ZES LMG670 1 to 7 Channel Power Analyzer

In an electrical circuit, the mixing of different signals can give inaccurate results. For quality power-testing, one needs to perform the tests in a dual fashion - first with, then without filtering. Amidst this hassle, the ZES LMG670 1 to 7 Channel Power Analyzer manages to save the day. It is the first power analyzer to have two A/D converters in two independent signal paths for each current and voltage channel. Let’s have a look at its revolutionary features:

• Dual-Path Architecture: An ingenious technology that prevents the aliasing of signals. It also lets you simultaneously measure narrow-and broadband values.
• Simultaneous Capturing of fundamental frequency and broadband RMS values: Instantaneously detects losses and resp. high-frequency components.
• 7-Frequency Synchronization and Flicker Measurement:  Synchronizable for up to 7 different frequencies and detects voltage fluctuations for better readings.
• Flexible Scripting Tools and Simultaneous Measurement: Custom applications come with flexible scripting tools for smoother operation. Also, you can simultaneously measure V, I, P values & harmonics to make sure that you’re in complete command of the procedure.

The Dual-Path Architecture is the true game-changer here. ZES LMG670 harnesses this cutting-edge tech to avoid all the pitfalls of conventional analyzers. Be it costs, time or energy, the system has optimized it all. It’s time to switch gears from your old-school power analyzers!

Measurement Channels

Outstanding accuracy of 0.015% of measured value + 0.01% of range Full dynamic range of 500 µA to 32 A / 3 mV to 1000 V per channel available in single instrument Power measurements from standby to full load (max. 32 A) without mechanical changes Analog bandwidth DC up to 10 MHz Modular configuration with 1 to 7 power measurement channels (alternatively 6 channels + 1 I/O card) Gapless sampling up to 18 bit and a minimal cycle time of 30 ms Delay time between V and I input < 3ns, very precise measurements at small power factors (PF) and/or high frequencies