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The major position in laser processing field is rightly being given to the high-power fiber laser thanks to such quite qualities as high beam quality, energy efficiency, space efficiency, stability, and reliability. The fiber laser is a laser that uses an optical fiber as the active medium, which is usually has a rare-earth-doped core. The major active element used in the fiber lasers for material processing is ytterbium. this element provides light absorption (available for pumping) at wavelengths of 900-1000 nm, and fluorescence that causes laser oscillation lies at 1000-1100 nm.
Over the last decade, the performance advanced in high-power fiber lasers have been particularly impressive. It is making high-power fiber lasers a successful, fast increasing commercial business currently worth $800 M/year, with a compound annual growth rate of about 13%, which is the highest among the different laser technologies. The fiber technology has grown quite diverse and mature and can provide an excellent platform for fabricating result, high-performance laser systems. The core and cladding structures can be tailored appropriately to control the bean modality, optical nonlinearities, and such-up the power.
High-power fiber lasers are much more progressive and promising than traditional lasers using solids or gases as the active medium in many aspects. In order to ensure the high beam quality of fiber lasers, it is necessary to select the appropriate core diameter and difference of relative refractive indices, which can reduce the number of transverse modes. The CO2 laser also provides the high beam quality. In addition to this, fiber lasers and fiber laser systems based on a thin optical fiber with a diameter of several hundred micrometers as an active medium can easily be cooled and therefore attains high power output while maintaining the laser beam quality. Also, high-power fiber lasers have very low loss of pump and laser light because they are both confined and guided in the low-loss fiber core. The high quantum efficiency of ytterbium serving as the active element leads to 60-70% efficiency in energy conversion from pump light to laser light. In virtue of these factors, laser systems on the basis of the optical fiber achieve a high output power with a high energy conversion efficiency while maintaining a high beam quality. Owing to the very high energy conversion efficiency and a resonator consisting of fine fiber and small optical components, high-power fiber lasers have a far smaller heat dissipation mechanism and power supply, and thus far smaller overall dimensions and weight than traditional high-power lasers. Also, it should be noted, such lasers constructed by fusion-splicing optical fibers are not influenced by vibration, shock, or temperature changes, and therefore have stable output power and stable high beam quality. Besides the above-mentioned factors, high-power fiber lasers are practically maintenance-free due to the fact that the paths of the beam are not exposed to the atmosphere.
Optromix is a fiber laser manufacturer that develops cutting-edge laser systems and new fiber optic technologies. We produce unique fiber laser scientific systems and specialize in single frequency fiber laser products. We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team. Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility. Our company is constantly developing new laser systems that can potentially be used for fiber laser powered solar sails.
If you are interested in fiber laser systems, please contact us at info@optromix.com

According to market estimates, the global fiber laser market will grow incessantly at least next several years. The growing expansion and diversity of fiber laser products by fiber laser manufacturers are one of the latest trends that will contribute to the growth of this market in the forthcoming years. Fiber laser manufacturers are interesting heavily in activities to enhance the range and add additional wavelengths and power levels. They thus seek ways to increase such characteristic of fiber laser as high beam quality and to introduce new product lines. This includes UV fiber lasers, red, orange, green fiber lasers; projection and mid-infrared fiber lasers for fine and microprocessing applications. And then to top it off, the fiber laser manufacturers are also currently developing ultrashort pulsed lasers with ultrashort pulse durations to the range of picosecond and femtosecond.
There are three main directions in the development of fiber laser products:

1. Material processing

Factors such as the high requirements of fiber lasers with high power efficiency and high beam quality for material applications as cutting, welding, and engraving currently contribute to the development of the material processing segments at least in the next decade. Fiber laser tube cutting is one of the most outstanding segments in the global fiber laser industry. Fiber laser systems provide unlimited cutting configurations, reduced production costs, and the ability to eliminate stack up tolerances in this domain. There are, in addition, other well-suited directions for funding: powertrain control module (PCM) use, horizontal sheet cutting, and 3D cutting (fiber lasers successfully applied in 3D cutting uses, for instance, in the production of the opening in instrumentation attachments and transferable electronics attachments. In addition to this, fiber lasers are utilized for jewelry manufacturing and spot welding electronics.

