Conservación de la energía¶

(249)¶\[W = \Delta T = W_{nc}+W_\text{cons} = W_{nc}-\Delta U \rightarrow \Delta (T+U) = \Delta E_m = W_{nc}\]

Physical processes¶

The important magnitude is the differences of energies

(250)¶\[\begin{split}E_1^\prime=E_1+C\\ E_2^\prime=E_2+C\\\end{split}\]

(251)¶\[\Delta E^\prime = E_2^\prime - E_1^\prime = E_2 + C - E_1 - C =E_2 - E_1 = \Delta E\]

I am writing an equation inline \(x=-i\hbar\psi=\hat{h}\psi\).

If the equation is by itself,

(252)¶\[-i\hbar\psi=\hat{h}\psi\]

I am going to add a figure

Fig. 124 Here is my figure caption!¶

:::{admonition,warning} This is also Markdown This text is standard Markdown :::

:::{admonition,note} This is also Markdown This text is standard Markdown :::

:::{admonition,tip} This is also Markdown This text is standard Markdown :::

There are many ways to write content in Jupyter Book. This short section covers a few tips for how to do so.

I am going to cite a reference [HdHPK14]

Now I am going to cite section escalares Sec. Magnitudes escalares

The Schrödinger equation is Eq. (195)

I am citing the figure: Fig. 102

I can start solving like this

(253)¶\[x=-2\pi\]

Some text needs to go between sidebars

(254)¶\[y=-log(e)\]

And at the end