******************************************************************************* * For reference the following is a text-only version of the Zint manual. * * The full version can be accessed at http://zint.org.uk/Manual.aspx * ******************************************************************************* Zint Barcode Generator and Zint Barcode Studio User Manual ========================================================== 1. Introduction =============== The Zint project aims to provide a complete cross-platform open source barcode generating solution. The package currently consists of a Qt based GUI, a command line executable and a library with an API to allow developers access to the capabilities of Zint. It is hoped that Zint provides a solution which is flexible enough for professional users while at the same time takes care of as much of the processing as possible to allow easy translation from input data to barcode image. The library which forms the main component of the Zint project is currently able to encode data in over 50 barcode symbologies (types of barcode), for each of which it is possible to translate that data from either Unicode (UTF-8) or a raw 8-bit data stream. The image can be rendered as either a Portable Network Graphic (PNG) image, Windows Bitmap (BMP), Graphics Interchange Format (GIF), ZSoft Paintbrush image (PCX), as Encapsulated Post Script (EPS) or as a Scalable Vector Graphic (SVG). Many options are available for setting the characteristics of the output image including the size and colour of the image, the amount of error correction used in the symbol and, in the case of raster images, the orientation of the image. 1.1 Terms of Reference ---------------------- Some of the words and phrases used in this document are specific to barcoding, and so a brief explanation is given to help understanding: symbol: A symbol is an image which encodes data according to one of the standards. This encompases barcodes (linear symbols) as well as any of the other methods of representing data used in this program. symbology: A method of encoding data to create a certain type of symbol. linear: A linear symbol is one which consists of bars and spaces, and is what most people associate with the term "barcode". Examples include EAN. stacked: A stacked symbol consists of multiple linear symbols placed one above another and which together hold the message, usually allong side some error correction data. Examples include PDF417. matrix: A matrix symbol is one based on a (usually square) grid of elements. Examples include Data Matrix, but Maxicode and DotCode are also considered matrix symbologies. x-dimension: The x-dimension of a symbol is size (usually the width) of the smallest element. For a linear symbology this is the width of the smallest bar. The default size of the x-dimension in a raster image is 2 pixels. Many symbologies have a fixed width-to-height ratio where the height is expressed as a multiple of the x-dimension. composite: A composite symbology is one which is made up of elements which are both linear and stacked. Those currently supported are made up of a linear "primary" message above which is printed a stacked component based on the PDF417 symbology. These symbols also have a separator which seperates the linear and the stacked components. GS-1 data: This is a structured way of representing information which consists of "chunks" of data, each of which starts with an Application Identifier. The AI identifies what type of information is being encoded. See Appendix C. Reader Initialisation: Some symbologies allow a special character to be included which can be detected by the scanning equipment as signifying that the data is used to program or change settings in that equipment. This data is usually not passed on to the software which handles normal input data. This feature should only be used if you are familiar with the programming codes relevant to your scanner. ECI: The ECI mechanism allows for multi-language data to be encoded in symbols which would usually support only Latin-1 characters. This can be useful, for example, if you need to encode cyrillic characters, but should be used with caution as not all scanners support this method. 2. Installing Zint ================== 2.1 Linux --------- The easiest way to configure compilation is to take advantage of the CMake utilities. You will need to install CMake and libpng first. Note that you will need both libpng and libpng-devel packages. If you want to take advantage of Zint Barcode Studio you will also need the Qt libraries pre-installed. Once you have fulfilled these requirements unzip the source code tarball and follow these steps in the top directory: mkdir build cd build cmake .. make make install The command line program can be accessed by typing zint {options} -d {data} Notice that the data needs to be entered after all other options. Any options given after the data will be ignored. The GUI can be accessed by typing zint-qt To test that the installation has been successful a shell script is included in the /frontend folder. To run the test type ./test.sh This should create numerous files showing the many modes of operation which are available from Zint. 2.2 Microsoft Windows --------------------- To run Zint Barcode Studio on Windows simply download and run the installation executable and follow the instructions on-screen. 2.3 Apple macOS --------------- Zint can be compiled on macOS from the command line using the same steps as shown for Linux above. Currently the Zint Barcode Studio GUI is not known to work on macOS. The Zint developers do not currently have access to Apple hardware and so are not able to provide support or binaries for macOS. If you are a macOS developer, however, or if you have any success in building Zint on macOS, we would love to hear from you. 2.4 zint tcl backend -------------------- The tcl backend may be build using the provided TEA build on Linux, Windows, Mac-OS and Android. For Windows, a MS-VC6 makefile is also available. 3. Using Zint Barcode Studio ============================ Zint Barcode Studio is the graphical user interface for Zint. If you are starting from a command line interface you can start the GUI by typing zint-qt or in Windows zint-qt.exe (The rest of this section of the manual involves use of the GUI, so has been removed from this text-only version) 4. Using the Command Line ========================= This section describes how to encode data using the command line front end program. The examples given are for the Linux platform, but the same options are available for Windows - just rememer to include the executable file extension. i.e.: zint.exe -d "This Text" 4.1 Inputting data ------------------ The data to encode can be entered at the command line using the -d option, for example zint -d "This Text" This will encode the text "This Text". Zint will use the default symbology, Code 128, and output to the default file out.png in the current directory. Alternatively, if libpng was not present when Zint was built, the default output file will be out.gif. The -d switch and the input data should always be the last entry on the command line input. Any options given after this will be ignored. The data input to Zint is assumed to be encoded in Unicode (UTF-8) format. If you are encoding characters beyond the 7-bit ASCII set using a scheme other than Unicode then you will need to set the appropriate input options as shown in section 4.11 below. Non-printing characters can be entered on the command line using the backslash (\) as an escape character. Permissible characters are shown in the table below. Note that this only applies on the command line. ------------------------------------------------------------- Escape Character | ASCII Equivalent | Interpretation ------------------------------------------------------------- \0 | 0x00 | Null \E | 0x04 | End of Transmission \a | 0x07 | Bell \b | 0x08 | Backspace \t | 0x09 | Horizontal Tab \n | 0x0A | Line Feed \v | 0x0B | Vertical Tab \f | 0x0C | Form Feed \r | 0x0D | Carriage Return \e | 0x1B | Escape \G | 0x1D | Group Selector \R | 0x1E | Record Selector ------------------------------------------------------------- Input data can be read directly from file using the -i switch as shown below. The input file is assumed to be Unicode (UTF-8) formatted unless an alternative mode is selected. This command replaces the use of the -d switch and should similarly be the last option given. zint -i ./somefile.txt 4.2 Directing Output -------------------- Output can be directed to a file other than the default using the -o switch. For example: zint -o here.png -d "This Text" This draws a Code 128 barcode in the file here.png. If an encapsulated Post Script file is needed simply append the file name with .eps, and so on for the other supported file types: zint -o there.eps -d "This Text" 4.3 Selecting barcode type -------------------------- Selecting which type of barcode you wish to produce (i.e. which symbology to use) can be done at the command line using the -b or --barcode= switch followed by the appropriate integer value in the following table. For example to create a Data Matrix symbol you could use: zint -o datamatrix.png -b 71 -d "Data to encode" -------------------------------------------------------------------------------- Numeric Value | Barcode Name -------------------------------------------------------------------------------- 1 | Code 11 2 | Standard Code 2 of 5 3 | Interleaved 2 of 5 4 | Code 2 of 5 IATA 6 | Code 2 of 5 Data Logic 7 | Code 2 of 5 Industrial 8 | Code 3 of 9 (Code 39) 9 | Extended Code 3 of 9 (Code 39+) 13 | EAN (Including EAN-8 and EAN-13) 14 | EAN + Check Digit 16 | GS1-128 (UCC.EAN-128) 18 | Codabar 20 | Code 128 (automatic subset switching) 21 | Deutshe Post Leitcode 22 | Deutshe Post Identcode 23 | Code 16K 24 | Code 49 25 | Code 93 28 | Flattermarken 29 | GS1 DataBar-14 30 | GS1 DataBar Limited 31 | GS1 DataBar Extended 32 | Telepen Alpha 34 | UPC A 35 | UPC A + Check Digit 37 | UPC E 38 | UPC E + Check Digit 40 | PostNet 47 | MSI Plessey 49 | FIM 50 | LOGMARS 51 | Pharmacode One-Track 52 | PZN 53 | Pharmacode Two-Track 55 | PDF417 56 | PDF417 Truncated 57 | Maxicode 58 | QR Code 60 | Code 128 (Subset B) 63 | Australia Post Standard Customer 66 | Australia Post Reply Paid 67 | Australia Post Routing 68 | Australia Post Redirection 69 | ISBN (EAN-13 with verification stage) 70 | Royal Mail 4 State (RM4SCC) 71 | Data Matrix (ECC200) 72 | EAN-14 74 | Codablock-F 75 | NVE-18 76 | Japanese Postal Code 77 | Korea Post 79 | GS1 DataBar-14 Stacked 80 | GS1 DataBar-14 Stacked Omnidirectional 81 | GS1 DataBar Expanded Stacked 82 | PLANET 84 | MicroPDF417 85 | USPS OneCode 86 | Plessey Code 87 | Telepen Numeric 89 | ITF-14 90 | Dutch Post KIX Code 92 | Aztec Code 93 | DAFT Code 97 | Micro QR Code 98 | HIBC Code 128 99 | HIBC Code 39 102 | HIBC Data Matrix ECC200 104 | HIBC QR Code 106 | HIBC PDF417 108 | HIBC MicroPDF417 112 | HIBC Aztec Code 115 | DotCode 116 | Han Xin (Chinese Sensible) Code 128 | Aztec Runes 129 | Code 32 130 | Composite Symbol with EAN linear component 131 | Composite Symbol with GS1-128 linear component 132 | Composite Symbol with GS1 DataBar-14 linear component 133 | Composite Symbol with GS1 DataBar Limited component 134 | Composite Symbol with GS1 DataBar Extended component 135 | Composite Symbol with UPC A linear component 136 | Composite Symbol with UPC E linear component 137 | Composite Symbol with GS1 DataBar-14 Stacked component 138 | Composite Symbol with GS1 DataBar-14 Stacked Omnidirectional | component 139 | Composite Symbol with GS1 DataBar Expanded Stacked component 140 | Channel Code 141 | Code One 142 | Grid Matrix 143 | UPNQR (Univerzalnega Plačilnega Naloga QR) -------------------------------------------------------------------------------- 4.4 Adjusting height -------------------- The height of a linear symbol can be adjusted using the --height switch. For example: zint --height=100 -d "This Text" This specifies a symbol height of 100 times the x-resolution of the symbol. 4.5 Adjusting whitespace ------------------------ The amount of whitespace to the left and right of the generated barcode can be altered using the –w switch. For example: zint -w 10 -d "This Text" This specifies a whitespace width of 10 times the x-resolution of the symbol. 4.6 Adding boundary bars and boxes ---------------------------------- Zint allows the symbol to be bound with 'boundary bars' using the option --bind. These bars help to prevent misreading of the symbol by corrupting a scan if the scanning beam strays off the top or bottom of the symbol. Zint can also put a border right around the symbol and its whitespace with the --box option. This option is automatically selected for ITF-14 symbols. The width of the boundary or box can be specified using the --border switch. For example: zint --box --border=10 -d "This" gives a box with a width 10 times the x-resolution of the symbol. 4.7 Using colour ---------------- The default colours of a symbol are a black symbol on a white background. Zint allows you to change this. The -r switch allows the default colours to be inverted so that a white symbol is shown on a black background. For example the command zint -r -d "This" gives an inverted Code 128 symbol. This is not practical for most symbologies but white-on-black is allowed by the Data Matrix ECC200 and Aztec Code symbology specifications. For more specific needs the foreground (ink) and background (paper) colours can be specified using the --fg= and --bg= options followed by a number in RRGGBB hexadecimal notation (the same system used in HTML). For example the command zint --fg=004700 -d "This" alters the symbol to a dark green. 4.8 Rotating the Symbol ----------------------- The symbol can be rotated through four orientations using the --rotate= option followed by the angle of rotation as shown below. This option is only available with raster image (PNG, BMP, GIF and PCX) output. --rotate=0 (default) --rotate=90 --rotate=180 --rotate=270 4.9 Adjusting image size ------------------------ The scale of the image can be altered using the --scale= option followed by a multiple of the default x-dimension. The default x-dimension is 2 pixels. For example for PNG images a scale of 5 will increase the x-dimension to 10 pixels. 