The TSL0808RA-271KR51-PF is a multilayer ceramic inductor manufactured by TDK Corporation. This component is designed for high-frequency applications requiring stable inductance and minimal signal loss. Its compact size and robust construction make it suitable for a wide range of electronic devices.

Applications:

  
• High-frequency circuits in smartphones and other mobile devices.
  
• Wireless communication modules (e.g., Bluetooth, Wi-Fi).
  
• RF filters and impedance matching networks.
  
• Power amplifiers.
  
• Oscillators.

Features:

  
• Multilayer ceramic construction.
  
• High self-resonant frequency (SRF).
  
• Small size (0808 footprint).
  
• Excellent Q factor.
  
• Stable inductance over temperature.
  
• RoHS compliant.

Benefits:

  
• Improved signal quality in high-frequency circuits.
  
• Reduced power loss due to low DC resistance.
  
• Stable performance over a wide temperature range.
  
• Space-saving design for compact electronic devices.
  
• Reliable performance in demanding applications.

Additional Details:

The TSL0808RA-271KR51-PF has an inductance value of 270nH with a tolerance of ±10%. The rated current is around 100mA. The 0808 case size signifies its dimensions (0.08 inch x 0.08 inch). The multilayer ceramic construction provides excellent stability and minimizes parasitic effects. The high self-resonant frequency (SRF) ensures that the inductor maintains its performance at high frequencies. The component is designed to withstand reflow soldering processes, making it suitable for automated assembly. The operating temperature range typically spans from -55°C to +125°C. The TSL0808RA series of inductors is widely used in communication and signal processing applications where high performance and reliability are critical. The ‘PF’ suffix indicates that the component is lead-free and complies with RoHS standards, ensuring environmental responsibility. This inductor helps optimize circuit performance in various wireless and high-frequency applications, providing stable inductance and minimal insertion loss.