Chapter 13

Report Generator

Introduction

The Report Generator is a software module that can automatically generate a test report from tests carried out by RadiMation^®. This function can save a test engineer a lot of time, since the Report Generator only needs a few minutes to generate a complete test report. These test reports can be written in Microsoft Word, Microsoft Excel or Text format.

The basic information needed to create to generate a test report, as well as the more specific features of the Report Generator, are explained in the following paragraphs.

About the Report Generator

Template files and Report files

The Report Generator uses two files to generate a report; the Template file and the Report file.

The Report file is the 'output' of the Report Generator and the actual test report. It is containing all the desired data from the tests performed in the form of text, graphs, tables, etc. . Depending on the Template file, this report will be written in Microsoft Word, Microsoft Excel or Text format.

The Template file is the 'input' of the Report Generator. It contains the data for the Report file in the form of specific keywords. The Report Generator then replaces these keywords with test data to produce the actual test report (i.e. the Report file). Depending on the wishes of the test engineer, this file can be written in Microsoft Word, Microsoft Excel or Text format.

The Template file is not altered or destroyed when a Report file is generated. As such it can be 're-used' (as an example) for other test reports if the situation allows for it. (Great care should be taken to make sure that the content of the 're-used' Template file is suitable for the desired test report.)

Since the Template file is the foundation for the test report we recommend that you safeguard its content. Make the Template file read-only so it cannot be (accidentally) deleted or modified.

The Template file and report file may not be the same file!

Multiple 'test-specific' templates can be used instead of one 'generic' template. The biggest advantage of this option is that it simplifies the process of setting up and generating very large test reports. For more information, please read the paragraph 'Test-specific templates' (under 'Special features') further down.

Keywords

In the Template file, the test data is represented by specific keywords that tell the Report Generator which data to insert at the position of the code. These are divided into Main Keywords and Secondary Keywords.

In the (generic) Template file these keywords are coded as followed: || Main keyword | second keyword||

The Main Keyword indicates the part of RadiMation^® from which the data must be retrieved, such as; EUT, Configuration, Radiated Immunity, etc. (A list of Main Keywords and their complementing Secondary Keywords is visible further in this chapter.)

The Second Keyword indicates the data that must be retrieved, such as; filename, test start time, frequency, etc. (A list of Main Keywords and their complementing Secondary Keywords is visible further in this chapter.)

Every Main Keyword has a set of (Secondary) Keywords that can only be used in combination with that specific Main Keyword. In many cases tests share the same Keywords even though they refer to different data. (This is not a problem because the combination of the Main and Secondary Keywords will always result in a unique code.)

An overview of these keywords is visible further in this chapter.

Keep in mind that:

• The Keywords must be spelled correctly, including spaces and other symbols.
• To separate multiple words, only one space is used.
• Keywords are not case sensitive.
• Keywords that are not recognized cannot be replaced with data.
• Unrecognized Keywords will appear in the Report file 'unchanged' (as codes).
• In a 'test-specific' template the Main Keywords are not used, (only the second keywords).

Unrecognized Keywords

If a Keyword is not recognized the test engineer will be alerted to this error in the 'settings screen' of the Report Generator. This might occur when:

• The Keyword is spelled incorrectly.
• The data it refers to does not exist/no longer exists.
• The data it refers to does not exist/no longer exists in the specified location.
• The data it refers to does not exist/no longer exists under the specified name.

Errors are easily located by searching the test report (i.e. Report file) for the characters "||". Once found these can be deleted, or changed into a correct code. If the Report Generator is executed once again, (using the modified file as the template), the Report Generator should generate the report without errors (not replaced keywords).

Generating a report

Generating a report is a three step process. First you (make and) select a Template file to use as the foundation for your report. Then you set-up the desired Report Generator settings. Lastly you generate (and check) the test report (i.e. the Report file).

If the test report contains an error or is not to your liking for some reason, it can be altered. Please read the following paragraphs for more information about 'generating a report'.

We also recommend that you read the 'Specific features' paragraphs, because they contain further and more detailed information about specific features and uses of the Report Generator.

Step 1. Making and selecting a Template file

A Template file is needed to generate a report. Select/alter an existing file or create a new file if necessary.

Making a template file

Template files can be made in Microsoft Word, Microsoft Excel or Text format. As described previously, the Template file is the 'input' for the Report Generator and contains the data for the Report file in the form of specific keywords. These codes can be included in the templates in a variety of ways. Some of the possibilities are visible below:

In a template file made in Microsoft Word:

• Report generator codes can be included 'as is' (meaning, without context).
• Report generator codes can be included in a table.
• Report generator codes can be included in a header or footer.
• Report generator codes can be included in a heading.
• Report generator codes can be combined with other text and report generator codes in a cell of a table.
• Report generator codes that include texts into the final report are allowed.
• Report generator codes that include tables into the final report are allowed.
• Report generator codes that include pictures into the final report are allowed.

In a template file made in Microsoft Excel:

• Report generator codes can be included 'as is' (meaning, without context) in a single cell.
• Report generator codes can be combined with other text in a cell.
• Multiple report generator codes (and also text) can be combined in a cell.
• (Multiple) Report generator codes can be included in a note attached to a cell.
• Multiple worksheets are allowed, all worksheets will be checked for report generator codes.
• Report generator codes can be used as part of a formula of a cell. However it might be necessary to convert the contents from a text to numerical value. The simplest form of a formula is: "=VALUE("||START FREQUENCY||")".
• Report generator codes that include texts into the final report are allowed.
• Report generator codes that include tables into the final report are allowed.
• Report generator codes that include pictures into the final report are allowed.

Additional information and possibilities about the use of Microsoft Word and Excel as template files is described in the paragraph 'Microsoft Word/Excel report generator editor' (under 'Special features') further below.

Selecting a template file in RadiMation

To generate a report, open the 'EUT' window and go to the 'Reports' tab. Click 'Report' to open the 'Report Generator settings' window.

To select a Template file, click on the 'Template' path or the folder button next to it and select a file from the pop-up window.

To view the selected Template file, click the magnifying glass.

To delete the file selection, click the red cross. (The red cross does not delete the file itself.)

Step 2. Viewing and/or altering the report content

By default all the tests performed on the EUT are included in the report. To view these tests, click the 'Advanced Options' button in the 'Report Generator settings' window.

The tests that are included in the report, as well as the order in which they are displayed, is visible in the 'Included Tests' section of the 'Report Generator settings' window. Excluding tests from the report and/or changing the order of the tests can be achieved in this section as well.

Click the 'Advanced Options' button in the 'Report Generator settings' window to open this field.

To chance the order of the list, select a test from the list and change its position by using the arrows on the right side of the field.

To include/exclude tests from the list, use the buttons just below the field. Only the tests that are marked be included in the final report.

Step 3. Generating the report

The report can be generated ones the template file has been selected and the content of the report has been determined.

The report will be generated when you click the 'Generate' button. If you want to print the report directly after it has been generated, check the 'Print Report' checkbox on the bottom left of the window. If you want to open the report in your screen (and possibly edit it as well), check the 'Edit Report' checkbox.

The report generation process cannot be paused or cancelled be the end user. Depending on the content, this process can take a few seconds (for a text file) up to several minutes (for an extensive report containing many tables and graphs in MS Word).

Specific Features

Available report generator codes for EUT's

The Main Keyword for EUT data is "EUT". All the data entered in the EUT Window in RadiMation^® can be placed in one Report file. This data can be added as single lines of text or in tables. Tables are supported for Client data, Manufacturer data and Test site data. In addition, a table with all the information can be inserted as well.

Removing unrecognized codes 'automatically'

When working with a template system, it is not unusual for superfluous (or 'unrecognized') codes to appear in the resulting report. There are two 'automatic' ways to remove these codes from the report. The first method simply removes all the unrecognized codes, the second method is more selective and can be used to remove text as well. Both methods are described below.

Removing all 'unrecognized' codes

Normally when a keyword is neither correct nor recognized by the Report Generator, it will remain unchanged. The keyword ||RemoveIllegalCodes(TRUE)|| can automatically remove all these 'errors'. Keep in mind that using this keyword can be both an advantage and a disadvantage. If you are aware of the error(s), then this is a handy way to remove them from the test report. However, if you are not aware of them, this might lead you to miss errors that need to be addressed!

Removing selected text and codes

The special ||STARTDELETEBLOCK()|| and ||ENDDELETEBLOCK()|| keywords identify a block of text that will be removed from the report if none of the report generator codes between the tags are replaced.

“

Example: ||STARTDELETEBLOCK()|| Client: ||EUT|CLIENT CONTACT PERSON|| ||ENDDELETEBLOCK()||

”

• If the 'Client Contact Person' data has been entered in the EUT file, the code above will be replaced (with the corresponding data) and the text 'Client: ' and the actual data will remain visible in the report.
• If no data was entered for the 'Client Contact Person' in the EUT file, the code will not be replaced and the complete block including the text 'Client: ' and the not replace report generator code will be removed from the final report.
• If multiple report generator keywords are specified within the ||STARTDELETEBLOCK()|| and ||ENDDELETEBLOCK()||, the block will only be removed if all of the report generator codes are not replaced. The complete block will remain in the report if one or more of the report generator codes are replaced.
• It is allowed and possible to use a ||STARTDELETEBLOCK()|| and ||ENDDELETEBLOCK()|| combination within another ||STARTDELETEBLOCK()|| and ||ENDDELETEBLOCK()|| set.

This can help to automatically adjust what is or is not included in the report when certain data is not available.

Test-specific templates

The report generator has been extended in such a way, that it is no longer necessary to create one single template that includes all the codes for all the (performed) tests. Instead, it is now possible to link a 'test-specific' template to each test and then combine these into one 'main-template'. (This is an additional method to create a template file and does NOT replace the original method. Templates made with the original method will still work correctly.)

The biggest advantage of this option is that it simplifies the process of setting up and generating a test report, because:

• Test-specific template files contain simpler codes, are more compact and easier to 're-use'.
• The main-template is easier to set up and more accessible because its content is divided into more manageable chunks.

With this system, each test uses a different 'test-specific' template that contains the report generator codes for that test. It is necessary to combine these specific templates in order to generate a (complete) test report. This can be done by including the 'test-specific' templates into one 'main-template' for the report generator to process.

Example of a 'main-template'

“

Example of a 'main-template': Introduction ||EUT|ALL TESTS|| Conclusion

”

During the report generation, the ||EUT|ALL TESTS|| code will be replaced with the codes of the ‘test-specific’ templates of all the (different) tests performed on a EUT. It is also possible generate a report based on a specific set of tests, for example ||EUT|ALL IMMUNITY TESTS||. (See the Test specific report generator inclusion codes for a complete list of all the available codes.)

Making a 'test-specifc' template

'Test-specific' templates are created in the same way as the ‘generic’ report generator templates are created. All the available report generator codes (from the 'generic' templates) can also be included in the 'test-specific' templates.

However there is one big difference, and that it is no longer necessary to specify the first-part of the report generator code with a 'Main Keyword' (as described in the previous chapter 'Keywords').

• In 'generic' templates the Main Keyword is used to indicate the location of the data that needs to be retrieved. For example: ||TEST 1|MODULATION||, where 'TEST 1' refers to the test from which the used modulation should be included.
• With 'test-specific' templates is it sufficient to specify ||MODULATION||, because the Report Generator already knows that the template (and the codes within) are linked to that test.

A 'test-specific' template can be linked to a test by using the 'Reporting' button of the test. Each TSF configuration window, and each test-information window have this button. By pressing the button the 'Reporting Settings' window will open. More detailed reporting settings can be modified in this configuration window. The top entry field can be used to specify the name of the 'test-specific' template that should be linked to the test.

Combining graphs in a report

The report generator has been extended in such a way that it is more flexible and powerful in its ability to include graphs in a report. Not only is it easier to specify which graphs should be included, but it is even possible to include multiple 'lines' in one single graph.

With the support for this combination of report generator codes, a very powerful solution is presented to include graphs with multiple lines in a report.

Combining multiple graph lines

The code '||SIGNAL POWER GRAPH||' will include a graph with the signal power in a report. The same code can be extended with other 'graph lines' which are semi-colon separated. All the possible graph report generator codes can be combined into one single report generator code, as long as codes are ';' separated. If a specified graph line is not measured, the graph line will not be included in the final graph. It is thus acceptable to include the code '||SIGNAL POWER GRAPH; FORWARD POWER GRAPH||', even if the forward power is not measured. The graph will still be inserted but only contain the graph line for the signal power. If one or more of the graph lines are using a different unit, additional y-axes will be displayed.

“

Example: ||SIGNAL POWER GRAPH; FORWARD POWER GRAPH|| Will create a graph with the signal power and the forward power graph lines. ||FIELD GRAPH 1; FIELD GRAPH 2; AVERAGE FIELD GRAPH|| Will create a field strength graph with the field strength of the probes 1 and 2, and the average field graph. ||CURRENT GRAPH; NET POWER GRAPH|| Will create a graph with the current and the net power. This graph will have two y-axes to indicate the different units.

”

A special report generator code '||ALL GRAPHS||' is available, which will include a graph in the report which includes all the measured graph lines.

