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In the first example, the query began by setting the database to the master database. This is because a full RESTORE is not an online operation, and requires that there be no active connections to the database that is being restored in order to run. The RESTORE is for the TestDB database and overlays the current database with the data as it existed at the end of the second backup set on the TestDB_Oct_15_2005.bak backup device. The first line of the command details the database to RESTORE over: RESTORE DATABASE TestDB The second line of this example designates the location of the backup device: FROM DISK = 'C:\Apress\Recipes\TestDB_Oct_15_2005.bak'

As mentioned previously, this book is not a tutorial or reference on writing Java applications there are already plenty of books that do that job and do it well. However, when writing Java code that you will compile using the GCC Java compiler, you can take advantage of a number of extensions to Java

The last line of this example designates which backup set from the backup device should be used to RESTORE from (recall from earlier in this chapter that you can use RESTORE HEADERONLY to see what backup sets exist on a backup device): WITH FILE = 2, REPLACE

through both the compiler itself and the standard Java library used by gcj and libgcj. This section highlights the most significant extensions that are provided by both as of the time this book was written and discusses some differences in behavior that you may see between Java as defined by the Java specification and the compilation and behavior of Java code compiled using the GCC Java compiler.

Any data that was updated since the last backup will be lost, so it is assumed in this example that data loss is acceptable, and that data as of the last backup is desired. In the second example, a new database was created based on a RESTORE from another database. The example is similar to the previous query, only this time the MOVE command is used to designate where the new database files should be located (and the new database name is used as well): MOVE 'TestDB' TO 'C:\apress\Recipes\TrainingDB1.mdf', MOVE 'TestDB_log' TO 'C:\apress\Recipes\TrainingDB1_log.LDF' RESTORE FILELISTONLY (demonstrated earlier) can be used to retrieve the logical name and physical path of the backed up database.

An ABI is the binary flipside of the application programming interface (API) defined by the Java datatypes, classes, and methods in the include files and libraries that are provided by a Java library implementation. A consistent binary interface is required in order for compiled Java applications to conform to the binary conventions used in associated Java libraries and related object files for things such as physical organization, parameter passing conventions, and naming conventions. This consistency is especially critical for specific language support routines, most notably those used for throwing or catching exceptions. Most recent Java compilers conform to a specific ABI, which effectively determines the execution environments in which code compiled with that compiler can execute correctly (modulo coding errors, of course perhaps execute as written would be a more precise statement). Beginning with version 4.0 of the GCC, gcj conforms to the Java ABI as defined in the Java Language Specification.

Using the RESTORE...MOVE command is often used in conjunction with database migrations to different SQL Server instances that use different drive letters and directories.

So, the top of the image is North, and the right of the image is East. You can also specify corners with this compass, in that the top-right corner is NorthEast, for instance. To specify the center of the image, use the Center keyword. You specify the gravity on the command line with the gravity option; for example, to put a rounded corner on the top-right corner of an image, use this command: composite -gravity NorthEast rounded-ne.png input.png output.png

In addition to the standard Java CLASSPATH environment variable, gcj also uses another environment variable, GCJ_PROPERTIES, which is consulted at runtime by any binaries generated using gcj. This environment variable is intended to hold a list of assignments to global Java properties, such as those that would be set using a JVM s D option. The following code example provides a simple example of using this environment variable: public class Test { public static void main(String[] args) { System.out.println("Property foo.bar value is:" + System.getProperty("foo.bar")); } } Compiling this code in the standard manner and executing it with no value for GCJ_PROPERTIES does the right thing: $ gcj --main=Test -o wvhTest Test.java $ ./wvhTest