1. Rational Structural Design

Typically composed of inner strands, outer strands, rubber clamping blocks, and suspension plates. The inner and outer strands adopt a preformed strand structure, which evenly distributes the stress on the optical fiber cable, while the rubber clamping blocks protect the cable and increase friction. This multi-component design ensures both mechanical stability and cable protection, with the preformed strands conforming to the cable’s curvature to prevent localized stress concentrations.

2. High-Quality Materials

Outer Strands: Usually made of high-strength aluminum alloy or stainless steel, featuring lightweight, corrosion resistance, and high strength. These materials withstand outdoor environments while minimizing the clamp’s overall weight for easier installation.

Inner Strands: Commonly constructed from aluminum alloy or zinc alloy, with smooth surfaces that closely fit the cable to avoid damage. The metallic structure provides reliable mechanical support while maintaining flexibility.

Rubber Clamping Blocks: Made of aging-resistant and wear-resistant rubber materials, they offer excellent protection for the optical fiber cable, cushioning mechanical shocks and preventing abrasion during wind-induced vibrations or temperature changes.

3. Strong Grip Force

Through the special design of preformed strands and the coordination of rubber clamping blocks, the clamp provides significant grip force, ensuring firm clamping of the optical fiber cable under various environmental conditions. The preformed strands’ helical structure wraps tightly around the cable, while the rubber blocks enhance friction, preventing slippage and ensuring the cable remains securely suspended in all operational scenarios.

1. Excellent Protection Performance

The preformed strand structure and rubber clamping blocks effectively protect the optical fiber cable by avoiding concentrated stress and abrasion, reducing the risk of damage from external forces and extending the cable’s service life. The rubber blocks cushion mechanical impacts, while the helical preformed strands distribute pressure evenly along the cable’s surface, preventing sheath damage or fiber breakage caused by excessive local stress.

2. Uniform Stress Distribution

This clamp evenly distributes the tension applied to the optical fiber cable across the entire fixture, avoiding excessive stress on any local area and improving the reliability of cable operation. The preformed strands’ spiral design conforms to the cable’s contour, creating a large contact area that minimizes stress concentration—a critical advantage in high-tension scenarios.

3. Easy Installation

With a relatively simple structure, it requires no special tools for installation. Simply place the optical fiber cable into the clamp and fasten it according to specified procedures, ensuring high installation efficiency. This user-friendly design reduces labor costs and installation time, making it suitable for both new grid projects and maintenance operations, especially in hard-to-reach areas where complex tools are impractical.

1. Optical Cable Suspension

Primarily used to hang ADSS (All-Dielectric Self-Supporting) optical fiber cables on utility poles or towers, keeping the cables at a certain height and position in the air to avoid contact with the ground or other objects, ensuring the safe operation of the cables. This suspension function is critical for maintaining proper electrical clearances and preventing physical damage from external factors.

2. Tension Bearing

Capable of withstanding the self-weight of the optical fiber cable and the tension generated by external forces such as wind and ice, transmitting these forces to the poles or towers to ensure the cable remains stably suspended under various working conditions. The clamp’s robust design efficiently distributes dynamic and static loads, preventing cable sagging or failure in extreme weather .

3. Adaptation to Environmental Changes

Featuring excellent weather resistance and corrosion resistance, it can adapt to diverse natural environmental conditions, such as high/low temperatures, humidity, and salt mist, ensuring reliable performance in complex environments. Materials like stainless steel or corrosion-resistant aluminum alloys, combined with UV-stabilized rubber components, maintain structural integrity and functional stability over long periods, even in harsh coastal, industrial, or high-altitude regions.