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In this case, int is substituted for T and string is substituted for V Although the two type arguments differ in this example, it is possible for both types to be the same For example, the following line of code is valid:

TwoGen<string, string> x = new TwoGen<string, string>("Hello", "Goodbye");

The slope of the tangent line will be the derivative Now f ( x) = [x] ex + x [ex ] = ex + x [2x ex ] In the last derivative we have of course used the Chain Rule Thus f ( 1) = e + 2e = 3e Therefore the equation of the tangent line is ( y e) = 3e( x 1)

In this case, both T and V would be of type string Of course, if the type arguments were always the same, then two type parameters would be unnecessary

The generics syntax shown in the preceding examples can be generalized Here is the syntax for declaring a generic class: class class-name<type-param-list> { // Here is the syntax for declaring a reference to a generics class: class-name<type-arg-list> var-name = new class-name<type-arg-list>(cons-arg-list);

In the preceding examples, the type parameters could be replaced by any type For example, given this declaration

2 2 2 2

class Gen<T> {

any type can be specified for T Thus, it is legal to create Gen objects in which T is replaced by int, double, string, FileStream, or any other type Although having no restrictions on the

I went on to mention other benefits, for example, that we d save money by not having to store unnecessary documents And I ended with this:

Part I:

.

YOU TRY IT Calculate the equation of the tangent line to the graph of g( x) =

type argument is fine for many purposes, sometimes it is useful to limit the types that can be used as a type argument For example, you might want to create a method that operates on the contents of a stream, including a FileStream or MemoryStream This situation seems perfect for generics, but you need some way to ensure that only stream types are used as type arguments You don t want to allow a type argument of int, for example You also need some way to tell the compiler that the methods defined by a stream will be available for use For example, your generic code needs some way to know that it can call the Read( ) method To handle such situations, C# provides constrained types When specifying a type parameter, you can specify a constraint that the type parameter must satisfy This is accomplished through the use of a where clause when specifying the type parameter, as shown here: class class-name<type-param> where type-param : constraints { // Here, constraints is a comma-separated list of constraints C# defines the following types of constraints You can require that a certain base class be present in a type argument by using a base class constraint This constraint is specified by naming the desired base class There is a variation of this constraint, called a naked type constraint, in which a type parameter (rather than an actual type) specifies the base class This enables you to establish a relationship between two type parameters You can require that one or more interfaces be implemented by a type argument by using an interface constraint This constraint is specified by naming the desired interface You can require that the type argument supply a parameterless constructor This is called a constructor constraint It is specified by new( ) You can specify that a type argument be a reference type by specifying the reference type constraint: class You can specify that the type argument be a value type by specifying the value type constraint: struct Of these constraints, the base class constraint and the interface constraint are probably the most often used, but all are important Each constraint is examined in the following sections.