Lamp-Pumped

LNF Series OEM Laser Head Nd:YAG 1064nm

LNF Series OEM Laser Head Nd:YAG 1064nm

The LNF Series OEM Laser Head is a cutting-edge solution designed for both medical and industrial laser systems. These laser heads are meticulously crafted to ensure high efficiency and reliability, making them a ...

Sold by: VIGITEK, INC. Ships from: United States
Specifications
Wavelength: 1064 nm
Pulse Energy: 50000 mJ
Pulse Energy Stability: Not Specified
Pulse Duration: Not Specified
Repetition Rate: Not Specified
LNF Series OEM Laser Head Nd:YAP1340nm

LNF Series OEM Laser Head Nd:YAP1340nm

The LNF Series OEM Laser Head is a cutting-edge solution designed for both medical and industrial laser systems. These laser heads are meticulously crafted to ensure high efficiency and reliability, making them a ...

Sold by: VIGITEK, INC. Ships from: United States
Specifications
Wavelength: 1340 nm
Pulse Energy: 25000 mJ
Max Input Power: Up to 3.5 kW
Medium/Min Flow: Water/4.7 lpm
Operation Temperature: +10…+40°C
LNF Series OEM Laser Head Er:YAG 2940nm

LNF Series OEM Laser Head Er:YAG 2940nm

The LNF Series OEM Laser Head is a cutting-edge solution designed for both medical and industrial laser systems. These laser heads are meticulously crafted to ensure high efficiency and reliability, making them a ...

Sold by: VIGITEK, INC. Ships from: United States
Specifications
Wavelength: 2940 nm
Pulse Energy: 1500 mJ
Pulse Energy Stability: Not Specified
Pulse Duration: Not Specified
Repetition Rate: Not Specified
High Energy Nanosecond Nd:Glass LASER

High Energy Nanosecond Nd:Glass LASER

The GxJ series pulsed Nd:Glass lasers produce near-diffraction limited Single Longitudinal Mode (SLM) super-Gaussian radiation in the nanosecond regime having coherent output energy from 2 to >10 J per ...

Sold by: Geola Digital Ltd Ships from: Lithuania
Specifications
Wavelength: 1053 nm
Pulse Energy: 1000 mJ
Pulse Energy Stability: 5 %
Pulse Duration: 25 ns
Repetition Rate: 0.008 – 0.01 Hz
Pulsed Nd:YAG Lasers Model LQ529

Pulsed Nd:YAG Lasers Model LQ529

The LQ529 is a series of popular compact lamp-pumped Nd:YAG lasers offering uncompromising combination of the main parameters: high output power, exceptional beam quality and minimum laser head and power supply ...

Sold by: SOLAR Laser Systems Ships from: Belarus
Specifications
Wavelength: 532 nm
Pulse Energy: 280 mJ
Pulse Energy Stability: 1.5 %
Pulse Duration: 10 ns
Repetition Rate: 1 – 30 Hz
EverGreen ² (70-200 mJ @ 532 nm)

EverGreen ² (70-200 mJ @ 532 nm)

The EverGreen ² is the ideal laser for particle imaging velocimetry applications as it features precisely overlapped beams, designed to minimize correlation noise. The EverGreen ² allows the scientist to ...

Sold by: Lumibird Ships from: France
Specifications
Wavelength: 266 nm
Pulse Energy: 30 mJ
Pulse Energy Stability: 3 %
Pulse Duration: 10 ns
Repetition Rate: 15 – 25 Hz
EverGreen ²

EverGreen ²

The EverGreen ² is the ideal laser for particle imaging velocimetry applications as it features precisely overlapped beams, designed to minimize correlation noise. The EverGreen ² allows the scientist to ...

Sold by: Quantel Laser by Lumibird Ships from: France
Specifications
Wavelength: 266 nm
Pulse Energy: 30 mJ
Pulse Energy Stability: 3 %
Pulse Duration: 10 ns
Repetition Rate: 15 – 25 Hz
Q-smart 850

Q-smart 850

The Q-smart 850 is the new pulsed Nd:YAG laser from Quantel. Controlled by the Q-Touch pad, it is a high energy, cost-effective laser system. Building on the Brilliant’s modularity and superior beam ...

Sold by: Quantel Laser by Lumibird Ships from: France
Specifications
Wavelength: 1064 nm
Pulse Energy: 850 mJ
Pulse Energy Stability: 2 %
Pulse Duration: 6 ns
Repetition Rate: 10 – 10 Hz
Q-smart (850 mJ)

Q-smart (850 mJ)

The Q-smart 850 is the new pulsed Nd:YAG laser from Quantel. Controlled by the Q-Touch pad, it is a high energy, cost-effective laser system. Building on the Brilliant’s modularity and superior beam geometry, ...

Sold by: Lumibird Ships from: France
Specifications
Wavelength: 1064 nm
Pulse Energy: 850 mJ
Pulse Energy Stability: 2 %
Pulse Duration: 6 ns
Repetition Rate: Not Specified

Did You Know?

The first working laser, constructed by Theodore Maiman in 1960, was a ruby laser pumped with a flash lamp. Lamp-pumped lasers utilize laser pumping as the act of energy transfer from an external source into the gain medium of a laser. They are commonly used for applications demanding higher energies, as lamp-pumped lasers are able to generate very high pump powers. Additionally, lamp-pumped lasers offer low price per watt of generated power compared to laser diodes. They are also relatively sturdy and can handle voltage and current spikes.

Lamp-Pumped Solid-State Lasers: High-Energy Light Sources for Diverse Applications

Lamp-pumped solid-state lasers are a category of lasers that utilize optical pumping via flashlamps or arc lamps to excite the gain medium, typically a crystalline or glass host doped with rare-earth ions such as neodymium (Nd), ytterbium (Yb), or praseodymium (Pr). This pumping method has been foundational in the development of high-power laser systems, especially before the advent of diode-pumped technologies.

Operating Principles

In lamp-pumped solid-state lasers, the pump source—either a flashlamp or an arc lamp—emits broad-spectrum light that is absorbed by the dopant ions in the gain medium. The excited ions then undergo radiative transitions, emitting coherent light at specific wavelengths. The design of the laser cavity, including the use of mirrors and optical coatings, helps to direct and amplify the emitted light, resulting in a high-intensity laser beam.

Advantages

  • High Pulse Energy: Lamp-pumped lasers can deliver high pulse energies, making them suitable for applications requiring intense light pulses.

  • Established Technology: The technology is well-understood and has been used in various applications for decades.

  • Cost-Effectiveness: Compared to diode-pumped systems, lamp-pumped lasers can be more cost-effective, especially for high-power applications.

Applications

  • Materials Processing: Used in cutting, welding, and engraving due to their high pulse energies.

  • Medical Procedures: Employed in certain surgical applications where high-intensity light is required.

  • Scientific Research: Utilized in spectroscopy and other research areas that require high-energy light sources.

Considerations

While lamp-pumped solid-state lasers offer high pulse energies, they also come with considerations such as lower efficiency and shorter lifespans of the pump sources compared to diode-pumped systems. Additionally, the broad emission spectrum of the pump sources can lead to thermal effects and spectral broadening in the output beam. Advancements in diode-pumped technology have addressed some of these issues, offering higher efficiency and more stable output.

Conclusion

Lamp-pumped solid-state lasers remain a vital technology in areas where high pulse energy and cost-effectiveness are paramount. Their continued use in various applications underscores their importance in the field of laser technology.