Electrosurgical unit electrode DZX-G3040-A370

for mini-invasive surgeryorthopedic surgicalmedical

370mm Disposable Orthopedic Coblation Wand for Endoscopic Lumbar Disc Decompression

The 370mm Disposable Orthopedic Coblation Wand is specifically designed for minimally invasive endoscopic spine procedures, providing surgeons with extended access to deep lumbar anatomy while enabling precise tissue ablation, controlled resection, coagulation, and hemostasis under direct endoscopic visualization.

Powered by advanced low-temperature bipolar plasma coblation technology, the probe delivers controlled plasma energy to targeted spinal tissues, helping minimize thermal impact on surrounding anatomical structures while supporting accurate tissue treatment.

Designed for percutaneous endoscopic spinal surgery, the 370mm coblation probe provides excellent maneuverability and access during lumbar procedures, improving procedural efficiency and surgical control.

Clinical Applications

The disposable orthopedic coblation wand is intended for minimally invasive spinal procedures performed under endoscopic guidance.

Typical applications include:

Lumbar disc decompression
Nucleus pulposus ablation
Annulus fibrosus modulation
Percutaneous Endoscopic Lumbar Discectomy (PELD)
Endoscopic lumbar decompression
Soft tissue coagulation
Hemostasis during spinal surgery
Key Advantages

Extended 370mm Working Length

Designed for endoscopic lumbar procedures, the long working length enables effective access to deep spinal structures while maintaining precise instrument control.

Low-Temperature Plasma Coblation Technology

Controlled plasma energy supports targeted tissue treatment with reduced thermal spread compared with conventional electrosurgical techniques.

Multifunctional Surgical Performance

One probe supports multiple functions, including:

Tissue ablation
Tissue modulation
Coagulation
Hemostasis

The disposable sterile design helps ensure consistent performance, reduces the risk of cross-contamination, and supports efficient workflow during minimally invasive spine procedures.