rdlc gs1 128

rdlc gs1 128

rdlc ean 128

rdlc gs1 128

rdlc ean 128

rdlc ean 128,

rdlc ean 128,

rdlc gs1 128,
rdlc gs1 128,

rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,

rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,

rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,

rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc ean 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc gs1 128,
rdlc ean 128,

In this section, I ll walk you through a complete example of the execution of the script, including sample images. In the following output, bold text indicates text entered by the user: ./imwizard

If (DWTrigger.TriggerAction = _ TriggerAction.Insert) Then Dim DWsw As StreamWriter = New _ StreamWriter("C:\DataWarehouseLoadTrigger.txt") DWsw.WriteLine(Now()) DWsw.Close() End If End Sub End Class After compiling the assembly into a DLL, it is then imported into SQL Server using CREATE ASSEMBLY: CREATE ASSEMBLY DataWarehouseLoadNotification FROM 'C:\Apress\Recipes\CLR\Trigger\ DataWarehouseLoadNotification.dll' WITH PERMISSION_SET = EXTERNAL_ACCESS GO Next, a trigger is created that is mapped to the assembly subroutine: CREATE TRIGGER dbo.trg_i_DWNotify ON dbo.DataWarehouseLoadHistory AFTER INSERT AS EXTERNAL NAME DataWarehouseLoadNotification.[DataWarehouseLoadNotification.DW_Trigger].ExportFile A new row is then inserted into the DataWarehouseLoadHistory table: INSERT dbo.DataWarehouseLoadHistory (LoadDT) VALUES(GETDATE()) This INSERT causes the CLR trigger to fire and then create a notification file under the C:\ drive of the SQL Server instance machine (of course in a production scenario, I d be putting this file some place else for the legacy system to pick up). The file contains the current date and time that the trigger was fired: 9/5/2005 1:29:03 PM

The easiest way around this problem without extensive code changes is to recompile your entire application with GCC The GCC documentation provides sample code to work around this problem, but patching a torn pair of pants does not make them new plus you have to maintain the patches..

This recipe demonstrated creating a CLR trigger that created a text file in response to an INSERT into a table. Of course, this CLR database object would not have been a good idea to create for a table that receives numerous new rows each day (continually overlaying a file non-stop)! But in this scenario, I m assuming that the data is only updated periodically, and that the external legacy application is monitoring any changes in the file. The steps to creating this CLR trigger were similar to creating a user-defined function and stored procedure: a new assembly was compiled, added to SQL Server, and then associated to a database object using CREATE TRIGGER. Something to point out, however, is the SqlTriggerContext class, which was used to define the context information for the trigger within SQL Server:

Dim DWTrigger As SqlTriggerContext DWTrigger = SqlContext.TriggerContext Once the object was created, it was then used to find out the actions that cause the trigger to fire or determine which columns were modified. In this example, the SqlTriggerContext object was used to determine if the trigger firing event was an INSERT, and if so, the external file would be written: If (DWTrigger.TriggerAction = _ TriggerAction.Insert) Then ...

armeb: Big-endian 32-bit RISC processors that support the basic ARMv4 instruction set Cross-compilation toolchains produced by crosstool for this processor family have the prefix armeb-unknown-linux-gnu armv5b-softfloat: Big-endian 32-bit RISC processors that support the ARMv5 instruction set and provide floating-point emulation in software Cross-compilation toolchains produced by crosstool for this processor family have the prefix armv5b-softfloat-linux-gnu i686: Any Pentium-class IA-32 processor Cross-compilation toolchains produced by crosstool for this processor family have the prefix i686-unknown-linux-gnu crosstool provides special versions of the configuration file for this processor family that are designed to produce static crosscompilers (i686-staticdat) and cross-compilers that run under the Cygwin Linux emulation environment for Microsoft Windows (i686-cygwindat, using the i686-pc-cygwin prefix) ia64: 64-bit Intel architecture processors such as the Itanium Cross-compilation toolchains produced by crosstool for this processor family have the prefix ia64-unknown-linux-gnu Note that this target is different from the x86_64 target m68k: Motorola 680x0 CISC processors.

The next three recipes will demonstrate how to administer database assemblies. I ll demonstrate how to view assembly metadata, modify an assembly s permissions, and remove an assembly from the database.