4.10 Input modes ---------------- By default all input data is assumed to be encoded in Unicode (UTF-8) format. Many barcode symbologies encode data using Latin-1 (ISO-8851-1) character encoding, so input is converted from Unicode to Latin-1 before being put in the symbol. In addition QR Code, Micro QR Code, Han Xin Code and Grid Matrix standards can encode Chinese or Japanese characters which are also converted from Unicode. If Zint encounters characters which can not be encoded using the default character encoding then it will take advantage of the ECI (Extended Channel Interpretations) mechanism to encode the data. Be aware that not all barcode readers support ECI mode, so this can sometimes lead to unreadable barcodes. If you are using characters beyond those supported by Latin-1 then you should check that the resulting barcode can be understood by your target barcode reader. Zint will generate a warning message when ECI codes have been inserted into a symbol. GS1 data can be encoded in a number of symbologies. Application identifiers should be enclosed in [square brackets] followed by the data to be encoded (see 5.1.12.3). To encode GS1 data use the --gs1 option. GS1 mode is assumed (and doesn't need to be set) for EAN-128, DataBar and Composite symbologies but is also available for Code 16k, Data Matrix, Aztec Code, DotCode and QR Code. HIBC data may also be encoded in the symbologies Code 39, Code128, Codablock-F, Datamatrix, QR-Code, PDF417 and Aztec-Code. Within this mode, the leading '+' and the check character is automatically added. The --binary option prevents Zint from performing any convertion of the data before placing in the barcode symbol and should be used if you are encoding raw binary or encrypted data. If you are using data from file which is not UTF-8 formatted then you can specify the encoding by using the --eci= switch followed by the appropriate number from the table below. This procedure adds an ECI flag in the barcode data which tells the barcode reader to change character encoding. -------------------------------------------------------- ECI Code | Character Encoding Scheme -------------------------------------------------------- 3 | ISO-8859-1 - Latin alphabet No. 1 (default) 4 | ISO-8859-2 - Latin alphabet No. 2 5 | ISO-8859-3 - Latin alphabet No. 3 6 | ISO-8859-4 - Latin alphabet No. 4 7 | ISO-8859-5 - Latin/Cyrillic alphabet 8 | ISO-8859-6 - Latin/Arabic alphabet 9 | ISO-8859-7 - Latin/Greek alphabet 10 | ISO-8859-8 - Latin/Hebrew alphabet 11 | ISO-8859-9 - Latin alphabet No. 5 12 | ISO-8859-10 - Latin alphabet No. 6 13 | ISO-8859-11 - Latin/Thai alphabet 15 | ISO-8859-13 - Latin alphabet No. 7 16 | ISO-8859-14 - Latin alphabet No. 8 (Celtic) 17 | ISO-8859-15 - Latin alphabet No. 9 18 | ISO-8859-16 - Latin alphabet No. 10 20 * | Shift-JIS (JISX 0208 amd JISX 0201) 21 | Windows-1250 - Latin 2 (Central Europe) 22 | Windows-1251 - Cyrillic 23 | Windows-1252 - Latin 1 24 | Windows-1256 - Arabic 25 * | UCS-2 Unicode (High order byte first) 26 | Unicode (UTF-8) 27 | ISO-646:1991 7-bit character set 28 * | Big-5 (Taiwan) Chinese Character Set 29 * | GB (PRC) Chinese Character Set 30 * | Korean Character Set (KSX1001:1998) -------------------------------------------------------- * Note: When using the ECI flag Zint will treat all input data as raw binary. This means that data which is encoded using a multiple-byte encoding schemes (other than UTF-8) will not use optimal compression. It is therefore recommended that data using these schemes be converted to UTF-8 using iconv or similar before passing it to Zint. 4.11 Batch processing --------------------- Data can be batch processed by reading from a text file and producing a separate barcode image for each line of text in that file. To do this use the --batch switch. To select the input file from which to read data use the –i option. Zint will automatically detect the end of a line of text (in either Unix or Windows formatted text files) and produce a symbol each time it finds this. Input files should end with a return character – if this is not present then Zint will not encode the last line of text, and will warn you that there is a problem. By default Zint will output numbered filenames starting with 00001.png, 00002.png etc. To change this behaviour use the –o option in combination with --batch using special characters in the output file name as shown in the table below: --------------------------------------------- Input Character | Interpretation --------------------------------------------- ~ | Insert a number or '0' # | Insert a number or space @ | Insert a number or "*" Any other | Insert literally --------------------------------------------- The following table shows some examples to clarify this method: -------------------------------------------------------------- Input | Filenames Generated -------------------------------------------------------------- -o file~~~.svg | file001.svg, file002.svg, file003.svg -o @@@@bar.png | ***1.png, ***2.png, ***3.png -o my~~~bar.eps | my001.bar.eps, my002.bar.eps, my003bar.eps -o t@es~t~.png | t*es0t1.png, t*es0t2.png, t*es0t3.png -------------------------------------------------------------- 4.12 Direct output ------------------ The finished image files can be output directly to stdout for use as part of a pipe by using the --direct option. By default --direct will output data as a PNG image, but this can be altered by supplimenting the --direct option with a --filetype= option followed by the suffix of the file type required. For example: zint -b 84 --direct --filetype=pcx -d "Data to encode" This command will output the symbol as a PCX file to stdout. The currently supported output file formats are shown in the following table: -------------------------------------------------------------- Abbreviation | File format -------------------------------------------------------------- BMP | Windows Bitmap EPS | Encapsulated PostScript GIF | Graphics Interchange Format PCX | ZSoft Paintbrush image PNG | Portable Network Graphic SVG | Scalable Vector Graphic TXT | Text file (see 4.16) -------------------------------------------------------------- ============================================================================= CAUTION: Outputting binary files to the command shell without catching that data in a pipe can have unpredictable results. Use with care! ============================================================================= 4.13 Automatic filenames ------------------------ The --mirror option instructs Zint to use the data to be encoded as an indicator of the filename to be used. This is particularly useful if you are processing batch data. For example the input data "1234567" will result in a file named 1234567.png. There are restrictions, however, on what characters can be stored in a file name, so the file name may vary from the data if the data includes non- printable characters, for example, and may be shortened if the data input is long. To set the output file format use the --filetype= option as detailed in section 4.12. 4.14 Working with dots ---------------------- Matrix codes can be rendered as a series of dots or circles rather than the normal squares by using the --dotty option. This option is only available for matrix symbologies, and is automatically selected for DotCode. The size of the dots can be adjusted using the --dotsize= option followed by the radius of the dot, where that radius is given as a multiple of the x-dimension. 4.15 Help options ----------------- There are three help options which give information about how to use the command line. The -h or --help option will display a list of all of the valid options available, and also gives the exact version of the software. The -t or --types option gives the table of symbologies along with the symbol ID numbers. The -e or --ecinos option gives a list of the ECI codes. 4.16 Other output options ------------------------- For linear barcodes the text present in the output image can be removed by using the --notext option. The text can be set to bold using the --bold option, or a smaller font can be substituted using the --small option. The --bold and --small options can be used together if required. Zint can output a representation of the symbol data as a set of hexadecimal values if asked to output to a text file (*.txt) or if given the option --filetype=txt. This can be used for test and diagnostic purposes. The --cmyk option is specific to output in encapsulated PostScript, and converts the RGB colours used to the CMYK colour space. Setting custom colours at the command line will still need to be done in RRGGBB format. Additional options are available which are specific to certain symbologies. These may, for example, control the amount of error correction data or the size of the symbol. These options are discussed in section 6 of this guide. 5. Using the API ================ Zint has been written using the C language and currently only has an API for use with C language programs. A wrapper is available for Pascal/Delphi developers thanks to theunknownones from http://theunknownones.googlecode.com/svn/trunk/Components/ZintBarcode/. This wrapper, however, is likely to be out of date and may not function as expected. The libzint API has been designed to be very similar to that used by the GNU Barcode package. This allows easy migration from GNU Barcode to Zint. Zint, however, uses none of the same function names or option names as GNU Barcode. This allows you to use both packages in your application without conflict if you wish. 5.1 Creating and Deleting Symbols --------------------------------- The symbols manipulated by Zint are held in a zint_symbol structure defined in zint.h. These symbols are created with the ZBarcode_Create() function and deleted using the ZBarcode_Delete() function. For example the following code creates and then deletes a symbol: #include #include int main() { struct zint_symbol *my_symbol;my_symbol = ZBarcode_Create(); if(my_symbol != NULL) { printf("Symbol successfully created!\n"); } ZBarcode_Delete(my_symbol); return 0; } When compiling this code it will need to be linked with the libzint library using the -lzint option: gcc -o simple simple.c –lzint 5.2 Encoding and Saving to File ------------------------------- To encode data in a barcode use the ZBarcode_Encode() function. To write the symbol to a file use the ZBarcode_Print() function. For example the following code takes a string from the command line and outputs a Code 128 symbol in a PNG file named out.png (or a GIF file called out.gif if libpng is not present) in the current working directory: #include #include int main(int argc, char **argv) { struct zint_symbol *my_symbol; my_symbol = ZBarcode_Create(); ZBarcode_Encode(my_symbol, argv[1], 0); ZBarcode_Print(my_symbol, 0); ZBarcode_Delete(my_symbol); return 0; } This can also be done in one stage using the ZBarcode_Encode_and_Print() function as shown in the next example: #include #include int main(int argc, char **argv) { struct zint_symbol *my_symbol; my_symbol = ZBarcode_Create(); ZBarcode_Encode_and_Print(my_symbol, argv[1], 0, 0); ZBarcode_Delete(my_symbol); return 0; } Input data should be Unicode (UTF-8) formatted. 5.3 Encoding and Printing Functions in Depth -------------------------------------------- The functions for encoding and printing barcodes are defined as: int ZBarcode_Encode(struct zint_symbol *symbol, unsigned char *input, int length); int ZBarcode_Encode_File(struct zint_symbol *symbol, char *filename); int ZBarcode_Print(struct zint_symbol *symbol, int rotate_angle); int ZBarcode_Encode_and_Print(struct zint_symbol *symbol, unsigned char *input, int length, int rotate_angle); int ZBarcode_Encode_File_and_Print(struct zint_symbol *symbol, char *filename, int rotate_angle); In these definitions "length" can be used to set the length of the input string. This allows the encoding of NULL (ASCII 0) characters in those symbologies which allow this. A value of 0 will disable this function and Zint will encode data up to the first NULL character in the input string. The "rotate_angle" value can be used to rotate the image when outputting as a raster image. Valid values are 0, 90, 180 and 270. The ZBarcode_Encode_File() and ZBarcode_Encode_File_and_Print() functions can be used to encode data read directly from a text file where the filename is given in the "filename" string. 5.4 Buffering Symbols in Memory ------------------------------- In addition to saving barcode images to file Zint allows you to access a representation of the resulting bitmap image in memory. The following functions allow you to do this: int ZBarcode_Buffer(struct zint_symbol *symbol, int rotate_angle); int ZBarcide_Encode_and_Buffer(struct zint_symbol *symbol, unsigned char *input, int length, int rotate_angle); int ZBarcode_Encode_File_and_Buffer(struct zint_symbol *symbol, char *filename, int rotate_angle); The arguments here are the same as above. The difference is that instead of saving the image to file it is placed in an unsigned integer array. The "bitmap" pointer is set to the first memory location in the array and the values "barcode_width" and "barcode_height" indicate the size of the resulting image in pixels. Rotation and colour options can be used at the same time as using the buffer functions in the same way as when saving to a raster image. The pixel data can be extracted from the array by the methd shown in the example below where render_pixel() is assumed to be a function for drawing a pixel on the screen implemented by the external application: int row, col, i = 0; unsigned int red, blue, green; for (row = 0; row < my_symbol->bitmap_height; row++) { for (column = 0; col < my_symbol->bitmap_width; column++) { red = my_symbol->bitmap[i]; green = my_symbol->bitmap[i + 1]; blue = my_symbol->bitmap[i + 2]; render_pixel(row, column, red, green, blue); i += 3; } } 5.5 Setting Options ------------------- So far our application is not very useful unless we plan to only make Code 128 symbols and we don't mind that they only save to out.png. As with the CLI program, of course, these options can be altered. The way this is done is by altering the contents of the zint_symbol structure between the creation and encoding stages. The zint_symbol structure consists of the following variables: ------------------------------------------------------------------------------- Variable Name | Type | Meaning | Default Value ------------------------------------------------------------------------------- symbology | integer | Symbol to use (see section | BARCODE_CODE128 | | 5.7). | height | integer | Symbol height. [1] | 50 whitespace_width | integer | Whtespace width. | 0 border_width | integer | Border width. | 0 output_options | integer | Set various output file | (none) | | parameters (see section | | | 5.8). [2] | fgcolour | character | Foreground (ink) colour as | "000000" | string | RGB hexadecimal string. | | | Must be 6 characters | | | followed by terminating | | | \0 character. | bgcolour | character | Background (paper) colour | "ffffff" | string | as RGB hexadecimal | | | string. Must be 6 chara- | | | ters followed by termin- | | | ating \0 character. | outfile | character | Contains the name of the | "out.png" | string | file to output a result- | | | ing barcode symbol to. | | | Must end in .png, .gif, | | | .eps, .pcx, .svg or .txt | option_1 | integer | Symbol specific options. | (automatic) option_2 | integer | Symbol specific options. | (automatic) option_3 | integer | Symbol specific options. | (automatic) scale | float | Scale factor for adjusting | 1.0 | | size of image. | input_mode | integer | Set encoding of input data | UNICODE_MODE | | (see section 5.9) | eci | integer | Extended Channel Interpre- | 3 | | tation mode. | primary | character | Primary message data for | NULL | string | more complex symbols. | text | unsigned | Human readable text, which | NULL | character | usually consists of in- | | string | put data plus one more | | | check digit. Uses UTF-8 | | | formatting. | show_hrt | integer | Set to 0 to hide text. | 1 dot_size | float | Size of dots used in dotty | 4.0 / 5.0 | | mode. | rows | integer | Number of rows used by the | (output only) | | the symbol. | width | integer | Width of the generated sym- | (output only) | | bol. | encoding_data | array of | Representation of the | (output only) | character | encoded data. | | strings | | row_height | array of | Representation of the | (output only) | integers | height of a row. | errtxt | character | Error message in the event | (output only) | string | that an error ocurred. | bitmap | pointer to | Pointer to stored bitmap | (output only) | character | image. | | array | | bitmap_width | integer | Width of stored bitmap | (output only) | | image (in pixels). | bitmap_height | integer | Height of stored bitmap | (output only) | | image (in pixels). | ------------------------------------------------------------------------------- To alter these values use the syntax shown in the example below. This code has the same result as the previous example except the output is now taller and plotted in green. #include #include #include int main(int argc, char **argv) { struct zint_symbol *my_symbol;my_symbol = ZBarcode_Create(); strcpy(my_symbol->fgcolour, "00ff00"); my_symbol->height = 400; ZBarcode_Encode_and_Print(my_symbol, argv[1], 0, 0); ZBarcode_Delete(my_symbol); return 0; } 5.6 Handling Errors ------------------- If errors occur during encoding an integer value is passed back to the calling application. In addition the errtxt value is used to give a message detailing the nature of the error. The errors generated by Zint are given in the table below: ------------------------------------------------------------------------------- Return Value | Meaning ------------------------------------------------------------------------------- ZINT_WARN_INVALID_OPTION | One of the values in zint_struct was set | incorrectly but Zint has made a guess at | what it should have been and generated a | barcode accordingly. ZINT_WARN_USES_ECI | Zint has automatically inserted an ECI | character. The symbol may not be readable | with some readers. ZINT_ERROR_TOO_LONG | The input data is too long or too short for the | selected symbology. No symbol has been | generated. ZINT_ERROR_INVALID_DATA | The data to be encoded includes characters which | are not permitted by the selected symbology | (e.g. alphabetic characters in an EAN | symbol). No symbol has been generated. ZINT_ERROR_INVALID_CHECK | An ISBN with an incorrect check digit has been | entered. No symbol has been generated. ZINT_ERROR_INVALID_OPTION | One of the values in zint_struct was set | incorrectly and Zint was unable to guess what | it should have been. No symbol has been | generated. ZINT_ERROR_ENCODING_PROBLEM | A problem has occurred during encoding of the | data. This should never happen. Please | contact the developer if you encounter this | error. ZINT_ERROR_FILE_ACCESS | Zint was unable to open the requested output | file. This is usually a file permissions | problem. ZINT_ERROR_MEMORY | Zint ran out of memory. This should only be a | problem with legacy systems. ------------------------------------------------------------------------------- To catch errors use an integer variable as shown in the code below: #include #include #include int main(int argc, char **argv) { struct zint_symbol *my_symbol; int error = 0; my_symbol = ZBarcode_Create(); strcpy(my_symbol->fgcolour, "nonsense"); error = ZBarcode_Encode_and_Print(my_symbol, argv[1], 0, 0); if(error != 0) { /* some error occurred */ printf("%s\n", my_symbol->errtxt); } if(error > WARN_INVALID_OPTION) { /* stop now */ ZBarcode_Delete(my_symbol); return 1; } /* otherwise carry on with the rest of the application */ ZBarcode_Delete(my_symbol); return 0; } This code will exit with the appropriate message: error: malformed foreground colour target 5.7 Specifying a Symbology -------------------------- Symbologies can be specified by number or by name as shown in the following table. For example symbol->symbology= BARCODE_LOGMARS; means the same as symbol->symbology = 50; -------------------------------------------------------------------------------- Numeric | Name | Barcode Name Value | -------------------------------------------------------------------------------- 1 | BARCODE_CODE11 | Code 11 2 | BARCODE_C25MATRIX | Standard Code 2 of 5 3 | BARCODE_C25INTER | Interleaved 2 of 5 4 | BARCODE_C25IATA | Code 2 of 5 IATA 6 | BARCODE_C25LOGIC | Code 2 of 5 Data Logic 7 | BARCODE_C25IND | Code 2 of 5 Industrial 8 | BARCODE_CODE39 | Code 3 of 9 (Code 39) 9 | BARCODE_EXCODE39 | Extended Code 3 of 9 (Code 39+) 13 | BARCODE_EANX | EAN 14 | BARCODE_EANX_CHK | EAN + Check Digit 16 | BARCODE_EAN128 | GS1-128 (UCC.EAN-128) 18 | BARCODE_CODABAR | Codabar 20 | BARCODE_CODE128 | Code 128 (automatic subset switching) 21 | BARCODE_DPLEIT | Deutshe Post Leitcode 22 | BARCODE_DPIDENT | Deutshe Post Identcode 23 | BARCODE_CODE16K | Code 16K 24 | BARCODE_CODE49 | Code 49 25 | BARCODE_CODE93 | Code 93 28 | BARCODE_FLAT | Flattermarken 29 | BARCODE_RSS14 | GS1 DataBar-14 30 | BARCODE_RSS_LTD | GS1 DataBar Limited 31 | BARCODE_RSS_EXP | GS1 DataBar Extended 32 | BARCODE_TELEPEN | Telepen Alpha 34 | BARCODE_UPCA | UPC A 35 | BARCODE_UPCA_CHK | UPC A + Check Digit 37 | BARCODE_UPCE | UPC E 38 | BARCODE_UPCE | UPC E + Check Digit 40 | BARCODE_POSTNET | PostNet 47 | BARCODE_MSI_PLESSEY | MSI Plessey 49 | BARCODE_FIM | FIM 50 | BARCODE_LOGMARS | LOGMARS 51 | BARCODE_PHARMA | Pharmacode One-Track 52 | BARCODE_PZN | PZN 53 | BARCODE_PHARMA_TWO | Pharmacode Two-Track 55 | BARCODE_PDF417 | PDF417 56 | BARCODE_PDF417TRUNC | PDF417 Truncated 57 | BARCODE_MAXICODE | Maxicode 58 | BARCODE_QRCODE | QR Code 60 | BARCODE_CODE128B | Code 128 (Subset B) 63 | BARCODE_AUSPOST | Australia Post Standard Customer 66 | BARCODE_AUSREPLY | Australia Post Reply Paid 67 | BARCODE_AUSROUTE | Australia Post Routing 68 | BARCODE_AUSDIRECT | Australia Post Redirection 69 | BARCODE_ISBNX | ISBN (EAN-13 with verification stage) 70 | BARCODE_RM4SCC | Royal Mail 4 State (RM4SCC) 71 | BARCODE_DATAMATRIX | Data Matrix ECC200 72 | BARCODE_EAN14 | EAN-14 74 | BARCODE_CODABLOCKF | Codablock-F 75 | BARCODE_NVE18 | NVE-18 76 | BARCODE_JAPANPOST | Japanese Postal Code 77 | BARCODE_KOREAPOST | Korea Post 79 | BARCODE_RSS14STACK | GS1 DataBar-14 Stacked 80 | BARCODE_RSS14STACK_OMNI | GS1 DataBar-14 Stacked Omnidirectional 81 | BARCODE_RSS_EXPSTACK | GS1 DataBar Expanded Stacked 82 | BARCODE_PLANET | PLANET 84 | BARCODE_MICROPDF417 | MicroPDF417 85 | BARCODE_ONECODE | USPS OneCode 86 | BARCODE_PLESSEY | Plessey Code 87 | BARCODE_TELEPEN_NUM | Telepen Numeric 89 | BARCODE_ITF14 | ITF-14 90 | BARCODE_KIX | Dutch Post KIX Code 92 | BARCODE_AZTEC | Aztec Code 93 | BARCODE_DAFT | DAFT Code 97 | BARCODE_MICROQR | Micro QR Code 98 | BARCODE_HIBC_128 | HIBC Code 128 99 | BARCODE_HIBC_39 | HIBC Code 39 102 | BARCODE_HIBC_39 | HIBC Data Matrix ECC200 104 | BARCODE_HIBC_DM | HIBC QR Code 106 | BARCODE_HIBC_PDF | HIBC PDF417 108 | BARCODE_HIBC_MICPDF | HIBC MicroPDF417 112 | BARCODE_HIBC_AZTEC | HIBC Aztec Code 115 | BARCODE_DOTCODE | DotCode 116 | BARCODE_HANXIN | Han Xin (Chinese Sensible) Code 128 | BARCODE_AZRUNE | Aztec Runes 129 | BARCODE_CODE32 | Code 32 130 | BARCODE_EANX_CC | Composite Symbol with EAN linear component 131 | BARCODE_EAN128_CC | Composite Symbol with GS1-128 linear | | component 132 | BARCODE_RSS14_CC | Composite Symbol with GS1 DataBar-14 linear | | component 133 | BARCODE_RSS_LTD_CC | Composite Symbol with GS1 DataBar Limited | | component 134 | BARCODE_RSS_EXP_CC | Composite Symbol with GS1 DataBar Extended | | component 135 | BARCODE_UPCA_CC | Composite Symbol with UPC A linear component 136 | BARCODE_UPCE_CC | Composite Symbol with UPC E linear component 137 | BARCODE_RSS14STACK_CC | Composite Symbol with GS1 DataBar-14 | | Stacked component 138 | BARCODE_RSS14_OMNI_CC | Composite Symbol with GS1 DataBar-14 | | Stacked Omnidirectional component 139 | BARCODE_RSS_EXPSTACK_CC | Composite Symbol with GS1 DataBar Expanded | | Stacked component 140 | BARCODE_CHANNEL | Channel Code 141 | BARCODE_CODEONE | Code One 142 | BARCODE_GRIDMATRIX | Grid Matrix 143 | BARCODE_UPNQR | UPNQR (Univerzalnega Plačilnega Naloga QR) -------------------------------------------------------------------------------- 5.8 Adjusting other output options ---------------------------------- The output_options variable can be used to adjust various aspects of the output file. To select more than one option from the table below simply add them together when adjusting this value: my_symbol->output_options += BARCODE_BIND + READER_INIT; -------------------------------------------------------------------------------- Value | Effect -------------------------------------------------------------------------------- 0 | No options selected. BARCODE_BIND | Boundary bars above and below the symbol and between | rows if stacking multiple symbols. [2] BARCODE_BOX | Add a box surrounding the symbol and whitespace. [2] BARCODE_STDOUT | Output the file to stdout. READER_INIT | Add a reader initialisation symbol to the data before | encoding. SMALL_TEXT | Use a smaller font for the human readable text. BOLD_TEXT | Embolden the human readable text. CMYK_COLOUR | Select the CMYK colour space option for encapsulated | PostScript files. BARCODE_DOTTY_MODE | Plot a matrix symbol using dots rather than squares. -------------------------------------------------------------------------------- 5.9 Setting the Input Mode -------------------------- The way in which the input data is encoded can be set using the input_mode property. Valid values are shown in the table below. ----------------------------------------------------------------------------- Value | Effect ----------------------------------------------------------------------------- DATA_MODE | Uses full ASCII range interpreted as Latin-1 or binary data. UNICODE_MODE | Uses pre-formatted UTF-8 input. GS1_MODE | Encodes GS1 data using FNC1 characters. ----------------------------------------------------------------------------- 5.10 Verifying Symbology Availability ------------------------------------- An additional function available in the API is defined as: int ZBarcode_ValidID(int symbol_id); This function allows you to check whether a given symbology is available. A non-zero return value indicates that the given symbology is available. For example: if(ZBarcode_ValidID(BARCODE_PDF417) != 0) { printf("PDF417 available"); } else { printf("PDF417 not available"); } [1] This value is ignored for Australia Post 4-State Barcodes, PostNet, PLANET, USPS OneCode, RM4SCC, PDF417, Data Matrix ECC200, Maxicode, QR Code, GS1 DataBar-14 Stacked, PDF417 and MicroPDF417 - all of which have a fixed height. [2] This value is ignored for Code 16k, Codablock-F and ITF-14 symbols. 6. Types of Symbology ===================== 6.1 One-Dimensional Symbols --------------------------- One-Dimensional Symbols are what most people associate with the term barcode. They consist of a number of bars and a number of spaces of differing widths. 6.1.1 Code 11 ------------- Developed by Intermec in 1977, Code 11 is similar to Code 2 of 5 Matrix and is primarily used in telecommunications. The symbol can encode any length string consisting of the digits 0-9 and the dash character (-). One modulo-11 check digit is calculated. 6.1.2 Code 2 of 5 ----------------- Code 2 of 5 is a family of one-dimensional symbols, 8 of which are supported by Zint. Note that the names given to these standards alters from one source to another so you should take care to ensure that you have the right barcode type before using these standards. 6.1.2.1 Standard Code 2 of 5 ---------------------------- Also known as Code 2 of 5 Matrix is a self-checking code used in industrial applications and photo development. Standard Code 2 of 5 will encode any length numeric input (digits 0-9). 6.1.2.2 IATA Code 2 of 5 ------------------------ Used for baggage handling in the air-transport industry by the International Air Transport Agency, this self-checking code will encode any length numeric input (digits 0-9) and does not include a check digit. 6.1.2.3 Industrial Code 2 of 5 ------------------------------ Industrial Code 2 of 5 can encode any length numeric input (digits 0-9) and does not include a check digit. 6.1.2.4 Interleaved Code 2 of 5 ------------------------------- This self-checking symbology encodes pairs of numbers, and so can only encode an even number of digits (0-9). If an odd number of digits is entered a leading zero is added by Zint. No check digit is added. 6.1.2.5 Code 2 of 5 Data Logic ------------------------------ Data Logic does not include a check digit and can encode any length numeric input (digits 0-9). 