1470nm/1940nm laser EVLT EVLA EndoLaser Vein Surgery Endovenous Laser Ablation System

This advanced medical device is designed for precision and effectiveness in face lifting and endovenous laser treatment. Utilizing a combination of 980 nm and 1470 nm wavelengths, it targets varicose veins and vascular conditions with exceptional accuracy and minimal patient discomfort.

The system offers healthcare professionals the ability to perform endovenous laser ablation procedures with confidence and efficiency. Its reliable diode technology ensures consistent performance and long-lasting durability, while its ergonomic design allows for ease of use during procedures.

The 980nm+1470nm Laser is a minimally invasive interstitial laser lifting treatment performed through hair-thin microfibers. These fibers transmit radiating N.IR energy into the tissue without large incisions.

At 1470nm, there is an optimal degree of water absorption, allowing for shallow and controlled ablation that protects adjacent tissues. The 980nm wavelength provides high absorption in hemoglobin, ensuring an excellent effect on blood management and reducing bleeding risks.

The semiconductor laser uses fiber-coupled energy to precisely locate and liquefy excess fat cells. It acts on both deep and superficial fat layers, transferring energy directly to fat cells for uniform heating. This process stimulates neocollagenesis, promoting significant skin tightening and reducing laxity.

• No incisions or general anesthetics required.
• Immediate and long-lasting results.
• Single session performance with no downtime.
• Highly effective for localized fat and wrinkles.
• Minimally invasive with minimal scarring.

This versatile fiber laser is ideal for various surgical and aesthetic procedures:

• Endolift & Lipolysis: Non-surgical face and body contouring.
• EVLT: Endovenous Veins Laser Treatment for varicose veins.
• Hemorrhoids: Minimally invasive surgical removal.
• Dermatology: Removal of warts, moles, and skin protrusions.
• Vascular: Solidification of vascular cells using the 980nm spectrum.