KOHLER engine identification numbers (model, specification and serial) hold the keys to efficient repair, ordering the correct parts and engine replacement. These are printed on a silver decal, which is normally affixed to the blower housing of the engine. Make a note of your engine identification numbers in your owner's manual for handy reference.
Serial Number Style Works Xt 123
For example: I created five different custom number formats in five cells in a worksheet. Those new formats are now available in my Number > Custom List. I deleted the contents of those five cells and reset their format to General (or, Clear All). The five custom number formats are still available in my Custom List. I saved the workbook as Book.xltm in my XLSTART folder. But, when I open Book.xltm, or start a new workbook, the custom number formats no longer appear in my Custom List.
This method is used to engrave numbers on a series of parts with the number being increased by one each time. The # symbol is used to set the number of digits in the serial number. For example, G47 P1 (####), limits the number to four digits while (##) would limit the serial number to two digits.
There are two ways to set the initial serial number to be engraved. The first requires replacing the # symbols within the parenthesis with the first number to be engraved. With this method, nothing is engraved when the G47 line is executed (it is only setting the initial serial number). Execute this once and then change the value within the parenthesis back to # symbols to engrave normally.
The second method for setting the initial serial number to be engraved is to change the Macro Variable where this value is stored (Macro Variable 599). The Macros option does not need to be enabled.
The same serial number can be engraved multiple times on the same part with the use of a macro statement. The macros option is required. A macro statement as shown below could be inserted between two G47 engraving cycles to keep the serial number from incrementing to the next number. For more details, see the Macros section of this manual.
As an implementer option, XSLT 3.0 can also be used with XPath 3.1. All XSLT 3.0 processors provide maps, an addition to the data model which is specified (identically) in both XSLT 3.0 and XPath 3.1. Other features from XPath 3.1, such as arrays, and new functions such as random-number-generatorFO31 and sortFO31, are available in XSLT 3.0 stylesheets only if the implementer chooses to support XPath 3.1.
[Definition: A final result tree is a result tree that forms part of the output of a transformation: specifically, a tree built by post-processing the items in the principal result or in a secondary result. Once created, the contents of a final result tree are not accessible within the stylesheet itself.] Any final result tree may be serialized as described in 26 Serialization.
Alternatively, the raw result may be serialized as described in 2.3.6.2 Serializing the Result. The decision whether or not to serialize the result is determined by the rules of transformation API provided by the processor, and is not influenced by anything in the stylesheet.
This specification does not constrain the design of application programming interfaces or the choice of defaults. In previous versions of this specification, result tree construction was a mandatory process, while serialization was optional. When invoking stylesheet functions directly, however, result tree construction and serialization may be inappropriate as defaults. These considerations may affect the design of APIs.
The sequence normalization process either returns a document node, or raises a serialization error. The content of the document node is not necessarily well-formed (the document node may have any number of element or text nodes among its children).
The classic method of executing an XSLT transformation is to apply template rules to the root node of an input document (see 2.3.3 Apply-Templates Invocation). The operation of applying templates to a node searches the stylesheet for the best matching template rule for that node. This template rule is then evaluated. A common coding pattern, especially when XSLT is used to convert XML documents into display formats such as HTML, is to have one template rule for each kind of element in the source document, and for that template rule to generate some appropriate markup elements, and to apply templates recursively to its own children. The effect is to perform a recursive traversal of the source tree, in which each node is processed using the best-fit template rule for that node. The final result of the transformation is then the tree produced by this recursive process. This result can then be optionally serialized (see 2.3.6 Post-processing the Raw Result).
Like parsing, serialization is not part of the transformation process, and it is not required that an XSLT processor must be able to perform serialization. However, for pragmatic reasons, this specification describes declarations (the xsl:output element and the xsl:character-map declarations, see 26 Serialization), and attributes on the xsl:result-document instruction, that allow a stylesheet to specify the desired properties of a serialized output file. When serialization is not being performed, either because the implementation does not support the serialization option, or because the user is executing the transformation in a way that does not invoke serialization, then the content of the xsl:output and xsl:character-map declarations has no effect. Under these circumstances the processor may report any errors in an xsl:output or xsl:character-map declaration, or in the serialization attributes of xsl:result-document, but is not required to do so.
