BZV85-C43,113 Discrete Semiconductor Products

A Zener diode is a semiconductor device that has two sections -- an N-type and a P-type semiconductor -- sandwiched together. In normal diodes, an electric field applied to one section makes it conductive, while the other section remains inactive. But in Zener diodes, the electric field is used to form a path between both sections and make them both conductive. The capacity of the current in a Zener diode depends on the type of material used to create it.

The BZV85-C43,113 is a type of Zener diode designed for low voltage, low power applications. It is a single Zener diode with a typical Zener voltage of 3.3V and a maximum power dissipation of 300mW. The diode has a breakdown voltage of 3.3V with 5% tolerance and operates at a temperature range of -55 to +125 °C.

The BZV85-C43,113 is widely used in systems that require reliable voltage flow in order to control and regulate the current. This type of Zener diode is also used in voltage regulation or power conditioning circuits in order to stabilize the output voltage of a power supply or battery. By using a Zener diode, the voltage can be regulated by controlling the current in the circuit.

In general, the working principle of a Zener diode is based on the avalanche breakdown effect. This effect is created through an electric field between the P-type and N-type semiconductors which causes electrons to be accelerated to the point where impact ionization takes place. The energy created by the impact ionization process is then released as heat, light, and electricity. This energy is then used to regulate the voltage and control the current of the circuit, thus allowing the BZV85-C43,113 to act as a voltage regulator.

In conclusion, the BZV85-C43,113 is a type of Zener diode which can be used in low voltage and low power applications. It is typically used to regulate the voltage in power conditioning or voltage regulation circuits. The working principle of the diode is based on the avalanche breakdown effect, which occurs through an electric field between the P-type and N-type semiconductor. This effect creates energy which is then released as heat, light, and electricity, allowing the diode to act as a voltage regulator.