FAQ

A：Perfect Compatibility: Ensures that cleavers and splicers are perfectly matched to your fiber types, minimizing splice loss. Cost Control: Bulk configurations offer more competitive pricing and significantly reduced logistics costs. Streamlined Support: All tools are backed by a single technical support team, making troubleshooting and maintenance much faster.

A：It refers to a comprehensive product supply covering the entire lifecycle of fiber construction. This includes **Fusion Splicers** (connection), **High-Precision Cleavers** (preparation), **OTDRs/Power Meters** (testing), and various **Strippers/Cleaning Tools** (maintenance). You get a complete solution without the need to manage multiple vendors.

A：Saves Space: Makes the tool slimmer and easier to fit into technician waist bags or compact toolkits. Prevents Snagging: Ensures the tool doesn't hook onto fiber patches or cables while being pulled out of a bag. Protects the Tool: Reduces tension on the internal spring during long-term storage, extending the tool's lifespan.

A：Reduced Evaporation: By keeping the clamp closed, the solvent-soaked cloth is less exposed to air, significantly slowing down the evaporation of alcohol. Consistent Saturation: It maintains a moist cleaning surface for a longer period, reducing the frequency of re-applying cleaning fluid.

A：Fiber optic connections are extremely sensitive to microscopic particles. The lock keeps the cleaning surfaces pressed together, which: Prevents Dust Accumulation:Keeps airborne debris from settling on the cleaning cloth. Avoids Accidental Contact: Prevents users from accidentally touching the cleaning area with oily fingers.

A：The locking mechanism was introduced to improve **cleanliness, portability, and chemical efficiency**. It ensures that the tool remains in a closed position when not in use, protecting both the cleaning material and the surrounding work environment.

A：Absolutely. In cold environments, fiber coatings become hard and brittle, making manual stripping prone to snapping the fiber. A thermal stripper’s built-in heating ensures a smooth stripping experience regardless of freezing temperatures.

A：Yes. After heating, the coating typically slides off as a single, clean tube with minimal residue. Compared to manual stripping, it significantly reduces the time spent cleaning the core with alcohol and ensures a higher first-time success rate, reducing rework.

A：No. The heating temperature is precisely controlled (usually between **100°C and 120°C**). This is enough to soften the resin coating but is far below the tolerance limit of the silica fiber, ensuring signal integrity is never compromised.

A：1. **Ribbon Fiber** splicing (it is an essential tool for this). 2. **Tight-buffer fiber** or fibers with specialized, hardened coatings. 3. **High-standard projects** (such as backbone construction or data centers) that require ultra-low loss and long-term stability.

A：Precision and safety. Manual strippers can cause microscopic longitudinal scratches that lead to fiber breakage over time. A thermal stripper softens the coating through heat, achieving "zero-stress" stripping and protecting the core from damage.

A：Thermal Stripper compared to a Traditional Manual Stripper (such as Miller pliers) lie in core protection precision and the ability to handle specialized coatings. 1. Minimization of Physical Damage Traditional Stripper: Relies on the mechanical biting force of metal blades to cut the coating. If the blades are worn or dirty, they can easily leave microscopic longitudinal scratches on the silica core. These scratches can develop into cracks under stress or bending, leading to fiber failure. Thermal Stripper: Uses heat to soften the coating, allowing the blades to penetrate with minimal force. This significantly reduces mechanical stress on the core surface, achieving nearly "zero-damage" stripping. 2. Adaptation to High-Strength Coatings Traditional Stripper: Works adequately for standard coatings but struggles with Tight Buffer fiber or high-viscosity materials. Manual stripping often requires repetitive pulling, which risks snapping the fiber. Thermal Stripper: The heating function instantly weakens high-strength materials. Even with thickened coatings or in low-temperature environments (where coatings become brittle), it ensures a smooth, effortless strip. 3. Cleanliness and Efficiency Traditional Stripper: Often leaves significant debris or adhesive residue on the core, requiring multiple wipes with high-purity alcohol. Thermal Stripper: The heated and expanded coating typically slides off as a complete tube, leaving very little residue. This shortens cleaning time and improves overall splicing efficiency. 4. Consistency in Operation Traditional Stripper: The quality of the strip is highly dependent on the technician’s "feel," grip strength, and angle. Thermal Stripper: Features fixed heating timers and constant stripping tracks. This standardized process ensures consistent quality, regardless of whether the operator is a senior engineer or a novice.