TE Connectivity RayFlite High Voltage Power Cables

Introduction

The TE Connectivity RayFlite High Voltage Power Cables are engineered for demanding high-voltage and high-altitude applications. With a focus on flexibility and conductivity, these cables are ideal for modern aerospace technologies, particularly in battery-powered and hybrid electric aircraft.

Part Description

The RayFlite High Voltage Power Cables feature a flexible nickel-coated copper conductor that enhances electrical conductivity while maintaining mechanical flexibility. The modified ETFE insulation ensures safety and electrical isolation in high-voltage environments, while the extruded jacket provides protection against physical damage. These cables are designed to work seamlessly with TE's 987 series high-power connectors, making them a reliable choice for various applications.

Applications

• Hybrid electric propulsion systems
• High-voltage aerospace applications
• Battery and hydrogen fuel cell technologies
• Unmanned Aerial Vehicles (UAVs)
• Drones

Industries

• Aerospace (commercial and military)
• Automotive (electric and hybrid vehicles)
• Renewable energy (solar and hydrogen fuel cells)
• Robotics (UAVs and drones)

Usage Ideas

1. Hybrid Electric Aircraft Prototype: Utilize RayFlite cables to create a prototype for a hybrid electric aircraft, ensuring efficient power distribution and safety in high-voltage environments.
2. Drone Power System: Design a high-performance drone that incorporates RayFlite cables for its power system, optimizing for weight and flexibility while maintaining high voltage capabilities.
3. Hydrogen Fuel Cell Vehicle: Develop a hydrogen fuel cell vehicle that uses RayFlite cables to connect the fuel cell to the electric motors, ensuring reliable performance in various environmental conditions.

Conclusion

TE Connectivity's RayFlite High Voltage Power Cables are a robust solution for high-voltage applications in aerospace and beyond. Their flexibility, safety features, and compatibility with high-power connectors make them an essential component for innovative projects in hybrid electric propulsion, UAVs, and renewable energy technologies.