6.1.2.6 ITF-14 -------------- ITF-14, also known as UPC Shipping Container Symbol or Case Code is based on Interleaved Code 2 of 5 and requires a 13 digit numeric input (digits 0-9). One modulo-10 check digit is added by Zint. 6.1.2.7 Deutsche Post Leitcode ------------------------------ Leitcode is based on Interleaved Code 2 of 5 and is used by Deutsche Post for mailing purposes. Leitcode requires a 13-digit numerical input and includes a check digit. 6.1.2.8 Deutsche Post Identcode ------------------------------- Identcode is based on Interleaved Code 2 of 5 and is used by Deutsche Post for mailing purposes. Identcode requires an 11-digit numerical input and includes a check digit. 6.1.3 Universal Product Code (EN 797) ------------------------------------- 6.1.3.1 UPC Version A --------------------- UPC-A is used in the United States for retail applications. The symbol requires an 11 digit article number. The check digit is calculated by Zint. In addition EAN-2 and EAN-5 add-on symbols can be added using the + character. For example, to draw a UPC-A symbol with the data 72527270270 with an EAN-5 add-on showing the data 12345 use the command: zint --barcode=34 -d 72527270270+12345 or encode a data string with the + character included: my_symbol->symbology = BARCODE_UPCA; error = ZBarcode_Encode_and_Print(my_symbol, "72527270270+12345"); If your input data already includes the check digit symbology 35 can be used which takes a 12 digit input and validates the check digit before encoding. 6.1.3.2 UPC Version E --------------------- UPC-E is a zero-compressed version of UPC-A developed for smaller packages. The code requires a 6 digit article number (digits 0-9). The check digit is calculated by Zint. EAN-2 and EAN-5 add-on symbols can be added using the + character as with UPC-A. In addition Zint also supports Number System 1 encoding by entering a 7-digit article number stating with the digit 1. For example: zint --barcode=37 -d 1123456 or my_symbol->symbology = BARCODE_UPCE; error = ZBarcode_Encode_and_Print(my_symbol, "1123456"); If your input data already includes the check digit symbology 38 can be used which takes a 7 or 8 digit input and validates the check digit before encoding. 6.1.4 European Article Number (EN 797) -------------------------------------- 6.1.4.1 EAN-2, EAN-5, EAN-8 and EAN-13 -------------------------------------- The EAN system is used in retail across Europe and includes standards for EAN-2 and EAN-5 add-on codes, EAN-8 and EAN-13 which encode 2, 5, 7 or 12 digit numbers respectively. Zint will decide which symbology to use depending on the length of the input data. In addition EAN-2 and EAN-5 add-on symbols can be added using the + symbol as with UPC symbols. For example: zint --barcode=13 -d 54321 will encode a stand-alone EAN-5, whereas zint --barcode=13 -d 7432365+54321 will encode an EAN-8 symbol with an EAN-5 add-on. As before these results can be achieved using the API: my_symbol->symbology = BARCODE_EANX; error = ZBarcode_Encode_and_Print(my_symbol, "54321"); error = ZBarcode_Encode_and_Print(my_symbol, "7432365+54321"); All of the EAN symbols include check digits which are added by Zint. If you are encoding an EAN-8 or EAN-13 symbol and your data already includes the check digit then you can use symbology 14 which takes an 8 or 13 digit input and validates the check digit before encoding. 6.1.4.2 SBN, ISBN and ISBN-13 ----------------------------- EAN-13 symbols (also known as Bookland EAN-13) can also be produced from 9-digit SBN, 10-digit ISBN or 13-digit ISBN-13 data. The relevant check digit needs to be present in the input data and will be verified before the symbol is generated. In addition EAN-2 and EAN-5 add-on symbols can be added using the + symbol as with UPC symbols. 6.1.5 Plessey ------------- Also known as Plessey Code, this symbology was developed by the Plessey Company Ltd. in the UK. The symbol can encode any length data consisting of digits (0-9) or letters A-F and includes a CRC check digit. 6.1.6 MSI Plessey ----------------- Based on Plessey and developed by MSE Data Corporation, MSI Plessey is available with a range of check digit options available by setting option_2 or by using the --ver= switch. Any length numeric (digits 0-9) input can be encoded. The table below shows the options available: ------------------------------------------- Value of option_2 | Check Digits ------------------------------------------- 0 | None 1 | Modulo-10 2 | Modulo-10 & Modulo-10 3 | Modulo-11 4 | Modulo-11 & Modulo-10 ------------------------------------------- 6.1.7 Telepen ------------- 6.1.7.1 Telepen Alpha --------------------- Telepen Alpha was developed by SB Electronic Systems Limited and can encode any length of ASCII text input. Telepen includes a modulo-127 check digit. 6.1.7.2 Telepen Numeric ----------------------- Telepen Numeric allows compression of numeric data into a Telepen symbol. Data can consist of pairs of numbers or pairs consisting of a numerical digit followed an X character. For example: 466333 and 466X33 are valid codes whereas 46X333 is not (the digit pair "X3" is not valid). Telepen Numeric includes a modulo-127 check digit which is added by Zint. 6.1.8 Code 39 ------------- 6.1.8.1 Standard Code 39 (ISO 16388) ------------------------------------ Standard Code 39 was developed in 1974 by Intermec. Input data can be of any length and can include the characters 0-9, A-Z, dash (-), full stop (.), space, asterisk (*), dollar ($), slash (/), plus (+) and percent (%). The standard does not require a check digit but a modulo-43 check digit can be added if required by setting option_2 = 1 or using --ver=1. 6.1.8.2 Extended Code 39 ------------------------ Also known as Code 39e and Code39+, this symbology expands on Standard Code 39 to provide support to the full ASCII character set. The standard does not require a check digit but a modulo-43 check digit can be added if required by setting option_2 = 1 or using --ver=1. 6.1.8.3 Code 93 --------------- A variation of Extended Code 39, Code 93 also supports full ASCII text. Two check digits are added by Zint. 6.1.8.4 PZN ----------- PZN is a Code 39 based symbology used by the pharmaceutical industry in Germany. PZN encodes a 6 digit number to which Zint will add a modulo-10 check digit. 6.1.8.5 LOGMARS --------------- LOGMARS (Logistics Applications of Automated Marking and Reading Symbols) is a variation of the Code 39 symbology used by the US Department of Defence. LOGMARS encodes the same character set as Standard Code 39 and adds a modulo-43 check digit. 6.1.8.6 Code 32 --------------- A variation of Code 39 used by the Italian Ministry of Health ("Ministero della Sanità") for encoding identifiers on pharmaceutical products. This symbology requires a numeric input up to 8 digits in length. A check digit is added by Zint. 6.1.8.7 HIBC Code 39 -------------------- This option adds a leading '+' character and a trailing modulo-49 check digit to a standard Code 39 symbol as required by the Health Industry Barcode standards. 6.1.9 Codabar (EN 798) ---------------------- Also known as NW-7, Monarch, ABC Codabar, USD-4, Ames Code and Code 27, this symbology was developed in 1972 by Monarch Marketing Systems for retail purposes. The American Blood Commission adopted Codabar in 1977 as the standard symbology for blood identification. Codabar can encode any length string starting and ending with the letters A-D and containing between these letters the numbers 0-9, dash (-), dollar ($), colon (:), slash (/), full stop (.) or plus (+). No check digit is generated. 6.1.10 Pharmacode ----------------- Developed by Laetus, Pharmacode is used for the identification of pharmaceuticals. The symbology is able to encode whole numbers between 3 and 131070. 6.1.11 Code 128 --------------- 6.1.11.1 Standard Code 128 (ISO 15417) -------------------------------------- One of the most ubiquitous one-dimensional barcode symbologies, Code 128 was developed in 1981 by Computer Identics. This symbology supports full ASCII text and uses a three-mode system to compress the data into a smaller symbol. Zint automatically switches between modes and adds a modulo-103 check digit. Code 128 is the default barcode symbology used by Zint. In addition Zint supports the encoding of Latin-1 (non-English) characters in Code 128 symbols [1]. The Latin-1 character set is shown in Appendix A. 6.1.11.2 Code 128 Subset B -------------------------- It is sometimes advantageous to stop Code 128 from using subset mode C which compresses numerical data. The BARCODE_CODE128B option (symbology 60) suppresses mode C in favour of mode B. 6.1.11.3 GS1-128 ---------------- A variation of Code 128 also known as UCC/EAN-128, this symbology is defined by the GS1 General Specification. Application Identifiers (AIs) should be entered using [square bracket] notation. These will be converted to (round brackets) for the human readable text. This will allow round brackets to be used in the data strings to be encoded. Fixed length data should be entered at the appropriate length for correct encoding (see Appendix C). GS1-128 does not support extended ASCII characters. Check digits for GTIN data (AI 01) are not generated and need to be included in the input data. The following is an example of a valid GS1-128 input: zint --barcode=16 -d "[01]98898765432106[3202]012345[15]991231" 6.1.11.4 EAN-14 --------------- A shorter version of GS1-128 which encodes GTIN data only. A 13 digit number is required. The GTIN check digit and AI (01) are added by Zint. 6.1.11.5 NVE-18 --------------- A variation of Code 128 the "Nummer der Versandeinheit" standard includes both modulo-10 and modulo-103 check digits. NVE-18 requires a 17 digit numerical input and check digits are added by Zint. 6.1.11.6 HIBC Code 128 ---------------------- This option adds a leading '+' character and a trailing modulo-49 check digit to a standard Code 128 symbol as required by the Health Industry Barcode standards. 6.1.12 GS1 DataBar (ISO 24724) ------------------------------ Also known as RSS (Reduced Spaced Symbology) these symbols are due to replace GS1-128 symbols in accordance with the GS1 General Specification. If a GS1 DataBar symbol is to be printed with a 2D component as specified in ISO 24723 set option_1 = 2 or use the option --mode=2 at the command prompt. See section 6.3 of this manual to find out how to generate DataBar symbols with 2D components. 6.1.12.1 DataBar-14 and DataBar-14 Truncated -------------------------------------------- Also known as RSS-14 this standard encodes a 13 digit item code. A check digit and application identifier of (01) are added by Zint. To produce a truncated symbol set the symbol height to a value between 32 and 13. Normal DataBar-14 symbols should have a height of 33 or greater. 6.1.12.2 DataBar Limited ------------------------ Also known as RSS Limited this standard encodes a 13 digit item code and can be used in the same way as DataBar-14 above. DataBar Limited, however, is limited to data starting with digits 0 and 1 (i.e. numbers in the range 0 to 1999999999999). As with DataBar-14 a check digit and application identifier of (01) are added by Zint. 6.1.12.3 DataBar Expanded ------------------------- Also known as RSS Expanded this is a variable length symbology capable of encoding data from a number of AIs in a single symbol. AIs should be encased in [square brackets] in the input data. This will be converted to (rounded brackets) before it is included in the human readable text attached to the symbol. This method allows the inclusion of rounded brackets in the data to be encoded. GTIN data (AI 01) should also include the check digit data as this is not calculated by Zint when this symbology is encoded. Fixed length data should be entered at the appropriate length for correct encoding (see Appendix C). The following is an example of a valid DataBar Expanded input: zint --barcode=31 -d "[01]98898765432106[3202]012345[15]991231" 6.1.13 Korea Post Barcode ------------------------- The Korean Postal Barcode is used to encode a six-digit number and includes one check digit. 6.1.14 Channel Code ------------------- A highly compressed symbol for numeric data. The number of channels in the symbol can be between 3 and 8 and this can be specified by setting the value of option_2. It can also be determined by the length of the input data e.g. a three character input string generates a 4 channel code by default. The maximum values permitted depend on the number of channels used as shown in the table below: -------------------------------------------- Channels | Minimum Value | Maximum Value -------------------------------------------- 3 | 00 | 26 4 | 000 | 292 5 | 0000 | 3493 6 | 00000 | 44072 7 | 000000 | 576688 8 | 0000000 | 7742862 -------------------------------------------- 6.2 Stacked Symbologies ----------------------- 6.2.1 Basic Symbol Stacking --------------------------- An early innovation to get more information into a symbol, used primarily in the vehicle industry, is to simply stack one-dimensional codes on top of each other. This can be achieved at the command prompt by giving more than one set of input data. For example zint -d 'This' -d 'That' will draw two Code 128 symbols, one on top of the other. The same result can be achieved using the API by executing the ZBarcode_Encode() function more than once on a symbol. For example: my_symbol->symbology = BARCODE_CODE128; error = ZBarcode_Encode(my_symbol, "This"); error = ZBarcode_Encode(my_symbol, "That"); error = ZBarcode_Print(my_symbol); A more sophisticated method is to use some type of line indexing which indicates to the barcode reader which order the symbols should be read. This is demonstrated by the symbologies below. 6.2.2 Codablock-F ----------------- This is a stacked symbology based on Code 128 which can encode ASCII code set data up to a maximum length of 2725 characters. The width of the Codablock-F symbol can be set using the --cols= option at the command line or option_2. Alternatively the height (number of rows) can be set using the --rows= option at the command line or by setting option_1. Zint does not support encoding of GS1 data in Codablock-F symbols. 6.2.3 Code 16k (EN 12323) ------------------------- Code 16k uses a Code 128 based system which can stack up to 16 rows in a block. This gives a maximum data capacity of 77 characters or 154 numerical digits and includes two modulo-107 check digits. Code 16k also supports extended ASCII character encoding in the same manner as Code 128. 