Flexible ribbon cables are designed for applications requiring tight bending and space efficiency, such as aerospace and defense systems. These cables offer reliable electrical performance while remaining compact, making them ideal for complex installations where space constraints and flexibility are crucial.
High-temperature cables are engineered to operate in extreme heat environments commonly found in aerospace, defense, and industrial applications. These cables maintain their electrical performance and integrity at temperatures beyond the limits of standard cables, ensuring reliable power and signal transmission in engines, avionics, and military vehicles.
Hypersonic cables are built to endure the intense heat and mechanical stress associated with hypersonic flight. These cables are designed for cutting-edge aerospace and defense applications, where temperatures exceed 2,500°F, ensuring high-performance signal and power delivery in extreme conditions.
Subsea cables are designed to operate in harsh underwater conditions. With a focus on high durability, pressure resistance, and corrosion protection, these cables are ideal for communication, power transmission, and sensor systems used in offshore and subsea applications.
RF cables are engineered for high-frequency applications, ensuring optimal signal integrity in military, aerospace, and communications systems. These cables are designed to minimize signal loss and maintain high performance over a wide range of frequencies, making them essential in radar, satellite, and communication systems.
Short run bulk cable is ideal for prototyping, small-volume production, or custom cable assembly applications. Available in various gauges and configurations, this cable provides the flexibility needed for specific interconnect solutions across a variety of industries, including aerospace, defense, and telecommunications.
Quantum computing cables are designed to support the high-performance interconnects needed for emerging quantum technologies. These cables ensure stable signal transmission and minimal interference, making them essential for the precision and reliability required in quantum computing systems.