4726-150

Fixed inductors are electrical components used to store energy in a magnetic field, and can come in various shapes and sizes depending on their application. The 4726-150 is a fixed inductor that is well-suited for industrial control systems, switch-mode power supplies, and line filters. It is a flat-pack series of inductors commonly used in many industries, boasting superior high temperature moisture and shock resistance.

The 4726-150 has a wide range of uses, particularly in high-precision and high-power applications in electronics to store energy in very high quantity. It consists of a magnetic core made from either ferrite or powdered iron, allows it to carry a large current while still remaining within a small size and shape.

The 4726-150 is a relatively efficient atom containing little to no electrical loss. This efficiency is due to its unique construction, consisting of a non-magnetic metallic casing, a single turn or a few multiple turns of insulated copper wire, and a ferrite or powdered iron core. This combination of components helps create a strong magnetic field, capable of storing significant amounts of energy within a small package.

The 4726-150 offers high current carrying capacity, up to 10A, and can handle higher frequency applications. Its magnetic field is generated due to the core, which is fluxed through its wire windings, allowing inductances levels between 0.3uH to 11uH.

The 4726-150 is a single-ended inductor featuring a wide operating temperature range between -40 to +125°C and is available to customers in various sizes, however can easily become physically hot to the touch under heavy loads. Furthermore, its housing is made of plastic that helps dampen noise and dissipate heat.

In summary, the 4726-150 is a versatile component used in many industries that can be applied to many different types of circuits, such as power supplies, line filters, and industrial applications. Its non-magnetic metallic casing, high current carrying capacity, and large magnetizable core allow it to reach high inductance levels within a small size, all while remaining highly efficient and reliable.