#THE SEQUENCE HOW TO#
#THE SEQUENCE INSTALL#
#THE SEQUENCE WINDOWS#

Logical drive letter stored in a variable: Specify the task sequence variable that contains the drive letter assigned to the partition by Windows PE. This drive letter can be different from the drive letter assigned by the newly deployed OS. Specific logical drive letter: Specify the Drive Letter that Windows PE assigns to the partition. Specific disk and partition: Select the Disk number (starting with 0) and the Partition number (starting with 1). Next available partition: Use the next sequential partition that an Apply Operating System or Apply Data Image step in this task sequence has not already targeted. This action doesn't do any setup to boot the image as an OS.

This task sequence action treats the image as a data file.

#THE SEQUENCE INSTALL#

Use the drop-down list to select the Image you want to install from the selected Image Package. The bottom of the dialog box displays the associated property information for each existing image package. Select the package you want to install in the Select a Package dialog box. Select Browse to specify the Image Package used by this task sequence. On the Properties tab for this step, configure the settings described in this section. Manage this step with the following PowerShell cmdlets: Use the following task sequence variables with this step: To add this step in the task sequence editor, select Add, select Images, and select Apply Data Image. Use this step to copy the data image to the specified destination partition. The sections below for specific task sequence steps describe other possible settings on the Options tab. For more information about conditions, see Task sequence editor - Conditions.

#THE SEQUENCE HOW TO#

For an example of using a task sequence variable as a condition, see How to use task sequence variables. For more information, see Planning considerations for automating tasks.Īdd Condition: The task sequence evaluates these conditional statements to determine if it runs the step. The icon for this step is greyed out in the task sequence editor.Ĭontinue on error: If an error occurs while running the step, the task sequence continues. Options for all stepsĭisable this step: The task sequence skips this step when it runs on a computer. The rest of this article describes the other settings on the Properties tab for each task sequence step. The Description length can't exceed 256 characters. The Name length can't exceed 50 characters.ĭescription: Optionally, specify more detailed information about this step. When you add a new step, the task sequence editor sets the name to the Type by default. Name: The task sequence editor requires that you specify a short name to describe this step. The following settings are common to all task sequence steps: Properties for all steps For more information, see Use the task sequence editor. The following task sequence steps can be added to a Configuration Manager task sequence. We believe that this accounts for the substrate specificity and high degree of stereospecificity of this lipase.Applies to: Configuration Manager (current branch) The structure appears to be in an 'open' conformation with a rather restricted entrance to the active site. The structure of Candida antarctica lipase B shows that the enzyme has a Ser-His-Asp catalytic triad in its active site. The behaviour of these lipid molecules in the crystal structure has been studied at different pH values. In the monoclinic crystal form, lipid-like molecules, most likely beta-octyl glucoside, can be seen close to the active site. Lipase B is an alpha/beta type protein that has many features in common with previously determined lipase structures and other related enzymes. Models for the orthorhombic and monoclinic crystal forms of the enzyme have been refined to 1.55 A and 2.1 A resolution, respectively. We have determined the crystal structure of this enzyme using multiple isomorphous replacement methods for two crystal forms. The primary sequence has no significant homology to any other known lipase and deviates from the consensus sequence around the active site serine that is found in other lipases. We have determined the DNA and amino acid sequences for lipase B from the yeast Candida antarctica. In recent years, much progress has been made towards explaining the mechanism of these enzymes and their ability to hydrolyze their substrates at an oil-water interface. They occur in many organisms and display a wide variety of substrate specificities. Lipases constitute a family of enzymes that hydrolyze triglycerides.

The sequence