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There's nothing wrong with that, but each throw causes the happy trip to kernel mode Although the actual transition from user mode to kernel mode is very fast, the work done in kernel mode to manipulate your exception leads to a ton of overhead Back in 7's "Tips and Tricks" section, I discussed monitoring C++ exceptions in your applications to help pinpoint this overhead Developers sometimes seem oblivious to the cost of C++ exception handling Working on one company's code performance problem, I couldn't understand why the _except_handler3 function, which is executed as part of exception processing, was called so many times As I inspected the code, it dawned on me that a developer on the team was using C++ exception handling in place of the tried-and-true switch..case construct.

All datatypes Numeric data All datatypes All datatypes Numeric data Numeric or date (time) data All datatypes

To speed up the application, the company had to redesign large portions of that developer's code simply to return enumerated type values When I asked the developer why he used C++ exception handling, he told me that he thought a throw statement just changed the instruction pointer Only code for which performance isn't important can use C++ exception handling Absolutely, Positively, NEVER EVER Use catch ( .. ) The catch (..)construct has been very good to my bank account because it has caused more bugs in people's code than you can ever imagine There are two huge problems with catch (..) The first is with its design as specified by the ANSI standard The ellipsis means that the catch block catches any type of throw However, since there's no variable in the catch, you have absolutely no way of knowing how you got there and why.

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The design of catch (..) means you might as well change the instruction pointer to random spots in your code and start executing With no ability to know what was thrown or how you got there, the only safe and logical action you can take is to terminate the application Some of you might be thinking that's a drastic step, but there's nothing else you can safely do The second problem with catch (..) concerns implementation What many people don't realize is that in the Windows C run time, catch (..) eats not only C++ exceptions but also SEH exceptions! Not only do you have a situation in which you don't know how you ended up executing inside the catch block, but you also might have ended up in the catch block because of an access violation or another hard error.

Example A-5. One solution to Exercise 3-4

In addition to being lost, your program is probably completely unstable in the catch block, so you have to terminate the process immediately It boggles my mind how many times I've seen developers and senior developers at that implement code like the following: BOOL DoSomeWork ( void ) 463.

operational structure. You should configure the Microsoft Dynamics CRM business unit hierarchy to match your security needs, not to create an exact model of your organizational structure. Whereas the operational and Microsoft Dynamics CRM security business unit structures typically remain consistent for smaller organizations, midsize and enterprise organizations usually need to design a Microsoft Dynamics CRM business unit structure that does not match their organizational chart.

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internal static class public static void Point p1 = new Point p2 = new Program { Main() { Point(1, 1); Point(2, 2);

Many developers treat the Watch window as a read-only place in which they drop their variables and watch What makes the Watch window exciting is that it has a complete expression evaluator built in If you want to see something as an integer that's not an integer, simply cast or convert it in the same way you would if you were programming in the currently active programming language Here's a simple example: Suppose CurrVal is declared as an integer and you want to see what it evaluates to as a Boolean In the Name column of the Watch window, in C# and C++, enter (bool)CurrVal, or for Visual Basic NET, enter CBool(CurrVal) The value is displayed as true or false as appropriate Changing an integer to a Boolean might not be that exciting, but the ability of the Watch window to evaluate expressions gives you the ultimate code-testing trick.