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In C#, characters are not 8-bit quantities like they are in many other computer languages, such as C++ Instead, C# uses a 16-bit character type called Unicode Unicode defines a character set that is large enough to represent all of the characters found in all human languages Although many languages, such as English, French, and German, use relatively small alphabets, some languages, such as Chinese, use very large character sets that cannot be represented using just 8 bits To address this situation, in C#, char is an unsigned 16-bit type having a range of 0 to 65,535 The standard 8-bit ASCII character set is a subset of Unicode and ranges from 0 to 127 Thus, the ASCII characters are still valid C# characters A character variable can be assigned a value by enclosing the character inside single quotes For example, this assigns X to the variable ch:

Compute all the trigonometric functions for the angle = 11 /4

char ch; ch = 'X';

You can output a char value using a WriteLine( ) statement For example, this line outputs the value in ch:

ConsoleWriteLine("This is ch: " + ch);

Part I:

We first notice that the principal associated angle is 3 /4, so we deal with that angle Figure 137 shows that the triangle associated to this angle is an isosceles right triangle with hypetenuse 1

Although char is defined by C# as an integer type, it cannot be freely mixed with integers in all cases This is because there are no automatic type conversions from integer to char For example, the following fragment is invalid:

/* This is another indexer for FailSoftArray This index takes a double argument It then rounds that argument to the nearest integer index */ public int this[double idx] { // This is the get accessor get { int index; // Round to nearest int if( (idx - (int) idx) < 05) index = (int) idx; else index = (int) idx + 1; if(ok(index)) { ErrFlag = false; return a[index]; } else { ErrFlag = true; return 0; } } // This is the set accessor set { int index; // Round to nearest int if( (idx - (int) idx) < 05) index = (int) idx; else index = (int) idx + 1; if(ok(index)) { a[index] = value; ErrFlag = false; } else ErrFlag = true; } } // Return true if index is within bounds private bool ok(int index) { if(index >= 0 & index < Length) return true; return false; } } // Demonstrate the fail-soft array class FSDemo { static void Main() { FailSoftArray fs = new FailSoftArray(5); // Put some values in fs for(int i=0; i < fsLength; i++) fs[i] = i; // Now index with ints and doubles ConsoleWriteLine("fs[1]: " + fs[1]);

Date Dear Applicant: In the course of lling the xyz position, we reviewed scores of applicants credentials The process was long, and one we took very seriously Often candidates with impressive credentials are not suitable for one of several reasons, including a lack of relevant experience or inadequate job knowledge, for example Although I m unable to offer you a job at this time, I want to thank you for taking the time to apply for the position Sincerely, My name here

10:

_2 _ 05 _1

ConsoleWriteLine("fs[2]: " + fs[2]); ConsoleWriteLine("fs[11]: " + fs[11]); ConsoleWriteLine("fs[16]: " + fs[16]); } }

This program produces the following output:

fs[1]: 1 fs[2]: 2 fs[11]: 1 fs[16]: 2

_2 _ 05 _1

As the output shows, the double indexes are rounded to their nearest integer value Specifically, 11 is rounded to 1, and 16 is rounded to 2 Although overloading an indexer as shown in this program is valid, it is not common Most often, an indexer is overloaded to enable an object of a class to be used as an index, with the index computed in some special way

It is important to understand that there is no requirement that an indexer actually operate on an array It simply must provide functionality that appears array-like to the user of the indexer For example, the following program has an indexer that acts like a read-only array that contains the powers of 2 from 0 to 15 Notice, however, that no actual array exists Instead, the indexer simply computes the proper value for a given index