Single band immunity tests

The known graph report generator codes for a single band immunity test are:

• SIGNAL POWER GRAPH
• CURRENT GRAPH
• VOLTAGE GRAPH
• FORWARD POWER GRAPH
• REFLECTED POWER GRAPH
• NET POWER GRAPH
• MID POWER GRAPH
• OUT POWER GRAPH
• IMPEDANCE GRAPH
• ERROR GRAPH
• CALCULATED FIELD GRAPH
• AVERAGE FIELD GRAPH
• CALCULATED VOLTAGE GRAPH
• CALCULATED CURRENT GRAPH
• AD GRAPH 1
• AD GRAPH 2
• AD GRAPH 3
• AD GRAPH 4
• AD GRAPH 5
• AD GRAPH 6
• AD GRAPH 7
• AD GRAPH 8
• FIELD GRAPH 1
• FIELD GRAPH 2
• FIELD GRAPH 3
• FIELD GRAPH 4
• FIELD GRAPH 5
• FIELD GRAPH 6
• FIELD GRAPH 7
• FIELD GRAPH 8
• POINT 16 POWER GRAPH <n> where <n> is a number between 1 and 16 inclusive.
• POINT 16 FIELD GRAPH <n> where <n> is a number between 1 and 16 inclusive.
• POINT 16 ERROR GRAPH <n> where <n> is a number between 1 and 16 inclusive.
• CALIBRATED POWER GRAPH
• GENERATED MAGNETIC FIELD GRAPH
• MEASURED MAGNETIC FIELD GRAPH
• EUT ATTENUATION GRAPH
• EUT ATTENUATION STD DEV GRAPH
• EUT DYNAMIC RANGE GRAPH
• EUT DYNAMIC RANGE STD DEV GRAPH
• SIGNAL POWER ATTENUATION GRAPH

These report generator codes are currently only implemented in the single band version of the immunity tests. The functionality for the multiband version is a little bit different.

Multiband immunity and Multiband emission

The list of known graph report generator codes for multiband tests is not a fixed list, because an unlimited number of graph lines can be created in a multiband test. However, the report generator can include any graph that is also available in the multibnad test. The report generator code to include a graph in the report for a multiband test is the same as the name of the graph as it is shown in the legend above the graph in the multiband test results. A combination of the available graphs can also be included as a single graph in the report by combining the desired graph names in a single report generator code. As long as the labels of the graph are ';' separated, any number of graph lines can be included in the graph in the report.

“

Example: ||POWER; MEASURED POWER LIMIT; Amplifier forward power; Amplifier input|| will result in the following graph:

”

By default the graphs are used from the frequency tab. It is also possible to include a time, angle or height graph. If a graph from another graph tab should be included in the report, the graph name should be prefixed with one of the following prefixes:

• time:
• frequency:
• angle:
• height:

“

Example: Export an angle graph: ||angle:RBW: 1000 kHz, Horizontal Max Peak for peak 1|| Export a time graph: ||time:Signal Power;Channel1;Channel2|| Export a height graph: ||height:RBW: 1000 kHz, Horizontal Max Peak for peak 1||

”

It is also possible to include a time, angle or height table in the report. This is done by prefixing the graph name with the applicable graph tab prefix and ending the keyword with the TABLE suffix.

“

Example: Export an angle indexed table: ||angle:RBW: 1000 kHz, Horizontal Max Peak for peak 1 TABLE|| Export an time indexed table: ||time:Signal Power TABLE|| Export a height indexed table: ||height:RBW: 1000 kHz, Horizontal Max Peak for peak 1 TABLE||

”

Customizable AD-Channel measurement table

The report generator is extended in such a way that it is more flexible and powerful in its ability to specify the columns that should be included in a 'frequency sorted table' that includes the values of one or more measured channels.

With the support for this extensive report generator code, a very powerful solution is presented to include tables in a report with a customizable number of columns.

Implementation in version 5.2

The code '||AD CHANNEL 1 LIST||' will generate a table with the columns:

• Frequency
• Measured value of AD-Channel 1

The code '||AD CHANNEL 3,2,4,1 LIST||' will generate a table with the columns:

• Frequency
• Measured value of AD-Channel 3
• Measured value of AD-Channel 2
• Measured value of AD-Channel 4
• Measured value of AD-Channel 1

If one of the specified channels is not measured, those columns will not be included in the table.

The code '||AD CHANNEL 5,8 TABLE||' will generate a table with the columns:

• Frequency
• Measured value of AD-Channel 5
• Measured value of AD-Channel 8

Please keep in mind that there is a significant difference between the '||.... LIST||' and '||.... TABLE||' codes.

• The '||.... TABLE||' code will only include the frequencies for which the values were out of the specified range for that AD-Channel.
• The '||.... LIST||' code will include all the frequencies.

These report generator codes are currently only implemented in the single band version of the immunity tests. This functionality is not yet included in the multiband version, because the support for AD-Channels is not yet for 100% supported in the multiband test modules.

Implementation in version 5.3

The 'column' report generator codes are even more powerful in RadiMation version 5.3. From version 5.3.0 (and higher) it is also possible to include other 'measurement values' in the code.

“

Example: ||SIGNAL POWER, FORWARD POWER, AD CHANNEL 5 LIST|| ||NET POWER, AD CHANNEL 2, CALCULATED FIELD TABLE|| ||VOLTAGE, CALCULATED CURRENT, FORWARD POWER LIST||

”

All the above report generator codes will result in a table that is included in the final report, containing the columns that are included in the report generator code. The order of the columns in the table is the same as the order in which the 'measurement values' are included in the code. A frequency column is always included as a first column. Invalid 'measurement values' or channels that are not measured will not be included in the generated table.

The frequency dependent measurement values that can be used in the codes are:

• FREQUENCY
• SIGNAL POWER
• FORWARD POWER
• REFLECTED POWER
• NET POWER
• CURRENT
• VOLTAGE
• CALCULATED FIELD
• CALCULATED CURRENT
• CALCULATED VOLTAGE
• AVERAGE FIELD
• FIELD 1
• FIELD 2
• FIELD 3
• FIELD 4
• FIELD 5
• FIELD 6
• FIELD 7
• FIELD 8
• AD CHANNEL 1
• AD CHANNEL 2
• AD CHANNEL 3
• AD CHANNEL 4
• AD CHANNEL 5
• AD CHANNEL 6
• AD CHANNEL 7
• AD CHANNEL 8

All the 'measurement values' mentioned above are dependent on the frequency that is used for that row of the table. It is also possible to include frequency independent data as part of the table. If one or more of these frequency independent codes are included in the report generator code, an additional column will be added to the table, where the value is repeated on each row. This feature can for example be used in combination with the Microsoft Excel report generator, where each row contains all the needed information.

The frequency independent measurement values that can be used in the codes are:

• CALIBRATION FILE
• TEST ENGINEER
• TEST DATE
• TEST TIME
• START TIME
• STOP TIME
• TEMPERATURE
• HUMIDITY
• PRESSURE
• START FREQUENCY
• STOP FREQUENCY
• FREQUENCY STEP
• LOGARITHMIC STEP
• LOGARITHMIC STEP FROM
• POLARIZATION
• DISTANCE
• TOLERANCE
• DWELL TIME
• MODULATION
• MODULATION DEPTH
• MODULATION CONSERVATION
• MODULATION FREQUENCY
• MODULATION SIGNAL
• MODULATION DUTY CYCLE
• MAINS VOLTAGE
• FREQUENCY CHANGE MODE
• AVERAGE FIELD
• CURRENT MEASURED
• CALIBRATION METHOD
• FORWARD POWER MEASURED
• REFLECTED POWER MEASURED
• NET POWER MEASURED
• CALCULATED FIELD MEASURED
• RECALCULATE AVERAGE
• DESCRIPTION
• TSF FILENAME
• AMPLIFIER PROTECTION MODE
• AUTODISAPPEAR
• USE VOLTAGE TEST LEVEL
• VOLTAGE TEST LEVEL
• POWER TEST LEVEL
• FIELD TEST LEVEL
• USE CURRENT TEST LEVEL
• CURRENT TEST LEVEL
• STEP DOWN
• USE CURRENT LIMIT
• CURRENT LIMIT
• MODULATION TYPE
• MAGNETIC FIELD TEST LEVEL

These report generator codes are currently only implemented in the single band version of the immunity tests. This functionality has not been included in the multiband version yet, because the support for AD-Channels is not supported in the multiband test modules.

Microsoft Word report generator editor

Inclusion of other files

When the "||InsertFile(<OTHER WORD DOCUMENT FILENAME>)||" code is used, the contents from the other specified Microsoft Word document will be included in the generated report. The complete contents of the other document will be inserted at the location of the report generator code.

The filename of a Bitmap, JPEG or PNG file can also be specified as part of the "||InsertFile(<PICTURE FILENAME>)||" report generator code. The corresponding picture will then be loaded from the specified disk location and will be included at the location of the report generator code. This function is similar to the 'Insert Picture, From File' action of Microsoft Word.

The filename of a text or ASCII file can also be specified as part of the "||InsertFile(<TXT FILENAME>)||" report generator code. The contents of the file be loaded from the specified disk location and will be included at the location of the report generator code.

Inclusion of EUT attachments

Pictures, Microsoft Word documents and other files can also be attached to the EUT document, on the Attachments tab. These attachments can also be included in the generated report using the code "||EUT|ATTACHMENT <FILENAME> CONTENTS||". The '<FILENAME>' part should be the name of the attachment. It is also possible to use the code "||EUT|ATTACHMENT 1 CONTENTS||", where the "1" is the number of the attachment, but can be any number. The complete contents of the attachment will be inserted at the location of the report generator code.

Macros

With the report generator code "||RunMacro(<MACRO NAME>)||" it is possible to start a predefined macro function. The '<MACRO NAME>' may be:

• A macro defined by Microsoft Word
• The name of a public function in a public macro module
• A macro name predefined by the Microsoft Word report generator editor. These macro's are:
  • AutoFitThisTable: Will perform an 'Auto-Fit' on the table in which the "||RunMacro(AutoFitThisTable)||" is present.

It is not possible to call macro functions that require an argument, so only 'argument-less' macro functions can be called.

Table Formatting

The report generator will also use the formatting and settings, that are present in the template document. This does allow to define how inserted tables are formatted in the final report. To make this possible, the table code should be placed in a table in the template. In Microsoft Word, you then can set the border styles of the outer table.

Specific graph sizes

It is also possible to specify the size of the graph in the report generator template. This can be done by including a table in the report generator template, where the report generator code for the graph is placed in a cell of that table. By disabling the auto resizing of the table cell, the final report will contain the graph with the specified size. In the screenshot below, you will find how to disable auto resizing of the table.

Microsoft Excel report generator editor

The Microsoft Excel report generator editor allows that Microsoft Excel reports can be generated. A normal Microsoft Excel file can be specified as the template file for the report generator, and all the available RadiMation^® report generator codes can be used in that template file.

Values that are inserted in the generated in Microsoft Excel report are always using the US English formatting, to prevent problems with the interpretation of the values, if Microsoft Excel is using different Culture settings. If additional formulas and calculations are performed in the generated Microsoft Excel report, the formulas should be aware that the values are inserted in the US English format, and may need to be converted to the local format.

Table-inclusion modes

The report generator has several modes to include a table into the final report if the Microsoft Excel report generator editor is used. These are the:

• Row insert mode
• Cell insert mode
• Overwrite mode
• Sheet insert mode

Each mode works differently and has its own advantages. Please read the descriptions of these modes to decide which mode suits your intentions.

Row insert mode

The 'row insert mode' is the default mode used by the report generator.

For example:

• An Excel-sheet contains a report generator code for a table with 10 rows and 5 columns.
• When the code is detected, 9 rows are inserted below the cell containing the code. (Together creating a '10 row area'.)
• After the new rows have been added, the table is inserted at the cell where the code is detected, overwriting the '10 rows and 5 columns area' connected to this starting cell.

Because additional rows are inserted before the table is included, the content/codes below the starting cell are shifted down (and not overwritten).

This mode can be activated by including the following report generator code: "||RunMacro(CELL_PASTE_MODE_ROWS)||"

Cell insert mode

The 'cell insert mode' is very similar to the 'row insert mode' in that new cells are inserted before the table is included. The difference however is that the surrounding content is not just moved down, but also to the right. Meaning that, ones the table is inserted, any content that was placed next to the starting cell will now be present next to the table. This can be useful if calculations should be performed on the data that is present in the inserted table.

For example:

• An Excel-sheet contains a report generator code for a table with 10 rows and 5 columns.
• When the code is detected, a block of 9 rows and 4 columns is inserted to the right and below the cell containing the code. (Together creating a '10 row, 5 column area'.)
• After the new rows and columns have been added, the table is inserted at the cell where the code is detected, overwriting the '10 rows and 5 columns area' connected to this starting cell.

Because additional rows and columns are inserted before the table is included, the content/codes below the starting cell are shifted down and to the right (and not overwritten).

This mode can be activated by including the following report generator code: "||RunMacro(CELL_PASTE_MODE_CELLS)||"

Overwrite mode

In the 'overwrite mode' a table is inserted at the cell where the code is detected, overwriting the cells that are to the right and below this starting cell.

For example:

• An Excel-sheet contains a report generator code for a table with 10 rows and 5 columns.
• When the code is detected, the table is inserted at the cell where the code is detected, overwriting the '10 rows and 5 columns area' connected to this starting cell.

Because of this the content of other cells (below and next to the starting cell) can be lost if the inserted table is bigger than expected.

