The 1.0mm Female to 2.4mm Female RF Adapter 1.0/2.4-KK1, also referred to as 2.4mm Female to 1.0mm Female RF Adapter 2.4/1.0-KK1, is a high-precision between-series adapter designed to enable reliable connectivity between 1.0mm and 2.4mm female interfaces in ultra-high-frequency systems. This adapter ensures accurate signal transmission in RF applications where stability, repeatability, and mechanical robustness are critical.
Engineered to operate up to 50 GHz with a standard 50 Ω impedance, this 1.0mm Female to 2.4mm Female RF Adapter supports demanding applications such as geosynchronous satellite interfaces, where high-frequency signal routing demands durable and low-loss interconnects. It is also frequently used in external interfaces for 5G radio units to ensure clean signal paths in dense urban telecom deployments. In test labs, the 1.0/2.4-KK1 adapter is a key tool for component performance evaluation, particularly for measuring insertion loss and return loss across a wide frequency range.
This adapter maintains an insertion loss of less than 0.5 dB and a VSWR below 1.2 at 50 GHz, ensuring minimal signal reflection and consistent performance across extended frequency bands. The internal structure includes a beryllium bronze inner conductor with gold plating, while the outer body is constructed from passivated stainless steel for exceptional durability and environmental resilience.
Operating effectively from -55°C to +165°C, the 1.0mm to 2.4mm female adapter is built for both precision-controlled environments and rugged field applications. Whether used in aerospace payload systems or high-density telecommunications racks, this adapter delivers repeatable results without compromise.
Fully REACH and RoHS compliant, the 1.0mm Female to 2.4mm Female RF Adapter is manufactured to meet international standards for quality and sustainability. Mechanc also provides custom variants of this adapter, tailored to your exact application requirements—whether for satellite telemetry, telecom test benches, or next-gen RF development environments.