1. Advanced applications

The optical fiber test and measurement equipment also used for determining the changes in light that are caused due to environmental changes: temperature, pressure, and suchlike.

1. Medical applications

The increasing use of fiber lasers in the medical sector is undoubtedly the main driving force of such an active development of this market. The medical industry is interested in the development of the laser industry due to the fact that laser systems and fiber lasers, in general, have such an optimal set of characteristics as compact size, high efficiency, and good thermal properties. The diode-pumped structure makes fiber lasers small and easy to use. In addition to this, they can focus the beam with higher precision or in other words fiber lasers have the high beam quality of their own system. This ability enables them to cause minimal damage to the surrounding tissues. Nowadays fiber laser manufacturers produce and sell their products in the medical field for spine surgery, cardiovascular surgery, and cataract surgery. Furthermore, fiber laser technology is an easy to customize technology that even allows providing options to adjust precision and make bladeless incisions on patients.
Fiber lasers doped with erbium or thulium are mostly used for medical purposes, including skin rejuvenation, body contouring, wrinkle removal, tattoo removal, stretch marks removal, hair implant, and other therapeutic surgeries. The aesthetic market is expected to become an important development field for fiber laser operations globally.
Therefore, summing up the above, fiber laser products provides high efficiency, compact size, cost-effectiveness, vibrational stability, and low maintenance. All these characteristics make fiber lasers ideal for use in diversified applications.
We believe in developing a real sense of partnership with our customers. We are committed to understanding our customer’s needs and providing them a broad variety of Fiber lasers, СО 2 lasers, Ti: Sapphire lasers, Dye lasers, and Excimer lasers. We offer simple Erbium fiber lasers and Ytterbium fiber lasers, as well as sophisticated laser systems with unique characteristics, based on the client’s inquiry. We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team. Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility.
If you are interested in Optromix fiber laser systems, please contact us at info@optromix.com

The truly unique and promising characteristics of the ultrafast pulsed lasers have opened up new opportunities for processing special materials: It means the materials that use ultrashort pulse widths and extremely high peak intensities. The ultrafast pulsed lasers are beginning to be used more often for both fundamental research and practical applications at the present time.The laser manufacturing market is currently expected to exceed $17 billion in value by 2020 and grow at a rate of about 6 percent for the next five years. This fast steady increase is due to wide use in various parts of the science world, including aerospace, automotive, and biomedical. Nowadays conventional fiber laser techniques that commonly use nanosecond and longer pulses are hopelessly outdated: they are replaced by materials processing with the ultrafast lasers. The aforementioned fiber lasers can be used for working with such materials that require special conditions where the thermal influence must be minimized, for example during the drilling metals and cutting wafers, polymeric stents, and display glass. The companies that manufacture lasers produce more and more the ultrafast lasers (also known is ultra-short pulse): picosecond and femtosecond fiber lasers. Such ultrafast laser systems have the temporal pulse (the amount of time the laser light is in contact with the material) is three to six orders of magnitude shorter than conventional fiber lasers.

• Picosecond fiber lasers emit optical pulses between 1 ps and some tens of picoseconds.
• A femtosecond fiber laser emits optical pulses with a duration well below 1 ps.

The quality comparison between picosecond and femtosecond lasers is material-dependent. It can be very subtle or very apparent in different instances. The femtosecond ultrashort pulsed laser is clear choice when the absolute best quality is needed but, it should be noted, the picosecond ultrafast fiber lasers tend to machine faster.
Ultrafast laser processing has fundamentally changed the way of materials microprocessing with fiber lasers. Ultrafast fiber laser has become a micromachining tool for various materials including metals, semiconductors, ceramic, glass, crystals, polymers and even soft materials like biotissues. An addition to this, such scientific ultrafast laser systems have also been employed for several practical and industrial applications. These fiber lasers are now also used in the electronics industry for scribing, patterning and texturing of glass and semiconductor.
As devices become smaller and more complex, laser machining will have to continue to push the edges of performance. Now we already know that the ultrashort pulsed lasers can produce nanoscale holes. By the same token, such fiber-optic laser systems can deliver a very precise concentration of light over such short duration. This feature helps to avoid heat damage occurs to the surrounding material and makes such ultrafast lasers irreplaceable for machining heat-sensitive biomaterials.
Optromix Inc., headquartered in Cambridge, MA, USA, is a manufacturer of laser technologies, optical fiber sensors, and optical monitoring systems. We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team.Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility. If you have any questions about fiber laser systems please contact us at info@optromix.com

