TRANSFORMER · DIELECTRIC WITHSTAND

Hipot Lab AC

SIMULATION

Primary ↔ secondary insulation · ideal AC source · illustrative settings. This is a physics model, not a 1:1 replica of a specified transformer or tester.

READY0.00 s
0.000kV RMS
0.000mA RMS · total
Resistive 0.000 mACapacitive 0.000 mA

Select a specimen, then start the test.

Primary group · HVSecondary group · RETURNR insulationCAC source
Test trace Voltage Total current

Axes update to your settings. Time is real seconds.

Test settings

Predicted steady current at target——
Model, accuracy & sources

The transformer is unpowered. This models only its primary–secondary insulation barrier as parallel R and C, not magnetic transfer or the core. All component values, timings and trip limits are authored examples, not required test settings.

At steady voltage: Iᵣ = V/R, I꜀ = 2πfCV, Iᵣₘₛ = √(Iᵣ² + I꜀²). During ramps the cycle-averaged estimate is √((V/R + C·dV/dt)² + (2πfCV)²). The meter shows resistive and quadrature capacitive components; the small ramp term is included in total current. Voltage is RMS; peak is √2 × RMS.

An ideal detector trips at the threshold with no delay or source sag. Breakdown is a user-selected RMS onset, not a prediction of material failure. Partial discharge, arcing, dielectric absorption, nonlinear insulation, measurement filters and tolerances are outside this model. A pass means this simulated barrier met the chosen settings only.

Ramp down is a modeled AC voltage envelope, not a DC discharge test or a safe-to-touch indication. Physical testing requires the transformer’s specified test method and the tester’s manual.

Manufacturer references: Ikonix — equivalent circuit and test verification · Chroma — dielectric testing guide.

Run log Latest 12 · saved with settings

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