NLV32T-150J-EFD Inductors, Coils, Chokes

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Fixed inductors are specialized electrical components which feature one or more coils of wire to form a conductor. Popularized in the modern age of electronics, fixed inductors find widespread usage in a variety of applications. One of the most common is the NLV32T-150J-EFD inductor, which is used in a variety of electronic equipment due to its small size, high reliability, and low cost.

The NLV32T-150J-EFD inductor is a non-polarized, surface-mount device. In an average application, it has a saturation current of 2.3A and an inductance of 1.5uH. The size of the inductor is typically 32 x 10 x 4.5mm and it features an operating temperature range between -40°C and +125°C. Although they are built to withstand high temperatures, it is important to note that prolonged exposure to temperatures above 125°C will likely reduce the performance and longevity of the device.

The primary purpose of the NLV32T-150J-EFD inductor is to store energy by creating a magnetic field around its coils. Once the field is generated, it will be maintained until the source of power is removed or the inductor reaches its maximum flux capacity. This makes it essential in circuits that use alternating current (AC) and, to a lesser extent, direct current (DC) signals. The original intention of the inductor was to protect certains components from the effects of electromagnetic interference (EMI) or radio frequency interference (RFI), such as computer or radio systems.

The working principle behind fixed inductors can be broken down into two main parts: inductance and impedance. Inductance is the ability for a coil or wire to generate a magnetic field in response to a flow of electricity. This magnetic field is measured in henrys, with the unit symbol ‘H’. Depending on the type of inductor, multiple coils can be used to ‘step up’ the inductance of the structure. Impedance is the total opposition to the flow of electricity in the form of voltage. Commonly referred to as ‘ohmic resistance’, it is denoted by the letter ‘Z’ and measured in ohms.

When an AC current is applied to the NLV32T-150J-EFD inductor, the flux creates a voltage drop proportional to the frequency and amplitude of the signal. This drop is caused by the ‘purchase’ of the units of inductance, which is converted into electrical power within the inductor’s coils. The impedance of the component also contributes to the voltage drop, resulting in a total opposition to the current’s flow. In this manner, the inductor serves as an energy filter, blocking or redirecting certain currents without dissipating them in heat.

The advantages of the NLV32T-150J-EFD inductor are its low cost, small size, and high stability under temperature fluctuations. The component has been designed to endure up to 125 degrees Celsius while still maintaining its inductive capabilities. As a result, it has become a favorite for a variety of applications. Other benefits include low radiated noise, efficient energy storage, and high-speed switching.

The NLV32T-150J-EFD inductor has become a popular choice for designs in industries where space and reliability are desired, such as military, medical, and automotive applications. In fact, it can be found in practically most electronic devices, including smartphones, tablets, laptops, and even radio systems. Specialized versions of this device can also be used in high-power applications such as turbines, windmills, and jet engines.

In conclusion, the NLV32T-150J-EFD inductor is an accessible, reliable, and efficient solution for creating alternating electronic circuits. Its small size, durability, and high performance make it the perfect choice for a wide range of applications in practically any industry. The component is often used to filter out unwanted electromagnetic noise and has become a staple of modern electronics.

The specific data is subject to PDF, and the above content is for reference