Maxwell's equations: Difference between revisions

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== Behind the scenes ==
== Behind the scenes ==
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{{section cleanup|Wiki markup needs cleaning up.}}
Maxwell's equations are named for [[James Clerk Maxwell]].
The version of these equations given in the episode are in their differential form. The variables, vectors and operators written include <span style="font-size:80%"><math>D</math></span> (the electric displacement field)<ref>https://en.wikipedia.org/wiki/Electric_displacement_field</ref>, <span style="font-size:80%"><math>\rho</math></span> (the free electric charge density)<ref>https://en.wikipedia.org/wiki/Charge_density</ref>, <span style="font-size:80%"><math>B</math></span> (the magnetic field in Teslas)<ref>https://en.wikipedia.org/wiki/Magnetic_field</ref>, <span style="font-size:80%"><math>H</math></span> (the magnetic field in <span style="font-size:50%"><math>\frac{Amperes}{m^{2}}</math></span>)<ref>https://en.wikipedia.org/wiki/Magnetic_field</ref>, and <span style="font-size:80%"><math>\nabla</math></span> (the differential operator)<ref>https://en.wikipedia.org/wiki/Nabla_symbol</ref>. In addition, the fourth equation may or may not include [https://en.wikipedia.org/wiki/Ampère%27s_circuital_law#Shortcomings_of_the_original_formulation_of_the_circuital_law Maxwell's Correction], and thus include <span style="font-size:80%"><math>J_{f}</math></span> (the free current density), all shots shown of these equations in the episode are from an angle and distance that make it impossible to tell.
The version of these equations given in the episode are in their differential form. The variables, vectors and operators written include <span style="font-size:80%"><math>D</math></span> (the electric displacement field)<ref>https://en.wikipedia.org/wiki/Electric_displacement_field</ref>, <span style="font-size:80%"><math>\rho</math></span> (the free electric charge density)<ref>https://en.wikipedia.org/wiki/Charge_density</ref>, <span style="font-size:80%"><math>B</math></span> (the magnetic field in Teslas)<ref>https://en.wikipedia.org/wiki/Magnetic_field</ref>, <span style="font-size:80%"><math>H</math></span> (the magnetic field in <span style="font-size:50%"><math>\frac{Amperes}{m^{2}}</math></span>)<ref>https://en.wikipedia.org/wiki/Magnetic_field</ref>, and <span style="font-size:80%"><math>\nabla</math></span> (the differential operator)<ref>https://en.wikipedia.org/wiki/Nabla_symbol</ref>. In addition, the fourth equation may or may not include [https://en.wikipedia.org/wiki/Ampère%27s_circuital_law#Shortcomings_of_the_original_formulation_of_the_circuital_law Maxwell's Correction], and thus include <span style="font-size:80%"><math>J_{f}</math></span> (the free current density), all shots shown of these equations in the episode are from an angle and distance that make it impossible to tell.



Revision as of 07:10, 24 August 2020

"Maxwell's equations" is a title based upon conjecture.

Check the behind the scenes section, the revision history and discussion page for additional comments on this article's title.

Maxwell's equations

Maxwell's equations were a series of equations used in classical electrodynamics.

A version of these equations were written on a table in one of the habitation hubs of Sanctuary Base 6. (TV: The Impossible Planet)

Behind the scenes

This section needs a cleanup.

Wiki markup needs cleaning up.

Maxwell's equations are named for James Clerk Maxwell.

The version of these equations given in the episode are in their differential form. The variables, vectors and operators written include (the electric displacement field)[1], (the free electric charge density)[2], (the magnetic field in Teslas)[3], (the magnetic field in )[4], and (the differential operator)[5]. In addition, the fourth equation may or may not include Maxwell's Correction, and thus include (the free current density), all shots shown of these equations in the episode are from an angle and distance that make it impossible to tell.

Footnotes