MLG0603P11NJTD25

DC Resistance (DCR):	1 Ohm Max
Height - Seated (Max):	0.013" (0.33mm)
Size / Dimension:	0.024" L x 0.012" W (0.60mm x 0.30mm)
Supplier Device Package:	0201 (0603 Metric)
Package / Case:	0201 (0603 Metric)
Mounting Type:	Surface Mount
Inductance Frequency - Test:	500MHz
Operating Temperature:	-55°C ~ 125°C
Ratings:	AEC-Q200
Frequency - Self Resonant:	3.5GHz
Q @ Freq:	14 @ 500MHz
Series:	MLG-P
Shielding:	Unshielded
Current - Saturation:	--
Current Rating:	250mA
Tolerance:	±5%
Inductance:	11nH
Material - Core:	Non-Magnetic
Type:	Multilayer
Part Status:	Active
Packaging:	Tape & Reel (TR)

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Fixed Inductors have been used in a diverse range of applications for many decades. With advances in technology, these inductors are becoming more efficient, heightened in power, and are more affordable for a variety of utilization needs. One particular fixed inductor used in a range of scenarios is the MLG0603P11NJTD25. This inductor is most often used in power electronics, especially within automotive, telecom, and industrial applications. To discuss the MLG0603P11NJTD25 and its use, it is important to start by examining its basic design. This component is an SMD type inductor, possessing a lead-free termination or "matte tin". This inductor has a 9.8nH inductance and it\'s usable up to 1 MHZ. It has a 2.2 A current carrying capacity and tolerances of up to 10%. Additionally, the MLG0603P11NJTD25 has a max operating temperature of 100 degrees C and a storage temperature range of -40 to +125 degrees C. The two-terminal style of this component means it must be mounted on a printed circuit board, enabling ease of installation.One primary area of usage for the MLG0603P11NJTD25 is in automotive electronics. It can be used in power electronics, automotive audio systems, and can even be used in engine control and management. Its reliance on two-terminal mounting makes it ideal for use in vehicles, where size and space is often a key concern. Additionally, its high power capability can allow for higher power draws from the vehicle’s systems. Telecoms also make use of the MLG0603P11NJTD25 inductor. This can include cell phone base stations or even communication satellites. Here, its resistance to the elements is highly advantageous; the component must remain reliable throughout any conditions. Its high power capacity and wide tolerance make it ideal for maintaining signal transmission and reception. The MLG0603P11NJTD25 can also be found in industrial applications. Its high power capacity and its tight tolerances make it well-suited for use in power electronics, such as power supply control modules or frequency generators. It can also be used to support low-voltage shock protection, allowing for more diverse industrial usage.Whether in automotive, telecom, or industrial usage, the MLG0603P11NJTD25 is a durable, dependable Fixed Inductor. Its variety of design features, combined with its wide range of usage environments, makes it a capable component for a variety of power electronics needs. The MLG0603P11NJTD25 is a fixed inductor, meaning it is designed to provide a set level or range of inductance. The core of the inductor is wrapped with a coil of wire; the more turns in the coil, the greater the inductance. Additionally, the material the inductor is made out of also contributes to its inductance. In the case of the MLG0603P11NJTD25, the material used allows for a wide inductance range. The MLG0603P11NJTD25 must be connected to a source of current, with one terminal (often the Cathode) being the source, and one terminal (Anode) being the ground. When the source current reaches the inductor, a magnetic field is formed as it’s exposed to the flux lines. The number of coils determines the magnitude of the flux line created, and the material used to construct the inductor will also affect the magnitude of the field. When alternating current is applied, an energy-transferring loop is established and the changing current creates a self-induced voltage. This voltage is called forward voltage and is also referred to as Voltage E, signifying the voltage across the inductor. When the current is cut off, the inductor produces an opposite voltage, the Back EMF, or Voltage N, of the inductor, signifying the voltage across the inductor in the opposite direction. The magnitude of the result depends on the number of flux lines the flux field is exposed too. The greater the number of flux lines, the greater the Voltage E. Overall, the MLG0603P11NJTD25 is an efficient, reliable Fixed Inductor, capable of handling high-powered, low-resistance electrical current. Its solid construction and two-terminal mounting enable it to be used in automotive, telecom, and industrial applications, making it a dependable component for a variety of applications.

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