Impedance magnitude acts like the denominator of an AC Ohm-law current estimate: the same voltage gives less current when the impedance triangle is larger. These rows use exact magnitudes and do not track phase angle; real AC current depends on complex impedance, frequency, component tolerances, heating, and measurement uncertainty.

The same voltage gives less current as checked impedance magnitude grows. Exact arithmetic here means exact results for the stated model inputs; measured inputs still carry uncertainty and significant-figure limits.

highlighted = computed this step

The small triangle gives the largest current

With impedance magnitude 5 ohms, 20 volts gives current 4 amperes.

I=205=4I={20\over 5}=4
Impedance current scan rowThe checked hypotenuse is the current denominator.RXZ

Doubling the triangle halves the current

The same 20 volts over 10 ohms gives current 2 amperes.

I=2010=2I={20\over 10}=2
Impedance current scan rowCurrent follows the full impedance magnitude.RXZ

The largest triangle leaves one ampere

With impedance magnitude 20 ohms, the same voltage gives current 1 ampere.

I=2020=1I={20\over 20}=1
Impedance current scan rowThree rows show inverse scaling without decimals.RXZ