This mode can be activated by including the following report generator code: "||RunMacro(CELL_PASTE_MODE_OVERWRITE)||"

Sheet insert mode

If, in the 'sheet insert mode', a report generator code is detected that will result in the inclusion of a table, then a new worksheet will be created after the active worksheet. The table will be inserted at the 'A1' cell of the newly created worksheet, overwriting the cells that are to the right and below the 'A1' cell.

This means that each table will be placed on a new worksheet. 'Non-table' content (such as graphs or text) that follows after the table will be placed on the same worksheet as the table.

This mode can be activated by including the following report generator code: "||RunMacro(CELL_PASTE_MODE_SHEET)||"

Inclusion of other files

When the "||InsertFile(<OTHER EXCEL WORKBOOK>)||" code is used, the contents from the other specified Microsoft Excel workbook or worksheet will be included in the generated report. The complete contents of the other document will be inserted at the location of the report generator code. The size of the 'to be inserted' data is determined, starting at the 'A1' cell until the last filled cell. This data is then inserted at the location of the keyword, using the selected table-inclusion mode. To prevent that unnecessary worksheets are included in the report, a check is done which prevents that empty worksheets are inserted.

The filename of a Bitmap, JPEG or PNG file can also be specified as part of the "||InsertFile(<PICTURE FILENAME>)||" report generator code. The corresponding picture will then be loaded from the specified disk location and will be included at the location of the report generator code. This function is similar to the 'Insert Picture, From File' action of Microsoft Excel.

Inclusion of EUT attachments

Pictures, Microsoft Excel documents and other files can also be attached to the EUT document, on the Attachments tab. These attachments can also be included in the generated report using the code "||EUT|ATTACHMENT <FILENAME> CONTENTS||". The '<FILENAME>' part should be the name of the attachment. It is also possible to use the code "||EUT|ATTACHMENT 1 CONTENTS||", where the "1" is the number of the attachment, but can be any number. The complete contents of the attachment will be inserted at the location of the report generator code.

Macros

With the report generator code "||RunMacro(<MACRO NAME>)||" it is possible to start a predefined macro function. The '<MACRO NAME>' may be:

• A macro defined by Microsoft Excel
• The name of a public function in a public macro module
• A macro name predefined by the Microsoft Excel report generator editor, which can be:
  • CELL_PASTE_MODE_CELLS
  • CELL_PASTE_MODE_SHEET
  • CELL_PASTE_MODE_OVERWRITE
  • CELL_PASTE_MODE_ROWS

It is not possible to call macro functions that require an argument, so only ‘argument-less’ macro functions can be called.

SQL queries on tables

The report generator of RadiMation supports the usage of SQL Queries on tables that are provided by the report generator. This makes it possible to include a customised table in the final report.

In combination with the 'SQL' queries, more advanced table configurations are possible, such as:

• Changing the order of the columns in the table
• Hiding selected columns from the table
• Changing the sorting of the rows, based on a specific column
• Filtering of the rows, based on the data that is included

The most simple SQL statement is:

SELECT * FROM <TABLE>

Where '<TABLE>' is an existing report generator code that includes a table in the report. This simple SQL statement can be extended with:

• An optional 'WHERE' clause that defines an additional filter that should be used on the rows.
• An optional 'ORDER BY' clause that specifies any specific ordering of the rows.

The names of the columns that can be used in the SQL queries are the same as they names that appear in the header row of the generated table itself. Any column name that includes a space, should be included in '[ ]' brackets.

The general keywords can't be used for selection within a table. For an example of keywords used within the table selection see the Radiated Emission Table

The report generator is passing the SQL statements and the table data itself through an internal SQLite database engine. Because the SQLite database engine is used, almost all variations of the SQL queries are supported.

Examples

“

Example to only include the frequencies above 50 MHz: ||SELECT * FROM AD CHANNEL 4,3,2,1 LIST WHERE Frequency > 50E6||

”

“

Example to only include the frequencies between 1 Hz and 20 MHz, where the AD-channel was measured out of the specified range ('TABLE'), and the table is reverse-sorted on the frequency column: ||SELECT * FROM AD CHANNEL 8,7,6,5,4,3,2,1 TABLE WHERE FREQUENCY >= 1 and FREQUENCY <= 20E6 ORDER BY Frequency desc||

”

“

Example to include the 'EQUIPMENT TABLE' including all the columns (also the hidden columns): ||SELECT ALL FROM EQUIPMENT TABLE||

”

Including additional columns in the table

By default the report generator codes that insert a table in the report, only show a reduced set of the columns that are available for the table. It is possible to also include additional columns in the table that is inserted in the report.

The report generator code ||SELECT ALL FROM <TABLE>|| (where <TABLE> is the actual report generator code that inserts a table), will insert the table including all available (and by default hidden) columns.

“

Example to include all columns of a table: The report generator code ||SELECT ALL FROM PEAKTABLE|| will show the table including all the available columns, and could result in: Peak Number Peak Number_RAW Frequency Frequency_RAW Peak Peak_RAW Peak Limit Peak Limit_RAW Peak Difference Peak Difference_RAW Peak Correction Peak Correction_RAW Peak Status Peak Status_RAW Status Status_RAW Angle Angle_RAW 1 1 829.92 MHz 829921205 80 dBµV/m 80 60 dBµV/m 60 20 dB 20 0.00 dB 0.00 Fail Fail Fail Fail 0 Degree 0

”

Instead of the previous table, we would like to create one with the following information:

• Peak Number
• Frequency
• Peak
• Peak Limit
• Peak difference to the limit
• Peak status
• Overall status

When you try to do this with the following code …

||SELECT Peak Number,Frequency,Peak,Peak Limit,Peak Difference,Peak Status,Status FROM PEAKTABLE||

… you find out that it does not work.

The reason for this, as stated earlier, is that any column name that include a space, should be included in '[ ]'.

When you alter the code with that in mind, you end up with the code …

||SELECT [Peak Number],Frequency,Peak,[Peak Limit],[Peak Difference],[Peak Status],Status FROM PEAKTABLE||

… which does work.

The resulting table will look like this:

Peak Number	Frequency	Peak	Peak Limit	Peak Difference	Peak Status	Status
1	829.92 MHz	80 dBµV	60 dBµV	20 dB	Fail	Fail

Limiting the number of rows in the table

To limit the number of rows that are included in a table, the 'LIMIT <nr>' keyword can be appended to the SQL query, where the '<nr>' is the maximum number of rows in the table.

“

Example to limit the number of rows in the table to 3 rows: ||SELECT [Peak Number],Frequency,Peak,[Peak Limit],[Peak Difference],[Peak Status],Status FROM PEAKTABLE LIMIT 3|| will thus result in: Peak Number Frequency Peak Peak Limit Peak Difference Peak Status Status 1 829.92 MHz 80 dBµV/m 60 dBµV/m 20 dB Fail Fail 2 749.42 MHz 68.8 dBµV/m 60 dBµV/m 8.8 dB Fail Fail 3 951.44 MHz 73.2 dBµV/m 60 dBµV/m 12.2 dB Fail Fail

”

Sorting the rows in another order

To sort the rows in a table in another order, the 'ORDER BY <column-name>' keyword can be appended to the SQL query, where the '<column-name>' is the name of the column that should be used for the sorting. Additionally the 'ASC' or 'DESC' keyword can also be appended to use ascending or descending ordering.

“

Example to sort the rows in the table descending on the frequency: ||SELECT [Peak Number],Frequency,Peak,[Peak Limit],[Peak Difference],[Peak Status],Status FROM PEAKTABLE ORDER BY Frequency DESC|| will thus result in: Peak Number Frequency Peak Peak Limit Peak Difference Peak Status Status 3 951.44 MHz 73.2 dBµV/m 60 dBµV/m 12.2 dB Fail Fail 1 829.92 MHz 80 dBµV/m 60 dBµV/m 20 dB Fail Fail 4 805.11 MHz 62.1 dBµV/m 60 dBµV/m 1.2 dB Fail Fail 2 749.42 MHz 68.8 dBµV/m 60 dBµV/m 8.8 dB Fail Fail

”

EUT

Common

Keyword	Description
||EUT|FILENAME||	The filename of the EUT
||EUT|BRAND||	The brand of the EUT specified in the EUT Window
||EUT|CONDITION UPON RECEPTION||	The condition of reception of the EUT specified in the EUT Window
||EUT|DATE OF RECEIPT||	The date of reception of the EUT specified in the EUT Window
||EUT|DATE OF MEASUREMENT||	The date of measurement of the EUT specified in the EUT Window
||EUT|DIMENSIONS||	The dimensions of the EUT specified in the EUT Window
||EUT|EMISSION STANDARD||	The emission standard of the EUT specified in the EUT Window
||EUT|ENVIRONMENT||	The environment of the EUT specified in the EUT Window
||EUT|IMMUNITY STANDARD||	The immunity standard of the EUT specified in the EUT Window
||EUT|NAME||	The name of the EUT specified in the EUT Window
||EUT|ORDER NUMBER||	The order number of the EUT specified in the EUT Window
||EUT|PCB RELEASE||	The PCB release of the EUT specified in the EUT Window
||EUT|PERIPHERAL EQUIPMENT||	The peripheral equipment of the EUT specified in the EUT Window
||EUT|PLACE MEASURMENT||	The place of measurment of the EUT specified in the EUT Window
||EUT|RADIMATION VERSION||	The RadiMation® version
||EUT|RATED POWER||	The rated power of the EUT specified in the EUT Window
||EUT|SERIAL NUMBER||	The serial number of the EUT specified in the EUT Window
||EUT|TEST SETUP TYPE||	The test setup type of the EUT specified in the EUT Window
||EUT|SOFTWARE RELEASE||	The software release of the EUT specified in the EUT Window
||EUT|TYPE NUMBER||	The type number of the EUT specified in the EUT Window
||EUT|VOLTAGE SUPPLY||	The voltage supply of the EUT specified in the EUT Window

Client Address Information

Keyword	Description
||EUT|CLIENT ADDRESS||	The address of the client specified in the EUT Window
||EUT|CLIENT CAPACITY||	The capacity of the client specified in the EUT Window
||EUT|CLIENT CITY||	The city of the client specified in the EUT Window
||EUT|CLIENT COMPANY||	The client name specified in the EUT Window
||EUT|CLIENT CONTACT PERSON||	The contact person of the client specified in the EUT Window
||EUT|CLIENT COUNTRY||	The country of the client specified in the EUT Window
||EUT|CLIENT EMAIL ADDRESS||	The email address of the client specified in the EUT Window
||EUT|CLIENT FAX NUMBER||	The fax number of the client specified in the EUT Window
||EUT|CLIENT STATE||	The state of the client specified in the EUT Window
||EUT|CLIENT TELEPHONE NUMBER||	The telephone number of the client specified in the EUT Window
||EUT|CLIENT ZIP CODE||	The ZIP code of the client specified in the EUT Window

Manufacturer Address Information

Keyword	Description
||EUT|MANUFACTURER ADDRESS||	The address of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER CITY||	The city of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER COMPANY||	The manufacturer name specified in the EUT Window
||EUT|MANUFACTURER CONTACT PERSON||	The contact person of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER COUNTRY||	The country of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER EMAIL ADDRESS||	The email address of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER FAX NUMBER||	The fax number of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER STATE||	The state of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER TELEPHONE NUMBER||	The telephone number of the manufacturer specified in the EUT Window
||EUT|MANUFACTURER ZIP CODE||	The ZIP code of the manufacturer specified in the EUT Window

Test Site Address Information

Keyword	Description
||EUT|TEST SITE ADDRESS||	The address of the test site specified in the EUT Window
||EUT|TEST SITE CITY||	The city of the test site specified in the EUT Window
||EUT|TEST SITE COMPANY||	The test site name specified in the EUT Window
||EUT|TEST SITE CONTACT PERSON||	The contact person of the test site specified in the EUT Window
||EUT|TEST SITE COUNTRY||	The country of the test site specified in the EUT Window
||EUT|TEST SITE EMAIL ADDRESS||	The email address of the test site specified in the EUT Window
||EUT|TEST SITE FAX NUMBER||	The fax number of the test site specified in the EUT Window
||EUT|TEST SITE STATE||	The state of the test site specified in the EUT Window
||EUT|TEST SITE TELEPHONE NUMBER||	The telephone number of the test site specified in the EUT Window
||EUT|TEST SITE ZIP CODE||	The ZIP code of the test site specified in the EUT Window

Cable information

Keyword	Description
||EUT|CABLE TABLE||	A table with the cable information specified in the EUT Window
||EUT|CABLE X PORT TYPE||	The port type of cable X in the EUT window ( X starting from 1)
||EUT|CABLE X CABLE TYPE||	The cable type of cable X in the EUT window (X starting from 1)
||EUT|CABLE X CABLE LENGTH||	The cable length of cable X in the EUT window (X starting from 1)
||EUT|CABLE X FIXING SHIELD||	The fixing shield of cable X in the EUT window (X starting from 1)
||EUT|CABLE X LOAD AT PORT||	The load at port of cable X in the EUT window (X starting from 1)

Standards Information

Keyword Description ||EUT|PRODUCT STANDARD ...|| Specifications of the used Product Standard ||EUT|BASIC STANDARD ...|| Specifications of the used Basic Standard

Where ... is one of the following parameters:

