Brief: Discover the Rogers Ro4350b Single Layer High Frequency PCB, designed for superior performance in satellite communications and high-frequency applications. This PCB features low dielectric constant and minimal signal loss, making it ideal for RF and microwave ranges. Learn about its advanced material properties and manufacturing excellence.
Related Product Features:
Material: Rogers ro4350b with ENIG surface finish for enhanced durability.
Couche : Conception à 2 couches avec une épaisseur de 0,813 mm pour des performances optimales.
DK: 3.38 and low loss factor (0.0004 at 1 MHz, 0.0009 at 10 GHz) for minimal signal degradation.
High thermal conductivity (0.71w/m.k) and density (1.79gm/cm3) for reliable operation.
TG >280 and Td 420 ensure stability under high-temperature conditions.
Controlled impedance routing for consistent signal integrity in high-frequency applications.
Spécialisée dans les communications sans fil, l'aérospatiale, les systèmes radar et les dispositifs médicaux.
Available in various thicknesses and models to meet diverse industry needs.
Les questions:
Quelles sont les principales applications du PCB à haute fréquence Rogers Ro4350b?
Ce circuit imprimé est idéal pour les systèmes de communication sans fil, l'aérospatiale, les systèmes radar, la communication par satellite, les dispositifs médicaux et la transmission de données à haut débit grâce à ses performances haute fréquence et à l'intégrité du signal.
What makes the Rogers Ro4350b material suitable for high-frequency PCBs?
The Rogers Ro4350b material offers a low dielectric constant (DK: 3.38) and low dissipation factor, ensuring minimal signal loss and maintaining signal integrity at high frequencies, making it perfect for RF and microwave applications.
How does the PCB ensure signal integrity in high-frequency applications?
The PCB employs controlled impedance routing, precise trace widths, and spacing, along with proper ground plane placement and shielding techniques to minimize noise, reflections, and signal degradation, ensuring optimal performance.