Insulated Frazier Suction Tube

The Insulated Frazier Suction Tube from Delta Med Surgical is an essential safety tool for modern operating rooms. During procedures involving frequent cautery—such as neurosurgery, spinal surgery, or deep-cavity plastic surgery—standard stainless steel cannulas can inadvertently conduct electricity if they touch an active electrode. Our proprietary High-Dielectric Insulation ensures the shaft remains electrically inert, protecting the patient's surrounding healthy tissue from accidental burns.

Key Performance Features

• Advanced Protective Insulation: The non-conductive coating extends the entire length of the 18cm shaft, leaving only the distal tip exposed. This allows for targeted suctioning exactly where the cautery is applied while shielding the entry incision and lateral tissues.
• Manual Vacuum Regulation: Features the signature Frazier finger cut-off hole. This allows the surgeon to modulate suction pressure instantly, providing the delicate control needed near nerves and vascular structures.
• Tapered High-Flow Design: Despite the insulation layer, the internal lumen maintains a precision-tapered bore. This design accelerates fluid flow and minimizes the risk of clogging from surgical plume or charred debris.
• Integrated Cleaning Stylet: Each insulated Frazier comes with a custom-fitted stainless steel stylet, allowing the surgical team to quickly clear any obstructions during long procedures.

The Delta Med Surgical Quality Standard

Forged from Premium Operating Room Grade German Stainless Steel, this instrument is built for durability. The insulation is heat-validated to withstand repeated steam autoclave cycles (134°C) without cracking, peeling, or losing its dielectric properties. Our instruments are CE, ISO 13485, and FDA certified.

3. Technical Specifications

• H1: Insulated Frazier Suction Tube – 18cm (7")
• H2: Superior Insulation for Safe Electrosurgical Procedures
• H3: Protective Coating to Prevent Thermal Tissue Damage
• H2: German Steel Engineering: Built for the High-Frequency Demands of Modern ORs