Parameter	Description
DATEOFRELEASE	Release date of the standard
DESCRIPTION	String containing official name / scope
FILELOCATION	The location of the file associated with the standard
LANGUAGE	The language in which the standard is described
NOTE	Additional note to the standard
OFFICIALNAME	The official name of the standard
REFERRED STANDARDS	A string of referred standards, separated by a "," (Only applicable to product standards)
SCOPE	The scope of the standard
STANDARDISATIONINSTITUTE	Description of Measurement equipment given by the user
TABLE	Table of the used standards

“

Example: ||EUT|PRODUCT STANDARD REFERRED STANDARDS|| ||EUT|PRODUCT STANDARD DESCRIPTION|| ||EUT|SELECT * FROM [BASIC STANDARD TABLE]|| ||EUT|SELECT ALL FROM [BASIC STANDARD TABLE]|| ||EUT|SELECT [OFFICIAL NAME] FROM [BASIC STANDARD TABLE]||

”

Configuration

Report Generator

Keyword	Description
COMNAME	Internal COM Name selected report generator
DESCRIPTION	Selected report generator
EXTENSION	Report generator extension
CHECKEXTENSION	Report generator should check extension
EDITOR	Report generator
STARTDELETEBLOCK()	Start block to remove unused keywords
ENDDELETEBLOCK()	End block to remove unused keywords
RemoveIllegalCodes(TRUE)	Removal illegal keywords

Directories

Keyword	Description
||Configuration|DEVICEDRIVERFILESDIRECTORY||	CONFDVDR directory
||Configuration|CALFILESDIRECTORY||	CAL Files directory
||Configuration|EUTFILESDIRECTORY||	EUT Files directory
||Configuration|TSFFILESDIRECTORY||	TSF Files directory
||Configuration|SEQFILESDIRECTORY||	SEQ Files directory
||Configuration|CORFILESDIRECTORY||	COR Files directory
||Configuration|DIRECTORIES||	All directories

Units

Keyword	Description
||Configuration|CURRENT||	Current
||Configuration|EMISSION AMPLITUDE||	Emission
||Configuration|FIELD||	Electrical Field
||Configuration|FREQUENCY||	Frequency
||Configuration|POWER||	Power
||Configuration|VOLTAGE||	Voltage
||Configuration|UNITS||	All units

General

Keyword	Description
||Configuration|CURRENTUSERNAME||	Current username
||Configuration|RADIMATION VERSION||	The RadiMation® version

EUT Calibration

EUT's can be calibrated in multiple ways:

• Attenuation / Gain
• Amplifier linearity
• Gain compression
• Harmonics
• S Parameter
• Antenna scan
• Antenna
• Field strength

The available report generator codes for those calibrations are listed in the sections below.

Amplifier Linearity

Keyword	Description
DESCRIPTION	Test level to calibrate with
TEST-TYPE	Signal gen, forward-power or net-power
START FREQUENCY	Start frequency of the calibration
STOP FREQUENCY	End frequency of the calibration
FREQUENCY STEP	Step size
CALIBRATION FILE	Used Calibration file
ALL GRAPHS	Output graph

Gain compression

Keyword	Description
START FREQUENCY	Start frequency of the calibration
STOP FREQUENCY	End frequency of the calibration
STEP	Step size specifically for using log step in %
CALIBRATION METHOD	Signal gen, forward-power or net-power
TABLE	Output table
GRAPH	Output graph
POWER TABLE	Table with all the compression power levels for every frequency

Harmonics

Keyword	Description
START FREQUENCY	Start frequency of the calibration
STOP FREQUENCY	End frequency of the calibration
STEP	Step size specifically for using log step in %
CALIBRATION METHOD	Signal gen, forward-power or net-power
TABLE	Output table
GRAPH	Output graph
POWER TABLE	Specific table for harmonics

S Parameter

The xx after the S must be replaced by the appropriate test number: 11, 12, 21 or 22.

Keyword	Description
ALL GRAPHS	All available graphs plotted in one graph
Sxx PRESCAN GRAPH	Prescan Graph
Sxx MAGNITUDE AVG GRAPH	Magnitude Average Graph
Sxx MAGNITUDE MAX GRAPH	Magnitude Maximum Graph
Sxx MAGNITUDE MIN GRAPH	Magnitude Minimum Graph
Sxx MAGNITUDE STDDEV GRAPH	Magnitude Standard Deviation Graph
Sxx IMPEDANCE AVG GRAPH	Graph with the average of the measured impedance
Sxx IMPEDANCE MAX GRAPH	Graph with the max-hold of the measured impedance
Sxx IMPEDANCE MIN GRAPH	Graph with the min-hold of the measured impedance
Sxx IMPEDANCE STDDEV GRAPH	Graph with the Standard Deviation of the measured impedance

It is also possible to retrieve the data as table

Keyword	Description
S11 TABLE	All columns default visible
Select * FROM S11 TABLE	Using sql to retrieve all values
Select IMPEDANCE FROM S11 TABLE	Because we added impedance later, it is not visible by default

Antenna scan

To request the data as table from an antenna scan use the following code

Keyword	Description
POWER TABLE	Default table with frequency, signal power and forward power.
SELECT ALL FROM [Power Table]	To request all possible columns

Radiated Immunity

Calibration

Keyword	Description
NUMBER OF EVENTS	The number of events that occur during a test
EVENTS	Table of events which occur during a test

Uniform Field Area Calculation

Keyword	Description
NUMBER OF EVENTS	The number of events that occur during a test
TEST START TIME	The date and time at which the test is started
TEST STOP TIME	The date and time at which the test is stopped
TEST DATE	The date at which the test is performed
TEST ENGINEER	The name of the test engineer
TEST TIME	The time at which the test is performed
TEST SITE NAME	The name of the test equipment list
AVERAGE FIELD GRAPH	The graph representing the average field graph
CALCULATED FIELD GRAPH	The graph representing the calculated field graph
ERROR GRAPH	The graph representing the error graph
FIELD GRAPH x	The graph representing the field graph of field strength sensor number [x], where x is a number between 1 and 8
FORWARD POWER GRAPH	The graph representing the forward power graph
NET POWER GRAPH	The graph representing the net-power power graph
POINT 16 ERROR GRAPH x	The graph representing the error graph of point number [x], where x is a number between 1 and 16
POINT 16 FIELD GRAPH x	The graph representing the field graph of point number [x], where x is a number between 1 and 16
POINT 16 POWER GRAPH x	The graph representing the power graph of point number [x], where x is a number between 1 and 16
REFLECTED POWER GRAPH	The graph representing the reflected power graph
SIGNAL POWER GRAPH	The graph representing the signal power graph
AMPLIFIER PROTECTION MODE	The Amplifier Protection mode: Signal Power, Forward Power and / or Reflected Power.
AVERAGE FIELD	Which probes are selected for the calculation of the average field
CURRENT MEASURED	Indication whether or not the current is measured: Yes / No
DESCRIPTION	The description of the Test Setup File (TSF)
DISTANCE	The distance between the antenna and the EUT in meters [m]
DWELL TIME	The dwell time in seconds [s]
FIELD TEST LEVEL	The field strength level in the unit selected by the user
FORWARD POWER MEASURED	Indication whether or not the forward power is measured: Yes / No
FREQUENCY CHANGE MODE	The method used to change frequency: Stress Method, Ramp Method, Constant Method or Fast Constant Method.
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
MAIN VOLTAGE	The mains voltage during the test in Volt [V]
NET POWER MEASURED	Indication whether or not the net-power power is measured: Yes / No
NOTE	Note or remark made during the test
POLARIZATION	Antenna polarisation: Horizontal or Vertical
PRESSURE	Air Pressure during the test in milliBar [mbar]
RECALCULATE AVERAGE	Indication whether or not the average is recalculated: Yes / No
REFLECTED POWER MEASURED	Indication whether or not the reflected power is measured: Yes / No
START FREQUENCY	The start frequency in megahertz [MHz]
STOP FREQUENCY	The stop frequency in megahertz [MHz]
FREQUENCY STEP	The linear frequency step in megahertz [MHz]
LOGARITHMIC STEP	The logarithmic frequency step in a percentage of the previous step
LOGARITHMIC STEP FROM	The frequency the test was started from to calculate the proper logarithmic step size
STEP	A textual description of the used frequency step, also containing if it is linear or logarithmic step size
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TSF FILENAME	The filename of the TSF file
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
FIELD UNIT	The selected unit for field strength: [dBμV/m], [dBmV/m], [dBV/m], [μV/m], [mV/m] or [V/m]
POWER UNIT	The selected unit for power: [dBμW], [dBm], [dBmW], [dBW], [μW], [mW] or [W]
VOLTAGE UNIT	The selected unit for voltage: [dBμVrms], [dBmVrms], [dBVrms], [μVrms], [mVrms] or [Vrms]
NUMBER OF TOTAL POINTS	The total of calibration points
NUMBER OF POINTS TO REMOVE	The number of points removed
ACCEPTED TOLERANCE	The accepted tolerance in dB
ACCEPTED EXTENDED TOLERANCE	The accepted extended tolerance in dB
PERCENTAGE WITHIN TOLERANCE	The percentage of frequencies within the accepted tolerance
PERCENTAGE WITHIN EXTENDED TOLERANCE	The percentage of frequencies within the accepted extended tolerance
PERCENTAGE OUTSIDE TOLERANCE	The percentage of frequencies outside the tolerance
MAX STANDARD DEVIATION MEASURED	The maximum standard deviation
FREQUENCY FOR MAX STANDARD DEVIATION	The frequency with the maximum standard deviation
MAX TOLERANCE DEVIATION MEASURED	The maximum tolerance deviation
FREQUENCY FOR MAX DEVIATION	The frequency with the max tolerance
RESULT	UFA pass or fail result
STDEV GRAPH	The graph representing the standard deviation per frequency
PROBABILITY PERCENTAGE	The probability percentage
CROSS POLAR PROBABILITY PERCENTAGE	The cross-polar probability percentage
CROSS POLAR ACCEPTED TOLERANCE	The cross-polar accepted tolerance in dB
CROSS POLAR ACCEPTED EXTENDED TOLERANCE	The cross-polar accepted extended tolerance in dB
CROSS POLAR EXTENDED TOLERANCE PERCENTAGE	The cross-polar extended tolerance percentage
CROSS POLAR RESULT	The cross-polar result, pass or fail
CROSS POLAR PERCENTAGE WITHIN TOLERANCE	The cross-polar percentage within tolerance
CROSS POLAR NUMBER OF POINTS WITHIN TOLERANCE	The cross-polar number of frequency points within tolerance
CROSS POLAR PERCENTAGE WITHIN EXTENDED TOLERANCE	The cross-polar percentage of frequency points within the extended tolerance
CROSS POLAR NUMBER OF POINTS WITHIN EXTENDED TOLERANCE	The cross-polar number of frequency points within the extended tolerance
CROSS POLAR PERCENTAGE OUTSIDE TOLERANCE	The cross-polar percentage outside the tolerance
CROSS POLAR NUMBER OF POINTS OUTSIDE TOLERANCE	The cross-polar number of points outside the tolerance
CROSS POLAR MAX PQUANTILE	The cross-polar maximum PQuantile
CROSS POLAR FREQUENCY FOR MAX PQUANTILE	The cross-polar frequency for the max PQuantile
PQUANTILE GRAPH	The graph representing the PQuantile per frequency

Equipment for Uniform Field Area calculation

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
AMPLIFIER ...	Specifications of the used Amplifier
ANTENNA ...	Specifications of the used Antenna
COUPLER ...	Specifications of the used Coupler
FIELD SENSOR x ...	Specifications of the used Field Sensor number [x], where x is a number between 1 and 8
FORWARD POWER METER ...	Specifications of the used Forward Power Meter
REFLECTED POWER METER ...	Specifications of the used Reflected Power Meter
SIGNAL GENERATOR ...	Specifications of the used Signal Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||AMPLIFIER BRAND|| returns the brand name of the amplifier.

