The first step in knowing how to describe the end behavior of each function is to know what each has to do with the other. Each action that a computer must take to operate must be accompanied by an action that causes it to stop performing its duties. This is called an operation and it can be a movement, a change in shape or a combination of such things. Each function has at least one such operation that it must perform in order to complete its work and then be orderly enough to prevent failure. That is what we call an operation.
A computer might start working, maintain its status, display graphics, manage databases, control functions, print information, manage processes, run applications and so on. Each of these actions completes an operation and each must be accompanied by a transition from beginning to end. For example, a computer might start up a program or manage a database. It must end after it is done so that it can be left for processing data that came from an input device such as a keyboard or mouse.
An operating system will find out the operations it has to perform and then save it in a series of files called a process dictionary. The description of the end behavior of each function in this example is as follows: The operation of each function is given a label starting with the letter starting from the leftmost element.
In the previous example, the description of the end behavior of each function corresponds to its label starting with the letter L. So then, to describe each operation in a computer, we would have to write something like this: The label L starts a procedure called loading a data file. After it has finished loading all the data files it displays a message that informs you that the data file has been successfully loaded.
Then it displays another message, telling you that another operation has been started and that it successfully completed. And then it will print another message to let you know that the operation is complete. After it is done loading the program continues in the same way. We could also use the load program tool to describe the end behavior of each function.
Now suppose that you are asking how to describe the end behavior of a computer with an operating system. You can think of this question in terms of a language, a set of rules defining how a language behaves. The question is how a set of rules could define a language and at the same time allow it to describe the behavior of an operation or procedure. Similarly, the question can be asked how a computer can describe an operation and yet still allow it to continue after the program has completed.
In the context of an operating system, the question to describe each operation is similar to the previous one. You just need to tell what should happen after the procedure has been completed. Each part of the description can be saved in a file and then used in other calls. Each such call can constitute a microcode that is executed in the context of the whole operating system. The computer simply follows instructions contained in these files.
In general, we use several kinds of descriptions in a program. The first kind we have to describe is a call. A call is a procedure that creates a temporary entity while calling a function. The second kind of description, we have to describe is an expression. An expression can be a complex expression used to define an abstract class or a singleton, or it can simply be a single character that produces the effect of some character used previously.
Understanding Behavior of Each Function
The behavior of each function is very important. To find out the behavior of each function, it’s best to first realize its behavior by understanding its place in the hierarchy of the sets. A set is simply a group of things where all things belong together. Think of a collection of cars. Cars are very different from other objects, since they can only be driven forward.
Once you understand this, you then can decide what behaviors each function has. The most common example is that of a person in the queue at the supermarket. Each person is consciously or subconsciously trying to find their place in the queue. The end behavior of each function is to find their way to the front of the queue. So far as the functional hierarchy is concerned, the set “the queue” is the basic unit of behavior and the behavior of each function gets progressively higher as the set “the queue” becomes smaller.
Each person acts to increase their chances of finding their place at the front of the queue. This increases the behavior of each function. As the number of objects increases, the behavior of each function also increases. Therefore, for any set “the queue” there is always one single end behavior, the maximum behavior level for that set.