Slide 1¶

To insert a mathematical formula we use the dollar symbol¶

$, as follows:

Euler’s identity: $ e^{i \pi} + 1 = 0 $

To isolate and center the formulas and enter in math display mode, we use 2 dollars symbol:

Euler’s identity: $$ e^{i \pi} + 1 = 0 $$¶

Slide 2¶

Given : $\pi = 3.14$ , $\alpha = \frac{3\pi}{4}\, rad$ $$ \omega = 2\pi f \ f = \frac{c}{\lambda}\ \lambda_0=\theta^2+\delta\ \Delta\lambda = \frac{1}{\lambda^2}

\sin(-\alpha)=-\sin(\alpha)\ \arccos(x)=\arcsin(u)\ \log_n(n)=1\ \tan(x) = \frac{\sin(x)}{\cos(x)}

$$¶

Slide 1¶

To insert a mathematical formula we use the dollar symbol¶

$, as follows:

Euler’s identity: $ e^{i pi} + 1 = 0 $

To isolate and center the formulas and enter in math display mode, we use 2 dollars symbol:

$$
…
$$

Euler’s identity: $$ e^{i pi} + 1 = 0 $$¶

Slide 2¶

$$
frac{arg 1}{arg 2}
x^2
e^{ipi}
A_i
B_{ij}
sqrt[n]{arg}
$$

Given : $pi = 3.14$ , $alpha = frac{3pi}{4}, rad$
$$
omega = 2pi f
f = frac{c}{lambda}
lambda_0=theta^2+delta
Deltalambda = frac{1}{lambda^2}

$$
—

$$

sin(-alpha)=-sin(alpha)
arccos(x)=arcsin(u)
log_n(n)=1
tan(x) = frac{sin(x)}{cos(x)}

$$¶