Award Winning Midwest Optical Systems Bi385-22.5 For Women [wDZMV6sB]

Award Winning Midwest Optical Systems Bi385-22.5 For Women [wDZMV6sB] Near UV Bandpass Filter

The Award Winning Midwest Optical Systems Bi385-22.5 For Women [wDZMV6sB] Near UV Interference Bandpass M22.5 Filter is a cutting-edge optical solution designed for precision wavelength control in various applications. This filter stands out with its narrow bandwidth of 20-35nm FWHM, ensuring optimal performance for laser diode systems. With a high transmission rate of ?85%, the Bi385-22.5 filter efficiently allows specific wavelengths to pass through while minimizing unwanted light interference. Its reflective, mirror-type surface is engineered to minimize thermal effects, making it a reliable choice for demanding environments.

• Narrow Bandwidth: 20-35nm FWHM for precise wavelength control.
• High Transmission: ?85% to maximize light throughput.
• Reflective Surface: Minimizes thermal effects for stable performance.

Technical Specifications

The Bi385-22.5 filter is tailored for use with laser diodes, offering ideal wavelength separation when multiple light sources of similar wavelengths are present. Its reflective, mirror-type surface not only reduces thermal effects but also ensures a consistent and reliable performance. Available in sizes up to 79.5mm sq., this filter can be easily integrated into a wide range of systems. The high transmission rate and narrow bandwidth make it an excellent choice for life science and laser analysis applications where discrete wavelengths need to be passed to maximize system performance.

• Use with Laser Diodes: Designed for optimal performance with laser diode systems.
• Ideal Wavelength Separation: Perfect for applications with multiple light sources of similar wavelengths.
• Available Sizes: Up to 79.5mm sq. for versatile integration.

Applications and Benefits

The Bi385-22.5 filter is a popular choice for life science and laser analysis applications. Its ability to pass discrete wavelengths maximizes system performance, making it an essential tool for researchers and engineers. The filter's high transmission rate and narrow bandwidth contribute to improved signal-to-noise ratios, enhancing the accuracy and reliability of experimental results. By minimizing thermal effects, the filter ensures stable performance over extended periods, which is crucial for continuous operation in research and industrial settings.

• Life Science Research: Enhances the precision of experiments and data analysis.
• Laser Analysis: Improves the accuracy of wavelength separation in complex systems.
• Continuous Operation: Minimizes thermal effects for stable performance in demanding environments.