The amount of current that flows in a circuit is proportional to the voltage and inversely proportional to the resistance, as per Ohms law (I=V/R) where I is current.
When resistances (IE loads) are connected in series, the total resistance is the sum of the loads (IE Rtotal = R1 + R2 + R3 ...)
When they are connected in parallel, the total resistance is the inverse sum of the reciprocals of each resistance (IE 1/Rtotal = 1/R1 + 1/R2 + 1/R3 ...)
Therefore in parallel the total resistance is much lower, and therefore at the same voltage more current will flow.
DC (direct current).
how do you use ohms law express conductance in terms of current and voltage?
It is reverse. when load current in the secondary changes the primary current also changes directly. Load current is dependent on the load. I am assuming that the question is related to a normal distribution transformer.
Yes and no. As voltage changes, current changes, causing power to change, with the end result that temperature changes. Most resistors have a small temperature coefficient, so their resistance will change slightly as the voltage changes.
Motion of a fluid (liquid or gas) caused by density changes caused by temperature changes.
What changes have you introduced into your current role?
No, that's Alternating Current.
It changes direct current (DC) to alternative (AC) energy.
When an element polarity of voltage or current source changes, the magnitude of the corresponding current or voltage changes is called unilateral element. Eg: Diode Even Diode connected back to back in parallel act as a Bilateral.
When a surface current deflects, it changes direction.
DC (direct current).
A: it does not
Voltage
dependencies between current assets and current liabilities either through balance creations or balance changes.
how do you use ohms law express conductance in terms of current and voltage?
in order to prevent accommodation current that changes rapidly will provide better stimulation that the current which changes slowly.. such current shows more chances of accommodation...
alternating current (ac)