LCB Series: High-Current Multilayer Chip Beads for EMI Suppression

Professional-grade large current chip inductors designed for power line filtering, noise immunity, and reliable performance in compact electronic layouts.

Large Current Multilayer Chip Beads (LCB Type)

Large Current Multilayer Chip Beads (LCB Type)

LCB Type

LCB Series High-Current Chip Beads are designed for EMI suppression in power lines, providing low DC resistance and excellent high-current handling. They improve system stability and boost noise immunity while keeping power loss.
With strong performance and versatile design, the LCB Series is an ideal choice for various applications: compact layouts in miniaturized electronics, efficient filtering in consumer and computer systems, and durable power line protection in I/O interfaces and high-power industrial equipment. Even in space-constrained environments with high current demands, the LCB Series offers a reliable EMI solution.


Features
  • Low DCR, small package.
  • High current handling capacity.
  • Nickel barrier terminations provide excellent solder heat resistance.
  • Suitable for flow and reflow soldering and high current applications.
Applications
  • I/O interfaces.
  • Computer motherboards.
  • Various categories of consumer electronics.

Please click below link to download files
Large Current Multilayer Chip Beads (LCB Type)

Large Current Multilayer Chip Beads (LCB Type)

  • Display:
Result 1 - 5 of 5
Large Current Multilayer Chip Beads - LCB1608 - Large Current Multilayer Chip Beads
Large Current Multilayer Chip Beads - LCB1608
LCB1608 (0603)

LCB1608 delivers ultra‑compact, low‑DCR EMI suppression with high‑current capacity, ideal...

Details
Large Current Multilayer Chip Beads - LCB2012 - Large Current Multilayer Chip Beads
Large Current Multilayer Chip Beads - LCB2012
LCB2012 (0805)

LCB2012 offers efficient power line noise filtering with excellent heat resistance, ensuring...

Details
Large Current Multilayer Chip Beads - LCB3216 - Large Current Multilayer Chip Beads
Large Current Multilayer Chip Beads - LCB3216
LCB3216 (1206)

LCB3216 provides strong EMI attenuation and reliable current handling, enhancing signal integrity...

Details
Large Current Multilayer Chip Beads - LCB4516 - Large Current Multilayer Chip Beads
Large Current Multilayer Chip Beads - LCB4516
LCB4516 (1806)

LCB4516 ensures robust noise suppression for heavy‑load circuits, supporting stable operation...

Details
Large Current Multilayer Chip Beads - LCB4532 - Large Current Multilayer Chip Beads
Large Current Multilayer Chip Beads - LCB4532
LCB4532 (1812)

LCB4532 delivers large‑capacity EMI filtering with low power loss, boosting durability and EMC compliance...

Details
Result 1 - 5 of 5

Products

Product List

Customized inductor, choke, coil, and ferrite core.

How can you reduce EMI noise and power loss simultaneously in compact motherboard designs without compromising on current capacity?

Core Master's LCB Series chip beads are specifically engineered for motherboard applications, combining low DC resistance with superior high-current handling in a small package. The nickel barrier terminations ensure excellent solder heat resistance during reflow processes, enabling reliable performance in dense PCB layouts. Our 40 years of expertise ensures proven reliability in demanding computing environments. Request a technical consultation to optimize your motherboard's power distribution and EMI suppression strategy.

Backed by Core Master's 40 years of specialized expertise in passive component manufacturing, the LCB Series undergoes rigorous quality control and carries RoHS certification with SGS quality reports. The small package design combined with high current capacity makes these multilayer chip beads the preferred choice for computer motherboards, I/O interfaces, and consumer electronics where compact layouts demand maximum performance. Contact Core Master's professional engineering team today to discuss customized solutions tailored to your specific power management and EMI suppression requirements.