ah but the world didnt just occur from a big bang, helped by nothing. back to ur box, as u said, the balls are only ordered and the level of entropy is only lowered from an external source. that would make the box an 'open system'. i.e it cannot tidy itself, it can only stay the same or increase in the amount of entropy (such as say dirt)...
im gonna quote that site again as aint a big authority on the issue of open/closed systems...,so for those who have already read this, u dont really need to again. kinda just for medical guy as he is late in the debate, hehe:
"The second law of thermodynamics basically says that the entropy in a closed system tends to increase or stay the same. That may sound complex to those who aren't familiar with physics, but it really is very simple. Entropy is just the amount of disorder in a system, and a system is basically anything you can think of. An atom is a system. Earth is a system. Our galaxy is a system. When I say disorder, I really mean disorder. At first glance, most people think that entropy is an actual chemical thing that has substance to it, and make it out to be a whole lot more complicated than it really is. Entropy really is disorder, in the very same sense that is commonly used by the general public. A room that has clothing cluttered about the floor, books piling out of the closet, and dirty dishes scattered everywhere has high entropy, while a room that has everything neatly filed away has low entropy. The second law tells us that the amount of entropy in a closed system tends to increase or stay the same. For example, a dirty house left on its own will not become clean. Dust can collect on surfaces, mold can settle in, and so on. The best you can hope for is for things to stay the same.
You may think that you can decrease the entropy of a system yourself by cleaning that messy room or using a vaccum cleaner. This brings us to what I mean by closed systems. There are two kinds of systems: closed and open. An open system is defined as a system that has an outside source of energy. Earth, for example, is open because it has the sun. Your room, for example, is an open system because it has an outside energy source: you. With an outside energy source, entropy in a contained area can actually decrease. It can only decrease, however, at the expense of other parts of the universe. The second law really only applies to the universe as a whole. You room, for example, is messy again. You decide to clean it. You pick up the clothes, fold them and put them away. While your room may have decreased in entropy, the rest of the universe has not. The energy that you used to pick up your room was expelled from your body as heat. More heat means more entropy. The amount of entropy generated by the heat from you far outweighs any entropy you may have "taken away" from you. This is why the second law of thermodynamics speaks specifically about closed systems. Closed systems have no energy source. The only truly closed system in existence is the entire universe itself, because that is all there is. It has no outside energy source because there isn't anything outside of it to begin with. That tiny little section of the cosmos that is your room may have decreased in entropy, but for reasons already discussed, the rest of the universe suffers from an increase. The second law prevails: the closed system increases in entropy.
What does this have to do with evolution?
Evolution, as we all know, involves the very gradual change of organisms over long periods of geologic time. Very often, those changes are from simple to complex. Certainly, a human is more ordered (has less entropy) than a single celled bacteria. That would mean that evolution from basic cells to modern animals would decrease the entropy of the universe, and violate the second law, correct? No. Actually, its quite the opposite. The more complex a system is, the more entropy it has. Imagine a box. It doesn't matter what kind of box. Just imagine a box. Imagine that there is a single hydrogen atom bouncing around inside of that box. It seems neat and tidy, right? Most people imagine this as a box with a little red or blue ball bouncing around inside of it. Now imagine a box with a hundred of those balls bouncing around inside of it. Imagine red blue and green balls. Imagine different sized balls. Imagine ten thousand different balls bouncing around inside at incredible speeds. The system is more complex now because of all of the features we've added, and it's become much more disordered, hasn't it?
A good way to think of the amount of entropy in a system is how many states are there that the system could be in that have the overall same appearance. Think about the box again. Imagine it with one atom bouncing around again. Compare two states that the system of the box could be in: one where the ball is all the way on the left side of the box, and another where the ball is all the way on the right side of the box. You can easily distinguish the two, right? You can do the same with the atom being at the top of the box, at the bottom, etc., and none of them really look the same, do they? Let's go back to our box with the thousands of balls. Picture the different states that the box might be in. Because all of these balls are all over the place and the box is jam packed, all of these states have the same overall appearance. For this reason, water has extremely high amounts of entropy. Imagine a glass of clear water with nothing else in it. Just water. Imagine stirring the water now. After the water slows down, what does it look like? It doesn't look any different at all, does it? Even though the water molecules inside that glass are in completely different positions due to your stirring, it still has the same overall appearance. Organisms are the same way.
Imagine a very simple cell with nothing but a nucleus. Imagine the different states it might be in (I would probably picture the nucleus in different places). Imagine the nucleus on the left side of the cell. Now imagine it on the right. You can tell the difference, right? These two states don't have the same overall appearance. Now imagine trillions of cells all mangled around. Imagine all the different positions these cells might have. They all have the same overall appearance, don't they? That's because more complex systems have higher entropy. This is well known in science. The mistake that creationists make when they believe that evolution violates the second law is that they think that simple to complex means disordered to ordered. As I've shown, this is not nearly the case. More ordered most certainly does not mean more complex.
After hearing this explanation, some creationists probe further by saying that the assembly of non living material into life violates the second law. Again, this is not true, but for a different reason than discussed above. The random scattering of nucleotides, DNA, RNA and so on all mangled around forming into a neat little cell does go from disordered to ordered. What creationists do not take into account here is that the earth is not a closed system. These things can happen because the earth has the sun as an energy source. The sun and lightning heating the ocean would provoke chemical reactions among all of those organic compounds that would tend not to happen without them, just like the second law says. Imagine, for example, a park. Through the middle of the park is a stone wall. Scattered in a disordered fashion across the ground on the west side of the wall are many, many leaves. Imagine that wind blows these leaves east. All of the leaves collect on the walls. These collections of leaves are more ordered than the state that the leaves were in before the wind blew. Again, this can happen because earth is an open system. The wind is a result of differences in air pressure, which is a result of the unequal heating of the earth by the sun. Had the earth been a closed system, there would be no sun, therefore no wind, and the leaves would have just sat there. It's the same way with organisms.
Now, even if simple to complex did mean disordered to ordered, the usage of food energy, as said before, far outweighs any decrease in entropy made by bodily functions. For you to clean your room, you use that food energy. For organelles inside cells to get rid of waste unwanted substances, energy is used. That energy is either derived from plants, which get their energy from the sun by photosynthesis, or by photosynthesis carried out by the cell itself (or, in rare cases chemosynthesis), and is expelled as heat, increasing the universe's entropy. True: the cell may be cleaner and more ordered, but outside the cell there is more heat and therefore more entropy. The cell is an open system, just like the earth. "