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The #line directive sets the line number and filename for the file that contains the #line directive The number and the name are used when errors or warnings are output during compilation The general form for #line is #line number lename where number is any positive integer, which becomes the new line number, and the optional filename is any valid file identifier, which becomes the new filename #line is primarily used for debugging and special applications #line allows two options The first is default, which returns the line numbering to its original condition It is used like this:

The second is hidden When stepping through a program, the hidden option allows a debugger to bypass lines between a

The #region and #endregion directives let you define a region that will be expanded or collapsed when using outlining in the Visual Studio IDE The general form is shown here: #region text // code sequence #endregion text Here, text is an optional string

f (x) g (x)

16:

The #pragma directive gives instructions, such as specifying an option, to the compiler It has this general form: #pragma option Here, option is the instruction passed to the compiler There are currently two options supported by #pragma The first is warning, which is used to enable or disable specific compiler warnings It has these two forms: #pragma warning disable warnings #pragma warning restore warnings Here, warnings is a comma-separated list of warning numbers To disable a warning, use the disable option To enable a warning, use the restore option If no warnings are specified, then all warnings are affected For example, this #pragma statement disables warning 168, which indicates when a variable is declared but not used:

The second #pragma option is checksum It is used to generate checksums for ASPNET projects It has this general form #pragma checksum lename {GUID} check-sum Here, filename is the name of the file, GUID is the globally unique identifier associated with filename, and check-sum is a hexadecimal number that contains the checksum This string must contain an even number of digits

Create a Draft on Paper (or on Your Computer)

Theorem 24 (The Pinching Theorem)

An integral part of C# programming is the assembly An assembly is a file (or files) that contains all deployment and version information for a program Assemblies are fundamental to the NET environment They provide mechanisms that support safe component interaction, cross-language interoperability, and versioning An assembly also defines a scope An assembly is composed of four sections The first is the assembly manifest The manifest contains information about the assembly, itself This data includes such things as the name of the assembly, its version number, type mapping information, and cultural settings The second section is type metadata, which is information about the data types used by the program Among other benefits, type metadata aids in cross-language interoperability The third part of an assembly is the program code, which is stored in Microsoft Intermediate Language (MSIL) format The fourth constituent of an assembly is the resources used by the program Fortunately, when using C#, assemblies are produced automatically, with little or no extra effort on your part The reason for this is that the exe file created when you compile a C# program is actually an assembly that contains your program s executable code as well as other types of information Thus, when you compile a C# program, an assembly is automatically produced There are many other features and topics that relate to assemblies, but a discussion of these is outside the scope of this book (Assemblies are an integral part of NET development,

Part I:

but are not technically a feature of the C# language) However, there is one part of C# that relates directly to the assembly: the internal access modifier, which is examined next

In addition to the access modifiers public, private, and protected, which you have been using throughout this book, C# also defines internal The internal modifier declares that a member is known throughout all files in an assembly, but unknown outside that assembly Thus, in simplified terms, a member marked as internal is known throughout a program, but not elsewhere The internal access modifier is particularly useful when creating software components The internal modifier can be applied to classes and members of classes and to structures and members of structures The internal modifier can also be applied to interface and enumeration declarations You can use protected in conjunction with internal to produce the protected internal access modifier pair The protected internal access level can be given only to class members A member declared with protected internal access is accessible within its own assembly or to derived types Here is an example that uses internal: