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objects and unreachable code (detected with -Wunreachable-code) are often signs of sloppy coding or faulty design. My own preference is to use the plain -Wunused option, which catches all unused objects. If you prefer otherwise, you can use any combination of the five specific -Wunused-* options. Listing 1-3 is a short example of a program with an unused variable. Listing 1-3. Source Code for the Sample unused.c Application int main (void) { int i = 10; return 0; } As you can see, the program defines the int variable i, but never does anything with it. Here is GCC s output when compiling unused.c with no options: $ gcc unused.c Well, perhaps I really should have written, Here is the lack of GCC s output when compiling unused.c with no options, because adding -ansi -pedantic does not change the compiler s output. However, here is GCC s complaint when I use -Wunused: $ gcc -Wunused unused.c unused.c: In function 'main': unused.c:3: warning: unused variable 'i' Each of the warning options discussed in this section results in similar output that identifies the translation unit and line number in which a problem is detected, and a brief message describing the problem. (In the context of program compilation, a translation unit is a separately processed portion of your code, which usually means the code contained in a single file. It means something completely different when translating natural languages.) I encourage you to experiment with the warning options. Given the rich set of choices, you can debug and improve the overall quality and readability of your code just by compiling with a judiciously chosen set of warning options.

Installing on the FreeBSD platform is simple if done through the ports tree. It s highly recommended that you use the ports tree unless you have some need for a custom compilation of ImageMagick. When using the ports tree, all the dependencies are taken care of for you. First, you should make sure you have a working, up-to-date ports tree. The ImageMagick port is located in the /usr/ports/graphics/ImageMagick directory. The standard configuration is most likely fine for you, unless you happen to know that you need to modify the configure-line arguments. If you do need to pass in configure arguments, you can browse through the Makefile to see which arguments exist. To install ImageMagick, simply go to the directory, and run the proper installation command, like so: cd /usr/ports/graphics/ImageMagick make install distclean When new versions of ImageMagick are released, you ll want to upgrade your installation. In FreeBSD, you can do this in a variety of ways, but it s recommended to install the portupgrade package to handle all your upgrade needs:

This example demonstrates how to change an existing table column s nullability and data type. The Gender column in the HumanResources.Employee table is originally NOT NULL and the original data type of the LoginID column is nvarchar(256): -- Make it Nullable ALTER TABLE HumanResources.Employee ALTER COLUMN Gender nchar(1) NULL -- Expanded nvarchar(256) to nvarchar(300) ALTER TABLE HumanResources.Employee ALTER COLUMN LoginID nvarchar(300) NOT NULL

In this recipe, two columns were modified in the HumanResources.Employee table. The ALTER COLUMN modified the Gender column to allow NULL values, although the data type remained the same: ALTER COLUMN Gender nchar(1) NULL In the second ALTER TABLE, the LoginID column s data type of nvarchar(256) was expanded to nvarchar(300):

In order to use the gcov test coverage tool to produce coverage information about a run of your application, you must Compile your code using a GCC compiler. The gcov application is not compatible with embedded coverage and analysis information produced by any other compiler. Use the -fprofile-arcs option when compiling your code with a GCC compiler. Use the -ftest-coverage option when compiling your code with a GCC compiler. Avoid using any of the optimization options provided by the GCC compiler you are using. These options might modify the execution order or grouping of your code, which would make it difficult or impossible to map coverage information into your source files. Compiling source code with the -fprofile-arcs option causes GCC compilers to instrument the compiled code, building a call graph for the application and generating a call graph file in the directory where the source file is located. This call graph file has the same name as the original source file, but replaces the original file extension (c, C, CC, f980, and so on) with the .gcno extension. This file is created at compile time, rather than at runtime. A call graph is a list identifying which basic blocks are called by other functions, and which functions call other functions. The representation of each call from one function to another in a call graph is known as a call arc, or simply an arc. The .gcno file contains information that enables the gcov program to reconstruct the basic block call graphs and assign source line numbers to basic blocks. For example, compiling the program fibonacci.c with the -fprofile-arcs option creates the file fibonacci.gcno in your working directory.