Name | CAS number | Description | Inquiry |
---|---|---|---|
Ceramic Filled PTFE-NF-30 | Inquiry | ||
NF-30 copper-clad, non-reinforced laminates are composed of ceramic-filled PTFE composites. This technology provides low dielectric loss and minimal signal distortion, making it ideal for microwave applications. NF-30 performs consistently across a broad range of frequencies, particularly between 77 and 79 GHz. | |||
Ceramic Filled PTFE-RF-10 | Inquiry | ||
RF-10 copper clad laminates consist of ceramic-filled PTFE combined with woven fiberglass. RF-10 benefits from a high dielectric constant and a low dissipation factor. The use of thin woven fiberglass reinforcement provides low dielectric loss, enhanced rigidity for easier handling, and better dimensional stability, making it suitable for multilayer circuits. | |||
Ceramic Filled PTFE-RF-30A | Inquiry | ||
RF-30A, is an organic-ceramic laminate reinforced with woven glass. Developed from specialized knowledge in ceramic fillers and PTFE coatings, RF-30A is the ideal option for affordable, large-scale commercial microwave and radio frequency uses. | |||
Ceramic Filled PTFE-RF-35HTC | Inquiry | ||
RF-35HTC is a top-performing, low-loss, thermally conductive laminate without reinforcement. With a thermal conductivity of 1.84 W/m*K, it is ideal for high-power applications such as amplifiers, couplers, dividers, and filters. This material is a ceramic/PTFE composite with minimal PTFE content. Its exceptionally low loss of 0.0007 at 10 GHz makes it especially appealing for high-power use. | |||
Ceramic Filled PTFE-RF-35TC | Inquiry | ||
The RF-35TC material is renowned for its exceptional low dissipation factor and excellent thermal conductivity, making it ideal for high-power applications where even minor losses, such as every 0.1 dB, are significant. It serves effectively as a printed wiring board (PWB) substrate, efficiently dissipating heat from transmission lines and surface-mounted components like transistors or capacitors. Composed of a PTFE-based, ceramic-filled fiberglass substrate, RF-35TC does not oxidize, yellow, or exhibit an increase in dielectric constant and dissipation factor, unlike synthetic rubber (hydrocarbon) alternatives. | |||
Ceramic Filled PTFE-RF-35TC-A | Inquiry | ||
RF-35TC-A laminates feature a woven fiberglass fabric matrix coated with PTFE filled with ceramic. This unique ceramic composition allows RF-35TC-A to maintain a low dissipation factor while also offering high thermal conductivity. Unlike its synthetic rubber (hydrocarbon) counterparts, it does not oxidize, yellow, or exhibit increases in dielectric constant and dissipation factor. RF-35TC-A is ideal for high power applications. | |||
Ceramic Filled PTFE-RF-60TC | Inquiry | ||
RF-60TC is a fiberglass substrate made of PTFE and ceramic, specifically engineered for high-power RF and microwave applications. It is optimized to reduce operating temperatures in high-power settings and enhance the performance and efficiency of compact antennas in the 6.15 DK market. This is achieved through improved dissipation of dielectric heat and extremely low dielectric losses. | |||
Ceramic Filled PTFE-TLF-35A | Inquiry | ||
TLF-35A is an organic-ceramic laminate part. It is ideal for cost-effective, large-scale microwave and radio frequency applications. The advanced version of TLF-35A features excellent peel strength for both ½ ounce and 1 ounce copper and is engineered for outstanding high-frequency performance. It retains the same electrical properties as TLF-35A but offers more precise DK tolerance. | |||
Ceramic Filled PTFE-TLY-5Z | Inquiry | ||
TLY-5Z laminates are cutting-edge glass-filled PTFE composites reinforced with woven fiberglass. Designed for low-density applications like aerospace, they meet strict weight requirements, leading to a dimensionally stable material that non-reinforced PTFE cannot achieve. This low-density design also ensures minimal Z axis expansion, a feature uncommon in PTFE-rich composites. Compared to traditional low dielectric PTFE composites, TLY-5Z offers significantly greater thermal stability concerning Z axis expansion-induced stress on plated through holes. | |||
Ceramic Filled PTFE-TSM-DS3 | Inquiry | ||
TSM-DS3 is a thermally stable, low-loss core (DF = 0.0011 at 10 GHz) renowned in the industry. It can be produced with the same reliability and consistency as top-quality fiberglass-reinforced epoxies. As a ceramic-filled reinforced material, TSM-DS3 contains minimal fiberglass content (around 5%) and competes with epoxies in creating large, complex multilayer structures. It was developed for high-power uses (with a thermal conductivity of 0.65 W/m*K) where it's crucial for the dielectric material to dissipate heat from other sources in printed wiring board designs. Additionally, TSM-DS3 features very low thermal expansion coefficients, making it suitable for challenging thermal cycling conditions. | |||
Ceramic Filled PTFE-TSM-DS3b | Inquiry | ||
TSM-DS3b is an industry-leading, thermally stable core known for its low loss (DF = 0.0011 at 10 GHz) and can be produced with the reliability and consistency of top-tier fiberglass-reinforced epoxies. This material is ceramic-filled and reinforced with minimal fiberglass content (approximately 5%), making it comparable to epoxies for the production of large, complex multilayer structures. Designed for high-power applications, TSM-DS3b efficiently conducts heat away from heat sources in printed wiring board (PWB) designs due to its thermal conductivity (TC: 0.65 W/m*K). Additionally, TSM-DS3b features very low thermal expansion coefficients, making it ideal for challenging thermal cycling conditions. | |||
Ceramic Filled PTFE-TSM-DS3M | Inquiry | ||
TSM-DS3M is an industry-leading, thermally stable core with low loss (DF = 0.0011 at 10 GHz) that offers the same predictability and consistency in production as top fiberglass-reinforced epoxies. This ceramic-filled material is reinforced with minimal fiberglass content (around 5%) and competes with epoxies for creating large, complex multilayer structures. Designed for high-power applications, TSM-DS3M efficiently conducts heat away from other sources in PWB designs (TC: 0.65 W/m*K). It also features very low thermal expansion coefficients, making it suitable for rigorous thermal cycling demands. |
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