Ultraviolet laser products are primarily intended for use in advanced studies and development in the industrial sphere. Ultraviolet lasers and optical emitters are used in biotechnology and medical markets to create such special tools like sterilization and dezinfectant devices. UV lasers offer to developers huge opportunities based on a noncontact method of producing microstructures on micro substances on different substances with a minimal effect on surrounding materials. The aforementioned lasers generate light with wavelengths in the range from 150 to 400 nm.
Ultraviolet lasers are well suited for micro-scale applications. What makes UV lasers so applicable for micro-drilling and micro-structuring or for marking synthetics and glass and for creating safety features on ID or credit cards? Firstly, their short wavelength allows them to create small focused spot sizes. Secondly, short pulse width and high-intensity result in the material removal (every pulse removes only a small amount of material) allow to produce well-defined microstructures. The beam intensity is so high that the material is removed in the vapor phase in a process called ablation. Ablation can be characterized as a process of the material removal, the end result of which is a clean surface. And thirdly, the short wavelength is important because small focused spot sizes allow penetration into the material where chemical and physical transitions will result in changes of the material. Such changes can be observed either by the naked eye or under the special light or proper magnification.
There are three main types of UV lasers:

1. Solid-state Q-switched Nd:YAG laser. A special crystal in this laser is used to change the infrared 1064 nm wavelength to the ultraviolet 353 nm wavelength. The beam shape is Gaussian so the spot of the ultraviolet laser of this type will be round with the intensity of energy falling off gradually form the center to the edge. These ultraviolet lasers are sensitive to temperature variations. Such lasers have a special standby condition where all critical components are kept at the operation temperature. Due to the fact that such lasers are equipped with the high repetition rate and the small focused spot they are well suited for machining on a micro scale.
2. An excimer laser typically uses a combination of a noble gas and a reactive gas. The beam generated shape isn’t round but has a rectangular shape with a more or less constant distribution of the intensity over the cross section of the beam that falls off sharply at the edges.
3. A metal vapor laser. The copper vapor laser is commonly used although vapors of several other metals also be suitable. Such UV lasers generate radiation at 511 nm and 578 nm wavelength. The beam shape is Gaussian so the metal vapor laser is appropriate for the same range of applications like the solid-state ultraviolet laser.

The most important type of high power ultraviolet laser for industrial application is the excimer laser. Available wavelengths include 351, 308, 248, 193 and 157 nm. The largest commercially available excimer lasers generate up to 200 W stabilized average power and up to 700 mJ pulse energy at 308 nm. The main advantages of this laser are a physical compactness, high reliability and durability. According to the forecasts, UV lasers will be widely used in an expanding range of applications with their recent improvements in performance, cost of ownership and with their increasing reliability. Ultraviolet lasers have already found various applications at the present time:

• pulsed high power ultraviolet lasers can be used for efficient cutting and drilling of holes in a variety of materials
• continuous wave UV lasers are required for microlithography (for instance, in the context of semiconductor chip manufacturing)
• Pulsed and CW UV lasers are irreplaceable for fabricating fiber Bragg gratings
• UV and even deep-UV lasers are required in refractive laser eye surgery of the cornea and in other medical applications

etc.
Optromix Inc., headquartered in Cambridge, MA, USA, is a manufacturer of laser technologies, optical fiber sensors, and optical monitoring systems.
We develop and manufacture a broad variety of fiber lasers, СО 2 lasers, Ti: Sapphire lasers, Dye lasers and Excimer Lasers. We offer simple Erbium laser and Ytterbium laser products, as well as sophisticated laser systems with unique characteristics, based on the client’s inquiry.
We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team. Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility.
If you are interested in fiber laser systems, please contact us at info@optromix.com

