When signal integrity at high frequencies is paramount, standard flex materials reach their limits. Rogers Corporation's advanced laminates and similar high-frequency materials provide the low loss, tight dielectric tolerance, and stable properties needed for RF, microwave, and high-speed digital applications.
These specialized materials offer dielectric constants (Dk) ranging from 2.2 to 10.2 with tight tolerances, enabling precise impedance control at frequencies from DC to 77 GHz and beyond. Loss tangent (Df) values as low as 0.0009 minimize signal attenuation critical for sensitive receiver front ends and long transmission lines.
Our high-frequency flex capability combines these premium materials with the manufacturing precision needed to realize their potential. Tight impedance control, fine features, and careful attention to transitions and interfaces deliver flex circuits that perform to specification in demanding RF environments.
Loss tangent as low as 0.0009 minimizes signal attenuation. Critical for receiver sensitivity and long transmission lines in radar and satellite systems.
Dielectric constant controlled to ±0.04 or better enables precise impedance control. Consistent lot-to-lot performance for production repeatability.
Validated performance to 77 GHz and beyond for 5G mmWave, automotive radar, and satellite Ku/Ka band applications.
Stable properties across temperature ensure consistent performance from cold start to full operation. Critical for outdoor and aerospace applications.
We work with the full range of high-frequency materials to match your application requirements.
Ceramic-filled hydrocarbon offering good RF performance with standard FR4 processing. Dk 3.38-3.66 with cost-effective manufacturing. Good choice for sub-6 GHz applications.
PTFE-based ceramic-filled laminates for higher frequencies. Dk 3.0-10.2 range with excellent Df. Used for antenna elements and high-frequency filters.
Premium PTFE-based materials for the most demanding RF applications. Dk 2.2-10.5 with lowest loss. Industry standard for microwave and mmWave.
Alternative high-frequency materials from Taconic, Isola, and other suppliers. We select based on your requirements and help balance performance with cost.
Combining Rogers with polyimide enables both RF performance and flexibility. Selective placement of high-frequency material where needed minimizes cost.
High-frequency flex circuits serve critical applications across telecommunications and aerospace.
Base station antenna arrays, small cells, and beamforming networks use Rogers flex for consistent RF performance across frequency bands.
28 GHz and 39 GHz 5G, automotive radar at 77 GHz, and imaging systems at 60 GHz all require the low-loss performance of premium materials.
Ku, K, and Ka band systems for SATCOM terminals and payloads use Rogers flex for antenna feeds and RF distribution.
Airborne and shipborne radar systems rely on Rogers flex for reliable RF performance in demanding environments.
Network analyzers, signal generators, and other precision instruments use Rogers flex for calibrated RF paths.
25+ Gbps serial links and advanced memory interfaces benefit from Rogers' controlled impedance and low loss.

Designing with high-frequency flex materials requires attention to RF-specific details.
Frequency range, loss budget, and impedance requirements guide material selection. Our RF engineers help match materials to your specifications.
Controlled impedance requires precise dielectric thickness. We work with you to design stackups that meet impedance targets with appropriate materials.
Via transitions, connector interfaces, and material boundaries all impact RF performance. Careful design minimizes reflections and mode conversion.
Solid ground planes are typically required for RF performance. Flex regions require careful ground plane design to maintain shielding while allowing flexibility.
RF connector type and interface design significantly impact performance. We support designs for SMA, U.FL, MMCX, and other RF connectors.

Rogers RT/duroid based flex antenna for automotive corner radar. Integrated feed network with beam steering for parking assist and blind spot detection.

Flexible antenna feed network for flat panel satellite antenna. Rogers 3003 material for operation at 20-30 GHz with space-qualified processing.

28 GHz beamforming antenna module with Rogers flex feed network. 16-element array with integrated power distribution and beam control.
Rogers materials are validated for applications from DC to 77 GHz and beyond. Material selection depends on frequency - our RF team recommends appropriate options for your application.
Yes, though with some constraints. PTFE-based materials are inherently flexible. Ceramic-filled materials require careful design for flex regions. Hybrid constructions often provide the best solution.
Rogers materials cost 5-20x more than standard polyimide depending on the specific material. We help optimize designs to minimize high-frequency material usage where possible.
We achieve ±5% impedance tolerance on Rogers materials with appropriate design and process control. Tighter tolerances require additional process steps.
We work with test laboratories to provide S-parameter characterization when required. This is typically performed on qualification samples for critical RF designs.