Caution: Federal (US) law restricts this device to sale by or on the order of a physician or a licensed healthcare practitioner trained and certified in its use. Laser-assisted hatching and laser-assisted biopsy are not recommended for use in all IVF patients. Please Note: For animal research and human stem cell applications, the HT Research Lasers should be used.
The Newest in Laser Technology for Clinical Applications
- 300 mW laser power and one microsecond pulse length
- Laser and RED-i® target locator built into 40x objective
- Multi-pulse mode for fast and easy trophectoderm biopsy
- High image quality
- Improved working distance - use with or without glass heater
- No laser alignment needed
- Similar in size to standard objectives
- Compatible with all major microscope models
Laser and RED-i® Target Locator built into 40x Objective
The LYKOS® features a 1460 nm, 300mW Class 1 laser built-into a custom designed objective 40x objective.
- 40x, 0.60 N.A., I.R.
- High transmission in the UV [>350 nm], visible and near-infrared, long working distance
- Infinity corrected for 1 mm thick polystyrene Petri Dish, on 500 μm glass heating plate. A nose cap corrector is available if use without the glass heating plate is required.
- Working Distance: 1.7 mm to glass heater plate
- Parfocality: < 40 µm
- Compatibility: 3 RMS thread adapters permit installation on all major microscope models
The RED-i speeds workflow by allowing you to position the cell under the laser beam without looking at the monitor.
- Built into the LYKOS laser objective
- Red LED indicator spot visible through microscope eyepieces
- Adjustable brightness level
- Always remains in focus
- Laser beam is NOT transmitted through eyepieces - SAFE for your eyes
- Simple alignment process
Introducing the Multi-Pulse Feature for the LYKOS Laser System
The Multi-Pulse software gives our lasers an automated, precise tool that enables rapid trophectoderm biopsy.
The Multi-Pulse feature provides rapid, repeated firing of the laser to facilitate removal of cells from an embryo during the trophectoderm biopsy process. Trophectoderm biopsy is considered one of the best methods used to remove cells from the embryos of patients undergoing pre-implantation genetic diagnosis (PGD) to screen for genetic disease or aneuploidy.
Prior to release of the Multi-pulse software, individual laser shots were required to weaken or break the junctions between the trophectoderm cells so that they can be aspirated into the biopsy micropipette. The significant advantage of Multi-Pulse is that one press of the remote footswitch initiates multiple laser pulses in rapid succession for fast and easy cell separation, thereby limiting the amount of time the embryo spends outside the incubator.
Professor Barry Behr, Co-Director, REI/IVF Program, Department of Obstetrics and Gynecology at the Stanford University School of Medicine, a long-time user of Hamilton Thorne lasers and a pioneer in trophectoderm biopsy, commented, “The Multi-Pulse capability, which provides the user with the ability to automatically fire the laser multiple times at relatively low power, will contribute significantly to the efficiency and safety of trophectoderm biopsy.”