”

Radiated Immunity Tests

Keyword	Description
"keyword or name of photo"	The name or keyword of the photo
NUMBER OF EVENTS	The number of events that occur during a test
TEST START TIME	The date and time at which the test is started
TEST STOP TIME	The date and time at which the test is stopped
TEST DATE	The date at which the test is performed
TEST ENGINEER	The name of the test engineer
TEST TIME	The time at which the test is performed
TEST SITE NAME	The name of the test equipment list
AD GRAPH x	The graph representing the A/D graph of channel number [x], where x is a number between 1 and 8
AVERAGE FIELD GRAPH	The graph representing the average field graph
CALCULATED FIELD GRAPH (1)	The graph representing the calculated field graph
CURRENT GRAPH	The graph representing the current graph
FIELD GRAPH x	The graph representing the field graph of field strength sensor number [x], where x is a number between 1 and 8
FORWARD POWER GRAPH	The graph representing the forward power graph
NET POWER GRAPH	The graph representing the net-power power graph
REFLECTED POWER GRAPH	The graph representing the reflected power graph
SIGNAL POWER GRAPH	The graph representing the signal power graph
AMPLIFIER PROTECTION MODE	The Amplifier Protection mode: Signal Power, Forward Power and or Reflected Power.
AVERAGE FIELD	Which probes are selected for the calculation of the average field
CALCULATED FIELD MEASURED(1)	Indication whether or not the calculated power is measured: Yes / No
CALIBRATION FILE (1)	The name of the calibration file used for the test
CALIBRATION METHOD	The calibration method used: Signal Generator Level, Forward Power or Net-Power
CURRENT LIMIT	The Current limit in Ampere [A]
CURRENT MEASURED	Indication whether or not the current is measured: Yes / No
CURRENT UNIT	The selected current unit: [dBμA],[dBmA], [dBA], [μA], [mA] or [A]
DESCRIPTION	The description of the Test Setup File (TSF)
DISTANCE	The distance between the antenna and the EUT in meters [m]
DWELL TIME	The dwell time in seconds [s]
FIELD TEST LEVEL (2)	The field strength level in the unit selected by the user
FORWARD POWER MEASURED	Indication whether or not the forward power is measured: Yes / No
FREQUENCY CHANGE MODE	The method used to change frequency: Stress Method, Ramp Method, Constant Method or Fast Constant Method.
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
MAIN VOLTAGE	The mains voltage during the test in Volt [V]
MODULATION	The type of modulation: none, Internal AM, External AM or Pulse
MODULATION CONSERVATION	Indication whether peak conservation is used: Power, Voltage, none
MODULATION DEPTH	Modulation depth in percentage of the carrier [%]
MODULATION DUTY CYCLE	The duty cycle of the pulse modulation as a percentage [%]
MODULATION FREQUENCY	The modulation frequency in Hertz [Hz]
MODULATION SIGNAL	The type of modulation signal: Sine Wave or Square Wave
NET POWER MEASURED	Indication whether or not the net-power power is measured: Yes / No
NOTE	Note or remark made during the test
POLARIZATION	Antenna polarisation: Horizontal or Vertical
PRESSURE	Air Pressure during the test in milliBar [mbar]
REFLECTED POWER MEASURED	Indication whether or not the reflected power is measured: Yes / No
START FREQUENCY	The start frequency in megahertz [MHz]
STOP FREQUENCY	The stop frequency in megahertz [MHz]
FREQUENCY STEP	The linear frequency step in megahertz [MHz]
LOGARITHMIC STEP	The logarithmic frequency step in a percentage of the previous step
LOGARITHMIC STEP FROM	The frequency the test was started from to calculate the proper logarithmic step size
STEP	A textual description of the used frequency step, also containing if it is linear or logarithmic step size
TAKE START PICTURE	Indication whether or not to take a photo at the start of the test: Yes/No
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TSF FILENAME	The filename of the TSF file
USE CURRENT LIMIT	Is the current limit used: Yes / No
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
MANUAL MODE	Table containing the information collected during a manual mode session
FIELD UNIT	The selected unit for field strength: [dBμV/m], [dBmV/m], [dBV/m], [μV/m], [mV/m] or [V/m]
POWER UNIT	The selected unit for power: [dBμW], [dBm], [dBmW], [dBW], [μW], [mW] or [W]
VOLTAGE UNIT	The selected unit for voltage: [dBμVrms], [dBmVrms], [dBVrms], [μVrms], [mVrms] or [Vrms]

1) Substitution Method only 2) Substitution Method and Fixed Field Method only

Equipment for Radiated Immunity Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
AD CONVERTOR ...	Specifications of the used A/D Converter
AMPLIFIER ...	Specifications of the used Amplifier
ANTENNA ...	Specifications of the used Antenna
CABLE x ...	Specifications of the used Cable number [x], where x is a number between 1 to 8
COUPLER ...	Specifications of the used Coupler
CURRENT SENSOR ...	Specifications of the used Current Sensor
FIELD SENSOR x ...	Specifications of the used Field Sensor number [x], where x is a number between 1 and 8
FORWARD POWER METER ...	Specifications of the used Forward Power Meter
REFLECTED POWER METER ...	Specifications of the used Reflected Power Meter
SENSOR POWER METER ...	Specifications of the used Sensor Power Meter
SIGNAL GENERATOR ...	Specifications of the used Signal Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||AMPLIFIER SERIAL NUMBER|| returns the serial number of the amplifier.

”

Radiated Immunity Multiband

It is possible to include the test levels of a multi band immunity test. The name of a test level can be adjusted in the TSF and therefor needs to be looked up first.

To include a field of a test level from band 1 use the following code, where the name needs to match the test level and an appropriate field should be used.

“

Example: The report generator code is build as following, where <Test level name> is replaced with the name of the configured test level and <Field> is the actual information that is put in the report. ||Band1 TestLevel: <Test level name> <Field>|| This example puts the 'Description' of the test level named 'Electrical field substitution method' in the report ||Band1 TestLevel: Electrical field substitution method Description|| This example puts the 'Calibration filename' of the test level named 'Electrical field substitution method' in the report ||Band1 TestLevel: Electrical field substitution method Calibration File|| This example puts the 'Field' of the test level named 'Electrical field substitution method' in the report ||Band1 TestLevel: Electrical field substitution method Fixed Field|| This example puts the 'Power' of the test level named 'Power closed loop method' in the report ||Band1 TestLevel: Power closed loop method Fixed Power||

”

Other fields than "Description" and "Calibration File" can be accessed, keep in mind that it depends on the test level which fields are exposed. Some examples of other fields:

Parameter	Description
Name	Name of test level
Description	Description of test level
Tolerance	The tolerance of the test level
Calibration File	Calibration file used in a substitution test
Calibration method	Calibration method
Fixed Field	The field strength to regulate to

Conducted Immunity

Calibration

Keyword	Description
NUMBER OF EVENTS	The number of events that occur during a test
TEST START TIME	The date and time at which the test is started
TEST STOP TIME	The date and time at which the test is stopped
TEST DATE	The date at which the test is performed
TEST ENGINEER	The name of the test engineer
TEST TIME	The time at which the test is performed
TEST SITE NAME	The name of the test equipment list
AMPLIFIER PROTECTION MODE	The Amplifier Protection mode: Signal Power, Forward Power and / or Reflected Power.
CALIBRATION METHOD	The calibration method used: Signal Generator Level, Forward Power or Net-Power
CURRENT MEASURED	Indication whether or not the current is measured: Yes / No
CURRENT TEST LEVEL	The current test level in Ampere [A]
CURRENT UNIT	The selected current unit: [dBμA], [dBmA], [dBA], [μA], [mA] or [A]
DESCRIPTION	The description of the Test Setup File (TSF)
DISTANCE	The distance between the antenna and the EUT in meters [m]
DWELL TIME	The dwell time in seconds [s]
FORWARD POWER MEASURED	Indication whether or not the forward power is measured: Yes / No
FREQUENCY CHANGE MODE	The method used to change frequency: Stress Method, Ramp Method, Constant Method or Fast Constant Method.
HUMIDITY	Relative Humidity during the test in percentage rel. Humidity [%RH]
MAIN VOLTAGE	The mains voltage during the test in Volt [V]
NET POWER MEASURED	Indication whether or not the net-power power is measured: Yes / No
NOTE	Note or remark made during the test
POLARIZATION	Antenna polarisation: Horizontal or Vertical
PRESSURE	Air Pressure during the test in milliBar [mbar]
REFLECTED POWER MEASURED	Indication whether or not the reflected power is measured: Yes / No
START FREQUENCY	The start frequency in megahertz [MHz]
STOP FREQUENCY	The stop frequency in megahertz [MHz]
FREQUENCY STEP	The linear frequency step in megahertz [MHz]
LOGARITHMIC STEP	The logarithmic frequency step in a percentage of the previous step
LOGARITHMIC STEP FROM	The frequency the test was started from to calculate the proper logarithmic step size
STEP	A textual description of the used frequency step, also containing if it is linear or logarithmic step size
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TSF FILENAME	The filename of the TSF file
USE CURRENT TEST LEVEL	Indication the current test level is used: Yes / No
USE VOLTAGE TEST LEVEL	Indication the voltage test level is used: Yes / No
VOLTAGE TEST LEVEL	The voltage test level in the unit selected by the user
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
POWER UNIT	The selected unit for power: [dBμW], [dBm], [dBmW], [dBW], [μW], [mW] or [W]
VOLTAGE UNIT	The selected unit for voltage: [dBμVrms], [dBmVrms], [dBVrms], [μVrms], [mVrms] or [Vrms]

Equipment for Calibration

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
AMPLIFIER ...	Specifications of the used Amplifier
ANTENNA ...	Specifications of the used Antenna
CABLE x ...	Specifications of the used Cable number [x], where x is a number between 1 to 8
CLAMP ...	Specifications of the used Clamp
CLAMP RESISTANCE	The resistance in Ohm (Ω) of the clamp
COUPLER ...	Specifications of the used Coupler
CURRENT SENSOR ...	Specifications of the used Current Sensor
FORWARD POWER METER ...	Specifications of the used Forward Power Meter
JIG ...	Specifications of the used Calibration Jig
REFLECTED POWER METER ...	Specifications of the used Reflected Power Meter
SENSOR POWER METER ...	Specifications of the used Sensor Power Meter
SIGNAL GENERATOR ...	Specifications of the used Signal Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||COUPLER TYPE|| returns the type of the coupler.

”

Conducted Immunity Tests

Keyword	Description
"keyword or name of photo"	The name or keyword of the photo
NUMBER OF EVENTS	The number of events that occur during a test
TEST START TIME	The date and time at which the test is started
TEST STOP TIME	The date and time at which the test is stopped
TEST DATE	The date at which the test is performed
TEST ENGINEER	The name of the test engineer
TEST TIME	The time at which the test is performed
TEST SITE NAME	The name of the test equipment list
AD GRAPH x	The graph representing the A/D graph of channel number [x], where x is a number between 1 and 8
CALCULATED CURRENT GRAPH (1)	The graph representing the current graph
CALCULATED VOLTAGE GRAPH (1)	The graph representing the calculated voltage graph
CURRENT GRAPH	The graph representing the current graph
FIELD GRAPH x	The graph representing the field graph of field strength sensor number [x], where x is a number between 1 and 8
FORWARD POWER GRAPH	The graph representing the forward power graph
NET POWER GRAPH	The graph representing the net-power power graph
REFLECTED POWER GRAPH	The graph representing the reflected power graph
SIGNAL POWER GRAPH	The graph representing the signal power graph
VOLTAGE GRAPH	The graph representing the voltage graph
CALIBRATED POWER GRAPH	The graph representing the calibrated power limitation graph
CALIBRATED POWER LIMIT GRAPH	The graph representing the calibrated power limitation graph
AMPLIFIER PROTECTION MODE	The Amplifier Protection mode: Signal Power, Forward Power and / or Reflected Power.
CALIBRATION FILE (1)	The name of the calibration file used for the test
CALIBRATION METHOD	The calibration method used: Signal Generator Level, Forward Power or Net-Power
CURRENT LIMIT	The Current limit in Ampere [A]
CURRENT MEASURED	Indication whether or not the current is measured: Yes / No
CURRENT TEST LEVEL	The current test level in Ampere [A]
CURRENT UNIT	The selected current unit: [dBμA],[dBmA], [dBA], [μA], [mA] or [A]
DESCRIPTION	The description of the Test Setup File (TSF)
DISTANCE	The distance between the antenna and the EUT in meters [m]
DWELL TIME	The dwell time in seconds [s]
FORWARD POWER MEASURED	Indication whether or not the forward power is measured: Yes / No
FREQUENCY CHANGE MODE	The method used to change frequency: Stress Method, Ramp Method, Constant Method or Fast Constant Method.
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
MAIN VOLTAGE	The mains voltage during the test in Volt [V]
MODULATION	The type of modulation: none, Internal AM, External AM or Pulse
MODULATION CONSERVATION	Indication whether peak conservation is used: Power, Voltage, none
MODULATION DEPTH	Modulation depth in percentage of the carrier [%]
MODULATION DUTY CYCLE	The duty cycle of the pulse modulation as a percentage [%]
MODULATION FREQUENCY	The modulation frequency in Hertz [Hz]
MODULATION SIGNAL	The type of modulation signal: Sine Wave or Square Wave
NET POWER MEASURED	Indication whether or not the net-power power is measured: Yes / No
NOTE	Note or remark made during the test
POLARIZATION	Antenna polarisation: Horizontal or Vertical
PRESSURE	Air Pressure during the test in milliBar [mbar]
REFLECTED POWER MEASURED	Indication whether or not the reflected power is measured: Yes / No
START FREQUENCY	The start frequency in megahertz [MHz]
STOP FREQUENCY	The stop frequency in megahertz [MHz]
FREQUENCY STEP	The linear frequency step in megahertz [MHz]
LOGARITHMIC STEP	The logarithmic frequency step in a percentage of the previous step
LOGARITHMIC STEP FROM	The frequency the test was started from to calculate the proper logarithmic step size
STEP	A textual description of the used frequency step, also containing if it is linear or logarithmic step size
TAKE START PICTURE	Indication whether or not a photo is taken at the start of the test: Yes/No
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TSF FILENAME	The filename of the TSF file
USE CURRENT LIMIT	Is the current limit used: Yes / No
USE CURRENT TEST LEVEL (2)	Indication the current test level is used: Yes / No
USE VOLTAGE TEST LEVEL (6)	Indication the voltage test level is used: Yes / No
VOLTAGE TEST LEVEL (6)	The voltage test level in the unit selected by the user
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
MANUAL MODE	Table containing the information collected during a manual mode session
POWER UNIT	The selected unit for power: [dBμW], [dBm], [dBmW], [dBW], [μW], [mW] or [W]
VOLTAGE UNIT	The selected unit for voltage: [dBμVrms], [dBmVrms], [dBVrms], [μVrms], [mVrms] or [Vrms]
POWER TEST LEVEL (3)	The power test level in the unit selected by the user
STEP DOWN (4)	The number of dB's the test level is stepped down during a minimum performance test
TOLERANCE (5)	The maximum allowable tolerance of the test-level

1) Fixed Generator method and Minimum Performance Level Method excluded 2) Substitution method and Fixed Current Method only 3) Fixed Generator level method only 4) Minimum Performance test method only 5) Fixed Current method and Minimum Performance test method only 6) Substitution method only

Equipment for Conducted Immunity Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
AD CONVERTOR ...	Specifications of the used A/D Converter
AMPLIFIER ...	Specifications of the used Amplifier
ANTENNA ...	Specifications of the used Antenna
CABLE x ...	Specifications of the used Cable number [x], where x is a number between 1 to 8
CLAMP ...	Specifications of the used Clamp
CLAMP RESISTANCE	The resistance in Ohm (Ω) of the clamp
COUPLER ...	Specifications of the used Coupler
CURRENT SENSOR ...	Specifications of the used Current Sensor
FORWARD POWER METER ...	Specifications of the used Forward Power Meter
REFLECTED POWER METER ...	Specifications of the used Reflected Power Meter
SENSOR POWER METER ...	Specifications of the used Sensor Power Meter
SIGNAL GENERATOR ...	Specifications of the used Signal Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||ANTENNA DESCRIPTION|| returns the description of the antenna.

