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Type expressions are represented using the letters A, F, U, V and W The letter A is only used to denote the type of an actual parameter, and F is only used to denote the type of a formal parameter Type parameters are represented using the letters S and T Arguments to parameterized types are represented using the letters X, Y Generic type declarations are represented using the letters G and H

RFC 2251: Lightweight Directory Access Protocol (v3)

With this class we can create a constant object, say, const = Const(), and set any attributes we like on it, for example, constlimit = 591 But once an attribute s value has been set, although it can be read as often as we like, any attempt to change or delete it will result in a ValueError exception being raised We have not reimplemented __getattr__() because the base class object__getattr__() method does what we want returns the given attribute s value or raises an AttributeError exception if there is no such attribute In the __delattr__() method we mimic the __getattr__() method s error message for nonexistent attributes, and to do this we must get the name of the class we are in as well as

.

Special Method __delattr__(self, name) __dir__(self) __getattr__(self, name) __getattribute__(self, name) __setattr__(self, name, value)

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This is the main RFC for LDAPv3, which de nes the protocol operations, data representation, and data organization

The process of type inference is inherently complex Therefore, it is useful to give an informal overview of the process before delving into the detailed speci cation Inference begins with an initial set of constraints Generally, the constraints require that the statically known types of the actual arguments are acceptable given the declared formal argument types We discuss the meaning of acceptable below Given these initial constraints, one may derive a set of supertype and/or equality constraints on the formal type parameters of the method or constructor Next, one must try and nd a solution that satis es the constraints on the type parameters As a rst approximation, if a type parameter is constrained by an equality constraint, then that constraint gives its solution Bear in mind that the constraint may equate one type parameter with another, and only when the entire set of constraints on all type variables is resolved will we have a solution A supertype constraint T :> X implies that the solution is one of supertypes of X Given several such constraints on T, we can intersect the sets of supertypes implied by each of the constraints, since the type parameter must be a member of all of them We can then choose the most speci c type that is in the intersection Computing the intersection is more complicated than one might rst realize Given that a type parameter is constrained to be a supertype of two distinct invocations of a generic type, say List<Object> and List<String>, the naive intersection operation might yield Object However, a more sophisticated analysis yields a set containing List< > Similarly, if a type parameter, T, is constrained to be a supertype of two unrelated interfaces I and J, we might infer T must be Object, or we might obtain a tighter bound of I & J These issues are discussed in more detail later in this section.

Usage dir(x)

LDAP transmits most attribute values as strings, rather than as binary structures For example, the number 4,000 is transmitted as 4000 This document de nes the standard attribute type representations and speci es how attribute values are compared for each standard type during a search operation

Inference begins with a set of initial constraints of the form A << F, A = F, or A >> F, where U << V indicates that type U is convertible to type V by method invocation conversion ( 53), and U >> V indicates that type V is convertible to type U by method invocation conversion

Returns a list of x s attribute names v = xn Returns the value of object x s n attribute if it isn t found directly

These constraints are then reduced to a set of simpler constraints of the forms T :> X, T = X or T <: X, where T is a type parameter of the method This reduction is achieved by the procedure given below:

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