We discuss the Swift Java compiler further. We were looking into Swift's LocType and StoreOp in the dataflow analysis. Since Swift does a full analysis, it correctly determines when a particular locType cannot be modified in a loop.The state information for each node is updated which is then used to update the dependencies. Each load operation for example may have a change of store as its input following the store resolution process. This makes the relaxed dependence information available to all later passes. In the example of load operations with changed input, they will now be combined into a single load opeartion. Other similar effects from subsequent passes could involve a load operation to be scheduled earlier or to be moved out of a loop.
Swift's analysis is interprocedural since it makes use of summaries of the effects of methods.As with other method properties.the write effects of a method are computed on demand by the method analysis module. This yields a list of fields that do not affect data flow and array element types (LocTypes) that the method or the calls made might modify.Unlike many other properties the immediate effects of a byte code can be determined without building a CFG or SSA graph.
Since the locations are categorized into distinct field and array element types, Swift has used a type based alias analysis scheme. The field name of the location is also considered part of its type. That said, the store resolution can easily be used with a more sophisticated alias analysis that can manage different kinds of LocTypes and improve accuracy.
Let us now look at method resolution and inlining. Swift resolves virtual method calls using information from various kinds of  analyses. For example, if Swift is using Class hierarchy analysis, the method implementation may indicate there is only one possible implementation that could be referenced by a virtual call. If there is no CHA analysis, the final keyword can indicate if the implementation is only one. Or from the type analysis, it may indicate that the receiver may have a particular exact type and therefore can only invoke one specific method. Similarly interface calls can be resolved. Method inlining may be applied recursively as part of other interprocedural optimizations. This helps with such things as the removal of superclass constructors which may be mostly empty.
#codingexercise
Double GetAlternateOddNumberRangeSumSquareRootEigthSquare (Double [] A)
{
if (A == null) return 0;
Return A.AlternateOddNumberRangeSumSquareRootEigthSquare();
}