A comment about your statements re: GFCI receptacles.
A GFCi does NOT trip because of current on the ground path. It trips because it senses an inbalance of current between the hot & neutral wires. That inbalance MAY be caused by current flowing on the ground due to some sort of issue in the circuit wiring or the load. But the inbalance may be caused by current flowing ANYWHERE that is not on the hot and neutral, for instance through your body to ground. A GFCI does NOT monitor current on the ground wire. It only monitors the current on the hot and neutral to be equal within 3-4 thousands of an amp, a difference greater than that it trips. That is why GFCIs will work just fine on a 2 wire circuit (no ground). The handy GFCI testers will not work when a GFCI is on a 2 wire circuit because those testers direct some current from the hot and neutral circuit onto ground to cause an inbalance tripping the GFCI. No ground, no inbalance, thus tester doesn't work. BUT if you get an inbalance on a 2 wire circuit, that GFCI will work just fine.
No. Not if the GFCI is wired correctly. The neutral wire should always be cold, or at ground potential.
No, that alone would not cause a GFCI to trip because that is the proper way to wire a panel.
Zero, or very close to it. If there is a large neutral current flowing, voltage drop on the neutral leg could cause a volt or so to read between the two. If you read full line voltage, the outlet is wired wrong!
What you need to define is the statement "utility- sized electrical generator". It depends on what the generators output is used for as to the way it is internally wired. In some configurations there is no neutral to ground as in a Delta configuration.If the generator is configured for a Wye output and the neutral centre tap is not grounded there will be a floating voltage between the generator and the utility system ground. It is for this reason that the generator's neutral point is grounded to bring the floating voltage down to zero volts to ground.
The secondary side (output) of a three phase transformer develops a "separately derived system". That is why you do notsupply a neutral to a three phase transformer. It develops its own reference to ground by being bonded to the transformer casing and to a substantial earth ground, such as a ground rod. The XO tap on a transformer provides the neutral to the secondary line. It will have a double wire lug. The neutral wire going to the panel being supplied goes under one lug and the same size wire is to go to the ground lug on the transformer chassis The ground lug is also a double with the other lug to be wired to the earth ground.
the hot and neutral are wired forwards the ground and neutral are wired backwards
No. Not if the GFCI is wired correctly. The neutral wire should always be cold, or at ground potential.
No, live and neutral wires should never be directly wired together. They serve different purposes - live carries current to the appliance, while neutral returns current to the source. Mixing them up can cause electrical hazards and damage to the equipment.
The bare wire from the old 3-wire stove should be connected to the grounding terminal in the panel. The neutral and ground should not be bonded together at the stove. If the stove requires a 4-wire connection, it's best to run a new 4-wire circuit to meet current electrical codes for safety.
A bare grounded neutral should never get close to the ground if it is wired properly. When the neutral leaves the meter base it is in conduit and should enter into the distribution panel where it connects to the neutral buss. It is at this junction that the copper ground wire is connected after coming from the outside ground rod or ground plate which ever grounding system was used.
For a US 3-prong plug, a smaller slot should be hot, the longer slot should be neutral, and the screw that holds the plate on should be ground. Cheap, inexpensive testers are available at hardware stores.
The AC wide prong is the neutral. An AC voltmeter measuring from narrow prong to ground should show line voltage; measurement from wide prong to ground should show zero. In a two-conductor power cord (and some three-conductor cords), the ridged side should be the neutral. In any light-bulb socket, the outer ridge should be wired to neutral.
Neutral is at the jumper that changes it from 120v to 240v. Two stator windings are used in series to make 240v; at that junction is (when wired in Series)your neutral/common/ground. Ground this terminal and use it for your neutral/common. When wired in parallel you have 110v and the jumper is removed and there is no common/neutral and ground is from the frame of the generator.
No, that alone would not cause a GFCI to trip because that is the proper way to wire a panel.
If you have to connect the neutral to ground to make the circuit work then you have an open neutral in your circuit. Be careful in handling the neutral as there can be voltage potential on the neutral if a load is connected. In a properly wired home that has been inspected by the local electrical inspector the neutral should be bonded to the ground at the main service distribution point. There will be a green screw that projects through the neutral bus and is threaded into the back of the electrical panel. This should be the one and only place in the whole electrical system where this neutral to ground connection takes place. Dangerous!!!!! The ground is the safety to prevent you from getting shocked due to a malfunctioning piece of equipment. By using the ground for a neutral you will be energizing the entire ground system of you house or business. Thus anything with metal on it and a ground wire going to it will be electrified if the ground fails at the breaker box or building ground rod. Do you want to take this risk? Not I..........
Zero, or very close to it. If there is a large neutral current flowing, voltage drop on the neutral leg could cause a volt or so to read between the two. If you read full line voltage, the outlet is wired wrong!
If wired properly the ridged wire is the neutral.