Der Chef

Looking into tiny things that act weird when seen using light. The tiny thing dances when brought next to outside fields. My work is to understand the steps in that dance using light.

When those tiny things come together to form another not so tiny thing, they then can form another little thing that is mirrored in how it looks. These mirrored looking little things when dropped onto the top of a hard and big block start to dance to the beat of the little things. Two different mirror looking little things will show two different dance steps that were not there when the little things were not there.

The little things on the big blocks are then used to say and store an idea quickly in a small box that can be taken anywhere and everywhere.

In my studies, I pass the very, very, very small things that make up everything through a tiny opening. With changes to our very small things, which are made up by the very, very, very, small things and actually make up everything, I can find which ones are better or worse. With an even, but not actually even, number of the very, very, very small things in the less small, but still very small thing, the coupling is very important when you have strong add ons, since it pulls the very, very, very small thing at the highest number to the add on and off of the important part. Once that is understood, the order comes from the number with only one of the very, very, very, small things in it, not the highest one that is full.

I also am understanding how putting one of the very small things in a different very small thing, and see how the answer changes. I think it will end up the same, but better and cleaner than if the first very small thing was alone. So far, that is what everything I have seen says will happen. However, I think we can understand more than others because we are good with computers and our friends in other schools are even better, which gives us a new direction.

Another thing I am doing is trying to cover our tiny opening with something like water, but definitely not water, and to keep it covered the whole time. We think that it will make the answer cleaner and easier to understand than it is right now.

Not my own studies, but I also helped others get better at playing with cool stuff down stairs and move their own studies forward for two years, and I got to play with them a lot myself and get good with them, before giving way to the person that usually sits behind me.

The most important thing is where two eyes join to be one eye. My work is about things that are so small, we can not see them even with the best eyes, and I study how tiny moving parts inside them act when power can both come in and go out at the same time. In that body everything is nice and fix. Most good people like to study things that are closed and quiet, but real things are never like that, so I look at things that lose and not lose power and see how this changes the way their tiny moving parts act. 

I focus on a body that is only one or two skin thick and can be used in tomorrow box like faster computers, better lights. I use light to understand how these tiny parts move, and join in strange ways that do not happen in normal body. By learning these, they may lead to new things that is smaller, faster than what we have today.

To do this work, I use a nice computer and light to look at small parts of a thing and see what happens inside. I watch how light touches the skin of body and how the picture on the computer changes. I try again and again to find clear signs and follow them carefully. This helps me understand where the small parts are and how they move. By doing this many times, I can explain why they act in strange and new ways.

My work is on the study of the many layer matter that you can cut in single layer without much force. To make it, you just grab the layer and knock it. That can lead to an interesting finish. Different number of layer can flip its direction of the field inside or even turn it somewhere else. I can add something between the layer and that can also change the direction of the moment of the smaller bits of matter (that our world is build from). You can also build on and cover some of that many layer matter with another matter. Different directions of their hand field can also flip the direction of the moment of the smaller matter. And that build layer on layer can make the field between very strong. If the field is strong enough to flip the direction the small matter moves. To see all these changes I use light and look at the very small pictures of the matter with high picturing power. All of these finding can help make new memory cells without memory lost with no pause.

I am interested in things that happen by chance. When you put together several things that happen by chance, the thing you see at the end becomes hard to explain by the things you saw at the start. This is even harder if there are things you can't see in the middle that also change the thing you see at the end. One use of this thinking is the study of very very small things that we can't see. These very small things can run into each other or even stick together. When they stick together, it is possible that stuff that shocks can move through the very small things. The stuff that shocks shows up as a number on a computer. This number should tell us how good the very small things are at shocking, but it is not that simple. 

Because we can't see the very small things, we have to try to understand what the very small things are doing. By chance, there might be two very small things, which could cause two times the shock number. By chance there could also be positions in which the very small things shock better or worse, which also changes the shock number. So, without seeing these very small things, I try to understand what the small things are doing using only their shock numbers. I do this by thinking of different sets of things that can happen to the very small things by chance, and see what shock numbers these sets cause.Very small things can also shock when they are not even stuck together, which makes this problem harder. When very small things get close together, there is a chance that one very small thing can send its shock to the other. This act is called boring. Since very small things can bore their shock to things that are close but not stuck to them, I have to think about what even more of the very small things are doing to understand how good they are at shocking.Another thing that makes this problem harder is noise. Noise is caused by parts of the computer or by other very small things that we can't see that do stuff to the shock numbers. There is also something called shot noise. This type of noise is caused by our very small things sharing their shock to other things faster or slower at any moment. This can make it look like there are two very small things sending their shock, when it is only one very small thing.

There are groups of things made from a big table seen on walls in our building. these groups will have one letter from the table, which is also found in living things, with four different things on it. this group helps move very tiny things, which have number down one from the smallest whole number, with up or down moment. this moment can change with right or left hand of the group of things from table. this makes a thing without needing the normal thing to make it. this idea can be used to make better things that can be used for putting away stuff that is found to give to computers.

Before i do that, i am learning how to put together things and make them work to find out stuff about the group of things from the big table seen on walls. i am also reading about this and other things to make my brain bigger.

I am an upper school student who is working with very tiny stuff that breaks in the middle using outside force and then forms back when the force is taken away. Let's give it a name, TV. Breaking and forming of the TV happens a lot. I put a different type of stuff, which is very, very tiny and can not be seen with empty eyes, between the TV and see how much of the stuff that can shock a person I can get. 

I am planning to put a thing that can pull or push other things to see what happens to the TV when it breaks and forms a lot.

My world is about stuff that can move little shock things in different directions: it can move many, a few, or none at all if I push them with enough power. All of this happens with very small things we can't see talking to each other and sharing their little shock things. Each little thing's next door thing is turned in a different way, but if you look at a few of them it will look kind of the same. This stuff, with some other big things, makes your computer talk to you.

This is a new thing that has been thought of by people who know about groups, computers, numbers, and stuff in your computers. My stuff is different than today's computer stuff because it will make them faster because my stuff won't talk to things close by and allow my computer to hold on to more numbers! While some of these have been found, the guys I'm interested in need to be looked at more by putting them in a place with no air, throwing light on them, and seeing what the little shock things do and where they go.

Right now, I have a new thing I'm looking at from a few doors down and seeing what it is made of. We know it moves shock things in a way computers will like, but we will soon see if it can move even more up and down shock things in very cool ways!

When I was a child, I liked a movie about a man and his dog who went to space to see world problems. I wanted to be like him, but I don't have a dog; I just have a cat, and I'm not sure if it's dead or not. My cat lives in a box. I should use the way which a man who died in 1961 to find out is my cat dead or not.

I like using tiny things to pass the power or save the power. For using them we need to understand every important thing about that tiny stuff and their spot.

Actually by using that tiny thing to save power people can make a better space car. We can send more human to space. By using the same way that computers learn, we can make it easier and faster. First we put tiny things between two things to pass even smaller things, then use a computer that we told how to explain things to us. Telling the computer how to tell us this stuff is fun. I will do it.