Optical Power Meters are used for testing and characterizing laser and laser-based systems. This versatile tool is useful for measuring both continuous and pulsed laser power, meeting the needs of research and development as well. The ability to measure power accurately is crucial in maintaining the performance and safety of optical systems. Optical power meters typically use a calibrated sensor to detect the power of the incident light, converting it into an electrical signal that can be easily read and analyzed. This makes them essential tools in various fields, including telecommunications, fiber optics, and laser manufacturing.
Labsphere’s LFPA-8-1CH is an optical power meter designed specifically for precise measurement of continuous low current signals originating photodiodes for radiometry and photometry of light sources. With features, such as low noise, high dynamic range, and outstanding resolution, the LFPA-8-1CH is capable of accurately measuring signals ranging from picoampere (pA) to milliampere (mA) levels.
The LFPA-8-1CH is a single-channel optical power meter that can be used on a bench-top or seamlesssly integrated into instrument rack systems. It is well-suited for a wide range of applications that involve measuring low currents in both laboratory and production line settings.
The LFPM-200K-2CH from Labsphere is a high speed optical power meter designed for the continuous and pulse measurement of photodetector currents. When paired with laser power measurement sphere sensors, it provides a quick and convenient solution for testing and characterizing laser and laser-based systems. This adaptable instrument is valuable for both continuous and pulsed laser power measurement, catering to the requirements of research and development as well as production line applications.
The LFPM-200K-2-CH is equipped with an impressive high-speed detection capability, allowing for sampling frequencies of up to 200kHz from 2 separate channels.
The LFPM-200K-2CH comes with robust software that seamlessly controls the hardware gain, optimizing the readout for the best operational mode. This intelligent feature significantly minimizes the need for manual control and enhances measurement throughput.
