CLF6045T-4R7N-CA

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Fixed inductors are a type of passive, two-terminal electric component, which stores electrical energy in the form of a magnetic field. Usually used to block direct current (DC) and low-frequency alternating current (AC) while allowing high-frequency alternating current to pass through them. The CLF6045T-4R7N-CA is a specific type of fixed inductor that is used in a variety of applications.

The CLF6045T-4R7N-CA is a surface mount inductor made of copper wire that is wound onto a ferrite core with a rated inductance of 4.7uH. Due to its small size, the inductor is perfect for space-constrained designs and has a high current rating of 2.4A, an operating temperature ranging from -25℃ to +125℃, and can be used up to an operating frequency of 200kHz, making it suitable for a range of design requirements.

The CLF6045T-4R7N-CA is primarily used in amplifier filters, low-pass filters, and radio frequency (RF) or high-frequency circuits, as well as bead cores used in data processing applications. It is often used in frequency converters, modulators, and other radioelectronic equipment. The high Q-factor of this inductor allows for more efficient and stable performance.

The working principle of the CLF6045T-4R7N-CA is based on Faraday’s Law of Induction, which states that the voltage induced in a conductor is proportional to the rate of change of the magnetic field. When current flows through the coil windings of the inductor, a magnetic field is created that changes as the current increases or decreases. This changing magnetic field induces a voltage in the inductor, which makes up the impedance of the inductor. The higher the voltage, the greater the impedance, which determines the most suitable application for the inductor.

In summary, the CLF6045T-4R7N-CA is a type of fixed inductor used in a variety of applications including amplifier filters, low-pass filters, and RF circuits, as well as in bead cores used in data processing applications. It has a high current rating, a wide operating temperature range, and a high Q-factor which allows for more efficient and stable performance. The working principle of the inductor is based on Faraday’s Law of Induction, as a changing magnetic field induces a voltage which determines the impedance of the inductor.

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