Introduction
RGB white lasers seamlessly combine Red (638/640nm, spectral width < 2nm), Green (520nm, spectral width < 2nm), and Blue (450/488nm, spectral width < 2nm) lasers into one. By precisely adjusting the output power of each laser, the RGB white lasers can produce a wide range of colors, including pure white light. Specializing in RGB white lasers, our company focuses on single transverse mode lasers. In addition to our standard RGB laser products, we offer customization options to meet specific requirements.
Our product range includes two categories:
RGB Single-Mode Fiber-Coupled White Lasers
Features
- Compact Design: With packages as small as less than 1 cm³ (micro), our lasers support four sizes, ranging from micro to mini, standard, and high power, providing flexibility for various space constraints.
- Multi-Wavelength Combination: In addition to standard RGB trio wavelengths, our lasers can combine up to 5 wavelengths across the violet to NIR spectra in a compact size, whether delivered through fiber or in free space.
- Single-Mode Fiber Delivery: Our lasers feature single-mode fiber delivery with a core diameter of 3 µm, ensuring high efficiency and reliability, with power outputs of up to 100mW.
- High Precision Free Space Delivery: Alongside low divergence collimated beams and precise beam alignment, our lasers offer a range of beam shaping options for enhanced versatility.
- High Power Capability: By combining multiple single-mode lasers, our systems can achieve higher output power for both single-mode fiber and free space applications.
- High Integration: Our lasers offer integration of various functions such as MPD, NTC, TEC, and drivers for continuous wave (CW), pulse, and automatic power control (APC), streamlining system setup and operation.
- Versatility: Customization options include wavelengths, output power, beam shape, connectors, and fiber types, ensuring adaptability for applications spanning research to industrial settings.
- Abundant Accessories: A wide range of accessories such as independent laser drivers, heat sinks, thermoelectric coolers (TECs), fiber collimators, and beam expanders are available to enhance system performance and flexibility.
Applications
- Research Laboratories: Our lasers are ideal for research labs requiring compact, multi-wavelength laser systems with high precision and versatility. They enable advanced spectroscopy, microscopy, and imaging applications across a wide range of disciplines.
- Biomedical and Biotechnology: In biomedical and biotechnology fields, our lasers facilitate high-precision single-mode fiber delivery for applications such as fluorescence imaging, flow cytometry, and optogenetics, where reliability and efficiency are paramount.
- Telecommunications: Our lasers support single-mode fiber delivery for telecommunications applications, including optical fiber communication systems and network infrastructure, providing reliable and efficient transmission of data over long distances.
- Defense and Aerospace: In defense and aerospace sectors, our lasers are used for LiDAR systems, remote sensing, and target designation, where compact size, high power, and multi-wavelength capabilities are essential for accurate and reliable performance.
- Environmental Monitoring: Our lasers enable environmental monitoring applications such as remote sensing of atmospheric pollutants, greenhouse gases, and aerosols, providing valuable insights into climate change and air quality.
- Medical Diagnostics: Our lasers support medical diagnostic applications such as optical coherence tomography (OCT) and confocal microscopy, offering high precision and reliability for non-invasive imaging of tissues and cells.
- Entertainment and Display: With their multi-wavelength combination capabilities and precise beam shaping options, our lasers are also suitable for entertainment and display applications, including laser projection systems (AR, MR, etc.), art installations, and themed attractions.
The difference between single mode fiber delivery and free space
|
|
Single mode fiber coupled |
Free space |
|
Delivery of the beam |
Fiber coupling, Single mode fiber core diameter 3um |
Direct emission |
|
M2 |
＜1.1 Typical |
＜1.2 typical |
|
Beam stability |
Single mode fiber helps to maintain the stability and reduce the fluctuations |
Can be controlled |
|
Technical difficulties |
Higher due to precise coupling of fibers |
Challenges in beam shaping |
|
WPE efficiency |
Due to the coupling efficiency of the single mode fiber, efficiency is usually 50~60% of free space |
Larger |
|
Extreme compact Size |
Larger due to fiber port |
Smaller if beam shaping is not needed |
|
Long term reliability |
fiber facet needs careful handling |
Higher |
|
Beam shaping and manipulation |
Needs extra optical part at the fiber end |
Easier for shaping and manipulation |
|
Polarization |
Needs special fibers to maintain the polarization |
No need special optical parts |
|
Beam divergence |
Minimal beam divergence because of lower NA and aperture |
Larger beam divergence |
|
Fast and slow axis symmetry |
Symmetric beam |
Asymmetric beam (extra beam shaping needed) |
|
beam alignment |
Perfect, RGB is coaxial |
Has certain angles, and difficult for alignment |
|
Compatibility |
Easier to integrate into the existing optical system |
Complex alignment needed |
|
Other advantage |
Remote delivery by separate the light engine from the laser source |
Larger FOV (Field of view) |
|
Cost |
higher |
lower |
|
Application favorable |
To deliver RGB white laser beam inside some cavity or tube; To protect the laser from extreme environment condition Request for perfect RGB mixture Needs symmetric beam and higher beam quality Needs precise beam delivery and stability Mainly for biomedical imaging or spectroscopy application or alike Other special scenarios |
Needs higher output power and efficiency Needs extreme compact size Needs more reliable and robust structure Cost efficiency Suitable for flexible beam shaping and manipulation demands Mainly for Laser display, holographic, and alike |