/// <summary>
/// Discard the current flow analysis information, should be called whenever the routine is transformed.
/// </summary>
/// <remarks>
/// It is expected to be called either on a context without a routine (parameter initializers etc.) or
/// on a routine with a CFG, hence no abstract methods etc.
/// </remarks>
public void InvalidateAnalysis()
{
Debug.Assert(Routine?.ControlFlowGraph != null);
// By incrementing the version, the current flow states won't be valid any longer
_version++;
// Reset internal structures to prevent possible bugs in re-analysis
_usedMask = 0;
_varsIndex.Clear();
_varsType = Array.Empty <TypeRefMask>();
// Revert the information regarding the return type to the default state
ReturnType = default;
// TODO: Recreate the state also in the case of a standalone expression (such as a parameter initializer)
if (_routine != null)
{
// Reset routine properties related to the analysis
_routine.IsReturnAnalysed = false;
// Recreate the entry state to enable another analysis
_routine.ControlFlowGraph.Start.FlowState = StateBinder.CreateInitialState(_routine, this);
}
}
/// <summary>
/// Discard the current flow analysis information, should be called whenever the routine is transformed.
/// </summary>
/// <remarks>
/// It is expected to be called either on a context without a routine (parameter initializers etc.) or
/// on a routine with a CFG, hence no abstract methods etc.
/// </remarks>
public void InvalidateAnalysis()
{
Debug.Assert(Routine?.ControlFlowGraph != null);
// By incrementing the version, the current flow states won't be valid any longer
_version++;
// Revert the information regarding the return type to the default state
ReturnType = default;
// TODO: Recreate the state also in the case of a standalone expression (such as a parameter initializer)
if (_routine != null)
{
_routine.IsReturnAnalysed = false;
// Recreate the entry state to enable another analysis
_routine.ControlFlowGraph.Start.FlowState = StateBinder.CreateInitialState(_routine, this);
}
}