rogers pcb

Rogers PCB Electromagnetic Compatibility

The stability of the dielectric constant (Dk) is central to the electromagnetic compatibility (EMC) of Rogers PCBs and represents the most significant distinction between them and standard FR-4 PCBs. Many

fpc

Methods for controlling FPC impedance

The impedance of an FPC (flexible printed circuit) refers to the electrical resistance encountered by a signal as it travels along the circuit; it is a key indicator of signal

fpc

Factors affecting FPC pricing

FPC quotations are influenced by a combination of four key factors: materials, structural design, manufacturing requirements and order volume. Any variation in the selection or specifications of these elements will

coverlay

The protective role of coverlay​ on FPCs

The coverlay serves as the core flexible insulating protective layer for FPCs. Consisting of a PI film substrate combined with a specialised adhesive layer, it provides insulation, reinforcement and coverlay

rogers pcb

Rogers PCB Transmission Line Selection

In high-frequency circuit design, Rogers PCBs have long been recognised as the industry standard thanks to their outstanding performance. With their stable dielectric properties and low-loss characteristics, they are virtually

Rogers hybrid laminates

Design of the Rogers hybrid laminates

Rogers material is the material of choice for high-frequency applications due to its excellent dielectric properties, but its high cost limits its widespread use; FR4 material offers outstanding value for

fpc antenna

A Comparison of PCB Antennas and FPC Antennas

The choice of antenna directly impacts a device’s communication performance and structural design. This article compares the key differences between PCB antennas and FPC antennas across four dimensions—structure and materials,

ptfe pcb

Micro-perforation process for PTFE substrates

PTFE substrates have become a key material in high-frequency, high-speed PCB applications such as 5G communications and millimetre-wave radar, owing to their extremely low dielectric constant and dielectric loss. Micro-drilling

ptfe pcb

PTFE PCB high-frequency routing

Unlike traditional substrates such as FR-4, PTFE PCBs have a dielectric constant (Dk) that remains stable between 2.0 and 2.6, with a dielectric loss factor (Df) as low as 0.0005–0.002.

4 layer boards

Impedance Control in 4 Layer Boards

The impedance stability of high frequency 4 layer board is a key factor determining the quality of signal transmission in electronic devices. Solder mask application and surface treatment, as core

2 layer pcb

A comparison of 2 layer pcb and 4 layer board

In the design and manufacture of printed circuit boards, the choice of layer count is never merely a numbers game—it directly affects the circuit’s electrical performance, immunity to interference and

circuit board

Repairing broken PCB circuit board traces

In the PCB manufacturing industry, broken circuit board traces are a recurring challenge at every stage, from production and testing through to transport and subsequent use. The causes are varied—they

high frequency pcb

High frequency PCB via optimisation

The success or failure of signal transmission in high frequency PCBs is often determined by details imperceptible to the naked eye. Via holes, serving as the core conduits for interconnecting

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