Returns the sequence of instructions that adapts values of this
type to values
of the target type.
Returns the sequence of instructions that adapts values of this
type to values
of the target type.
This method supports the following kind of adaptations:
Each reference type is associated with a unique id.
Each reference type is associated with a unique id. Object types get ids >= 0 and array types get ids < 0.
Returns the binary name of this type as used by the Java runtime.
Returns the binary name of this type as used by the Java runtime. Basically
returns the same name as produced by Class.getName
.
Returns the representation of this type as used by the JVM in, for example, method descriptors or signatures.
Returns the representation of this type as used by the JVM in, for example, method descriptors or signatures.
A String representation of this type as it would be used in Java source code.
A String representation of this type as it would be used in Java source code.
Returns the Java class object representing this type.
Returns the Java class object representing this type.
This is generally only useful in very special cases and – to be meaningful at all – it is necessary that the class path used for running the static analysis also contains the classes that are analyzed. This is (often) only the case for the JDK.
However, one example where this is useful is the creation of a real object of
a specific type and to use that object when a method is called on that object.
This avoids the reimplementation of the respective logic as part of the analysis.
For example, if you want to get the String
that is created by a specific
StringBuffer
it is possible to implement the API of StringBuffer as part of
your analysis or (probably more efficient) to just create an instance of a
StringBuffer
object and to redirect every call to the real object. In this case
only some general logic is required to redirect calls and to convert the values
between the representation used by the analysis and the representation required
by the called method.
Compares this type with the given type.
Compares this type with the given type.
Comparison of types is implemented by comparing the associated ids. I.e., the result of the comparison of two types is not stable across multiple runs of OPAL.
The computational type of values of this type.
The computational type of values of this type.
Returns true
if this type is a base type (also called primitive type).
Returns true
if this type is a base type (also called primitive type).
Returns true
if this type is the primitive type boolean
.
Returns true
if this type is the primitive type boolean
.
Returns true
if this type is the primitive type byte
.
Returns true
if this type is the primitive type byte
.
Returns true
if this type is the primitive type char
(Range: [0..65535].
Returns true
if this type is the primitive type char
(Range: [0..65535].
Returns true
if this type is the primitive type double
.
Returns true
if this type is the primitive type double
.
Returns true
if this type can be used by fields.
Returns true
if this type is the primitive type float
.
Returns true
if this type is the primitive type float
.
Returns true
if this type is the primitive type int
.
Returns true
if this type is the primitive type int
.
Returns true
if this type is the primitive type long
.
Returns true
if this type is the primitive type long
.
Returns true
if this type is a reference type; that is, an array type or an
object type (class/interface type).
Returns true
if this type is a reference type; that is, an array type or an
object type (class/interface type).
In general, we can distinguish the following three categories of types:
Returns true
if this type is the primitive type short
.
Returns true
if this type is the primitive type short
.
Returns true
if this type represents void
; false
otherwise.
Returns true
if this type represents void
; false
otherwise.