The LQW04AN3N6C00D1X is a high-frequency wire wound inductor from Murata Electronics. It's part of the LQW series, known for its small size and excellent high-frequency characteristics. This inductor is designed for use in various high-frequency applications, particularly in impedance matching and high-frequency circuits.
Applications:
- High-frequency circuits
- Mobile communication devices (smartphones, tablets)
- Wireless communication modules (Bluetooth, Wi-Fi)
- RF impedance matching
- Small radio applications
Features:
- Small Size: Compact 0402 (1005) package size (1.0 x 0.5 x 0.5mm) allows for high-density mounting.
- High Q Value: Offers a high Q value at high frequencies, minimizing energy loss and improving circuit efficiency.
- Tight Tolerance: Provides a tight inductance tolerance, ensuring consistent performance in critical applications.
- Excellent SRF (Self-Resonant Frequency): High SRF minimizes unwanted resonance effects at high frequencies.
- RoHS Compliant: Meets RoHS environmental standards, making it suitable for environmentally conscious applications.
- Wire Wound Construction: Offers superior performance compared to multilayer inductors in high-frequency applications.
Benefits:
- Improved Circuit Performance: High Q and tight tolerance enhance the overall performance and stability of the circuit.
- Reduced Power Consumption: High Q value minimizes energy loss, resulting in lower power consumption in battery-powered devices.
- Miniaturization: Small size enables the design of smaller and more compact electronic devices.
- Stable Inductance: Maintains stable inductance value over a wide temperature range.
- Reliable Operation: Designed for reliable operation in demanding high-frequency environments.
Specifications:
The LQW04AN3N6C00D1X has an inductance value of 3.6 nH. It features a high self-resonant frequency and a high Q value. The operating temperature range is typically between -55°C to +125°C. The component is constructed with a ceramic core and enameled copper wire, providing excellent electrical and mechanical properties.