6.2.4 PDF417 (ISO 15438) ------------------------ Heavily used in the parcel industry, the PDF417 symbology can encode a vast amount of data into a small space. Zint supports encoding up to the ISO standard maximum symbol size of 925 codewords which (at error correction level 0) allows a maximum data size of 1850 text characters, or 2710 digits. The width of the generated PDF417 symbol can be specified at the command line using the --cols switch followed by a number between 1 and 30, and the amount of check digit information can be specified by using the --security switch followed by a number between 0 and 8 where the number of codewords used for check information is determined by 2^(value + 1). If using the API these values are assigned to option_2 and option_1 respectively. The default level of check information is determined by the amount of data being encoded. This symbology uses Latin-1 character encoding by default but also supports the ECI encoding mechanism. A separate symbology ID can be used to encode Health Industry Barcode (HIBC) data which adds a leading '+' character and a modulo-49 check digit to the encoded data. 6.2.5 Compact PDF417 -------------------- Also known as truncated PDF417. Options are the same as for PDF417 above. 6.2.6 MicroPDF417 (ISO 24728) ----------------------------- A variation of the PDF417 standard, MicroPDF417 is intended for applications where symbol size needs to be kept to a minimum. 34 predefined symbol sizes are available with 1 - 4 columns and 4 - 44 rows. The maximum size MicroPDF417 symbol can hold 250 alphanumeric characters or 366 digits. The amount of error correction used is dependent on symbol size. The number of columns used can be determined using the --cols switch or option_2 as with PDF417. This symbology uses Latin-1 character encoding by default but also supports the ECI encoding mechanism. A separate symbology ID can be used to encode Health Industry Barcode (HIBC) data which adds a leading '+' character and a modulo-49 check digit to the encoded data. 6.2.7 GS1 DataBar-14 Stacked (ISO 24724) ---------------------------------------- A stacked variation of the GS1 DataBar-14 symbol requiring the same input (see section 6.1.12.1). The height of this symbol is fixed. The data is encoded in two rows of bars with a central finder pattern. This symbol can be generated with a two-dimensional component to make a composite symbol. 6.2.8 GS1 DataBar-14 Stacked Omnidirectional (ISO 24724) -------------------------------------------------------- Another variation of the GS1 DataBar-14 symbol requiring the same input (see section 6.1.12.1). The data is encoded in two rows of bars with a central finder pattern. This symbol can be generated with a two-dimensional component to make a composite symbol. 6.2.9 GS1 DataBar Expanded Stacked (ISO 24724) ---------------------------------------------- A stacked variation of the GS1 DataBar Expanded symbol for smaller packages. Input is the same as for GS1 DataBar Expanded (see section 6.1.12.3). In addition the width of the symbol can be altered using the --cols switch or option_2. In this case the number of columns relates to the number of character pairs on each row of the symbol. This symbol can be generated with a two- dimensional component to make a composite symbol. For symbols with a 2D component the number of columns must be at least 2. 6.2.10 Code 49 ------------- Developed in 1987 at Intermec, Code 49 is a cross between UPC and Code 39. It it one of the earliest stacked symbologies and influenced the design of Code 16K a few years later. It supports full 7-bit ASCII input up to a maximum of 49 characters or 81 numeric digits. GS1 data encoding is also supported. 6.3 Composite Symbols (ISO 24723) --------------------------------- Composite symbols employ a mixture of components to give more comprehensive information about a product. The permissible contents of a composite symbol is determined by the terms of the GS1 General Specification. Composite symbols consist of a linear component which can be an EAN, UPC, GS1-128 or GS1 DataBar symbol, a 2D component which is based on PDF417 or MicroPDF417, and a separator pattern. The type of linear component to be used is determined using the -b or --barcode= switch or by adjusting symbol->symbology as with other encoding methods. Valid values are shown below. -------------------------------------------------------------------------------- Numeric | Name | Barcode Name Value | -------------------------------------------------------------------------------- 130 | BARCODE_EANX_CC | Composite Symbol with EAN linear component 131 | BARCODE_EAN128_CC | Composite Symbol with GS1-128 linear | | component 132 | BARCODE_RSS14_CC | Composite Symbol with GS1 DataBar-14 linear | | component 133 | BARCODE_RSS_LTD_CC | Composite Symbol with GS1 DataBar Limited | | component 134 | BARCODE_RSS_EXP_CC | Composite Symbol with GS1 DataBar Extended | | component 135 | BARCODE_UPCA_CC | Composite Symbol with UPC A linear component 136 | BARCODE_UPCE_CC | Composite Symbol with UPC E linear component 137 | BARCODE_RSS14STACK_CC | Composite Symbol with GS1 DataBar-14 | | Stacked component 138 | BARCODE_RSS14_OMNI_CC | Composite Symbol with GS1 DataBar-14 | | Stacked Omnidirectional component 139 | BARCODE_RSS_EXPSTACK_CC | Composite Symbol with GS1 DataBar Expanded | | Stacked component -------------------------------------------------------------------------------- The data to be encoded in the linear component of a composite symbol should be entered into a primary string with the data for the 2D component being entered in the normal way. To do this at the command prompt use the --primary= command. For example: zint -b 130 --mode=1 --primary=331234567890 -d "[99]1234-abcd" This creates an EAN-13 linear component with the data "331234567890" and a 2D CC-A (see below) component with the data "(99)1234-abcd". The same results can be achieved using the API as shown below: my_symbol->symbology = 130; my_symbol->option_1 = 1; strcpy(my_symbol->primary, "331234567890"); ZBarcode_Encode_and_Print(my_symbol, "[99]1234-abcd"); EAN-2 and EAN-5 add-on data can be used with EAN and UPC symbols using the + symbol as described in section 6.1.3 and 5.1.4. The 2D component of a composite symbol can use one of three systems: CC-A, CC-B and CC-C as described below. The 2D component type can be selected automatically by Zint dependant on the length of the input string. Alternatively the three methods can be accessed using the --mode= prompt followed by 1, 2 or 3 for CC-A, CC-B or CC-C respectively, or by using the option_1 variable as shown above. 6.3.1 CC-A ---------- This system uses a variation of MicroPDF417 which optimised to fit into a small space. The size of the 2D component and the amount of error correction is determined by the amount of data to be encoded and the type of linear component which is being used. CC-A can encode up to 56 numeric digits or an alphanumeric string of shorter length. To select CC-A use --mode=1. 6.3.2 CC-B ---------- This system uses MicroPDF417 to encode the 2D component. The size of the 2D component and the amount of error correction is determined by the amount of data to be encoded and the type of linear component which is being used. CC-B can encode up to 338 numeric digits or an alphanumeric string of shorter length. To select CC-B use --mode=2. 6.3.3 CC-C ---------- This system uses PDF417 and can only be used in conjunction with a GS1-128 linear component. CC-C can encode up to 2361 numeric digits or an alphanumeric string of shorter length. To select CC-C use --mode=3. 6.4 Two-Track Symbols --------------------- 6.4.1 Two-Track Pharmacode -------------------------- Developed by Laetus, Pharmacode Two-Track is an alternative system to Pharmacode One-Track used for the identification of pharmaceuticals. The symbology is able to encode whole numbers between 4 and 64570080. 6.4.2 PostNet ------------- Used by the United States Postal Service until 2009, the PostNet barcode was used for encoding zip-codes on mail items. PostNet uses numerical input data and includes a modulo-10 check digit. While Zint will encode PostNet symbols of any length, standard lengths as used by USPS were PostNet6 (5 digits ZIP input), PostNet10 (5 digit ZIP + 4 digit user data) and PostNet12 (5 digit ZIP + 6 digit user data). 6.4.3 PLANET ------------ Used by the United States Postal Service until 2009, the PLANET (Postal Alpha Numeric Encoding Technique) barcode was used for encoding routing data on mail items. Planet uses numerical input data and includes a modulo-10 check digit. While Zint will encode PLANET symbols of any length, standard lengths used by USPS were Planet12 (11 digit input) and Planet14 (13 digit input). 6.5 4-State Postal Codes ------------------------ 6.5.1 Australia Post 4-State Symbols ------------------------------------ 6.5.1.1 Customer Barcodes ------------------------- Australia Post Standard Customer Barcode, Customer Barcode 2 and Customer Barcode 3 are 37-bar, 52-bar and 67-bar specifications respectively, developed by Australia Post for printing Delivery Point ID (DPID) and customer information on mail items. Valid data characters are 0-9, A-Z, a-z, space and hash (#). A Format Control Code (FCC) is added by Zint and should not be included in the input data. Reed-Solomon error correction data is generated by Zint. Encoding behaviour is determined by the length of the input data according to the formula shown in the following table: ----------------------------------------------------------------- Input | Required Input Format | Symbol | FCC | Encoding Length | | Length | | Table ----------------------------------------------------------------- 8 | 99999999 | 37-bar | 11 | None 13 | 99999999AAAAA | 52-bar | 59 | C 16 | 9999999999999999 | 52-bar | 59 | N 18 | 99999999AAAAAAAAAA | 67-bar | 62 | C 23 | 99999999999999999999999 | 67-bar | 62 | N ----------------------------------------------------------------- 6.5.1.2 Reply Paid Barcode -------------------------- A Reply Paid version of the Australia Post 4-State Barcode (FCC 45) which requires an 8-digit DPID input. 6.5.1.3 Routing Barcode ----------------------- A Routing version of the Australia Post 4-State Barcode (FCC 87) which requires an 8-digit DPID input. 6.5.1.4 Redirect Barcode ------------------------ A Redirection version of the Australia Post 4-State Barcode (FCC 92) which requires an 8-digit DPID input. 6.5.2 Dutch Post KIX Code ------------------------- This Symbology is used by Royal Dutch TPG Post (Netherlands) for Postal code and automatic mail sorting. Data input can consist of numbers 0-9 and letters A-Z and needs to be 11 characters in length. No check digit is included. 6.5.3 Royal Mail 4-State Country Code (RM4SCC) ---------------------------------------------- The RM4SCC standard is used by the Royal Mail in the UK to encode postcode and customer data on mail items. Data input can consist of numbers 0-9 and letters A-Z and usually includes delivery postcode followed by house number. For example "W1J0TR01" for 1 Picadilly Circus in London. Check digit data is generated by Zint. 6.5.4 USPS OneCode ------------------ Also known as the Intelligent Mail Barcode and used in the US by the United States Postal Service (USPS), the OneCode system replaced the PostNet and PLANET symbologies in 2009. OneCode is a fixed length (65-bar) symbol which combines routing and customer information in a single symbol. Input data consists of a 20 digit tracking code, followed by a dash (-), followed by a delivery point zip-code which can be 0, 5, 9 or 11 digits in length. For example all of the following inputs are valid data entries: "01234567094987654321" "01234567094987654321-01234" "01234567094987654321-012345678" "01234567094987654321-01234567891" 6.5.5 Japanese Postal Code -------------------------- Used for address data on mail items for Japan Post. Accepted values are 0-9, A-Z and Dash (-). A modulo 19 check digit is added by Zint. 6.6 Two-Dimensional Matrix Symbols ---------------------------------- 6.6.1 Data Matrix ECC200 (ISO 16022) ------------------------------------ Also known as Semacode this symbology was developed in 1989 by Acuity CiMatrix in partnership with the US DoD and NASA. The symbol can encode a large amount of data in a small area. Data Matrix ECC200 can encode characters in the Latin-1 set by default but also supports encoding using other character sets using the ECI mechanism. It can also encode GS1 data. The size of the generated symbol can also be adjusted using the --vers= option or by setting option_2 as shown in the table below. A separate symbology ID can be used to encode Health Industry Barcode (HIBC) data which adds a leading '+' character and a modulo-49 check digit to the encoded data. Note that only ECC200 encoding is supported, the older standards have now been removed from Zint. --------------------- Input | Symbol Size --------------------- 1 | 10 x 10 2 | 12 x 12 3 | 14 x 14 4 | 16 x 16 5 | 18 x 18 6 | 20 x 20 7 | 22 x 22 8 | 24 x 24 9 | 26 x 26 10 | 32 x 32 11 | 36 x 36 12 | 40 x 40 13 | 44 x 44 14 | 48 x 48 15 | 52 x 52 16 | 64 x 64 17 | 72 x 72 18 | 80 x 80 19 | 88 x 88 20 | 96 x 96 21 | 104 x 104 22 | 120 x 120 23 | 132 x 132 24 | 144 x 144 25 | 8 x 18 26 | 8 x 32 28 | 12 x 26 28 | 12 x 36 29 | 16 x 36 30 | 16 x 48 --------------------- When using automatic symbol sizes you can force Zint to use square symbols (versions 1-24) at the command line by using the option --square and when using the API by setting the value option_3 = DM_SQUARE. Data Matrix Rectangular Extension (DMRE) codes may be generated with the following values as before: --------------------- Input | Symbol Size --------------------- 31 | 8 x 48 32 | 8 x 64 33 | 12 x 64 34 | 16 x 64 35 | 24 x 48 36 | 24 x 64 37 | 26 x 48 38 | 26 x 64 --------------------- DMRE symbol sizes may be activated in automatic size mode using the option --dmre or by the API option_3 = DM_DMRE 6.6.2 QR Code (ISO 18004) ------------------------- Also known as Quick Response Code this symbology was developed by Denso. Four levels of error correction are available using the --secure= option or by setting option_1 as shown in the following table. ------------------------------------------------------------------------- Input | ECC Level | Error Correction Capacity | Recovery Capacity ------------------------------------------------------------------------- 1 | L (default) | Approx 20% of symbol | Approx 7% 2 | M | Approx 37% of symbol | Approx 15% 3 | Q | Approx 55% of symbol | Approx 25% 4 | H | Approx 65% of symbol | Approx 