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Defining tasks with <taskdef> Ant automatically knows which Java class implements each of the core and optional tasks. But to use a new third-party task in a build file, you need to tell Ant about it. This is what the <taskdef> task is used for. The <taskdef> task itself is a core task. To define a task, you specify a name and a fully qualified Java class name. The name is arbitrary, but unique within the build file, and is used as the XML element name to invoke the task later in the build file. To demonstrate how to declare a third-party task, we ll use XDoclet, a task that we cover in the next chapter. The following code shows how to declare the XDoclet <document> task:

it's worth a shot, the profiling API currently doesn't support it, so you can't use it I still think the limitations of slower code are worth it because of the benefits The second issue you'll run into is undocumented and completely confused me when I first encountered it The ICorProfilerCallback::ExceptionThrown method is passed an object ID that describes the class being thrown With my first implementation, which didn't use in-process debugging, I always got an ID I could pass to CBaseProfilerCallback::GetClassAndMethodFromFunctionId Simply adding the COR_PRF_ENABLE_INPROC_DEBUGGING flag to ICorProfilerInfo::SetEventMask and not even using the actual in-process debugging API changes something internally so that an object ID of 0 is the only thing passed.

The Silverlight control has a number of methods that you can use to control its behavior and function. Similar to Silverlight property groups, the Silverlight methods are grouped into families of methods. At present, one direct and three content methods are supported. You see which is which in the following sections, including samples showing their syntax and how to access them.

Even though the in-process debugging API had the necessary methods to find the information, it was quite disconcerting to wonder what had happened to my object ID simply because I tripped a flag! To use the debugging interfaces, you first have to call the ICorProfilerInfo::BeginInprocDebugging method to start the process of acquiring the appropriate interface As part of that call, you'll pass a DWORD pointer to a context cookie You'll need to save that cookie so that you can pass it to the ICorProfilerInfo::EndInProcDebugging method you have to call to indicate you're stopping in-process debugging The second step is to acquire the appropriate debugging interface If you're interested only in the current thread, you call the ICorProfilerInfo::GetInprocInspectionIThisThread method to get the IUnknown interface, which you can query for the ICorDebugThread interface If you want to do process-wide debugging, you call the ICorProfilerInfo::GetInprocInspectionInterface and query the return IUnknown for ICorDebug.

C# public abstract class DomainObject : INotifyPropertyChanged, INotifyDataErrorInfo { private ErrorsContainer<ValidationResult> errorsContainer = new ErrorsContainer<ValidationResult>( pn => this.RaiseErrorsChanged( pn ) ); public event EventHandler<DataErrorsChangedEventArgs> ErrorsChanged; public bool HasErrors { get { return this.ErrorsContainer.HasErrors; } }

public SiteMonitorModel(String instring) { Log.i(SiteMonitorModel.tag,"SiteMonitorModel(" + instring + ")"); String[] data = instring.split("[|]"); if (data.length == 6) { this.name = data[0]; this.url = data[1];

Personally, I don't see why the two ICorProfilerInfo methods can't simply return the appropriate interfaces Once you have the debugging interface, you're all set to access the debugging API to get the information you need from it In my case, I wanted to get the last exception on the thread, so all I needed to do was call the ICorDebugThread::GetCurrentException method to get the ICorDebugValue interface, which describes the last exception thrown The odd thing was that every time I called the ICorDebugThread::GetCurrentException method, it failed, so I was really starting to wonder if I was ever going to get ExceptionMon working! After a very careful read of the profiling and debugging API documents, I came across a statement saying that in order to have in-process debugging do any stack operations, you need to call ICorDebugThread::EnumerateChains.

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The debugging API uses the concept of stack chains to string together the managed and native stack traces, which add up to the complete stack trace I couldn't see that calling ICorDebugThread::GetCurrentException would have anything to do with the stack, but I figured it was worth a try to call ICorDebugThread::EnumerateChains before I did anything else Though not documented at least not clearly I figured out that to do anything with the debugging API, you need to call ICorDebugThread::EnumerateChains first or most methods will fail Listing 10-2 shows the wrapper method I use inside ExceptionMon to get in-process debugging started Listing 10-2: BeginInprocDebugging HRESULT CExceptionMon ::.

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