as their coupling with fluid dynamics equations.

2. "Computational Electromagnetics for RF and Microwave Engineering," by David B. Davidson. This book focuses specifically on the numerical solution of Maxwell's equations for electromagnetic problems in the radio frequency and microwave range, including the coupling with fluid dynamics equations.

3. "Numerical Methods for Fluid Dynamics with Applications to Geophysics," by Dale R. Durran. While not specifically focused on coupled electric and magnetic fields, this book provides a thorough introduction to numerical methods for solving the Navier-Stokes equations, which can then be extended to include electromagnetic effects.

I hope these resources are helpful to you. Best of luck in your research!
 

Related to Modeling of two-phase flows in electric and magnetic fields

1. How do electric and magnetic fields affect two-phase flows?

Electric and magnetic fields can exert forces on particles and droplets in a two-phase flow, altering their trajectories and interactions with each other and with the surrounding fluid. This can lead to changes in the overall behavior and dynamics of the flow.

2. What is the importance of modeling two-phase flows in electric and magnetic fields?

Understanding and accurately predicting the behavior of two-phase flows in the presence of electric and magnetic fields is crucial in a variety of industrial and environmental applications, such as in fuel cells, chemical reactors, and atmospheric studies.

3. What are some common methods used for modeling two-phase flows in electric and magnetic fields?

Some commonly used methods include computational fluid dynamics (CFD), analytical and semi-analytical approaches, and numerical simulations using finite element or finite volume methods. Each method has its own advantages and limitations, and the choice depends on the specific application and desired level of accuracy.

4. Can two-phase flows in electric and magnetic fields be accurately modeled?

While there are challenges in accurately modeling two-phase flows in the presence of electric and magnetic fields, significant progress has been made in recent years. With the development of more advanced numerical methods and the availability of high-performance computing, it is now possible to obtain reliable and detailed simulations of these complex flows.

5. What are some current research areas in modeling two-phase flows in electric and magnetic fields?

Some current research areas include investigating the effects of different electric and magnetic field configurations on the behavior of two-phase flows, developing more accurate and efficient numerical methods, and studying the interactions between different phases and their impact on the overall flow dynamics. Additionally, there is ongoing research to extend the modeling to more complex systems, such as multiphase and reactive flows.

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