The conformance rules for XSLT 3.0, defined in 27 Conformance, distinguish between a basic XSLT processor and a schema-aware XSLT processor. As the names suggest, a basic XSLT processor does not support the features of XSLT that require access to schema information, either statically or dynamically. A stylesheet that works with a basic XSLT processor will produce the same results with a schema-aware XSLT processor provided that the source documents are untyped (that is, they are not validated against a schema). However, if source documents are validated against a schema then the results may be different from the case where they are not validated. Some constructs that work on untyped data may fail with typed data (for example, an attribute of type xs:date cannot be used as an argument of the substringFO30 function) and other constructs may produce different results depending on the datatype (for example, given the element , the expression @price gt @discount will return true if the attributes have type xs:decimal, but will return false if they are untyped).
It is possible to request explicit validation of a complete document, that is, a result tree rooted at a document node. Validation is either strict or lax, as described in [XML Schema Part 1]. If validation of a result tree fails (strictly speaking, if the outcome of the validity assessment is invalid), then the transformation fails, but in all other cases, the element and attribute nodes of the tree will be annotated with the names of the types to which these nodes conform. These type annotations will be discarded if the result tree is serialized as an XML document, but they remain available when the result tree is passed to an application (perhaps another stylesheet) for further processing.
Many processors implementing earlier versions of this specification have adopted an architecture that allows streaming of the result tree directly to a serializer, without first materializing the complete result tree in memory. Streaming of the source tree, however, has proved to be more difficult without subsetting the language. This has created a situation where documents exceeding the capacity of virtual memory could not be transformed. XSLT 3.0 therefore introduces facilities allowing stylesheets to be written in a way that makes streaming of source documents possible, without excessive reliance on processor-specific optimization techniques.
This specification does not attempt to legislate precisely which implementation techniques fall under the definition of streaming, and which do not. A number of techniques are available that reduce memory requirements, while still requiring a degree of buffering, or allocation of memory to partial results. A stylesheet that requests streaming of a source document is indicating that the processor should avoid assuming that the entire source document will fit in memory; in return, the stylesheet must be written in a way that makes streaming possible. This specification does not attempt to describe the algorithms that the processor should actually use, or to impose quantitative constraints on the resources that these algorithms should consume.
An xsl:import-schema declaration within a package adds the names of the imported schema components to the static context for that package only; these names are effectively private, in the sense that they do not become available for use in any other packages. However, the names of schema components must be consistent across the stylesheet as a whole: it is not possible for two different packages within a stylesheet to use a type-name such as part-number to refer to different schema-defined simple or complex types.
Note that it is not possible, using a simplified stylesheet, to request that the serialized output contains a DOCTYPE declaration. This can only be done by using a standard stylesheet module, and using the xsl:output element.
A number of these constructs are of particular significance because they are used by functions defined in XSLT, which are added to the library of functions available for use in XPath expressions within the stylesheet. These are:
A number of functions specified in [Functions and Operators 3.0] are defined to be deterministicFO30, meaning that if they are called twice during the same execution scopeFO30, with the same arguments, then they return the same results (see Section 1.6 Terminology FO30). In XSLT, the execution of a stylesheet defines the execution scope. This means, for example, that if the function current-dateTimeFO30 is called repeatedly during a transformation, it produces the same result each time. By implication, the components of the dynamic context on which these functions depend are also stable for the duration of the transformation. Specifically, the following components defined in Section 2.1.2 Dynamic Context XP30 must be stable: function implementations, current dateTime, implicit timezone, available documents, available collections, and default collection. The values of global variables and stylesheet parameters are also stable for the duration of a transformation. The focus is not stable; the additional dynamic context components defined in 5.3.4 Additional Dynamic Context Components used by XSLT are also not stable. 2ff7e9595c
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