Okay, hang on, how does fission break this rule? Given how fission works, I don't see how it would.
It depends on how you want to view it. Basically we are told that fissioning does not require oxygen to operate. I know you'll say, "well it doesn't"..the fact is...if people can't see that atmosphere is required for any energy to work then this will go nowhere in discussion, because people are so brainwashed into believing in magic. That's not to say they are stupid, it just means we all have been battered into thinking of these fissioning miracles.
The reason why it breaks the law is because it does not change its form, even after 6/8/10 years of supposed decay.
A crude analogy would be dropping a dissolvable tablet into a glass of water. You get a reaction, yet you know that the reaction will decay the tablet to nothing.
If you were to put something more dense into water or whatever and you gain a reaction, especially a reaction that produces huge energy, then you are going to see decay over time...and I mean a short time. This is where is goes against the law.
Again, given how fission works, why would you expect any difference?
As above. The whole point is, I do not believe fissioning works like we are told. I know reactions happen but this atom splitting and creating of neutrons, splitting more atoms, etc...is a load of nonsense in terms of energy with no decay...no visible decay.
Okay, this is a misconception. A generator, such as used at a power plant, or a portable unit, or even the alternator in your car (the only real difference being size and maximum output capability), can safely run with no power being used. In fact, it can safely run anywhere from zero load to maximum rated load. There is never any need to "dump excess power", since any generator only ever produces as much power as is being used at the time. The hydraulic equivalent would be a variable displacement pump, which only moves as much fluid as is required at any given time.
They disperse the power by heat transfer when not in use but running. Power stations have to do the same thing, so they have to use choices and work out what power will be used and when it will be in full demand, partial or low.
When in full demand, there's not much problem. When demand is low, it still has to dump the load otherwise serious burnout problems would occur.
The way they gauge this stuff, believe it or not, is by your tv viewing and TV intervals. For instance: they know that at certain times there will be a mass rush to put the kettle on, etc...so they are ready for the demand.
When demand is low, they need to dump or have help in dumping, which is where the storage heaters came in. People were basically doing the job for them, plus street lights are also resistor dump loads...not just see in the dark, aids.
Failing that, they would need back up dump loads which can be something like...large elements in huge pools that can serve two purposes.
One is to heat the water to dump excess electricity and the other is to make hydrogen by using the dump load method...this would be the most dagerous time I would imagine for power stations.