RF PCB Design Solutions: A Professional Platform Empowering High-Frequency Applications
Core Challenges and Value of High-Frequency Circuit Design
In fields such as wireless communication, ระบบเรดาร์, satellite navigation, and 5G/6G devices, RF PCB design is the core technology that determines signal integrity, power transmission efficiency, and system reliability. The primary challenges include:
High-Frequency Signal Loss Control: ผลกระทบต่อผิวหนัง, การสูญเสียอิเล็กทริก, and impedance mismatch become significant at GHz frequencies.
ความเข้ากันได้ของแม่เหล็กไฟฟ้า (EMC) การเพิ่มประสิทธิภาพ: Reducing crosstalk and radiation to meet stringent certification standards like FCC and CE.
3D Electromagnetic Field Co-Design: Addressing field distribution optimization for transmission line structures such as microstrips and coplanar waveguides.
Thermal-Mechanical-Electrical Multi-Physics Coupling: Balancing heat dissipation and mechanical stability in high-power scenarios.
As a core competency, UGPCB is committed to helping clients achieve key performance indicators such as insertion loss ≤0.3dB/inch (@28GHz), VSWR <1.5, and phase consistency of ±2° through full-process simulation verification and process innovation.
Our Professional Capability Matrix: From PCB Material Selection to Manufacturing
High-Frequency Material Selection and Characterization
ห้องสมุดวัสดุอิเล็กทริก: Covers high-frequency laminates like Rogers RO4000® series, Taconic TLY, and Isola I-Tera® MT, with dielectric constants (ดีเค) ranging from 2.2 ถึง 10.2 and loss tangents (ฟ) ต่ำสุด 0.0015.
Copper Foil Treatment: Combines ultra-low profile copper (RTF/VLP) with brown oxide treatment to achieve surface roughness Ra <0.3μm.
Hybrid Dielectric Stackup Design: Supports PTFE and FR-4 hybrid lamination for optimal performance-cost balance.
Precision Impedance Control Design
Utilizes Sonnet®/HFSS full-wave simulation for multi-impedance system co-design (50Ω/75Ω/100Ω).
Controls differential pair length tolerance within ±5mil and stripline impedance tolerance within ±5%.
Features proprietary edge compensation algorithms to eliminate microstrip edge field distortion.
3D Electromagnetic Shielding Architecture
Implements via fence shielding technology with isolation >60dB @10GHz.
Designs embedded waveguide structures to suppress surface wave propagation.
Optimizes RF-digital ground interference through localized ground plane segmentation.
To verify the rationality of the design, we also need to conduct rationality checks during the PCB design, การผลิต, and testing phases. This allows us to identify any issues promptly, ensuring that your product is manufactured safely and undergoes quality control.
Design Verification Phase
Electromagnetic Simulation: Extracts S-parameters across full frequency bands using ANSYS HFSS/CST.
Thermal Simulation: Analyzes power device thermal distribution with Flotherm®.
Reliability Verification: Conducts HALT tests (-55℃ to 150℃ cycling, 20G vibration).
Manufacturing Process Control
Utilizes laser direct imaging (LDI) technology with line width tolerance of ±8%.
Medical RF Equipment: Dual-frequency integrated designs for 13.56MHz RFID and 6.78MHz WPT.
รูปแบบบริการและการสนับสนุนทางเทคนิค
การสร้างต้นแบบอย่างรวดเร็ว: Delivers 10-layer RF board samples within 48 ชั่วโมง.
Design-Simulation-Testing Collaborative Platform: Supports design reviews in ODB++/IPC-2581 formats.
Failure Analysis Laboratory: Provides in-depth services like TDR fault location and cross-section analysis.
Industry Certification Support: Complies with ISO 9001/IATF 16949 systems and holds military-grade NADCAP accreditation.
จากแนวคิดสู่การผลิตจำนวนมาก
With over 15 years of RF design experience, a database of 200+ กรณีที่ประสบความสำเร็จ, we deliver uncompromising high-frequency solutions for your wireless systems.
Contact our expert team today for a customized design evaluation report!
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