30% ------------------------------------------------------------------------- The size of the symbol can be set by using the --vers= option or setting option_2 to the QR Code version required (1-40). The size of symbol generated is shown in the table below. --------------------- Input | Symbol Size --------------------- 1 | 21 x 21 2 | 25 x 25 3 | 29 x 29 4 | 33 x 33 5 | 37 x 37 6 | 41 x 41 7 | 45 x 45 8 | 49 x 49 9 | 53 x 53 10 | 57 x 57 11 | 61 x 61 12 | 65 x 65 13 | 69 x 69 14 | 73 x 73 15 | 77 x 77 16 | 81 x 81 17 | 85 x 85 18 | 89 x 89 19 | 93 x 93 20 | 97 x 97 21 | 101 x 101 22 | 105 x 105 23 | 109 x 109 24 | 113 x 113 25 | 117 x 117 26 | 121 x 121 28 | 125 x 125 28 | 129 x 129 29 | 133 x 133 30 | 137 x 137 31 | 141 x 141 32 | 145 x 145 33 | 149 x 149 34 | 153 x 153 35 | 157 x 157 36 | 161 x 161 38 | 165 x 165 38 | 169 x 169 39 | 173 x 173 40 | 177 x 177 --------------------- The maximum capacity of a (version 40) QR Code symbol is 7089 numeric digits, 4296 alphanumeric characters or 2953 bytes of data. QR Code symbols can also be used to encode GS1 data. QR Code symbols can by default encode characters in the Latin-1 set and Kanji characters which are members of the Shift-JIS encoding scheme. In addition QR Code supports using other character sets using the ECI mechanism. Input should usually be entered as Unicode (UTF-8) with conversion to Shift-JIS being carried out by Zint. A separate symbology ID can be used to encode Health Industry Barcode (HIBC) data which adds a leading '+' character and a modulo-49 check digit to the encoded data. 6.6.3 Micro QR Code (ISO 18004) ------------------------------- A miniature version of the QR Code symbol for short messages. ECC levels can be selected as for QR Code (above). QR Code symbols can encode characters in the Latin-1 set and Kanji characters which are members of the Shift-JIS encoding scheme. Input should be entered as a UTF-8 stream with conversion to Shift-JIS being carried out automatically by Zint. A preferred symbol size can be selected by using the --vers= option or by setting option_2 although the actual version used by Zint may be different if required by the input data. The table below shows the possible sizes: --------------------------------- Input | Version | Symbol Size --------------------------------- 1 | M1 | 11 x 11 2 | M2 | 13 x 13 3 | M3 | 15 x 15 4 | M4 | 17 x 17 --------------------------------- 6.6.4 UPNQR (Univerzalnega Plačilnega Naloga QR) ------------------------------------------------ A variation of QR Code used by Združenje Bank Slovenije (Bank Association of Slovenia). The size, error correction level and ECI are set by Zint and do not need to be specified. UPNQR is unusual in that it uses ISO-8859-2 formatted data. Zint will accept UTF-8 data and convert it to ISO-8859-2, or if your data is already ISO-8859-2 formatted use the --binary switch or if using the API set symbol->input_mode = DATA MODE; The following example creates a symbol from data saved as an ISO-8859-2 file: zint -o upnqr.png -b 143 --border=5 --scale=3 --binary -i ./upn.txt 6.6.5 Maxicode (ISO 16023) -------------------------- Developed by UPS the Maxicode symbology employs a grid of hexagons surrounding a 'bulls-eye' finder pattern. This symbology is designed for the identification of parcels. Maxicode symbols can be encoded in one of five modes. In modes 2 and 3 Maxicode symbols are composed of two parts named the primary and secondary messages. The primary message consists of a structured data field which includes various data about the package being sent and the secondary message usually consists of address data in a data structure. The format of the primary message required by Zint is given in the following table: ---------------------------------------------------------------------------- Characters | Meaning ---------------------------------------------------------------------------- 1 - 9 | Postcode data which can consist of up to 9 digits (for mode 2) | or up to 6 alphanumeric characters (for mode 3). Remaining | unused characters should be filled with the SPACE character | (ASCII 32). 10 - 12 | Three digit country code according to ISO 3166 (see Appendix B) 13 - 15 | Three digit service code. This depends on your parcel courier. ---------------------------------------------------------------------------- The primary message can be set at the command prompt using the --primary= switch. The secondary message uses the normal data entry method. For example: zint -o test.eps -b 57 --primary='999999999840012' -d 'Secondary Message Here' When using the API the primary message must be placed in the symbol->primary string. The secondary is entered in the same way as described in section 5.2. When either of these modes is selected Zint will analyse the primary message and select either mode 2 or mode 3 as appropriate. Modes 4 to 6 can be accessed using the --mode= switch or by setting option_1. Modes 4 to 6 do not require a primary message. For example: zint -o test.eps -b 57 --mode=4 -d 'A MaxiCode Message in Mode 4' Mode 6 is reserved for the maintenance of scanner hardware and should not be used to encode user data. This symbology uses Latin-1 character encoding by default but also supports the ECI encoding mechanism. The maximum length of text which can be placed in a Maxicode symbol depends on the type of characters used in the text. Example maximum data lengths are given in the table below: ----------------------------------------------------------------------------- Mode | Maximum Data Lenth | Maximum Data Length | Number of Error | for Capital Letters | for Numeric Digits | Correction Codewords ----------------------------------------------------------------------------- 2* | 84 | 126 | 50 3* | 84 | 126 | 50 4 | 93 | 135 | 50 5 | 77 | 110 | 66 6 | 93 | 135 | 50 ----------------------------------------------------------------------------- * - secondary only 6.6.6 Aztec Code (ISO 24778) ---------------------------- Invented by Andrew Longacre at Welch Allyn Inc in 1995 the Aztec Code symbol is a matrix symbol with a distinctive bulls-eye finder pattern. Zint can generate Compact Aztec Code (sometimes called Small Aztec Code) as well as "full-range" Aztec Code symbols and by default will automatically select symbol type and size dependent on the length of the data to be encoded. Error correction codewords will normally be generated to fill at least 23% of the symbol. Two options are available to change this behaviour: The size of the symbol can be specified using the --ver= option or setting option_2 to a value between 1 and 36 according to the following table. The symbols marked with an asterisk (*) in the table below are "compact" symbols, meaning they have a smaller bulls-eye pattern at the centre of the symbol. --------------------- Input | Symbol Size --------------------- 1 | 15 x 15* 2 | 19 x 19* 3 | 23 x 23* 4 | 27 x 27* 5 | 19 x 19 6 | 23 x 23 7 | 27 x 27 8 | 31 x 31 9 | 37 x 37 10 | 41 x 41 11 | 45 x 45 12 | 49 x 49 13 | 53 x 53 14 | 57 x 57 15 | 61 x 61 16 | 67 x 67 17 | 71 x 71 18 | 75 x 75 19 | 79 x 79 20 | 83 x 83 21 | 87 x 87 22 | 91 x 91 23 | 95 x 95 24 | 101 x 101 25 | 105 x 105 26 | 109 x 109 28 | 113 x 113 28 | 117 x 117 29 | 121 x 121 30 | 125 x 125 31 | 131 x 131 32 | 135 x 135 33 | 139 x 139 34 | 143 x 143 35 | 147 x 147 36 | 151 x 151 --------------------- Note that in symbols which have a specified size the amount of error correction is dependent on the length of the data input and Zint will allow error correction capacities as low as 3 codewords. Alternatively the amount of error correction data can be specified by use of the --mode= option or by setting option_1 to a value from the following table: ---------------------------------- Mode | Error Correction Capacity ---------------------------------- 1 | >10% + 3 codewords 2 | >23% + 3 codewords 3 | >36% + 3 codewords 4 | >50% + 3 codewords ---------------------------------- It is not possible to select both symbol size and error correction capacity for the same symbol. If both options are selected then the error correction capacity selection will be ignored. Aztec Code supports ECI encoding and can encode up to a maximum length of approximately 3823 numeric or 3067 alphabetic characters or 1914 bytes of data. A separate symbology ID can be used to encode Health Industry Barcode (HIBC) data which adds a leading '+' character and a modulo-49 check digit to the encoded data. 6.6.7 Aztec Runes ----------------- A truncated version of compact Aztec Code for encoding whole integers between 0 and 255. Includes Reed-Solomon error correction. As defined in ISO/IEC 24778 Annex A. 6.6.8 Code One -------------- A matrix symbology developed by Ted Williams in 1992 which encodes data in a way similar to Data Matrix ECC200. Code One is able to encode the Latin-1 character set or GS1 data. There are two types of Code One symbol - variable height symbols which are roughly square (versions A thought to H) and fixed-height versions (version S and T). These can be selected by using --vers= or setting option_2 as shown in the table below: -------------------------------------------------------------------- Input | Version | Size | Numeric | Alphanumeric | | | Data Capacity | Data Capacity -------------------------------------------------------------------- 1 | A | 16 x 18 | 22 | 13 2 | B | 22 x 22 | 44 | 27 3 | C | 28 x 28 | 104 | 64 4 | D | 40 x 42 | 217 | 135 5 | E | 52 x 54 | 435 | 271 6 | F | 70 x 76 | 886 | 553 7 | G | 104 x 98 | 1755 | 1096 8 | H | 148 x 134 | 3550 | 2218 9 | S | 8X height | 18 | N/A 10 | T | 16X height | 90 | 55 -------------------------------------------------------------------- Version S symbols can only encode numeric data. The width of version S and version T symbols is determined by the length of the input data. 6.6.9 Grid Matrix ----------------- By default Grid Matrix supports encoding in Latin-1 and Chinese characters within the GB 2312 standard set to be encoded in a checkerboard pattern. Input should be entered as Unicode (UTF-8) with conversion to GB 2312 being carried out automatically by Zint. The symbology also supports the ECI mechanism. The size of the symbol and the error correction capacity can be specified. If you specify both of these values then Zint will make a 'best-fit' attempt to satisfy both conditions. The symbol size can be specified using the --ver= option or by setting option_2, and the error correction capacity can be specified by using the --secure= option or by setting option_1 according to the following tables: --------------------- Input | Symbol Size --------------------- 1 | 18 x 18 2 | 30 x 30 3 | 42 x 42 4 | 54 x 54 5 | 66 x 66 6 | 78 x 78 7 | 90 x 90 8 | 102 x 102 9 | 114 x 114 10 | 126 x 126 11 | 138 x 138 12 | 150 x 150 13 | 162 x 162 --------------------- ---------------------------------- Mode | Error Correction Capacity ---------------------------------- 1 | Approximately 10% 2 | Approximately 20% 3 | Approximately 30% 4 | Approximately 40% 5 | Approximately 50% ---------------------------------- 6.6.10 DotCode ------------- DotCode uses a grid of dots in a rectangular formation to encode characters up to a maximum of approximately 450 characters (or 900 numeric digits). The symbology supports ECI encoding and GS-1 data encoding. By default Zint will produce a symbol which is approximately square, however the width of the symbol can be adjusted by using the --cols= option or by setting option_2. Outputting DotCode to raster images (PNG, GIF, BMP, PCX) will require setting the scale of the image to a larger value than the default (e.g. approx 10) for the dots to be plotted correctly. Approximately 33% of the resulting symbol is comprised of error correction codewords. 6.6.11 Han Xin Code ------------------- Also known as Chinese Sensible Code, Han Xin is a symbology which is still under development, so it is recommended it should not yet be used for a production environment. The symbology is capable of encoding characters in the GB18030 character set (up to 4-byte characters) and is also able to support the ECI mechanism. Han Xin does not support the encoding of GS-1 data. The size of the symbol can be specified using the --ver= option or setting option_2 to a value between 1 and 84 according to the following table. --------------------- Input | Symbol Size --------------------- 1 | 23 x 23 2 | 25 x 25 3 | 27 x 27 4 | 29 x 29 5 | 31 x 31 6 | 33 x 33 7 | 35 x 35 8 | 37 x 37 9 | 39 x 39 10 | 41 x 41 11 | 43 x 43 12 | 45 x 45 13 | 47 x 47 14 | 49 x 49 15 | 51 x 51 16 | 53 x 53 17 | 55 x 55 18 | 57 x 57 19 | 59 x 59 20 | 61 x 61 21 | 63 x 63 22 | 65 x 65 23 | 67 x 67 24 | 69 x 69 25 | 71 x 71 26 | 73 x 73 28 | 75 x 75 28 | 77 x 77 29 | 79 x 79 30 | 81 x 81 31 | 83 x 83 32 | 85 x 85 33 | 87 x 87 34 | 89 x 89 35 | 91 x 91 36 | 93 x 93 37 | 95 x 95 38 | 97 x 97 39 | 99 x 99 40 | 101 x 101 41 | 103 x 103 42 | 105 x 105 43 | 107 x 107 44 | 109 x 109 45 | 111 x 111 46 | 113 x 113 47 | 115 x 115 48 | 117 x 117 49 | 119 x 119 50 | 121 x 121 51 | 123 x 123 52 | 125 x 125 53 | 127 x 127 54 | 129 x 129 55 | 131 x 131 56 | 133 x 133 57 | 135 x 135 58 | 137 x 137 59 | 139 x 139 60 | 141 x 141 61 | 143 x 143 62 | 145 x 145 63 | 147 x 147 64 | 149 x 149 65 | 151 x 151 66 | 153 x 153 67 | 155 x 155 68 | 157 x 157 69 | 159 x 159 70 | 161 x 161 71 | 163 x 163 72 | 165 x 165 73 | 167 x 167 74 | 169 x 169 75 | 171 x 171 76 | 173 x 173 77 | 175 x 175 78 | 177 x 177 79 | 179 x 179 80 | 181 x 181 81 | 183 x 183 82 | 185 x 185 83 | 187 x 187 84 | 189 x 189 --------------------- There are four levels of error correction capacity available for Han Xin Code which can be set by using the --mode= option or by setting option_1 to a value from the following table: -------------------------- Mode | Recovery Capacity -------------------------- 1 | Approx 8% 2 | Approx 15% 3 | Approx 23% 4 | Approx 30% -------------------------- It is not possible to select both symbol size and error correction capacity for the same symbol. If both options are selected then the error correction capacity selection will be ignored. 