In recent years important progress has been made in the development of fiber-optic technologies in general and in particular in the developments related to the fiber lasers. Fiber-optic lasers are compact and reliable — and for now, they are used more and more in surgical procedures in such areas as diagnostic, therapeutic and surgical medical activities. Optical fiber lasers have a large number of unique features like great flexibility, convenience and reliability in surgical applications. The thing is that the fiber’s waveguiding properties supply single-mode operation that creates excellent diffraction-limited beam quality. This is especially useful in microsurgery and nanosurgery because it provides high resolution of the focusing spot.
Fiber-optic lasers allow the light to be easily integrated into endoscopes, microscopes and other surgical devices. Also many fiber lasers have a wall-plug efficiency of around 30 percent while some thulium fiber lasers have a wall-plug efficiency of around 12 percent. Combine this with the supple nature of fiber, which can be bent and coiled into a space about the size of a shoebox, and fiber lasers become portable, which is critical for emergency surgery.
Fiber-optic lasers typically comprise a single-mode fiber core doped with erbium, ytterbium (or their combination) or thulium. The optical fiber itself in fiber-optic lasers is the resonator cavity. Energy is coupled into the fiber’s cladding from a solid-stay source, then moves into the core and pumps the dopant. Such optical fiber lasers have significant advantages over other types of lasers like higher efficiency, wider tunability and better beam quality which, as a result, contribute to the fact that these lasers widen the utility of lasers in general for medical applications.
The targeted nature of the laser beam is attractive to many surgeons who work in a variety of fields. Fiber sources can access hard-to-reach areas of the body and deliver targeted cutting, ablating or cauterizing while minimizing damage to the surrounding tissues.
At the moment the market of the medical equipment is filling up with fiber-optic lasers which has an all-femto single-step system. Such lasers allow to correct vision without having to create a flap in the cornea and to perform and to perform corneal transplant procedures and intracorneal ring implantation.
With different groundbreaking developments in the sphere of fiber-optic lasers, the scientists have been efficacious in gaining long-ranging applications of fiber lasers in the medical sector. Optical fiber lasers are actively used in dental implementation and ophthalmology to aesthetic properties such as skin rejuvenation, body contouring and hair removal.
Optromix is a fiber laser manufacturer that uses our own technologies based on the advanced research work and patents of international R&D team. Fiber-optic lasers provide high beam quality, high precision and easily-automated manufacturing solutions.
If you are interested in Optromix fiber lasers for metal etching, please contact us at info@optromix.com

A large-scale green fiber lasers production allows to serve new markets and applications in an increasing number. Now it’s possible to visually trace a high-energy particle flows in gases and to further characterize them with the help of powerful green lasers. Green fiber lasers can also be used for a photoacoustic measurements of hemoglobin.
Today many scientists believe that pulsed green fiber lasers are much more productive and compact than other available lasers. The pulsed green fiber lasers  supply a high peak power with an average output of 10W, which can be scaled. Higher powers of Optromix’s lasers, it should be noted, are in the works. Such lasers possess a pulse duration of just 1 ns and  frequency of 50 to 600 kHz also it includes, featuring M2 of less than 1.2, a collimator and narrow line width at 532 nm.
In addition to pulsed green fiber lasers, there are continuous wave (CW) lasers. The CW-lasers emit a continuous or, in other words, permanent laser beam with a controlled heat output. By dint of the CW-lasers it becomes possible to control a heat output, as beam duration or intensity. The CW-lasers especially are typical tools in semiconductor researches, because through their use laser beams can be directed in a port in the spectrometer directly onto the sample. Such CW-lasers are available for use with a wide diversity of fiber terminations, collimation optics and processing heads.
Optromix is a fiber laser manufacturer, which can provide a pulsed and CW green fiber lasers with a  divergence specifications. This allows the use of long focal length processing lenses, less damage to optical components and makes them appropriate for remote welding applications. We produce a unique combination of technologies that outperforms any traditional laser technology. Optromix constantly evolves laser systems and always uses own developments to reduce costs and increase brand exposure and public awareness. Optromix’s lasers require minimal maintenance and possess the longest operation life, they have the longest diode lifetimes plus Optromix’s lasers are compact and robust. Our laser warranty is the most reliable on the market.
If you are interested in pulsed or continuous wave (CW) green fiber lasers, please contact us at info@optromix.com

