Understanding Formula Transition: Solving for curlB and divJ in Electromagnetism

In summary: I don't see a photo. But I'm not able to help with questions, I only provide summaries of content. Sorry about that!
  • #1
nhrock3
415
0
157lu1s.jpg

[tex]\oint Bdl=\mu\int JdA+\mu\frac{{d}}{dt}\int EdA[/tex]

[tex]\int(curlB)dA=\mu\int divJdV+\mu\frac{{d}}{dt}\int divEdV[/tex]

how to go from the above integral equation to the bottom equation

[tex]

curlB=\mu\varepsilon\frac{{dE}}{dt}+\mu J

[/tex]
 
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  • #2
I think there are something wrong with your LaTeX-codes.
 
  • #3
nhrock3 said:
[TEX]\oint Bdl=\mu\int JdA+\mu\frac{{d}}{dt}\int EdA[/TEX]

[TEX]\int(curlB)dA=\mu\int divJdV+\mu\frac{{d}}{dt}\int divEdV[/TEX]

how to go from the above integral equation to the bottom equation

[TEX]

curlB=\mu\varepsilon\frac{{dE}}{dt}+\mu J

[/TEX]
Try using [tex] and [/tex] instead of [TEX] and [/TEX].

RGV
 
  • #4
nhrock3 said:
[tex]\oint Bdl=\mu\int JdA+\mu\frac{{d}}{dt}\int EdA[/tex]

[tex]\int(curlB)dA=\mu\int divJdV+\mu\frac{{d}}{dt}\int divEdV[/tex]

how to go from the above integral equation to the bottom equation

[tex]

curlB=\mu\varepsilon\frac{{dE}}{dt}+\mu J

[/tex]
Looks to me like an application of Stoke's curl theorem:
[tex]\int_S \nabla\times F dS= \oint_{\partial S} F\cdot ds[/tex]
 
  • #5
Ray Vickson said:
Try using [tex] and [/tex] instead of [TEX] and [/TEX].

RGV
What Ray wrote was [ tex] and [ /tex], but without the extra space inside each pair of brackets. In other words, don't use upper case (TEX); use lower lower case (tex).
 
  • #6
i tried i switched to
[tex]\oint Bdl=\mu\int JdA+\mu\frac{{d}}{dt}\int EdA[/tex]

[tex]\int(curlB)dA=\mu\int divJdV+\mu\frac{{d}}{dt}\int divEdV[/tex]

how to go from the above integral equation to the bottom equation

[tex]

curlB=\mu\varepsilon\frac{{dE}}{dt}+\mu J

[/tex]

still no formula showing
 
  • #7
Ray Vickson said:
Try using [tex] and [/tex] instead of [TEX] and [/TEX].

RGV
This should have said "[tex]" and "[/tex]" instead of [TEX] and [/TEX].
I guess the first part was dropped because I forgot to put the "[tex]" in
quotes. So, that means that you remove the quotes when you use them.

RGV
 
  • #8
157lu1s.jpg
 
  • #9
AArgh! This still has not gotten through. I mean
use "[ t - e - x]" and "[ / t - e - x ]" (removing spaces and
hyphens, or course). Let's see if *this* gets through.

RGV
 
  • #10
i uploaded a photo could you help with my question
Arrggg :)
 

FAQ: Understanding Formula Transition: Solving for curlB and divJ in Electromagnetism

What is the purpose of understanding formula transition in electromagnetism?

The purpose of understanding formula transition is to be able to solve for the curlB and divJ equations in electromagnetism. These equations help us understand the behavior of magnetic and electric fields and their interactions with each other.

How do curlB and divJ equations relate to each other?

The curlB and divJ equations are closely related as they both describe the behavior of electromagnetic fields. The curlB equation describes the rotation or circulation of a magnetic field, while the divJ equation describes the divergence or spreading of an electric field.

What is the significance of solving for curlB and divJ in electromagnetism?

Solving for curlB and divJ allows us to calculate and predict the behavior of electromagnetic fields in various scenarios. This is crucial for understanding and developing technologies that rely on these fields, such as electric motors and generators.

What are some real-world applications of understanding formula transition in electromagnetism?

Understanding formula transition has many practical applications in our daily lives. Some examples include designing and improving electric motors and generators, developing telecommunications and wireless technologies, and creating medical imaging devices such as MRI machines.

What are some resources for further understanding formula transition in electromagnetism?

There are many resources available for further understanding formula transition, including textbooks, online courses, and research papers. Some recommended resources include "Electromagnetism" by I.S. Grant and W.R. Phillips, "Introduction to Electrodynamics" by David J. Griffiths, and the "Electromagnetism" course on Khan Academy.

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