P1170.823NLT

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Fixed inductors are components used to store energy in an electrical system. They are essentially coiled wires within a coil and can be used in low-power applications such as the control of electrical signals. P1170.823NLT is one type of such inductor. It has a maximum DC current rating of 1.0 A (AC current up to 250 mA) and a maximum inductance of 700 μH.

P1170.823NLT is suitable for use in various applications. It is particularly well-suited for power line filter circuits, DC/DC converter circuits, mobile phone circuits, and motor drive circuits. It can also be used as an RF choke in telecommunications systems. As the inductor provides a low impedance path for AC signals but blocks DC signals, it is ideal for such applications.

The working principle underlying the P1170.823NLT is based on the physical properties of the inductor. An inductor is a passive two-terminal electrical component that stores energy in a magnetic field. This is because when an electrical current flows through the inductor, a magnetic field is created. This field creates an opposing force that is proportional to the current flowing through the device. Thus, the inductor resists a change in current, and the resulting change in voltage is what is known as “inductance”. This is the principle behind the P1170.823NLT.

P1170.823NLT also has a great advantage over other types of inductors. It is very compact, measuring in at just 1.15 mm in length. This means it can be used in very tiny spaces, thus saving on cost and board space. The inductor is also very accurate, with an accuracy of up to ¼ of a percent. This makes it ideal for precision applications, such as in test equipment or high-end electronics.

In summary, the P1170.823NLT is a compact, accurate, and cost-effective inductor. It is ideal for power line filter circuits, DC/DC converter circuits, mobile phone circuits, motor drive circuits, and RF chokes in telecommunications systems. The working principle of this inductor is based on the physical properties of the inductor, such as magnetic fields created by electric current. The device is able to resist changes in current, thus providing one of the most reliable inductors on the market today.

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