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GS Series 10W/15W UV Nanosecond Laser

GS series 10W and 15W UV nanosecond laser is a revolutionary technological innovation and has a wide range of application prospects. It has important application value in microelectronics manufacturing, precision instrument manufacturing, biomedical research and optical fiber communication. With the continuous progress of technology, ultraviolet lasers will bring more innovations and breakthroughs to the development of various fields.

Technical Parameters

MODEL GS 355-10 GS 355-15
Wavelength  355nm
Pulse Repetition Rate Range  40kHz to 150kHz
Pulse Width  12ns±2@50kHz
Average Power  >10W@50kHz >15W@50kHz
Average Power Stability  <3%RMS over 8 hours
Pulse-to-Pulse Stability  <3%RMS
Spatial Mode  TEM00(M² <1.2)
Beam Divergence Full Angle  <2mrad
1/e² Beam Diameter  0.5±0.2mm
Beam Roundness  >90%
 Beam Pointing Stability  <50urad
 Polarization Direction  Horizontal
Polarization Ratio  100:1
Size  290*150*127mm
Weight  8.35kg
Cooling  Water-cooling

Application

Product Description

In the rapid development of modern science and technology, laser technology is widely used in various fields. The recently launched GS series 10W UV nanosecond laser is undoubtedly a revolutionary scientific and technological innovation. This article will guide readers through the principles, applications and prospects of this innovative product.

1. Innovation principle

The GS Series 10W ultraviolet nanosecond laser uses the latest nanosecond laser technology to convert light into a high-energy ultraviolet laser beam through a special material inside the laser. This laser beam has extremely high focusing power and penetrating power, and can perform delicate operations in nanoseconds. Compared with traditional lasers, the GS series UV nanosecond laser has a great improvement in power, stability and accuracy.

2. Application field

The GS series 10W UV nanosecond laser has a wide range of applications. First, it is of great significance in the field of microelectronics manufacturing. The manufacture of microelectronic devices requires high-precision machining and etching, and the GS series laser can meet this demand. Its high-energy ultraviolet laser beam can accurately complete the processing at the micron level, providing a strong support for the development of the microelectronics industry.

Second, the GS series 10W UV nanosecond laser can also be used in precision instrument manufacturing and optical device processing. Due to its high energy and high focusing capability, it can achieve fine machining and cutting of tiny devices. This is essential for the manufacture of a wide range of precision instruments and optics, which can improve the quality and performance of products.

In addition, the GS series 10W ultraviolet nanosecond lasers also play an important role in the biomedical field. It can be used for cell manipulation, gene editing, tissue cutting and other applications. The high energy and focusing capabilities of ultraviolet lasers can precisely process cells and tissues, opening up new possibilities for biomedical research and therapy.

Finally, the GS series 10W UV nanosecond laser can also be used in the field of optical communication and fiber sensing. Ultraviolet laser has a shorter wavelength and higher energy, which can achieve higher data transmission rate and longer transmission distance. At the same time, it can also be applied to optical fiber sensing, by measuring the change of light intensity in the optical fiber to achieve the detection of temperature, pressure and deformation parameters.

3. Development prospects

The introduction of the GS series 10W ultraviolet nanosecond laser marks a major breakthrough in ultraviolet laser technology. With the continuous progress of science and technology, ultraviolet lasers will play an important role in more fields. In the future, the GS series UV nanosecond laser is expected to achieve a wider range of applications in microelectronics manufacturing, precision instrument manufacturing, biomedical research and optical fiber communication.

At the same time, the further development of ultraviolet laser technology also faces some challenges. For example, how to further improve the power and stability of ultraviolet lasers, how to reduce costs, and how to meet the needs of laser performance in different application fields. These challenges will require laser technology researchers and engineers to work together to advance the development and application of ultraviolet laser technology.

 

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