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Even messages that are more informational and matter-of-fact than persuasive need to be believable Your sincerity and passion need to come through in order to motivate your readers to act One of the ways you can achieve a professional tone is by adding speci c details Numbers, facts, statistics, examples, and illustrations all contribute to the credibility of your communications Weave them into your text to increase believability and the impact of your communications

Use pointer arithmetic *(p+0): 0 *(p+1): 1 *(p+2): 2 *(p+3): 3 *(p+4): 4 *(p+5): 5 *(p+6): 6 *(p+7): 7 *(p+8): 8 *(p+9): 9

f (x)

As the program illustrates, a pointer expression with this general form *(ptr + i) can be rewritten using array-indexing syntax like this: ptr[i] There are two important things to understand about indexing a pointer: First, no boundary checking is applied Thus, it is possible to access an element beyond the end of the array to which the pointer refers Second, a pointer does not have a Length property So, using the pointer, there is no way of knowing how long the array is

Although strings are implemented as objects in C#, it is possible to access the characters in a string through a pointer To do so, you will assign a pointer to the start of the string to a char* pointer using a fixed statement like this: xed(char* p = str) { // After the fixed statement executes, p will point to the start of the array of characters that make up the string This array is null-terminated, which means that it ends with a zero You can use this fact to test for the end of the array Null-terminated character arrays are the way that strings are implemented in C/C++ Thus, obtaining a char* pointer to a string allows you to operate on strings in much the same way as does C/C++ Here is a program that demonstrates accessing a string through a char* pointer:

// Use fixed to get a pointer to the start of a string using System; class FixedString { unsafe static void Main() { string str = "this is a test";

g ( f (x))

Part I:

// Point p to start of str fixed(char* p = str) { // Display the contents of str via p for(int i=0; p[i] != 0; i++) ConsoleWrite(p[i]); } ConsoleWriteLine(); } }

The output is shown here:

You can have a pointer point to another pointer that points to the target value This situation is called multiple indirection, or pointers to pointers Pointers to pointers can be confusing Figure 20-1 helps clarify the concept of multiple indirection As you can see, the value of a normal pointer is the address of the variable that contains the value desired In the case of a pointer to a pointer, the first pointer contains the address of the second pointer, which points to the variable that contains the value desired Multiple indirection can be carried on to whatever extent desired, but more than a pointer to a pointer is rarely needed In fact, excessive indirection is difficult to follow and prone to conceptual errors A variable that is a pointer to a pointer must be declared as such You do this by placing an additional asterisk after the type name For example, the following declaration tells the compiler that q is a pointer to a pointer of type int:

We calculate that ( g f ) ( t) = g( f ( t) ) = g t2 2 t+1 ( )