Boston Scientific M006L8405910 Flexiva Pulse High Power Single-Use Laser Fiber 242

Boston Scientific M006L8405910 Flexiva Pulse High Power Single-Use Laser Fiber 242

• Model: M006L8405910 Boston Scientific
• 242
• Max Power: 50 W
• Max Frequency: 80 Hz.
• Working Length: 3.0m

This medical supply or implant item is securely packaged within its original manufacturer's packaging, which remains undamaged. The inner and outer packaging is intact, ensuring the product's integrity and suitability for medical use.

1. Design & Technical Specifications

The Flexiva Pulse laser fiber is a 242 µm core, 3 meter length, single-use holmium:YAG fiber designed for compatibility with standard SMA‑905 laser systems. Constructed to handle high-power delivery (up to 80 Hz firing frequency), it maintains performance even under maximum deflection—ensuring effective energy transmission in challenging anatomical positions. The fiber features an advanced polished output tip and an SMA connector for efficient light delivery to target sites.

2. Performance & Mechanical Features

Engineered with advanced fiber-optics and mechanical design, the Flexiva Pulse can sustain high thermal loads—up to 80 Hz, even when bent—for superior durability and consistent performance. Its design minimizes fragility under deflection, offering reliable power output during demanding urological and surgical procedures. The polished tip also reduces imperfections from cleaving, ensuring high efficiency and reduced risk of damage to scope optics.

3. Clinical Applications & Advantages

Indicated for delivering holmium laser therapy in endourology (e.g., stone fragmentation, soft tissue ablation), this sterile, single-use fiber simplifies workflow while minimizing cross-contamination risk. Its robust mechanical design and high-power capacity enable consistent stone ablation and effective performance in deflected ureteroscopes. While compatible with a wide range of holmium:YAG systems, it is optimized for Boston Scientific’s Flexiva Pulse platform, helping clinicians achieve precise, efficient energy delivery in challenging anatomies.