CDPH4D19FNP-6R8MC

Fixed Inductors

Fixed inductors are a type of electronic component that allows the passage of electricity yet resists any changes to the current and voltage. They are used widely in a variety of applications such as suppressing spikes in power and filtering out frequencies in input signals. One such example is the CDPH4D19FNP-6R8MC Inductor.

CDPH4D19FNP-6R8MC Application Field and Working Principle

The CDPH4D19FNP-6R8MC Inductor is a small yet powerful inductor that is particularly suited to applications that require minimal inductance. It can be used in circuits to block or filter frequencies, protect against voltage spikes, and reduce power losses. This makes it ideal for use in electronic products such as LED drivers and motor controllers.

The CDPH4D19FNP-6R8MC Inductor works by using a metal core, surrounded by a coil of wire. This configuration creates a magnetic field that resists the passage of current. The strength of the inductance is proportional to the coiled wire, meaning a thicker wire will provide more induction.

The core material for the CDPH4D19FNP-6R8MC Inductor is ferrite. This produces a high saturation flux density, which means that it can provide a strong induction field and is not as sensitive to temperature variations. It also exhibits a low profile compared to comparable inductors, meaning the CDPH4D19FNP-6R8MC can be used in smaller and tighter spaces.

The CDPH4D19FNP-6R8MC Inductor is best used in circuits that require a low profile, consistent inductance, and excellent heat dissipation. For example, it can be used in LED drivers, switching converters, motor controllers, and other power supply applications. This makes the CDPH4D19FNP-6R8MC a great choice for applications where power efficiency and low profile are key.

The CDPH4D19FNP-6R8MC Inductor is a great choice for electronic circuits that require a reliable inductor with a low profile and great performance. It is well suited for LED drivers, motor controllers, and other power supply applications due to its high saturation flux density and excellent heat dissipation. Furthermore, its low profile and consistent inductance make it a great choice for use in tight spaces.