Pulse Train Calculator

This calculator will help you calcaulate the vairous properties of an optical pulse train.

Input

Pulse Duration, $T$:

Repetition rate, $f$:

MHz

Average Power, $P_{ave}$:

Spot Diameter:

Output

Duty Cycle, $D$:

Pusle Energy:

μJ

Peak Power$^2$, P$_{peak}$:

Pulse separation:

μs

Average Intensity:

W/cm$^2$

Peak Intensity:

kW/cm$^2$

Duty cycle

The formula that will be used to find Duty Cycle is as followed:

$D$ = $T.f$

Duty Cycle, $D$;

Pulse Duration, $T$; Repetition Rate, $f$;

Pulse Energy

The formula that will be used to find Pulse Energy is as followed:

$E_{pulse}$ = $\frac{P_{avg}}{f}$

Pulse Energy, $E_{pulse}$

Average Power, $P_{ave}$; Repetition Rate, $f$;

Peak Power

The formula that will be used to find Peak Power is as followed:

$P_{peak}$ = $\frac{E_{pulse}}{T}$

Peak Power$^2$, P$_{peak}$;

Pulse Energy, $E_{pulse}$; Pulse Duration, $T$;

Pulse Separation

The formula that will be used to find Pulse Separation is as followed:

$\triangle T$ = $\frac{1}{f}$

Pulse separation, $\triangle T$;

Repetition Rate, $f$;

Average_intensity

The formula that will be used to find Average Intensity is as followed:

${Area}$ = $\pi (\frac{d}{2})^2$

Intensity$_{avg}$ = $\frac{P_{ave}}{Area}$

Average Intensity, Intensity$_{avg}$; Area;

Spot Diameter, $d$; Average Power, $P_{ave}$;

Peak Intensity

The formula that will be used to find Peak Intensity is as followed:

${Area}$ = $\pi (\frac{d}{2})^2$

Intensity$_{peak}$ = $\frac{P_{peak}}{Area}$

Peak Intensity, Intensity$_{peak}$; Area;

Spot Diameter, $d$; Peak Power$^2$, P$_{peak}$;