”

Pulsed Immunity

ESD Test

Keyword	Description
NEG AIR MEASURED POINT x	Indication a Negative Air Discharge is performed at point number [x]: Yes / No
NEG AIR RESULT POINT x	Results of Negative Air Discharge at point number [x]: pass or fail
NEG AIR NOTE POINT x	Note of Negative Air Discharge at point number [x]
NEG CONTACT MEASURED POINT x	Indication a Negative Contact Discharge is performed at point number [x]: Yes / No
NEG CONTACT RESULT POINT x	Results of Negative Contact Discharge at point number [x]: pass or fail
NEG CONTACT NOTE POINT x	Note of Negative Contact Discharge at point number [x]
NUMBER OF EVENTS	The number of events that occur during a test
POS AIR MEASURED POINT x	Indication a Positive Air Discharge is performed at point number [x]: Yes / No
POS AIR RESULT POINT x	Results of Positive Air Discharge at point number [x]: pass or fail
POS AIR NOTE POINT x	Note of Positive Air Discharge at point number [x]
POS CONTACT MEASURED POINT x	Indication a Positive Contact Discharge is performed at point number [x]: Yes / No
POS CONTACT RESULT POINT x	Results of Positive Contact Discharge at point number [x]: pass or fail
POS CONTACT NOTE POINT x	Note of Positive Contact Discharge at point number [x]
TEST START TIME	The time at which the test is stopped
TEST STOP TIME	The time at which the test is started
TEST SITE NAME	The name of the test equipment list
AMPLITUDE POINT x	Amplitude of pulse performed at point number [x] in [V]
CONFIGURATION TIME	The date and time when the TSF file is saved
DESCRIPTION	Description of the Test Setup File (TSF)
DISCHARGE INTERVAL	The interval of the discharge in seconds.
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
MAIN VOLTAGE	Mains Voltage during the test in Volt [V]
NEG AIR LEVEL POINT x	Level of the Negative Air Discharge at point number [x] in [V]
NEG CONTACT LEVEL POINT x	Level of the Negative Contact Discharge at point number [x] in [V]
NOTE	Note or remark made during the test
NOTE POINT x	Note or remark for point number [x]
NUMBER OF DISCHARGES	The number of discharges
PERFORMANCE CRITERIA CUSTOMER	The performance criteria according to the customer
PERFORMANCE CRITERIA PRODUCT STANDARD	The performance criteria according to the product standard
POS AIR LEVEL POINT x	Level of the Positive Air Discharge at point number [x] in [V]
POS CONTACT LEVEL POINT x	Level of the Positive Contact Discharge at point number [x] in [V]
PRESSURE	Air Pressure during the test in MilliBar [mbar]
TDURATION POINT x	Duration of pulse at point number [x] in milliseconds [ms]
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TEST ENGINEER	The name of the test engineer
TESTPOINT DESCRIPTION POINT nr	Position at EUT where discharge was applied
TRISE POINT x	Rise time of pulse at point number [x] in milliseconds [ms]
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
POS HCP MEASURED POINT X	Indication a Positive HCP Discharge is performed at point number [x]: Yes / No
NEG HCP MEASURED POINT X	Indication a Negative HCP Discharge is performed at point number [x]: Yes / No
POS HCP RESULT POINT X	Results of Positive HCP Discharge at point number [x]: pass or fail
NEG HCP RESULT POINT X	Results of Negative HCP Discharge at point number [x]: pass or fail
POS HCP LEVEL POINT X	Level of the Positive HCP Discharge at point number [x] in [V]
NEG HCP LEVEL POINT X	Level of the Negative HCP Discharge at point number [x] in [V]
POS HCP NOTE POINT X	Note or remark for the Positive HCP Discharge at point number [x]
NEG HCP NOTE POINT X	Note or remark for the Negative HCP Discharge at point number [x]
POS VCP MEASURED POINT X	Indication a Positive VCP Discharge is performed at point number [x]: Yes / No
NEG VCP MEASURED POINT X	Indication a Negative VCP Discharge is performed at point number [x]: Yes / No
POS VCP RESULT POINT X	Results of Positive VCP Discharge at point number [x]: pass or fail
NEG VCP RESULT POINT X	Results of Negative VCP Discharge at point number [x]: pass or fail
POS VCP LEVEL POINT X	Level of the Positive VCP Discharge at point number [x] in [V]
NEG VCP LEVEL POINT X	Level of the Negative VCP Discharge at point number [x] in [V]
POS VCP NOTE POINT X	Note or remark for the Positive VCP Discharge at point number [x]
NEG VCP NOTE POINT X	Note or remark for the Negative VCP Discharge at point number [x]

Equipment for ESD Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
ESDGUN ...	Specifications of the used ESD Gun

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||ESDGUN BRAND|| returns the brand name of the ESD gun.

”

EFT Test

Keyword	Description
(L1-L2)/PE RESULT	Results on (L1-L2)/PE: Pass or Fail
CAPCLAMP RESULT	Results on Capacitive Clamp: Pass or Fail
L1 RESULT	Results on L1: Pass or Fail
L1/L2 RESULT	Results on L1/L2: Pass or Fail
L1/PE RESULT	Results on L1/PE: Pass or Fail
L2 RESULT	Results on L2: Pass or Fail
L2/PE RESULT	Results on L2/PE: Pass or Fail
NUMBER OF EVENTS	The number of events that occur during a test
PE RESULT	Results on PE (Protective Earth): Pass or Fail
TEST START TIME	The time at which the test is stopped
TEST STOP TIME	The time at which the test is started
TEST SITE NAME	The name of the test equipment list
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment
(L1-L2)/PE MEASURED	(L1-L2)/PE Measured: Yes / No
AMPLITUDE	Amplitude of burst in Volt [V]
CAPCLAMP MEASURED	Capacitive Clamp Measured: Yes / No
CONFIGURATION TIME	The date and time when the TSF file is saved
DESCRIPTION	Description of the Test Setup File (TSF)
DURATION	Duration of test in milliseconds [ms]
FREQUENCY	Frequency of burst in Hertz [Hz]
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
L1 MEASURED	L1 Measured: Yes / No
L1/L2 MEASURED	L1/L2 Measured: Yes / No
L1/PE MEASURED	L1/PE Measured: Yes / No
L2 MEASURED	L2 Measured: Yes / No
L2/PE MEASURED	L2/PE Measured: Yes / No
MAIN VOLTAGE	Mains Voltage during the test in Volt [V]
NOTE	Note or remark made during the test
NOTE (L1-L2)/PE	Notes or remarks for (L1-L2)/PE
NOTE CAPCLAMP	Notes or remarks for Capacitive Clamp
NOTE L1	Notes or remarks for L1
NOTE L1/L2	Notes or remarks for L1/L2
NOTE L1/PE	Notes or remarks for L1/PE
NOTE L2	Notes or remarks for L2
NOTE L2/PE	Notes or remarks for L2/PE
NOTE PE	Notes or remarks for PE
PE MEASURED	PE Measured: Yes / No
PRESSURE	Air Pressure during the test in milliBar [mbar]
TBURST	Duration of burst in milliseconds [ms]
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TEST ENGINEER	The name of the test engineer
TPERIOD	Duration of period in milliseconds [ms]
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test

For every possible line the following items are available:

Keyword	Description
MEASURED	If the line was measured
RESULT	The result on this line
AMPLITUDE	The amplitude on this line
NOTE	The note that is related to this line

“

Example: ||L1 / L2 RESULT|| is a valid code, and will return the actual result of the L1/L2 line.

”

Equipment for EFT Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
EFTGENERATOR ...	Specifications of the used EFT Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||EFTGENERATOR TYPE|| returns the type of the EFT generator.

”

Surge Test

Keyword	Description
(L1-L2)/PE MEASURED	(L1-L2)/PE measured: Yes / No
(L1-L2)/PE RESULT	Results of Surge Test at (L1-L2)/PE: pass or fail
L1/L2 MEASURED	Indication whether or not L1/L2 is measured: Yes / No
L1/L2 RESULT	Results of Surge Test at L1/L2: pass or fail
L1/PE MEASURED	Indication whether or not L1/PE is measured: Yes / No
L1/PE RESULT	Results of Surge Test at L1/PE: pass or fail
L2/PE MEASURED	Indication whether or not L2/PE is measured: Yes / No
L2/PE RESULT	Results of Surge Test at L2/PE: pass or fail
NUMBER OF EVENTS	The number of events that occur during a test
TEST START TIME	The time at which the test is stopped
TEST STOP TIME	The time at which the test is started
TEST SITE NAME	The name of the test equipment list
CINTSETTINGS (L1-L2)/PE	Internal Capacitance for (L1-L2)/PE
CINTSETTINGS L1/L2	Internal Capacitance for L1/L2
CINTSETTINGS L1/PE	Internal Capacitance for L1/PE
CINTSETTINGS L2/PE	Internal Capacitance for L2/PE
CONFIGURATION TIME	The date and time when the TSF file is saved
DESCRIPTION	Description of the Test Setup File (TSF)
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
MAIN VOLTAGE	Mains Voltage during the test in Volt [V]
NOTE	Note or remark made during the test
NOTE (L1-L2)/PE	Note or remark for Surge Test at (L1-L2)/PE
NOTE L1/L2	Note or remark for Surge Test at L1/L2
NOTE L1/PE	Note or remark for Surge Test at L1/PE
NOTE L2/PE	Note or remark for Surge Test at L2/PE
PHASE (L1-L2)/PE	Phase angle between L1 - L2 and PE in degrees: 0, 90, 270, random
PHASE L1/L2	Phase angle between L1 and L2 in degrees: 0, 90, 270, random
PHASE L1/PE	Phase angle between L1 and PE in degrees: 0, 90, 270, random
PHASE L2/PE	Phase angle between L2 and PE in degrees: 0, 90, 270, random
POLARISATION OF (L1-L2)/PE TESTLEVEL	Polarisation of test voltage at (L1-L2)/PE: Positive, Negative or both
POLARISATION OF L1/L2 TESTLEVEL	Polarisation of test voltage at L1/L2: Positive, Negative or both
POLARISATION OF L1/PE TESTLEVEL	Polarisation of test voltage at L1/PE: Positive, Negative or both
POLARISATION OF L2/PE TESTLEVEL	Polarisation of test voltage at L2/PE: Positive, Negative or both
PRESSURE	Air Pressure during the test in milliBar [mbar]
RINTSETTINGS (L1-L2)/PE	Internal Resistance for (L1-L2)/PE
RINTSETTINGS L1/L2	Internal Resistance for L1/L2
RINTSETTINGS L1/PE	Internal Resistance for L1/PE
RINTSETTINGS L2/PE	Internal Resistance for L2/PE
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TEST ENGINEER	The name of the test engineer
TESTLEVEL (L1-L2)/PE	Test level at (L1-L2)/PE in kilo Volt [kV]
TESTLEVEL L1/L2	Test level at L1/L2 in kilo Volt [kV]
TESTLEVEL L1/PE	Test level at L1/PE in kilo Volt [kV]
TESTLEVEL L2/PE	Test level at L2/PE in kilo Volt [kV]
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test

For every available line the following codes can be applied:

Keyword	Description
MEASURED	If the selected line was measured
RESULT	The result of the measurement
POSITIVE TEST LEVEL	The positive test level(Yes / No)
NEGATIVE TEST LEVEL	The negative testlevel(Yes / No)
CI	The capacity used for this line configuration
RI	The resistance used for this line configuration
Test Level	The test level used for this line configuration
Note	The note that applies to this line configuration
PHASE 0	Phase 0 measured (Yes / No)
PHASE 90	Phase 90 measured (Yes / No)
PHASE 270	Phase 270 measured (Yes / No)
PHASE RANDOM	Phase random measured (Yes / No)

Equipment for Surge Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
SURGEGENERATOR ...	Specifications of the used Surge Generator

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||SURGEGENERATOR ID|| returns the internal ID of the Surge generator.

