The Cutting Edge of Patient Safety

OmniGuide Surgical’s CO2 laser technology delivers precision in difficult to reach areas, while significantly limiting collateral thermal damage. Our advanced laser technology inspires confidence with every cut, providing greater patient safety and more consistent performance than competing systems. This is truly advanced energy, built to deliver the precision and safety that your patients deserve.


CO2 lasers have long been considered the gold standard for precise tissue cutting. Now, OmniGuide Surgical has revolutionized CO2 surgery by combining state-of-the-art lasers with our proprietary flexible fiber technology.

Flexible Fibers

OmniGuide Surgical’s polymer-based Enhanced Safety Fibers feature multiple layers of highly reflective mirrors, which efficiently transmit laser energy the length of the fiber.


Flexible fibers are used in conjunction with our handheld instrumentation, which has been engineered to provide surgeons with enhanced comfort for heightened performance.


Our uniquely designed flexible fibers and robotic instrumentation work in tandem with the robotic surgical platform to deliver CO2 laser energy in a minimally invasive approach.
Maximum Precision
H&E specimen of monopolar electrosurgery tongue lesion produced at 40 Malis. Total collateral damaged area is highlighted. Image analyzed at 4x magnification.
H&E specimen of CO2 laser fiber tongue lesion produced at 20W, 70 PSI. Total collateral damaged area is highlighted. Image analyzed at 10x magnification.

Maximum Precision

CO2 laser energy delivered via a flexible fiber system exhibits greater surgical precision than monopolar and electrocautery in both cutting and coagulation modes1. Layer-by-layer dissection enables more complete disease removal and leaves underlying normal healthy tissue undamaged.

Minimized Thermal Spread

CO2 laser energy provides greater dissection capabilities with minimal to no increase in thermal damage resulting in significantly less tissue damage1,2 and no adhesion formation, immediately and throughout the healing phase.3 Studies indicate that incisions made with CO2 laser result in 10x less thermal spread than incisions made with monopolar electrosurgery. Compared with monopolar, CO2 laser shows less variability from one use to the next resulting in superior, predictable, and reliable outcomes.1

Monopolar Electrosurgery CO2 Laser
CO2 Thermal Injury
Divergent CO2 Laser Beam

Divergent Beam Technology

OmniGuide Surgical’s proprietary CO2 laser technology features a divergent beam, allowing the surgeon to easily control the tissue interaction by adjusting power settings and distance to the tissue:


  1. Low power far from tissue (2-6 Watts at 2-3cm) = superficial peeling
  2. Low power close to tissue (6-12 Watts at 0.2-0.3cm) = fine cutting
  3. High power far from tissue (15-20 Watts at 3-5cm) = ablation and coagulation
  4. High power close to tissue (12-20 Watts at 0.2-0.3cm) = precise cutting

Enhanced Access and Versatility

Our Enhanced Safety Fibers and instrumentation combine to offer improved access to difficult to reach, countered anatomy, aiding in more complete disease removal and reduced recurrence.4,5 OmniGuide Surgical’s energy delivery platform delivers an all-in-one tool for surgical efficiency. The system has the ability to provide hemostatic cutting, ablation, coagulation and blunt dissection.

OmniGuide's Flexible Fiber Technology

How Our CO2 Laser Technology Works

CO2 lasers direct a beam of infrared light into tissue, vaporizing water to cut and coagulate tissue. Heat is transferred only a few microns beyond the target, preserving healthy adjacent tissue.
CO2 Laser Technology
CO2 laser systems pass electricity through a gas-filled chamber, producing infared light. The light repeatedly bounces off reflective mirrors positioned at the ends of the chamber, increasing in intensity until reaching a point that the light is able to pass through the exit mirror, and is reflected through an articulating arm or flexible fiber.
CO2 Laser Technology
Our flexible fibers are hollow, cylindrical tubes made up of layers of mirrors consisting of polymer and glass, which reflect the CO2 laser beam down the fiber. Our fibers are constructed with multiple, highly reflective layers of polymer mirrors which result in efficient transfer of energy, with faster, more effective clinical performance.
CO2 Laser Technology
The CO2 laser energy is absorbed by the water in the target tissue, vaporizing the water content of cells at the surface, resulting in precision cutting, coagulation, and ablation. High absorption of CO2 laser energy in water leads to a predictable and controlled tissue interaction with minimal thermal effect.2
OmniGuide Surgical’s technology allows the surgeon to operate with confidence near delicate anatomy by providing minimally invasive access, precise and predictable tissue interaction, and the micron-level thermal spread of CO2 laser energy.
  1. Bailey A, Lancerotto L, Gargiulo A. Greater Surgical Precision of a Flexible Carbon Dioxide Laser Fiber Compared to Monopolar Electrosurgery in Porcine Myometrium. AM J Obstet Gynecol. 2014; 21:1103-1109.
  2. Ryan et al, J Neurosurg, 2010; 112(2): 434–43
  3. Bellina JH, Hemmings R, Voros JI, Ross LF. Carbon Dioxide laser and electrosurgical wound study with an animal model: a comparison of tissue damage and healing patterns in peritoneal tissue. AM J Obstet Gynecol. 1984;148:327-334.
  4. Jacobson et al, Otolaryngology- Head and Neck Surgery (2006) 135, 469–470
  5. Shires et al, International Journal of Pediatric Otorhinolaryngology (2009) 73, 67–72