When the optical power changes quickly, accurately, and quickly capturing the optical power value is a great challenge for optical power meters When traditional optical power meters cannot meet the requirements of high speed and accurate measurement, high speed optical power meters have emerged Traditional optical power meters take up a lot of time in power value integration and range switching in order to meet the requirements of measuring numerical accuracy and large dynamic range Therefore, they cannot quickly and accurately output effective optical power values Therefore, they cannot meet the application requirements of high speed automatic testing systems and high speed monitoring systems

The Dimensionality Technology high speed optical power meter series modules ensure both high speed power output and meet the needs of a large dynamic range at high speeds in terms of principle design and device selection It has batch acquisition mode and trigger acquisition mode, and can provide up to 10KHz high speed continuous acquisition The dynamic range can reach+10dBm~-70dBm, and it is configured with a storage depth of 10 million measurement data (each channel, combined with tunable light source products, providing an effective and high performance testing solution for fast scanning and testing of passive devices (DWDM, AWG, WSS, and other devices)

The high speed optical power meter quickly collects and measures the instantaneous currents and noise of optical signals, restoring the details of signal currents, and characterizing the continuous changes of optical signals

Providing fast automatic gear shifting collection in high speed mode is critical for accurate collection and measurement of power changes in large dynamic range scenarios

Support continuous triggering of collection mode

Users can connect external trigger signals to the trigger in port of the power meter according to their testing needs, achieving a single trigger batch collection function

Fixed gear settings can achieve faster high speed acquisition, shorter response time for large dynamic range data acquisition, and easier capture of transient changes in signals&Nbsp;