”

Pulsed Immunity Multi Band Tests

All Pulsed Immunity MB Tests share the following codes:

Keyword	Description
TestRepeatCount	Count to repeat all the sequences (Whole test)
CABLE CABLELENGTH	Length of the cable
CABLE DESCRIPTION	User description of the cable
CABLE FIXINGSHIELD	Fixing shield of the cable
CABLE LOADATPORT	Data port of the cable
CABLE MAXCABLELENGTH	Specified maximum cable length
CABLE NOTE	User note of the cable
CABLE PORTTYPE	Used Port Type of the cable
CABLE TYPEOFCABLE	Cable type
SEQUENCE OVERVIEW	A table containing the sequence configuration of the test

Band Specific Codes

For the multiband tests, multiple settings are set for each band. To acquire the values for each band, the keyword must contain the selected band.

BAND + X + <Setting>

The X should contain the number of the selected band.

Keyword	Description
BAND1 SequenceNumber	The number of the sequence.
BAND1 TestSiteName	The selected test site with the used devices specified for the first sequence of the test.
BAND1 TestNote	The user typed note for the first sequence of the test.
BAND1 TestStatus	The test pass state specified for the first sequence of the test.

There are multiple Pulsed Immunity MB test which each have their own settings and keywords.

EFT

Keyword	Description
BAND1 Line	Selected line coupling.
BAND1 BurstDuration	The selected burst duration specified in the first sequence of the test.
BAND1 BurstPeriod	The selected burst period specified in the first sequence of the test.
BAND1 SequenceDuration	The selected sequence duration specified in the first sequence of the test.
BAND1 Polarity	The selected polarity of the VoltageTestLevel.
BAND1 VoltageTestLevel	The voltage test level specified in the first sequence of the test
BAND1 PulserepetitionRate	The pulse repetition rate specified in the first sequence of the test.
BAND1 RepeatCount	The ammount the sequence is repeated.
BAND1 Test note	The note specified for each band.

Surge

Keyword	Description
BAND1 Line	The selected line specified in the first sequence of the test.
BAND1 VoltageTestLevel	The voltage test level specified in the first sequence of the test.
BAND1 Polarity	The polarity specified in the first sequence of the test.
BAND1 RI	The impedance specified in the first sequence of the test.
BAND1 CI	The capacitance specified in the first sequence of the test.
BAND1 PulseRepetitionTime	The pulse repetition time specified in the first sequence of the test.
BAND1 PulseCount	The pulse count specified in the first sequence of the test.
BAND1 PhaseAngles	The pulse angles specified in the first sequence of the test.
BAND1 Test note	The note specified for each band.

VDI

Keyword	Description
BAND1 Changedvoltage	The changed voltage for the dips specified for the first sequence of the test
BAND1 Decreasevoltagetime	The switch time from regular voltage to the dip voltage
BAND1 Dipcount	The ammount of dips per sequence
BAND1 Increasevoltagetime	The time to switch from dip voltage to regular voltage
BAND1 Line	The selected line coupling on which the dip will occur
BAND1 Locationtypetext	The AC or DC mode
BAND1 Phaseangles	The angle on which the dip will initiate
BAND1 Ratedvoltage	The regular voltage
BAND1 Reducedvoltagetime	The time that the voltage is at reduced voltage
BAND1 Repetitiontime	The duration of one sequence
BAND1 Repeatcount	The ammount the sequence will be repeated
BAND1 Test note	The note specified for each band.

Pulsed Immunity MB Example

To remove keywords of unused sequences, the ||StartDeleteBlock()|| and ||EndDeleteBlock()|| codes can be used:

“

Example: ||STARTDELETEBLOCK()|| Band 1 notes: ||BAND1 TestNote|| ||ENDDELETEBLOCK()|| ||STARTDELETEBLOCK()|| Band 2 notes: ||BAND2 TestNote|| ||ENDDELETEBLOCK()|| ||STARTDELETEBLOCK()|| Band 3 notes: ||BAND3 TestNote|| ||ENDDELETEBLOCK()|| ||STARTDELETEBLOCK()|| Band 4 notes: ||BAND4 TestNote|| ||ENDDELETEBLOCK()||

”

If only 2 sequences are available in the test, only 2 sequences bands will be seen in the Report output.

Radiated Emission

Note:

The pass/fail criteria, shown in the tables of the report generator, do not take the measure uncertainty of the test setup into account.

Radiated Emission Tests

Keyword	Description
"keyword or name of photo"	The name or keyword of the photo
NUMBER OF EVENTS	The number of events that occur during a test
PEAK DETECTION COUNT	The number of detected peaks
TEST START TIME	The time at which the test is stopped
TEST STOP TIME	The time at which the test is started
MAX HOLD GRAPH	The max hold graph of the all the traces
MAX HOLD PEAKS GRAPH	The max hold graph of all the traces and markers
MAX PEAK GRAPH	The max hold graph of the Peak trace
MAX AVERAGE GRAPH	The max hold graph of the Average trace
MAX QUASI PEAK GRAPH	The max hold graph of the Quasi Peak trace
MAX RMS GRAPH	The max hold graph of the RMS trace
ATTENUATOR	The attenuation of the attenuator in dB
ATTENUATOR MODE	The Attenuator Mode: Auto, Coupled or Manual
AVERAGE DETECTOR	Indication whether or not the Average detector is measured: Yes / No
AVERAGE MEASURE TIME	The measurement time of the average peak detector in seconds [s]
AVERAGE OBSERVATION TIME	The observation time per average peak in seconds [s]
AVERAGE TRACE	Indication whether or not the Average trace is measured: Yes / No
BELOW LIMITLINE OFFSET	The level of peaks to detect in dB below the limit line
CONFIGURATION TIME	The date and time when the TSF file is saved
CURRENT UNIT	The selected unit for current: [dBμA], [dBmA], [dBA], [μA], [mA] or [A]
DB/DIV	N/A
DB/DIV MODE	N/A
DESCRIPTION	Description of the Test Setup File (TSF)
DISTANCE	The distance between the antenna and the EUT in meters [m]
OPTIMIZE ANGLE OPTIMIZE AREA	The angle optimization area.
OPTIMIZE ANGLE STEP SIZE	The step size of the angle optimization.
OPTIMIZE HEIGHT OPTIMIZE AREA	The height optimization area.
OPTIMIZE HEIGHT STEP SIZE	The step size of the height optimization.
END ANGLE	The stop position in degrees
HEIGHT STEPS	The number of steps between the minimum height and the maximum height
HIGHEST HEIGHT	The maximum height of the antenna tower in meters [m]
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
INTERNAL PREAMPLIFIER	The amplification of the internal pre amplifier in [dB]
INTERNAL PREAMPLIFIER MODE	The Internal Pre Amplifier Mode: Auto, Coupled or Manual
LOWEST HEIGHT	The minimum height of the antenna tower in meters [m]
MAIN VOLTAGE	Mains Voltage during the test in Volt [V]
MAXIMUM PEAK COUNT	The maximum number of peaks to be detected
MEASURE TIME	The measure time in milliseconds [ms]
MEASURE TIME MODE	The Mode: Auto, Coupled or Manual
NOTE	Note or remark made during the test
NUMBER OF ANGLES	The number of steps between the start position and the stop position
PEAK DETECTOR	Indication whether or not the Peak detector is measured: Yes / No
PEAK MEASURE TIME	The measurement time of the peak detector in seconds [s]
PEAK OBSERVATION TIME	The observation time per peak in seconds [s]
PEAK SEARCH	Indication whether or not a peak search is performed: Yes / No
PEAK TRACE	Indication whether or not the Peak trace is measured: Yes / No
PEAKSWEEPS	Number of peak sweeps performed
Keyword	Description
POINT X FREQUENCY	The frequency of point X in the peak list ( X starting from 1)
POINT X PEAK	The peak value of point X in the peak list (X starting from 1)
POINT X QUASI PEAK	The quasi peak value of point X in the peak list (X starting from 1)
POINT X AVERAGE	The average value of point X in the peak list (X starting from 1)
POLARIZATION	The polarization of the antenna: horizontal, vertical or both
PRESSURE	Air Pressure during the test in milliBar [mbar]
QUASIPEAK DETECTOR	Indication whether or not the Quasi peak detector is measured: Yes/No
QUASIPEAK MEASURE TIME	The measurement time of the quasi peak detector in seconds [s]
QUASIPEAK OBSERVATION TIME	The observation time per quasi peak in seconds [s]
QUASIPEAK TRACE	Indication whether or not the Quasi peak trace is measured: Yes / No
RBW	The Radio Bandwidth in kilo Hertz [kHz]
RBW MODE	The RBW Mode: Auto, Coupled or Manual
RECEIVER DATA SAVE MODE	Indication whether all data is saved or only the test results
REFERENCE LEVEL	The reference level in the unit selected by the user
REFERENCE LEVEL MODE	The Reference Level Mode: Auto, Coupled or Manual
RMS DETECTOR	Indication whether or not the RMS detector is measured: Yes / No
RMS MEASURE TIME	The measurement time of the RMS peak detector in seconds [s]
RMS OBSERVATION TIME	The observation time per RMS peak in seconds [s]
RMS TRACE	Indication whether or not the RMS trace is measured: Yes / No
START ANGLE	The start position in degrees
START FREQUENCY	The start frequency in megahertz [MHz]
FREQUENCY STEP	The step frequency in kilo Hertz [kHz]
STEP FREQUENCY MODE	The Step frequency Mode: Auto, Coupled or Manual
STOP FREQUENCY	The stop frequency in megahertz [MHz]
SWEEP TIME	The sweep time in milliseconds [ms]
SWEEP TIME MODE	The Sweep Time Mode: Auto, Coupled or Manual
TAKE START PICTURE	Indication whether or not a picture is taken at the start of the test: Yes / No
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TEST ENGINEER	The name of the test engineer
TEST SITE NAME	The name of the test equipment list
USE INTERNAL PREAMP	N/A
USE START STOP FREQUENCY	Yes / No, if Yes: Start/Stop if No: Frequency list is used.
VBW	The Video Bandwidth in kilo Hertz [kHz]
VBW MODE	The Video Bandwidth Mode: Auto, Coupled or Manual
EMISSION TABLE	Table of detected peaks and per peak: frequency, level(s), limit value, pass/fail, location
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test

Following keywords are applicable for the GTEM Method only:

Keyword	Description
EUT HEIGHT	The height of the EUT in meters [m]
SEPTUM HEIGHT	The height of the septum in meters [m]

Radiated Emission Table

Each keyword can also be accessed in RAW format, which generally implies that only the RAW data (without unit) is retrieved. To retrieve the RAW value, extend the keyword by applying "_RAW" (without any white space) to this keyword. E.g. "PEAK_RAW". The LIMIT, DIFFERENCE and STATUS keywords are only available when a valid LLF is present for those peaks. Otherwise, no calculations of these values can be made.

Following keywords are only applicable for the Table information:

Keyword	Description
EMISSION TABLE	The selection of the Emission Table
SELECTED	The selection of the peak(s)
PEAK NUMBER	The number of the peak(s)
FREQUENCY	The frequency of the peak(s)
PEAK	The measurement value of the peak(s)
PEAK LIMIT	The limit value of the peak(s)
PEAK DIFFERENCE	The difference value between the measured peak(s) value and the limit value.
PEAK CORRECTION	The correction value of the peak(s)
PEAK STATUS	The status of the peak(s): Pass / Fail
AVERAGE	The average measurement value of the peak(s)
AVERAGE LIMIT	The average limit value of the peak(s)
AVERAGE DIFFERENCE	The average difference value between the measured average(s) value and the limit value.
AVERAGE CORRECTION	The average correction value of the peak(s)
AVERAGE STATUS	The average status of the peak(s): Pass / Fail
QUASI-PEAK	The Quasi-peak measurement value of the peak(s)
QUASI-PEAK LIMIT	The Quasi-peak limit value of the peak(s)
QUASI-PEAK DIFFERENCE	The Quasi-peak difference value between the measured Quasi-peak(s) value and the limit value.
QUASI-PEAK CORRECTION	The Quasi-peak correction value of the peak(s)
QUASI-PEAK STATUS	The Quasi-peak status of the peak(s): Pass / Fail
RMS	The RMS measurement value of the peak(s)
RMS LIMIT	The RMS limit value of the peak(s)
RMS DIFFERENCE	The RMS difference value between the measured RMS(s) value and the limit value.
RMS CORRECTION	The RMS correction value of the peak(s)
RMS STATUS	The RMS status of the peak(s): Pass / Fail
STATUS	The overall status of the peak(s): Pass / Fail
ANGLE	The angle of the peak(s) in degrees
HEIGHT	The height of the peak(s) in meters [m]
POLARIZATION	The polarization of the peak(s)

Radiated Emission Burst

Following keywords are applicable for the Burst Method only:

Keyword	Description
BURST GRAPH	The graph plot
CARRIER FREQUENCY	The carrier frequency in [MHz]
BURST TRIGGER LEVEL	The burst trigger level in [dBm]
BURST MEASURE TIME	The burst measure time in seconds [s]
BURST SAMPLE RATE	The burst sample rate
BURST MINIMUM GAP TIME	The burst gap time in milli seconds [ms]
BURST THRESHOLD LEVEL	The burst threshold level in [dBc]
ANTENNA ASSEMBLY	The Antenna assembly gain in [dBi]
BEAMFORMING GAIN	The Beamforming gain in [dB]
MAXIMUM EIRP	The Maximum E.I.R.P. in [dBm]
MEDIUM UTILISATION	The Medium Utilisation in percentage [%]
DUTY CYCLE	The Duty Cycle in percentage [%]
MINIMUM GAP TIME	The minimum Gap time in seconds [s]
MAXIMUM SEQUENCE TIME	The Maximum Sequency time in seconds [s]
RMS	The RMS value in [dBm]

Equipment for Radiated Emission Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
ANTENNA ...	Specifications of the used Antenna
ANTENNA TOWER ...	Specifications of the used Antenna Tower
CABLE x ...	Specifications of the used Cable number [x], where x is a number between 1 to 8
NUMBER OF DETECTORS	The number of detectors the Receiver is able to handle simultaneously
PRE AMPLIFIER ...	Specifications of the used Pre Amplifier
RECEIVER TYPE	The type of receiver: Spectrum Analyser, Measurement Receiver or Scanning Receiver
SPECTRUM ANALYZER ...	Specifications of the used Spectrum Analyser or Measurement Receiver
TURN TABLE ...	Specifications of the used Turntable

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||ANTENNA TOWER BRAND|| returns the brand name of the antenna tower.