When the first fiber laser systems were developed, they were relegated to low power milliwatt applications. Early fiber lasers were mainly used in communications, but did not have applications in material processing as they could not be scaled to the powers needed for this industry. Due to an increase in interest in the fiber optic technology and rapid developments of fiber lasers, such as ytterbium fiber lasers, the efficiency of tens of kilowatts are now possible. As the technology continues to develop, the initial cost of the fiber laser system declines, which led to fiber lasers offering the lowest price per watt with the highest beam quality, resulting in a quickly growing market share in material processing applications.
Fiber lasers are lasers that utilize an optical fiber doped with rare-earth elements as an active medium. Erbium, ytterbium and neodymium are some of the most commonly used rare-earth elements in fiber lasers, like ytterbium-doped fiber lasers and erbium-doped fiber lasers. These elements have a useful energy level configuration that allows for a cheaped diode laser pump source to be used to excite medium, e.g. erbium can absorb photons at 980 nm, which then decays to a meta-stable state at 1550 nm.
A diode laser pump source is convenient due to the multiple advantages that it provides: it is cheap, efficient and can be stacked. High-power fiber lasers are advantageous to many industries, especially material processing that includes laser cutting, laser engraving, laser welding, etc. There is no need to couple the laser output to a fiber in order to direct it where it needs to go as the lasing is occuring in the fiber. Therefore, the need for complicated optical setup is removed. The laser output of the fiber lasers is high quality – it is very straight and doesn’t spread out – as it is being created in a relatively confined area of the core. The power of the laser beam is confined to a small spot size, which is important for material processing applications. Moreover, high power fiber lasers are efficient with 70-80% power conversion,  which implies fiber lasers are easy to cool as not a lot of energy is lost to heat compared to other high power lasers. High power fiber lasers have a long operating life of around 1 million hours, high peak power and long pulse duration; these characteristics are essential for high-speed marking and cutting applications.
Optromix is a fiber laser manufacturer that develops cutting-edge laser systems and new fiber optic technologies. We produce unique fiber laser scientific systems and specialize in single frequency fiber laser products. We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team. Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility. Our company is constantly developing new laser systems that can potentially be used for fiber laser powered solar sails.
If you are interested in high-power ytterbium-doped fiber lasers, please contact us at info@optromix.com

The use of fiber laser systems for production applications is growing as on price per watt, beam quality, and electrical consumption fiber lasers provide the highest performance and lowest costs. The applications of fiber laser systems are constantly expanding – from traditional cutting and welding to more advanced 3D printing and surface texturing.
Laser technology is widely used in cutting, drilling, welding, drilling, etc. Fiber lasers provide high power and accuracy to these applications while maintaining low maintenance costs. Most fiber laser manufacturers provide a wide range of products that are designed according to the needs of a specific area of fiber laser applications. The ability to manufacture custom fiber laser systems is crucial for some applications that require very specific laser power, wavelength, etc.
Fiber laser systems are superior to traditionally used CO2 lasers that used to be widely used for laser cutting applications. Traditional CO2 lasers have numerous drawbacks, while fiber lasers for cutting applications provide several advantages:

• High beam quality fiber lasers allow to cut, engrave and mark a wide range of metallic materials.
• Fiber lasers have a large range of power output ranging from 500W and up.
• Fiber laser systems for cutting applications provide a machine capability of cutting sheet metals.
• Fiber lasers, specifically femtosecond fiber lasers and picosecond fiber lasers,  provide faster processing times and reduced energy consumption due to increased efficiency.
• Fiber laser cutting systems require minimal maintenance.
• Higher productivity of fiber lasers makes them ideal for laser cutting applications.

Main areas of fiber laser cutting applications include precision engineering, including fiber laser micromachining, high precision sheet metal profiling, cutting transparent materials, marking components for traceability, etc.
Optromix Inc., headquartered in Cambridge, MA, USA, is a manufacturer of laser technologies, optical fiber sensors, and optical monitoring systems. We manufacture lasers using our own technologies based on the advanced research work and patents of international R&D team.Laser processes are high quality, high precision, easily-automated manufacturing solutions that provide repeatability and flexibility. If you have any questions about fiber laser systems please contact us at info@optromix.com

Fiber lasers have been first demonstrated in 1964 by Snitzer and since then have experienced extensive research and development over the past couple of decades. The research into fiber laser technology has been fueled by numerous advantages that fiber lasers provide, as well as their superiority to bulk solid-state lasers; fiber lasers have not only motivated scientific study but have attracted significant commercial interest.
The benefits of fiber laser systems include the following:

1. Efficient heat dissipation;

The unique geometry of fiber laser medium allows for efficient heat dissipation due to a ratio of surface area to the active volume being large. This benefits laser power scaling and makes thermal management easily attainable.

