When you place two opposing magnets together obviously they will repel each other and you can feel them repelling. Now let's say you take a couple of Neodymium magnets (really strong ones) and you force them together so they are touching each other (obviously the repelling force will be incredible). Now imagine you lock them together like that with some kind of metal bracing so they are forever locked together in repulsion. Now here is the important part, imagine before you locked them together you cut a bit out of each magnet so there was a tunnel or tubular hole running through the centre and you place within this area a coiled wire. Would the magnetic fields be continually fluctuating due to magnets being locked together whilst repelling? and would this fluctuation of the magnetic field continually pass back and forth through the coil and thus create electrical current?
no, there would have to be some sort of movement to push the electrons along we all know the 2nd grade experiments of passing a bar magnet through a coil to produce current having a static magnet, would do nothing this is why generator turbines spin, and conversely how electric motors work
Yes I know what you mean but what I am saying is would the magnetic field fluctuate and would it's fluctuation cause the magnetic field to pass through the coiled wire thus creating electrical current. I know Electricity is created by magnets being physically moved so their magnetic fields pass through the coiled wire but what I am asking is would forcing two opposing magnets together and locking them in that repulsion cause the magnetic field (and not the magnet) to fluctuate and thus move through the coiled wire.
Get a voltmeter, try it, and report the results here. You can't hurt yourself with this one unless you get your finger caught in a clamp or something equally embarrasing.
I don't have access to Neodymium magnets and I'm talking seriously big ones here so the magnetic fields would have greater repulsion.
The magnetic field would not fluctuate, as it would be a static field. No variation of the electromagnetic field, no current, no work.
The fields don't fluctuate. They're static. Electromagnetic induction requires a continuous change in the relationship between the magnetic field and the conductor. eg, rotating the magnetic field, or changing the area of the coil.
I don't have access to the sizes i'm talking about and I certainly don't have the money to pay for them at the prices they come at.
Why not use electromagnets? Then you can make the magnetic field fluctuate, and you'll be able to use this to generate a current in your wire coil
I didn't realise that was the purpose; the purpose wasn't stated. I thought it was just a question about magnetic induction
It's called "building a proof of concept model", which occurs quite frequently when people play "what-if" games in the real world of engineering. 2 of these would be 16 bucks. They're N50 material and just under an inch in length: http://www.supermagnetman.net/product_info.php?cPath=30&products_id=132 Here's your volttmeter, a 7 function DVM currently on sale for $2.99: http://www.harborfreight.com/cpi/ctaf/displayitem.taf?Itemnumber=90899 For under 20 bucks, you too, can do real science! Now go to town.
Yes they are, you build a small model as a proof of concept first. That web site has plenty of other magents. Go pick a couple of winners, cough up the cash, build your test rig and figure it out. It's time to experiment instead of talk about it. Besides, if it goes wrong, you gain a voltmeter for your toolbx, and a pair of really bitchin' refrigerator magnets.
Too little for what? What will be achieved by using big-ass magnets that would not with smaller ones?