Layered magnetic, semiconductive, and conductive shielding with PCB capacitors cuts conducted and radiated EMI while protecting cable insulation.
Segmented four-group coil winding lowers end resistance in a magnetic module, enabling effective high-frequency signal transfer up to 25 Gbps.
Repeater-equipped contact wafers shorten high-speed data paths to restore degraded signals while managing heat inside dense connector assemblies.
A dual-path socket switches conventional loads through an isolator and smart plugs directly to the grid, preserving domestic PLC quality.
Combining a transformer, common mode choke, and TVS in one PoE module cuts volume and simplifies Ethernet surge and EMI protection.
A protection device between cable shielding and rear connection preserves low-level sensor signals while maintaining high-frequency EMI continuity.
Filtering units mounted on a carrier PCB suppress connector-pin noise while freeing motherboard area and reducing assembly cost.
A coiled conducting wire acts as both a spring and inductor, absorbing vibration while filtering electrical noise in board-to-wire connections.
Bent differential pair terminals replace the backplane to shorten PCB signal links, improve airflow, and support faster data transmission.
By moving surge and EMC protection into the plug PCB, IoT devices can use hybrid single pair Ethernet cables beyond 30 m with less onboard complexity.
An elastic terminal and dielectric bush make cavity filters slimmer to mount while keeping RF frequency characteristics stable under tolerance, vibration, and heat.
Offset biorthogonal windings on transformer and choke cores cut EMI and crosstalk in network ports while improving common mode noise rejection.
A vertical terminal and protruding assembly unit slim the cavity filter, avoid PCB interference, and keep frequency characteristics uniform.
Merges transformer and common mode filter windings on one magnetic core to resolve the trade-off between noise filtering effectiveness and device volume.