p-n junction

This method created a p-n junction with only one wire.

The diode is a device made from a single p-n junction.

This is the situation in p-n junctions, for instance.

The next step was to find a way to create a p-n junction, one of the simplest electronic devices.

However, the mechanism by which such p-n junctions may be formed was not explained.

This forms a p-n junction a few hundred nanometers below the surface.

They have a lower forward voltage drop than p-n junction diodes.

An example is the p-n junction diode (curve at right).

The boundary between these two regions, called a p-n junction, is where the action of the diode takes place.

He says this method was used to "make complex p-n junction shapes for special transistors".

As in p-n junctions, the governing principle here is charge neutrality.

This is equivalent to an array of p-n junctions.

To create p-n junctions requires tremendous amounts of processing, that is, energy and human intervention.

These cells use multiple p-n junctions, each one tuned to a particular frequency of the spectrum.

The basic building blocks of computers made from crystalline silicon are p-n junctions.

The p-n junction possesses some interesting properties which have useful applications in modern electronics.

A depletion region forms instantaneously across a p-n junction.

In this case the net current is leftward in the figure of the p-n junction.

The most commonly used are Schottky diodes or p-n junctions.

Any p-n junction, if illuminated, is potentially a photodiode.

In this process, all the p-n junctions were covered by a protective layer, which should significantly improve reliability.

This is likely due to the use of highly temperature sensitive p-n junctions to provide the high currents needed for programming.

After p-n junctions were built with nanowires, the next logical step was to build logic gates.

The two common methods are p-n junction isolation and dielectric isolation.

A p-n junction diode is made of a crystal of semiconductor.