"surge voltage" is an acceptable phrase in written English.
It is generally used to refer to a sudden, brief rise in voltage caused by an unexpected power surge. For example, you might say, "We had a brief power outage due to a surge voltage."
Using a ramp function makes finding this "surge voltage" quick and practical, without having to incrementally adjust a constant voltage, and adjusting it again should the "surge voltage" change.
However, an increasing number of breakdown cases have been reported when a higher surge voltage exists in some devices.
These devices behave as very high resistance junctions with gradually decreasing resistances until at a certain "surge voltage," where the current response spikes to very high levels.
Because the concrete bridge pier is located adjacent to the substation, the surge voltage from the elevated bridge is able to influence the potential of the substation mesh.
Although the current releasing DC circuit breaker does not have any surge arrester in its structure, its switching surge voltage is significantly limited.
It is important therefore to have a better understanding of Dryformer behaviour in regard to transient surge voltage transfer between its circuits.
It is found that connected capacitors can reduce the induced surge voltages, but may not be effective.
Experiment and simulation results of conventional transformer design have shown that there are considerable differences in the characteristics of the surge voltages that are important in deciding the transferred voltages, depending on whether it is from primary to secondary or vice versa.
In principle, that loss of current can set off surges of voltage and current that can quench the magnets.
In this case, once the current began to surge at voltages below 1 V, it was safe to subject the nanowires to currents under 1 nA without significant damage.
When the neuron gets a cue, gates on sodium channels are thrown open, ions rush in, and the voltage surges.
