MII-Approved

The process measures the AC RMS (Root-Mean-Square) voltage sourced by the UUT.   (more…)

The process measures the AC Current sourced by a device without knowing the shape of the signal. (more…)

The process measures the Alternating Current sourced by a device with the assumption it is generating an AC Sinewave.   (more…)

The process of measuring the resistance of a resister or other device.  (more…)

This process connects a Termination to the input of a measurement device to reduce the noise and outside electrical signals.

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The process measures the AC RMS (Root-Mean-Square) voltage sourced by the UUT.   (more…)

The test process measures the DC (Direct Current) voltage sourced from the UUT.   (more…)

The process of sourcing a time marker signal from a device.

This process is typically used to calibrate the sweep time accuracy on devices such as spectrum analyzers or oscilloscopes.  (more…)

The process of sourcing 2 DC (Direct Current) voltage signals.  First the VoltsRef signal is sourced and measured on the UUT, that value is stored as reference.  Then the test Volts signal is sourced and measured on the UUT and stored as reading.  The test result is returned as (reading – reference).

These two voltage signals are often used when calibrating the DC gain of a device such as an Oscilloscope.   (more…)

A test process the sources 2 sinusoidal AC Voltage signals at different frequencies keeping the voltage levels constant between the two frequencies. The FrequencyRef signal is sourced and the voltage is measured by the UUT and saved as the Reference value.  Then the signal is changed to the test Frequency signal and the Test value is measured on the UUT.  The two measured values are compared, the results can be expressed as Delta Volts, dB or percent of change.

These two sinusoidal signals are often used when calibrating bandwidth or frequency response on an Oscilloscope or similar device. (more…)