Cyrus80772 said:
N is the force of Earth's gravity on an object with a mass of about 102 g (1⁄9.8 kg) (such as a small apple).
Joule is The work done by a force the of Earth's gravity on an object with a mass of about 102 g (1⁄9.8 kg)(1 N) traveling through a distance of one meter
1 joule = 1 Newton * 1 meter
Correct so far, though a joule is the work done by any force of 1 Newton acting over 1 meter. It isn't specific to gravity (though that example you used is a good way of visualizing the amount of force and energy involved).
Cyrus80772 said:
102 g of force traveling through one meter = 102 g of force times 1 meter.
102 g of force times 1 meter = 102 g of force traveling through one meter
Sort of, though you really shouldn't think of grams (which are mass) as a force - use Newtons.
Cyrus80772 said:
To say that 102 grams of force times 1 meter equales something, then 102g plus 1 meter must equal something also.
Not necessarily.
Cyrus80772 said:
Because 1 times 1 equals 1 and 1 plues 1 equals 2. If you can multiply 2 values together and get an answer you have to be able to add the same values to get an answer
or they are not real values to begin with.
This doesn't necessarily follow. Just because you can both add and multiply simple numbers doesn't mean that anything that you can multiply can also be added. For example, it is fairly easy to see that if you take some distance, and you divide it by a time, you will get a speed. If you travel 10 meters in 2 seconds, you have traveled at an average speed of 10 meters/2 seconds = 5 meters/second. This does not mean that you are able to add 10 meters plus 2 seconds though. What is the sum of 10 meters and 2 seconds? The question is somewhat meaningless, as the units differ. Other units do not work out as intuitively as this, but they do still actually work.
Cyrus80772 said:
1 Newton * 1 meter = Joule
102 g of force times one meter = Joule
102 g of force times 1 meter = a fake value that cannot have phisical existence. Its derived from something that exists and something that dose not exist at all.
As I explained above, it is not a fake value, but a real value, just as real as speed (and you should really stop thinking of mass as force). Not only is it a real value in fact, it is a useful value, as it allows for simple calculations that show what will happen in various simple dynamic situations, such as the interaction between a mass and a spring.
Cyrus80772 said:
You can't really even say “102 g of force times 1 meter equals (anything)” because your trying to apply a mathimatical function between a value of moving mass that exists and a value of distance where distance dose not exist at all. Its impossible to multiply mass times speed without first inventing a fake value dirived from something that exists and something that dose not exist at all. If this could be done in reality then you would be able to add 102g of force to 1 meter…but you can't because the meter dose not exist phisicaly like the force.
Actually, I can say that a force of 1 Newton times 1 meter is equal to 1 joule. I am applying a mathematical function to a relation that it is relevant to. You need to stop thinking that just because some operations are possible that all are - in most cases, the rules for multiplication and division are the same, as is true for addition and subtraction. Between multiplication and addition however, the same rules do not always have to apply, because they are different operations. As for the meter not existing, are you saying that size is imaginary? I'm not quite sure where you're trying to come from here...
Cyrus80772 said:
So I guess E=mc^2 is using these fake joules to say you can multiply mass with speed, or something, what ever it means you should be able to express it in plain english without using an equation of fake values.
I can see how joules can be usful for engenering but…
I think that you should be able to explain E=mc^2 in a new equation that dose not use fake values or use incompatible units together.
Actually, E=mc
2 is describing the actual amount of energy that could be released if mass were completely converted to energy (Note: it doesn't need to be in joules, however, if you use standard SI units, that is what E comes out in. If you use different units for M and C, E will be in different units as well). The units that it uses are the same as used in formulas for energy in basically all of classical physics, and can easily be shown to work. Have you ever taken a course on algebra? A good analogy to the units as far as rules for use are concerned is the set of rules for variables in algebra. For example, if you have 5x and multiply it by 3y, you get (5*3)(x*y), or 15xy. Even though these have different variables, they can be multiplied by or divided by with ease, and the math still works out. However, you cannot add 5x and 3y - the simplest form you can reduce it to is simply the statement 5x+3y - it does NOT turn into (5+3) + (x+y), (5+3)(x+y), (5+3)(x*y) or any other combination. This is the same as the rules for different units - you can multiply a meter and a kilogram together to get 1 kilogram*meter. However, you cannot simply add 1 kilogram and 1 meter.