6.7 Other Barcode-Like Markings ------------------------------- 6.7.1. Facing Identification Mark (FIM) --------------------------------------- Used by the United States Postal Service (USPS), the FIM symbology is used to assist automated mail processing. There are only 4 valid symbols which can be generated using the characters A-D as shown in the table below. ---------------------------------------------------------------------------- Code Letter | Usage ---------------------------------------------------------------------------- A | Used for courtesy reply mail and metered reply mail with a | pre-printed PostNet symbol. B | Used for business reply mail without a pre-printed zip code. C | Used for business reply mail with a pre-printed zip code. D | Used for Information Based Indicia (IBI) postage. ---------------------------------------------------------------------------- 6.7.2 Flattermarken ------------------- Used for the recognition of page sequences in print-shops, the Flattermarken is not a true barcode symbol and requires precise knowledge of the position of the mark on the page. The Flattermarken system can encode any length numeric data and does not include a check digit. 6.7.3 DAFT Code --------------- This is a method for creating 4-state codes where the data encoding is provided by an external program. Input data should consist of the letters 'D', 'A', 'F' and 'T' where these refer to descender, ascender, full (ascender and descender) and tracker (neither ascender nor descender) respectively. All other characters are ignored. 7. Legal and Version Information ================================ 7.1 License ----------- Zint, libzint and Zint Barcode Studio are Copyright © 2016 Robin Stuart. All historical versions are distributed under the GNU General Public License version 3 or later. Version 2.5 is released under a dual license: the encoding library is released under the BSD license whereas the GUI, Zint Barcode Studio, is released under the GNU General Public License version 3 or later. Telepen is a trademark of SB Electronic Systems Ltd. QR Code is a registered trademark of Denso Wave Incorporated. Microsoft, Windows and the Windows logo are either registered trademarks or trademarks of Microsoft Corporation in the United States and/or other countries. Linux is the registered trademark of Linus Torvalds in the U.S. and other countries. Zint.org.uk website design and hosting provided by Robert Elliott. 7.2 Patent Issues ----------------- All of the code in Zint is developed using information in the public domain, usually freely available on the Internet. Some of the techniques used may be subject to patents and other intellectual property legislation. It is my belief that any patents involved in the technology underlying symbologies utilised by Zint are 'unadopted', that is the holder does not object to their methods being used. Any methods patented or owned by third parties or trademarks or registered trademarks used within Zint or in this document are and remain the property of their respective owners and do not indicate endorsement or affiliation with those owners, companies or organisations. 7.3 Version Information ----------------------- v0.1 - (as Zebar) Draws UPC-A. UPC-E, EAN-8, EAN-13, Interlaced 2 of 5, Codabar, Code 39, Extended Code 39 and Code 93 barcodes and Add-on codes EAN-2 and EAN-5 without parity. 13/11/2006 v0.2 - Added Code 128 (which is now the default), Code 11, Code 2 of 5, Add-on codes EAN-2 and EAN-5 parity and MSI/Plessey without check digit. 12/12/2006 v0.3 - Added MSI/Plessey Mod 10 check and 2 x Mod 10 check options, Telepen ASCII and Telepen numeric, Postnet, RM4SCC. Code has been tidied up quite a bit. Bind option added. 30/12/2006 v0.4 - Added barcode stacking (now stacks up to 16 barcodes) and Code16k (stub). 15/1/2007 v0.5 - Added Australia Post 4-State Barcodes and Pharmacode (1 and 2 track). 4-state codes now draw with correct height/width ratio. 28/2/2007 v0.6 - Added Plessey and some derivative codes (EAN-128, Code 128 subset B, Auspost Reply, Auspost Routing, Auspost Redirect, ITF-14). Tidied up code again: separated symbologies into more files and put all lookup tables into arrays (much reducing the amount of code, especially for Code 39e and Code 93). Errors now output to stderr. Added proper input verification. Distribution now packs with HTML pages instead of separate README. Outputs to PNG. Outputs colour. User variable whitespace and border width. Box option. Fixed EAN add-on bug. Added whitespace and height options. Project name changed to Zint to avoid conflict with extant trade name. Added escape character input. 1/4/2007 v1.0 - Corrected problem with escape character codes. Supports PDF417. This completes the list of features I originally wanted (plus a few more), hence skip to version 1.0. 20/4/2007 v1.1 - Added more derivatives (Code 2 of 5 Matrix, IATA and Data Logic, Truncated PDF417, Deutsche Post Leitcode and Identcode, Pharmazentralnummer, Planet) and Flattermarken. Tidied up 2 of 5 code. 26/4/2007 v1.2 - Supports Data Matrix ECC200 (by absorption of IEC16022 code by Stefan Schmidt et al). Added reverse colours, FIM, MSI/Plessey Modulo 11 and Modulo 11/10. Corrected Code 16k check digit calculation. 28/5/2007 v1.3 - Supports USPS OneCode and LOGMARS. Brought all usage information into one User Manual document. 13/6/2007 v1.4 - Added NVE-18 support. Corrected some problems with compilation and input verification. Command line option handling now uses getopt(), and all the switches have changed. Added –font option. 20/6/2007 v1.5 - Pulled everything together to make an API. Corrected errors with EAN-13, PDF417 and LOGMARS. Added EPS output. Added QR Code support using libqrencode. Corrected ISBN verification error. Re-compiled documentation in HTML form. Put in place proper error handling routines. --font option removed. Encoding is now done with a restructured zint_symbol structure. Added make install option and optional QR Code support to Makefile. Corrected minor problem with 4-State Codes. Restructured code into fewer source code files. Added MicroPDF417 support. 12/8/2007 v1.5.1 - Added formatting code to EPS output of EAN and UPC symbols according to EN 797:1996. Checked against and, where appropriate, altered or corrected to comply with ISO 16388 and ISO 15417 including Latin-1 support. Altered default image settings, added automatic ITF border. Corrected error with USPS OneCode. Tidied up Code 39 quite a bit, added Mod 43 options. 3/9/2007 v1.5.2 - Added extended ASCII support to Code 16k. Corrected Code 128 error. Added Maxicode support by integrating code by John Lien. 26/9/2007 v1.5.3 - Made huge corrections to Maxicode support by removing and re-writing much of John's code. Maxicode now supports extended ASCII and modes 4, 5 and 6. 10/10/2007 v1.5.4 - Added GS1 DataBar (Reduced Space Symbology) support. 26/11/2007 v1.5.5 - Added composite symbology support. Corrected errors with GS1-128 and PDF417/MicroPDF417 byte processing. Transferred licence to GPL version 3. 9/3/2008 v1.6 - Data Matrix ECC200, Maxicode and Australia Post now use common Reed-Solomon functions – this also fixes a bug in Maxicode error correction and replaces the last of the Lien code. Added PNG output for Maxicode symbols. Removed some useless code. Updated QR support for libqrencode v2.0.0. 22/4/2008 v1.6.1 - Major restructuring of PNG generating code: Now draws UPCA and EAN symbols properly and puts human readable text into the image. Also corrected some nasty 'never ending loop' bugs in Code 128 and check digit bugs in PostNet and Planet. 8/7/2008 v1.6.2 - Added KIX Code support and PNG image rotation. Corrected a bug affecting extended ASCII support in Code 128 and Code 16k. 28/7/2008. v2.0 beta - Added support for Aztec Code, Codablock-F, Code 32, EAN-14 and DAFT Code. Rearranged symbology numbers to match Tbarcode v8. Corrected a never ending loop bug in EAN-128. 29/9/2008 v2.0 beta r2 - Many corrections and bugfixes. (Code 11, Code 128, EAN-128, Aztec Code, Codablock-F, Code 16k, Postnet, PLANET, NVE-18, PZN, Data Matrix ECC200, Maxicode and QR Code) v2.0 - Made corrections to Aztec Code and tested output with bcTester. Added Aztec Runes, Micro QR Code and Data Matrix ECC200 ECC 000-140. Updated e-mail information. 18/11/2008 v2.1 - Reinstated Korea Post barcodes, harmonised bind and box options, moved Unicode handling into backend and added input_mode option, added size options to Data Matrix ECC200, added NULL character handling for Codablock-F, Code 128, Code 16k, Extended Code 39, Code 93, Telepen, Maxicode, Data Matrix ECC200 ECC 200, PDF417 and MicroPDF417. Added GS1 support for Code 16k, Codablock-F and Aztec Code. Added scale and direct to stdout options. Rebult Data Matrix ECC200 ECC 200 encoding algorithms to support NULL encoding and GS1 data encoding. 31/1/2009 v2.1.1 - Minor Data Matrix ECC200 bugfix and added HIBC options. 10/2/2009 v2.1.2 - Added SVG output option. Improved Japanese character support including Unicode > Shift-JIS capability. Bugfixes for Data Matrix ECC200 (missing characters at end of string) and Codablock-F (K1/K2 check digit and row indicators above row 6). 1/3/2009 v2.1.3 - Many improvements to the QZint GUI which is now renamed "Zint Barcode Studio 0.2". Added Japanese Postal Barcode, Code 49 and Channel Code and made corrections to Data Matrix ECC200 (Binary mode data compression terminates too soon), Aztec Code (Bug when automatically resizing after removing "all 0" and "all 1" codewords) and Code 128 (Extended ASCII characters become corrupt). 19/5/2009 v2.1.4 - Many stability improvements including removal of buffer overruns in Code 39, LOGMARS, PZN, Aztec Code and Composite CC-A. Addition of files for compiling on MS Windows platform - tested successfully on XP and Vista. 19/6/2009 v2.2 - Added Code One and GS1 support in Code 49. Changed GUI binary name to zint-qt and brought GUI up to version 1.0. Made some minor bugfixes to Code 39, ITF-14, Aztec Code, Code 128 and Code 16K. Added 'rest' button to GUI. Included .spec file from Radist. 18/7/2009 v2.2.1 - Data encoding bugfixes for Aztec Code, Data Matrix ECC200, USPS One Code and PDF417. Symbol plotting bugfixes for MicroPDF417 and 2D components of composite symbols. Text formatting bugfix for Qt renderer and a couple of compiler fixes for MSVC PNG image output. 6/8/2009 v2.2.2 - A beta release previewing the new API structure. Better NULL character support with "nullchar" value removed. Added loading from file and sequence dialogs in Barcode Studio. 29/9/2009 v2.3 - Fixed problems with Micro QR Code and rebuilt QR Code support removing dependence on libqrencode. Improved Kanji character support for QR Code and Micro QR Code which now auto-detects and automatically converts to Shift-JIS. Added Grid Matrix symbology with Kanji character support and automatic conversion to GB 2312. Removed no_qr compile option. Advanced Barcode Studio version number to match library version number. 23/11/2009 v2.3.1 - Removed Codablock-F. Redesigned scale function so that human readable text and Maxicode symbols can be scaled consistently. Corrected encoding bugs with Code 128/Code 16k and Data Matrix ECC200 ECC 050. Added --notext option to CLI. 7/3/2010 v2.3.2 - Corrected many bugs in GS1 DataBar Extended thanks to the careful study of the code by Pablo Orduña at the PIRAmIDE project. Similarly corrected some bugs in Maxicode thanks to Monica Swanson at Source Technologies. Also minor bugfixes for ISBN and Aztec Code, and added some small features like a --square option in the CLI. 29/5/2010 v2.4 - Built extensions to the API for integrating with glabels with thanks to Sam Lown and Jim Evins. Added code optimisation and input from stdin thanks to Ismael Luceno. Reinstated escape character input. Simplification of Barcode Studio. 13/9/2010 v2.4.1 & 2.4.2 – A whole host of bugfixes including correction of ECC routines for Code-1 and addition of batch processing at the command line. 19/4/2011 & 4/5/2011 v2.4.3 - Includes minor bugfixes 16/5/2011 v2.5 – Support for DotCode and Han Xin code. ECI code processing. Output to BMP, GIF and PCX. Added bold text option. Many minor bugfixes and improvements. 13/11/2016 v2.6 - Output to EMF and TIF. Update frontend to Qt5. Copy to clipboard on KDE and Windows. 12/5/2017 7.4 Sources of Information -------------------------- Below is a list of some of the sources used in rough chronological order: Nick Johnson's Barcode Specifications Bar Code 1 Specification Source Page SB Electronic Systems Telepen website Pharmacode specifications from Laetus Morovia RM4SCC specification Austalia Post's 'A Guide to Printing the 4-State Barcode' and bcsample source code Plessey algorithm from GNU-Barcode v0.98 by Leonid A. Broukhis GS1 General Specifications v 8.0 Issue 2 PNG: The Definitive Guide and wpng source code by Greg Reolofs PDF417 specification and pdf417 source code by Grand Zebu Barcode Reference, TBarCode/X User Documentation and TBarCode/X demonstration program from Tec-It IEC16022 source code by Stefan Schmidt et al United States Postal Service Specification USPS-B-3200 Adobe Systems Incorporated Encapsulated PostScript File Format Specification BSI Online Library Libdmtx Data Matrix ECC200 decoding library 7.5 Standard Compliance ----------------------- Zint was developed to provide compliance with the following British and international standards: > BS EN 797:1996 Bar coding - Symbology specifications - 'EAN/UPC' > BS EN 798:1996 Bar coding - Symbology specifications - 'Codabar' > ISO/IEC 12323:2005 AIDC technologies - Symbology specifications - Code 16K > ISO/IEC 15417:2007 Information technology - Automatic identification and data capture techniques - Code 128 bar code symbology specification > ISO/IEC 15438:20062015 Information technology - Automatic identification and data capture techniques - PDF417 bar code symbology specification > ISO/IEC 16022:2006 Information technology - Automatic identification and data capture techniques - Data Matrix ECC200 bar code symbology specification > ISO/IEC 16023:2000 Information technology - International symbology specification – Maxicode > ISO/IEC 16388:2007 Information technology - Automatic identification and data capture techniques - Code 39 bar code symbology specification > ISO/IEC 18004:2015 Information technology - Automatic identification and data capture techniques - QR Code bar code symbology specification > ISO/IEC 24723:2010 Information technology - Automatic identification and data capture techniques - GS1 Composite bar code symbology specification > ISO/IEC 24724:2011 Information technology - Automatic identification and data capture techniques - GS1 DataBar bar code symbology specification > ISO/IEC 24728:2006 Information technology - Automatic identification and data capture techniques - MicroPDF417 bar code symbology specification > ISO/IEC 24778:2008 Information technology - Automatic identification and data capture techniques - Aztec Code bar code symbology specification > Uniform Symbology Specification Code One (AIM Inc., 1994) > ANSI/AIM BC12-1998 - Uniform Symbology Specification Channel Code > ANSI/AIM BC6-2000 - Uniform Symbology Specification Code 49 > ANSI/HIBC 2.3-2009 - The Health Industry Bar Code (HIBC) Supplier Labeling Standard > AIM ISS-X-24 - Uniform Symbology Specification Codablock F > AIMD013 (v 1.34a) – Information technology – Automaic identification and data capture techniques – Bar code symbology specification – DotCode (Revised 19th Feb 2009) > AIMD014 (v 1.63) - Information technology, Automatic identification and data capture techniques - Bar code symbology specification - Grid Matrix (Released 9th Dec 2008) > AIMD-015:2010 (v 0.8) – DRAFT Bar code symbology specification – Han Xin Code (Revised 25th March 2010) > GS1 General Specifications Version 8.0 > AIM ITS/04-001 International Technical Standard – Extended Channel Interpretations Part 1: Identification Schemes and Protocol (Released 24th May 2004) > AIM ITS/04-023 International Technical Standard – Extended Channel Interpretations Part 3: Register (Released 15th July 2004) A. Character Encoding ===================== This section is intended as a quick reference to the character sets used by Zint. All symbologies use standard ASCII input as shown in section A.1, but some support extended character support as shown in the subsequent section. A.1 ASCII Standard ------------------ The ubiquitous ASCII standard is well known to most computer users. It's reproduced here for reference. ------------------------------------------------------------- Hex | 0 | 1 | 2 | 3 | 4 | 5 | 6 | 7 ------------------------------------------------------------- 0 | NULL | DLE | SPACE | 0 | @ | P | ` | p 1 | SOH | DC1 | ! | 1 | A | Q | a | q 2 | STX | DC2 | " | 2 | B | R | b | r 3 | ETX | DC3 | # | 3 | C | S | c | s 4 | EOT | DC4 | $ | 4 | D | T | d | t 5 | ENQ | NAK | % | 5 | E | U | e | u 6 | ACK | SYN | & | 6 | F | V | f | v 7 | BEL | ETB | ' | 7 | G | W | g | w 8 | BS | CAN | ( | 8 | H | X | h | x 9 | TAB | EM | ) | 9 | I | Y | i | y A | LF | SUB | * | : | J | Z | j | z B | VT | ESC | + | ; | K | [ | k | { C | FF | FS | , | < | L | \ | l | | D | CR | GS | - | = | M | ] | m | } E | SO | RS | . | > | N | ^ | n | ~ F | SI | US | / | ? | O | _ | o | DEL ------------------------------------------------------------- A.2 Latin Alphabet No 1 (ISO 8859-1) ------------------------------------ A common extension to the ASCII standard, Latin-1 is used to expand the range of Code 128, PDF417 and other symbols. Input strings should be in Unicode format ------------------------------------------------------ Hex | 8 | 9 | A | B | C | D | E | F ------------------------------------------------------ 0 | | | NBSP | ° | À | Ð | à | ð 1 | | | ¡ | ± | Á | Ñ | á | ñ 2 | | | ¢ | ² | Â | Ò | â | ò 3 | | | £ | ³ | Ã | Ó | ã | ó 4 | | | ¤ | ´ | Ä | Ô | ä | ô 5 | | | ¥ | μ | Å | Õ | å | õ 6 | | | ¦ | ¶ | Æ | Ö | æ | ö 7 | | | § | · | Ç | × | ç | ÷ 8 | | | ¨ | ¸ | È | Ø | è | ø 9 | | | © | ¹ | É | Ù | é | ù A | | | ª | º | Ê | Ú | ê | ú B | | | « | » | Ë | Û | ë | û C | | | ¬ | ¼ | Ì | Ü | ì | ü D | | | SHY | ½ | Í | Ý | í | ý E | | | ® | ¾ | Î | Þ | î | þ F | | | ¯ | ¿ | Ï | ß | î | ÿ ------------------------------------------------------ B. Three Digit Country Codes (ISO 3166) --------------------------------------- Below are some of the three digit country codes (in right-hand column) as determined by ISO 3166 for use with Maxicode symbols. Country A 2 A 3 Number ---------------------------------------------------------------------- AALAND ISLANDS AX ALA 248 AFGHANISTAN AF AFG 004 ALBANIA AL ALB 008 ALGERIA DZ DZA 012 AMERICAN SAMOA AS ASM 016 ANDORRA AD AND 020 ANGOLA AO AGO 024 ANGUILLA AI AIA 660 ANTARCTICA AQ ATA 010 ANTIGUA AND BARBUDA AG ATG 028 ARGENTINA AR ARG 032 ARMENIA AM ARM 051 ARUBA AW ABW 533 AUSTRALIA AU AUS 036 AUSTRIA AT AUT 040 AZERBAIJAN AZ AZE 031 BAHAMAS BS BHS 044 BAHRAIN BH BHR 048 BANGLADESH BD BGD 050 BARBADOS BB BRB 052 BELARUS BY BLR 112 BELGIUM BE BEL 056 BELIZE BZ BLZ 084 BENIN BJ BEN 204 BERMUDA BM BMU 060 BHUTAN BT BTN 064 BOLIVIA BO BOL 068 BOSNIA AND HERZEGOWINA BA BIH 070 BOTSWANA BW BWA 072 BOUVET ISLAND BV BVT 074 BRAZIL BR BRA 076 BRITISH INDIAN OCEAN TERRITORY IO IOT 086 BRUNEI DARUSSALAM BN BRN 096 BULGARIA BG BGR 100 BURKINA FASO BF BFA 854 BURUNDI BI BDI 108 CAMBODIA KH KHM 116 CAMEROON CM CMR 120 CANADA CA CAN 124 CAPE VERDE CV CPV 132 CAYMAN ISLANDS KY CYM 136 CENTRAL AFRICAN REPUBLIC CF CAF 140 CHAD TD TCD 148 CHILE CL CHL 152 CHINA CN CHN 156 CHRISTMAS ISLAND CX CXR 162 COCOS (KEELING) ISLANDS CC CCK 166 COLOMBIA CO COL 170 COMOROS KM COM 174 CONGO, Democratic Republic of (was Zaire) CD COD 180 CONGO, Republic of CG COG 178 COOK ISLANDS CK COK 184 COSTA RICA CR CRI 188 COTE D'IVOIRE CI CIV 384 CROATIA (local name: Hrvatska) HR HRV 191 CUBA CU CUB 192 CYPRUS CY CYP 196 CZECH REPUBLIC CZ CZE 203 DENMARK DK DNK 208 DJIBOUTI DJ DJI 262 DOMINICA DM DMA 212 DOMINICAN REPUBLIC DO DOM 214 ECUADOR EC ECU 218 EGYPT EG EGY 818 EL SALVADOR SV SLV 222 EQUATORIAL GUINEA GQ GNQ 226 ERITREA ER ERI 232 ESTONIA EE EST 233 ETHIOPIA ET ETH 231 FALKLAND ISLANDS (MALVINAS) FK FLK 238 FAROE ISLANDS FO FRO 234 FIJI FJ FJI 242 FINLAND FI FIN 246 FRANCE FR FRA 250 FRENCH GUIANA GF GUF 254 FRENCH POLYNESIA PF PYF 258 FRENCH SOUTHERN TERRITORIES TF ATF 260 GABON GA GAB 266 GAMBIA GM GMB 270 GEORGIA GE GEO 268 GERMANY DE DEU 276 GHANA GH GHA 288 GIBRALTAR GI GIB 292 GREECE GR GRC 300 GREENLAND GL GRL 304 GRENADA GD GRD 308 GUADELOUPE GP GLP 312 GUAM GU GUM 316 GUATEMALA GT GTM 320 GUINEA GN GIN 324 GUINEA-BISSAU GW GNB 624 GUYANA GY GUY 328 HAITI HT HTI 332 HEARD AND MC DONALD ISLANDS HM HMD 334 HONDURAS HN HND 340 HONG KONG HK HKG 344 HUNGARY HU HUN 348 ICELAND IS ISL 352 INDIA IN IND 356 INDONESIA ID IDN 360 IRAN (ISLAMIC REPUBLIC OF) IR IRN 364 IRAQ IQ IRQ 368 IRELAND IE IRL 372 ISRAEL IL ISR 376 ITALY IT ITA 380 JAMAICA JM JAM 388 JAPAN JP JPN 392 JORDAN JO JOR 400 KAZAKHSTAN KZ KAZ 398 KENYA KE KEN 404 KIRIBATI KI KIR 296 KOREA, DEMOCRATIC PEOPLE'S REPUBLIC OF KP PRK 408 KOREA, REPUBLIC OF KR KOR 410 KUWAIT KW KWT 414 KYRGYZSTAN KG KGZ 417 LAO PEOPLE'S DEMOCRATIC REPUBLIC LA LAO 418 LATVIA LV LVA 428 LEBANON LB LBN 422 LESOTHO LS LSO 426 LIBERIA LR LBR 430 LIBYAN ARAB JAMAHIRIYA LY LBY 434 LIECHTENSTEIN LI LIE 438 LITHUANIA LT LTU 440 LUXEMBOURG LU LUX 442 MACAU MO MAC 446 MACEDONIA, THE FORMER YUGOSLAV REPUBLIC OF MK MKD 807 MADAGASCAR MG MDG 450 MALAWI MW MWI 454 MALAYSIA MY MYS 458 MALDIVES MV MDV 462 MALI ML MLI 466 MALTA MT MLT 470 MARSHALL ISLANDS MH MHL 584 MARTINIQUE MQ MTQ 474 MAURITANIA MR MRT 478 MAURITIUS MU MUS 480 MAYOTTE YT MYT 175 MEXICO MX MEX 484 MICRONESIA, FEDERATED STATES OF FM FSM 583 MOLDOVA, REPUBLIC OF MD MDA 498 MONACO MC MCO 492 MONGOLIA MN MNG 496 MONTSERRAT MS MSR 500 MOROCCO MA MAR 504 MOZAMBIQUE MZ MOZ 508 MYANMAR MM MMR 104 NAMIBIA NA NAM 516 NAURU NR NRU 520 NEPAL NP NPL 524 NETHERLANDS NL NLD 528 NETHERLANDS ANTILLES AN ANT 530 NEW CALEDONIA NC NCL 540 NEW ZEALAND NZ NZL 554 NICARAGUA NI NIC 558 NIGER NE NER 562 NIGERIA NG NGA 566 NIUE NU NIU 570 NORFOLK ISLAND NF NFK 574 NORTHERN MARIANA ISLANDS MP MNP 580 NORWAY NO NOR 578 OMAN OM OMN 512 PAKISTAN PK PAK 586 PALAU PW PLW 585 PALESTINIAN TERRITORY, Occupied PS PSE 275 PANAMA PA PAN 591 PAPUA NEW GUINEA PG PNG 598 PARAGUAY PY PRY 600 PERU PE PER 604 PHILIPPINES PH PHL 608 PITCAIRN PN PCN 612 POLAND PL POL 616 PORTUGAL PT PRT 620 PUERTO RICO PR PRI 630 QATAR QA QAT 634 REUNION RE REU 638 ROMANIA RO ROU 642 RUSSIAN FEDERATION RU RUS 643 RWANDA RW RWA 646 SAINT HELENA SH SHN 654 SAINT KITTS AND NEVIS KN KNA 659 SAINT LUCIA LC LCA 662 SAINT PIERRE AND MIQUELON PM SPM 666 SAINT VINCENT AND THE GRENADINES VC VCT 670 SAMOA WS WSM 882 SAN MARINO SM SMR 674 SAO TOME AND PRINCIPE ST STP 678 SAUDI ARABIA SA SAU 682 SENEGAL SN SEN 686 SERBIA AND MONTENEGRO CS SCG 891 SEYCHELLES SC SYC 690 SIERRA LEONE SL SLE 694 SINGAPORE SG SGP 702 SLOVAKIA SK SVK 703 SLOVENIA SI SVN 705 SOLOMON ISLANDS SB SLB 090 SOMALIA SO SOM 706 SOUTH AFRICA ZA ZAF 710 SOUTH GEORGIA AND THE SOUTH SANDWICH ISLANDS GS SGS 239 SPAIN ES ESP 724 SRI LANKA LK LKA 144 SUDAN SD SDN 736 SURINAME SR SUR 740 SVALBARD AND JAN MAYEN ISLANDS SJ SJM 744 SWAZILAND SZ SWZ 748 SWEDEN SE SWE 752 SWITZERLAND CH CHE 756 SYRIAN ARAB REPUBLIC SY SYR 760 TAIWAN TW TWN 158 TAJIKISTAN TJ TJK 762 TANZANIA, UNITED REPUBLIC OF TZ TZA 834 THAILAND TH THA 764 TIMOR-LESTE TL TLS 626 TOGO TG TGO 768 TOKELAU TK TKL 772 TONGA TO TON 776 TRINIDAD AND TOBAGO TT TTO 780 TUNISIA TN TUN 788 TURKEY TR TUR 792 TURKMENISTAN TM TKM 795 TURKS AND CAICOS ISLANDS TC TCA 796 TUVALU TV TUV 798 UGANDA UG UGA 800 UKRAINE UA UKR 804 UNITED ARAB EMIRATES AE ARE 784 UNITED KINGDOM GB GBR 826 UNITED STATES US USA 840 UNITED STATES MINOR OUTLYING ISLANDS UM UMI 581 URUGUAY UY URY 858 UZBEKISTAN UZ UZB 860 VANUATU VU VUT 548 VATICAN CITY STATE (HOLY SEE) VA VAT 336 VENEZUELA VE VEN 862 VIET NAM VN VNM 704 VIRGIN ISLANDS (BRITISH) VG VGB 092 VIRGIN ISLANDS (U.S.) VI VIR 850 WALLIS AND FUTUNA ISLANDS WF WLF 876 WESTERN SAHARA EH ESH 732 YEMEN YE YEM 887 ZAMBIA ZM ZMB 894 ZIMBABWE ZW ZWE 716 C. GS1 General Specification ---------------------------- The GS1 General Specification defines a global standard for encoding data about products. Data is encoded as a series of number pairs where the first number, usually shown in (brackets) is an application identifier (AI), and the second is a formatted representation of the data. For example (21)6773 can be read as "Serial Number 6773" where the AI (21) signifies that the data is a serial number. Note that when using Zint AI data is entered using [square] brackets. This allows rounded brackets to be included in the data which is allowed by the specification. When the barcode symbol is generated these square brackets are replaced by rounded brackets in any text displayed. A list of valid AI numbers is given below. C.1 Application Identifiers [1] --------------------------- 00 Serial Shipping Container Code (SSCC) 01 Global Trade Item Number (GTIN) 02 # of containers 10 Batch Number 11 Production Date 13 Packaging Date 15 Sell by Date (Quality Control) 17 Expiration Date 20 Product Variant 21 Serial Number 22 HIBCC Quantity, Date, Batch and Link 23x Lot Number 240 Additional Product Identification 250 Second Serial Number 30 Quantity Each 310y Product Net Weight in kg 311y Product Length/1st Dimension, in meters 312y Product Width/Diameter/2nd Dimension, in meters 313y Product Depth/Thickness/3rd Dimension, in meters 314y Product Area, in square meters 315y Product Volume, in liters 316y product Volume, in cubic meters 320y Product Net Weight, in pounds 321y Product Length/1st Dimension, in inches 322y Product Length/1st Dimension, in feet 323y Product Length/1st Dimension, in yards 324y Product Width/Diameter/2nd Dimension, in inches 325y Product Width/Diameter/2nd Dimension, in feet 326y Product Width/Diameter/2nd Dimension, in yards 327y Product Depth/Thickness/3rd Dimension, in inches 328y Product Depth/Thickness/3rd Dimension, in feet 329y Product Depth/Thickness/3rd Dimension, in yards 330y Container Gross Weight (kg) 331y Container Length/1st Dimension (Meters) 332y Container Width/Diameter/2nd Dimension (Meters) 333y Container Depth/Thickness/3rd Dimension (Meters) 334y Container Area (Square Meters) 335y Container Gross Volume (Liters) 336y Container Gross Volume (Cubic Meters) 340y Container Gross Weight (Pounds) 341y Container Length/1st Dimension, in inches 342y Container Length/1st Dimension, in feet 343y Container Length/1st Dimension in, in yards 344y Container Width/Diameter/2nd Dimension, in inches 345y Container Width/Diameter/2nd Dimension, in feet 346y Container Width/Diameter/2nd Dimension, in yards 347y Container Depth/Thickness/Height/3rd Dimension, in inches 348y Container Depth/Thickness/Height/3rd Dimension, in feet 349y Container Depth/Thickness/Height/3rd Dimension, in yards 350y Product Area (Square Inches) 351y Product Area (Square Feet) 352y Product Area (Square Yards) 353y Container Area (Square Inches) 354y Container Area (Square Feet) 355y Container Area (Suqare Yards) 356y Net Weight (Troy Ounces) 360y Product Volume (Quarts) 361y Product Volume (Gallons) 362y Container Gross Volume (Quarts) 363y Container Gross Volume (Gallons) 364y Product Volume (Cubic Inches) 365y Product Volume (Cubic Feet) 366y Product Volume (Cubic Yards) 367y Container Gross Volume (Cubic Inches) 368y Container Gross Volume (Cubic Feet) 369y Container Gross Volume (Cubic Yards) 37 Number of Units Contained 400 Customer Purchase Order Number 410 Ship To/Deliver To Location Code (Global Location Number) 411 Bill To/Invoice Location Code (Global Location Number) 412 Purchase From Location Code (Global Location Number) 420 Ship To/Deliver To Postal Code (Single Postal Authority) 421 Ship To/Deliver To Postal Code (Multiple Postal Authority) 8001 Roll Products - Width/Length/Core Diameter 8002 Electronic Serial Number (ESN) for Cellular Phone 8003 Global Returnable Asset Identifier 8004 Global Individual Asset Identifier 8005 Price per Unit of Measure 8100 Coupon Extended Code: Number System and Offer 8101 Coupon Extended Code: Number System, Offer, End of Offer 8102 Coupon Extended Code: Number System preceded by 090 Mutually Agreed Between Trading Partners 91 Internal Company Codes 92 Internal Company Codes 93 Internal Company Codes 94 Internal Company Codes 95 Internal Company Codes 96 Internal Company Codes 97 Internal Company Codes 98 Internal Company Codes 99 Internal Company Codes C.2 Fixed Length Fields ----------------------- The GS1 Specification requires that some of the data to be encoded fits a standard length field. Zint will generate an error if the correct data lengths are not entered. The following table details which AIs have fixed length data fields and how long the data should be for each: ------------------------------------ Application | Number of Characters Identifier | (AI and Data Field) ------------------------------------ 00 | 20 01 | 16 02 | 16 03 | 16 04 | 18 11 | 8 12 | 8 13 | 8 14 | 8 15 | 8 16 | 8 17 | 8 18 | 8 19 | 8 20 | 4 31 | 10 32 | 10 33 | 10 34 | 10 35 | 10 36 | 10 41 | 16 ------------------------------------ [1] This information taken from Wikipedia (http://en.wikipedia.org/wiki/GS1) and used under the terms of the GNU Free Documentation License .