Contents

Energía cinética

(208)\[T=\frac{1}{2}mv^2\]
(209)\[\Delta T=W\]
../../_images/work_energy_example.png

Fig. 106 We can use the work-energy theorem to avoid working with vectors in inclined planes. The variation of kinetic energy is directly related to the work carried out by the weight.

../../_images/planos_inclinados.png

Fig. 107 The variation of kinetic energy is directly related to the work carried out by the weight.

Magnitudes escalares

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

If the equation is by itself,

(210)\[-i\hbar\psi=\hat{h}\psi\]

I am going to add a figure

2_mecanica/trabajo_energia/../img/logo/logo_fisica.png

Fig. 108 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 :::

Magnitudes vectoriales

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

Unidades

Problemas y ejemplos resueltos

  • This is the text of a problem

I can start solving like this

My sidebar title

We start the problem

(211)\[x=-2\pi\]

Some text needs to go between sidebars

My sidebar title

We continue here

(212)\[y=-log(e)\]

And at the end

  • This is the text of another problem

Bibliografía

Teorema trabajo y energía Energía potencial