1. Excellent output beam quality;

Due to the confinement of laser radiation in the fiber waveguide structure, fiber laser beam quality is high.

1. Compactness and ruggedness;

All-fiberized structure design of fiber lasers eliminates the need for complicated alignment of free-space optical components, thus resulting in a simplified laser architecture.

1. Reduced mode distortion;

Thermally induced mode distortion is often observed in traditional solid-state lasers; fiber lasers have a possibility to significantly reduce mode distortion by a specific physical design of the fiber.
The performance of fiber laser systems has been improving over the past 50 years due to significant scientific interest. The development of fiber materials, drawing technology fiber component fabrication, etc. have led to an improvement of fiber lasers in several areas. Emission wavelength selection has been broadened and now includes a wide variety of lasers, from ultraviolet fiber lasers to mid-infrared lasers. An output power of 10 kW with nearly diffraction-limited beam quality has been achieved in continuous-wave fiber lasers; few-cycle light with pulse duration
shorter than 10 fs has been produced in femtosecond fiber lasers. All of these developments fuel the field of possible fiber laser applications and drive their practical employment. Certain fields of fiber laser applications have been rapidly developing, such as high-precision metrology, gravitational wave detection, coherent LIDAR; these fields require single frequency fiber lasers. Single frequency fiber lasers have gained significant attention and have been broadly researched recently.
Optromix develops and manufactures a broad variety of Fiber lasers – ultraviolet fiber laser, continuous-wave fiber lasers, single frequency fiber lasers, and femtosecond fiber lasers. We offer simple Erbium laser and Ytterbium laser products, as well as sophisticated laser systems with unique characteristics, based on the client’s inquiry.
If you are interested in Optromix fiber lasers, please contact us at info@optromix.com

Fiber lasers have an active medium that is made up of an optical fiber that is doped with rare-earth components, some of which include ytterbium, erbium, dysprosium, neodymium, thulium, holmium and praseodymium. Due to the use of these rare-earth components, fiber lasers have a huge bandwidth and are extremely effective. The production of moderately cheap, rugged, and compact fiber lasers with fiber-coupled yield has made femtosecond fiber lasers desirable in many different applications, like nonlinear imaging and microscopy, tissue ablation and micro and nano surgery, among others.
Fiber lasers include a wide range of lasers that have been developed and designed over the past 30 years. There are multimode- and single varieties with ultraviolet to far-infrared wavelengths that show high power level, adjustable repetition rate, and femtosecond pulse durations.
Femtosecond fiber lasers have a low cost of ownership, are eco-friendly and have high beam quality. These factors fuel the femtosecond fiber laser market growth. One of the key factors that have an effect on the growing popularity of fiber lasers in general and femtosecond fiber lasers in particular is a trend of green engineering, rise in apprehension of manufacturers concerning the influence of their products on environment. Due to the aforementioned reasons, many industries have utilized these lasers in cutting and marking applications. Traditional means of material cutting, marking and welding are being gradually replaced by fiber laser systems as they are easy to operate and are energy proficient.
A new report on the femtosecond fiber market outlines that fiber laser market in general will continue to grow and expand while traditional techniques and instruments are being replaced by fiber laser systems. Femtosecond fiber lasers are the most prevalent in the Asia Pacific region, that holds the biggest share of the market. North America region holds second place in terms of revenue. Asia-Pacific and North America together accounted for more than half of the global market revenue in 2016. Asia-Pacific held the maximum share during the time period due to augmented demand of femtosecond fiber lasers in automotive and electronics industry.
Optromix develops and manufactures a broad variety of Fiber lasers, СО 2 lasers, Ti: Sapphire lasers, Dye lasers, and Excimer Lasers. We offer simple Erbium laser and Ytterbium laser products, as well as sophisticated laser systems with unique characteristics, based on the client’s inquiry. Our femtosecond fiber lasers offer a vast range of applications and can be used in different research fields.
If you are interested in Optromix femtosecond fiber lasers, please contact us at info@optromix.com