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Getting a System::IntPtr from a void* is simple enough: System::IntPtr(voidPtr) So we plug that into the static GCHandle value class s FromIntPtr() method: GCHandle::FromIntPtr(System::IntPtr(voidPtr)) Now we have a value class GCHandle that happens to have a method Target() that returns an Object^ (how convenient), which we can type cast to the ref class that the void* was pointing to: RefClass^ hdl = (RefClass^)GCHandle::FromIntPtr(System::IntPtr(voidPtr))Target; Now you can access the void* / ref class handle s methods and variables Figure 22-7 shows the results of ManIntoUnmanexe..

// VideoCell.h #import <UIKit/UIKit.h> #import <MediaPlayer/MediaPlayer.h> @interface VideoCell : UITableViewCell { IBOutlet UIView *movieViewContainer; IBOutlet UILabel *urlLabel; NSString *urlPath; MPMoviePlayerController *mpc; id delegate; } @property (retain, nonatomic) UIView *movieViewContainer; @property (retain, nonatomic) NSString *urlPath; @property (retain, nonatomic) MPMoviePlayerController *mpc; @property (assign, nonatomic) id delegate; + (NSString *)reuseIdentifier; + (CGFloat)rowHeight; @end @protocol VideoCellDelegate - (void)videoCellStartedPlaying:(VideoCell *)cell; @end

Summary

For non-ASP.NET applications, the best practice is to run a sampled performance profile first in order Tip to help pin down possible problem areas. For ASP.NET applications, however, an instrumented performance profile should be run first. The reason for this is that an instrumented profile will target only the application code. A sampled profile will target not only the application, but the entire ASP.NET/IIS system.

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This chapter explored the basics of unsafe, unmanaged, and native code. You started off by examining what unsafe code is and how it differs from unmanaged and native code. You then discovered some of the major reasons why you might want to include unsafe code in your applications. Then, you examined some of the ways to make your code unsafe by mixing managed code and unmanaged/ native code, unmanaged arrays, unmanaged classes, and pointers. Now with the basics down, I m going to move on to examine the more advanced mixing of safe/ managed code with unmanaged/native DLLs and COM objects.

Before you begin profiling a production application you must install the performance tools redistributable on the machine that houses the application you want to profile. You can install Visual Studio on the production box, but it is not recommended because it may cause other problems. When you install the performance tools, you are installing the assemblies you need to run performance tests, and the command-line tools, which allow you to run the tests. These tools are detailed in the next section.

n the previous chapter, you dealt for the most part with the mixing of unsafe (or unmanaged) code directly into your safe (or managed) code. This approach only works if you have access to all the source code. Unfortunately, that is not a luxury that we developers always have. This chapter will address this issue by covering how C++/CLI interfaces with code that You don t have access to. Accesses objects outside of the .NET sandbox and can t be accessed with a .NET language. Is written in a language not supported by .NET. Has a perfectly acceptable non-.NET implementation; rewriting would be a waste of time, money, and/or resources. There will probably be other situations than the ones I ve listed, where your code interfaces with some external non-.NET code that cannot be implemented in .NET. In most cases, the methods covered in this chapter should address those as well. Basically, this chapter is about interfacing .NET applications with third-party DLLs or COM components. While each requires a different method to perform this interface, neither method is that difficult. I think it funny (read: waste of time) how some books allocate a large portion of their text covering these interfaces, explaining in great detail the internal flow of data and numerous other aspects. I don t see the point; just tell me how to do it. That s my approach to this chapter. If you want all the other stuff, there are literally hundreds of Web sites that provide this information. This chapter will start by examining how to interface with standard unmanaged DLLs using simple data types, and then show how to interface with more complex data types using data marshaling. Finally, I ll move on to interfacing your .NET code with COM components.

@synthesize urlPath, mpc, movieViewContainer, delegate;

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