Liquidation Sale Bi905-52 Narrow Bandwidth Interference Nir Bandpass Filter M52x0.75 Limited Time 75% Off [xP4g90QN]

Bi905-52 Narrow Bandwidth NIR Bandpass Filter: Your Ideal Solution

Introducing the MidOpt Bi905-52 Narrow Bandwidth Interference NIR Bandpass Filter, a cutting-edge optical component designed for precision applications. This filter is specifically engineered to enhance the performance of 905nm IR diode lasers, making it an essential tool for various industries. With its narrow bandwidth and exceptional interference reduction capabilities, the Bi905-52 ensures clear and accurate signals, minimizing errors and maximizing efficiency.

Technical Specifications and Features

The Bi905-52 filter boasts a useful range of 895nm to 915nm, with a tolerance of +/- 5nm, ensuring reliable performance across a specific wavelength spectrum. Its peak transmission is an impressive ≥88%, providing optimal signal transmission while maintaining a high signal-to-noise ratio. The filter features a hard coating that blocks unwanted UV, visible, and NIR wavelengths, ensuring that only the desired 905nm light passes through. Key specifications include a filter size of 52mm with a M52x0.75 thread, a clear aperture of 50mm, and an overall thickness of 7mm. This single-substrate filter is also available in a 57mm outer diameter, offering versatility for various mounting options.

Applications and Benefits

Whether you're working on autonomous vehicle lidar systems, hand-held laser rangefinders, or precision surveying equipment, the Bi905-52 Narrow Bandwidth Interference NIR Bandpass Filter is an invaluable tool. Its ability to reduce unwanted noise from sunlight and ambient light sources significantly improves signal-to-noise ratios, leading to more accurate and reliable measurements. This filter is also suitable for laser speed detectors, cloud ceilometers, proximity fuses, safety curtains, laser therapy devices, and weapons simulation. With the Bi905-52, professionals in these fields can expect enhanced performance, reduced errors, and increased productivity.