”

Conducted Emission

Note:

The pass/fail criteria, shown in the tables of the report generator, do not take the measure uncertainty of the test setup into account.

Conducted Emission Tests

Keyword	Description
"keyword or name of photo"	The name or keyword of the photo
NUMBER OF EVENTS	The number of events that occur during a test
PEAK DETECTION COUNT	The number of detected peaks
TEST START TIME	The time at which the test is stopped
TEST STOP TIME	The time at which the test is started
TEST SITE NAME	The name of the test equipment list
MAX HOLD GRAPH	The max hold graph of the all the traces
MAX HOLD PEAKS GRAPH	The max hold graph of all the traces and markers
MAX PEAK GRAPH	The max hold graph of the Peak trace
MAX AVERAGE GRAPH	The max hold graph of the Average trace
MAX QUASI PEAK GRAPH	The max hold graph of the Quasi Peak trace
MAX RMS GRAPH	The max hold graph of the RMS trace
ATTENUATOR	The attenuation of the attenuator in dB
ATTENUATOR MODE	The Attenuator Mode: Auto, Coupled or Manual
AVERAGE DETECTOR	Indication whether or not the average detector is measured: Yes / No
AVERAGE MEASURE TIME	The measurement time of the average peak detector in seconds [s]
AVERAGE OBSERVATION TIME	The observation time per average peak in seconds [s]
AVERAGE TRACE	Indication whether or not the average trace is measured: Yes / No
BELOW LIMITLINE OFFSET	The level of peaks to detect in dB below the limit line
CONFIGURATION TIME	The date and time when the TSF file is saved
CURRENT UNIT	The selected unit for current: [dBμA], [dBmA], [dBA], [μA], [mA] or [A]
DB/DIV	N/A
DB/DIV MODE	N/A
DESCRIPTION	Description of the Test Setup File (TSF)
EMISSION OPTIMIZING METHOD	N/A
HUMIDITY	Relative Humidity during the test in percentage relative Humidity [%RH]
INTERNAL PREAMPLIFIER	The amplification of the internal pre amplifier in [dB]
INTERNAL PREAMPLIFIER MODE	The Internal Pre Amplifier Mode: Auto, Coupled or Manual
LISN LINE	Which LISN line is used: Neutral, Phase 1, Phase 2 or Phase 3
MAIN VOLTAGE	Mains Voltage during the test in Volt [V]
MAXIMUM PEAK COUNT	The maximum number of peaks to be detected
MEASURE TIME	The measure time in milliseconds [ms]
MEASURE TIME MODE	The Mode: Auto, Coupled or Manual
NOTE	Note or remark made during the test
PEAK DETECTOR	Indication whether or not the Peak detector is measured: Yes / No
PEAK MEASURE TIME	The measurement time of the peak detector in seconds [s]
PEAK OBSERVATION TIME	The observation time per peak in seconds [s]
PEAK TRACE	Indication whether or not the Peak trace is measured: Yes / No
PEAKSWEEPS	Number of peak sweeps performed
PRESSURE	Air Pressure during the test in milliBar [mbar]
QUASIPEAK DETECTOR	Indication whether or not the Quasi peak detector is measured: Yes / No
QUASIPEAK MEASURE TIME	The measurement time of the quasi peak detector in seconds [s]
QUASIPEAK OBSERVATION TIME	The observation time per quasi peak in seconds [s]
QUASIPEAK TRACE	Indication whether or not the Quasi peak trace is measured: Yes / No
Keyword	Description
RBW	The Radio Bandwidth in kilo Hertz [kHz]
RBW MODE	The RBW Mode: Auto, Coupled or Manual
RECEIVER DATA SAVE MODE	Indication whether all data is saved or only the test results
REFERENCE LEVEL	The reference level in the unit selected by the user
REFERENCE LEVEL MODE	The Reference Level Mode: Auto, Coupled or Manual
RMS DETECTOR	Indication whether or not the RMS detector is measured: Yes / No
RMS MEASURE TIME	The measurement time of the RMS peak detector in seconds [s]
RMS OBSERVATION TIME	The observation time per RMS peak in seconds [s]
RMS TRACE	Indication whether or not the RMS trace is measured: Yes / No
START FREQUENCY	The start frequency in megahertz [MHz]
FREQUENCY STEP	The step frequency in kilo Hertz [kHz]
STEP FREQUENCY MODE	The Step frequency Mode: Auto, Coupled or Manual
STOP FREQUENCY	The stop frequency in megahertz [MHz]
SWEEP TIME	The sweep time in milliseconds [ms]
SWEEP TIME MODE	The Sweep Time Mode: Auto, Coupled or Manual
TAKE START PICTURE	Indication whether or not a picture is taken at the start of the test: Yes / No
TEMPERATURE	Temperature during the test in degrees Celsius [oC]
TEST ENGINEER	The name of the test engineer
USE INTERNAL PREAMP	N/A
USE START STOP FREQUENCY	Yes / No, if Yes: Start/Stop if No: Frequency list is used.
VBW	The Video Bandwidth in kilo Hertz [kHz]
VBW MODE	The Video Bandwidth Mode: Auto, Coupled or Manual
EMISSION TABLE	Table of detected peaks and per peak: frequency, level(s), limit value, location
EQUIPMENT TABLE	A table containing all used equipment
EVENTS	Table of events which occur during a test
ABSORBING CLAMP ... (1)	Specifications of the used Absorbing Clamp
CLAMP MOVER ... (1)	Specifications of the used Clamp Mover
LARGEST DISTANCE	The maximum distance of the clamp in meters [m]
SMALLEST DISTANCE	The minimum distance of the clamp in meters [m]
STEPS	The number of steps between the minimum distance and the maximum distance

1) Absorbing clamp method only

Equipment for Conducted Emission Tests

The equipment keyword consists of two parts: the keyword and a parameter. For each keyword all parameters are valid.

Keyword	Description
CABLE x ...	Specifications of the used Cable number [x], where x is a number between 1 to 8
LISN ...	Specifications of the used LISN
NUMBER OF DETECTORS	The number of detectors the Receiver is able to handle simultaneously
PRE AMPLIFIER ...	Specifications of the used Pre Amplifier
RECEIVER TYPE	The type of receiver: Spectrum Analyser, Measurement Receiver or Scanning Receiver
SPECTRUM ANALYZER ...	Specifications of the used Spectrum Analyser or Measurement Receiver

Where ... is one of the following parameters:

Parameter	Description
BRAND	Brand of Measurement equipment
CALIBRATION EXPIRES	Date when calibration expires of equipment, given by the user
DESCRIPTION	Description of Measurement equipment given by the user
DEVICE DRIVER DLL	N/A
DEVICE DRIVER NAME	The internal name of the device driver
HARDWARE VERSION	Hardware version of Measurement equipment
ID	Internal ID of Measurement equipment
INI FILE NAME	N/A
NAME	Name of Measurement equipment
SERIAL NUMBER	Serial number of Measurement equipment
SOFTWARE VERSION	Software version of Measurement equipment
SUPPORTED DEVICE TYPES	N/A
TYPE	Type of Measurement equipment

“

Example: ||CABLE 5 BRAND|| returns the brand name of cable nr. 5.

”

Excel Exporter

The EUT data can be exported to Microsoft Excel with the Excel Exporter. Press the Export button on the Reports tab of the EUT window, and the Excel Export window will open:

Selecting filename

To select the filename you want to use to save the information, press the ‘select file’ button next to the red cross. A ‘save’ window will appear, allowing you to select the path and filename. After closing the save window the name will be displayed on the export window.

Selecting tests to be exported

You can select or deselect a test (that is to be exported) by checking or un-checking the checkbox in front of the name of the test. Press Select all to select all the tests, press Unselect all to deselect all the tests and press Invert selection to invert the selection. (This means that all the selected tests will be deselected, and all the deselect tests will be selected.)

Changing the test order

The ‘export module’ exports all the selected tests, starting from the first test at the top and ending with the last test at the bottom of the list. This order is not mandatory and can be changed. To change this order, select the test you want to move and press the ‘arrow up’ or ‘arrow down’ button to move the test up or down in the list.

Export options

There are some options that can be selected when exporting the test information:

Insert header above data

With ‘insert header above data’ you can insert headers above every exported column. (For example for the signal generator level, forward power and reflected power for immunity test.)

Export EUT data

’Export EUT data’ allows you to select the EUT data that is to be exported. Only the EUT information stored in the top test can be exported.

Include not measured columns

’Include not measured columns’ allows you to select the ‘not measured’ columns that are to be exported. If you want to run a macro after exporting, it may be easier to export all the columns. You can then use the same macro for a signal level, forward power level and net power level test. It is not possible to have RadiMation® run the macro automatically after the export. Deselecting ‘exporting not measured columns’ will result in faster exporting of the information.

Performing the export

Once the Export button is pressed, all the raw data of the selected tests will be exported to the selected Excel file.

The exported data, its format and the amount of data that is exported, depends on the selected tests. When the data has been exported, the Excel Export window will close.

Warning:

Microsoft Excel needs to be installed on the PC to export the EUT information. This should be version 'Microsoft Excel 97' or newer.

Command Line Interface (CLI)

With the command line interface it is possible to automatically generate a report from the command line. This can be accomplished by calling "radicli.exe", which is available in the same directory in which RadiMation is also installed.

Note:

When a RadiMation instance is active which supports the radimation cli interface, the report will be generated with the running instance. If RadiMation® is not running, the report will be generated in the background with the same version as where the radicli.exe resides.

"C:\Program Files (x86)\Raditeq\RadiMation\Version x.y.z\radicli.exe"

To generate a report from the command line, first open command prompt and go to the correct path. Then pass at least the verb "generatereport", eut filename, template filename and the report filename.

“

Example for a command to generate a report: cd "C:\Program Files (x86)\Raditeq\RadiMation\Version x.y.z\" radicli.exe generatereport --eut "C:\EUT_Files\eutfile.eut" --template "C:\templates\template.txt" --report "C:\reports\report.txt"

”

The possible arguments are:

Argument	Description
generatereport	Required verb that specifies that a report should be generated from the command line interface.
--eut <eutfilename>	Required argument that specifies the EUT filename that should be used to generate the report.
--template <templatefilename>	Required argument that specifies the template filename to use.
--report <reportfilename>	Required argument that specifies the report filename to use.
--reportforeachtest	Optional argument that specifies that a report is generated for each test individually. This will result in multiple reports being generated. A report generator code can be specified in the <reportfilename> to have a dynamic report filename. See the example below this table.
--testnumbers <1[;2][;3][...]>	Optional argument that specifies a ';' separated list of one or more test numbers (1, 2, 3, ....) for the tests (and their order) that should be included in the generated report. These test numbers correspond to the test numbers as can be seen in the EUT window
--removeillegalcodes	Optional argument that specifies that report generator codes that are not replaced to an actual value will be removed from the generated report.
--help	Shows all the possible command line arguments that can be used.

“

Example to generate a report for each test: radicli.exe generatereport --eut eutfile.eut --template template.txt --report report||testnumber||.txt --reportforeachtest

”

“

Example to only include the tests with the testnumber 3, 2 and 4 in the report: radicli.exe generatereport --eut eutfile.eut --template template.txt --report report.txt --testnumbers "3;2;4"

”

Equipment Under Test

The ability of an EUT to be immune to incoming electromagnetic interference. This is equivalent to the term susceptibility that is used by some standards.

Test Setup File

The ability of an EUT to be immune to incoming electromagnetic interference. This is equivalent to the term susceptibility that is used by some standards.

Analog to Digital

Resolution BandWidth

Structured Query Language

Decibel

CALibration

Sequence

Correction

Power expressed in milliWatt in dB values.

• 1 mW = 0 dBm

• 2 mW = 3 dBm

• 100 mW = 20 dBm

• 1 W = 30 dBm

• 100 W = 50 dBm

Uniform Field Area

Dynamic-Link Library: A collection of reusable code and resources that can be dynamically loaded at runtime, allowing modular and efficient software development.

Analog to Digital

ElectroStatic Discharge

Horizontal Coupling Plane

Vertical Coupling Plane

Electrical Fast Transients

Protective Earth

Conducted Immunity

Radiated Immunity

Multiband: Tests that allow more flexible test configurations, where multiple bands with different settings can be specified in a single TSF.

Megabyte: 1 million bytes.

Alternating Current

Direct Current

Root Mean Square

Video BandWidth

Limit Line File

Line Impedance Stabilisation Network

Personal Computer

Command-line Interface: That software can be controlled using arguments passed to the executable