laser diode

The reliability of a laser diode can make or break a product line.

Laser diodes are also used for better resolution and precision.

Uses of laser diodes can be categorized in various ways.

The blue laser diodes became openly available around 2010.

The simple laser diode structure, described above, is extremely inefficient.

Eight laser diodes provide light for the system.

These are generally based on a laser diode with a built-in photodetector.

Many commercial lasers use a laser diode as a seeding source.

The pointer is nothing more than a battery-powered laser diode.

Most laser diodes used in communication systems fall in that category.

Direct gap materials benefit the operation of semiconductor laser diodes.

It has use in high power, high frequency applications, such as laser diodes.

But green laser diodes are not readily available.

In an enclosed space below each is a laser diode and a photo transistor detector.

This is used to make a round beam from the elliptical output of a laser diode.

They have been largely replaced by laser diodes.

Relatively short life of the laser diodes (average of about 2 years depending on usage).

Following protracted development, blue laser diodes operating at 405 nanometers became available on a production basis.

The gain term, G, cannot be independent of the high power densities found in semiconductor laser diodes.

The wavelength and energy of the laser diodes depend on the type of plate that is used.

Laser diodes are created by laying down remarkably thin layers of semiconducting materials.

Materials are frequently produced with a specific bandgaps for use in applications such as laser diodes and solar cells.

Laser diodes are also frequently used to optically pump other lasers with high efficiency.

Quantum dot lasers are cheaper and offer a higher beam quality than conventional laser diodes.

Players take turns moving Egyptian-themed pieces around the playing field, firing their low-powered laser diode after each move.