Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method includes assigning a first data symbol representative of a 0-bit and a second data symbol representative of a 1-bit, each of the first data symbol and the second data symbol include a line segment. The method further includes designating a starting indicator and an ending indicator. The method also includes generating, by a processing device, the 2D symbology. The 2D symbology includes a series of data symbols representing a binary string. Each data symbol in the series of data symbols are positioned in an end-to-end orientation starting at the starting indicator and ending at the ending indicator. The series of data symbols include 0-bit symbols represented by the first data symbol and 1-bit symbols represented by the second data symbol.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method for encoding data in a 2D symbology is provided. The method comprises assigning a first indicium representative of a 0-bit and a second indicium representative of a 1-bit, designating a starting indicator, and generating, by a processing device, the 2D symbology including a unit array defining a bit length and a plurality of bit arrays.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method for encoding data in a 2D symbology is provided. The method includes assigning a first color representative of a 0-bit and a second color representative of a 1-bit. The method further includes designating a starting indicator and an ending indicator. The method also includes generating, by a processor, the 2D symbology, the 2D symbology includes a series of data segments and null segments representing a binary string. The series of data segments and null segments starts with the starting indicator and ends with the ending indicator. The data segments include 0-bit segments of the first color and 1-bit segments of the second color. The null segments are positioned between each of the data segments and are of a third color.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method includes assigning a first data symbol representative of a 0-bit and a second data symbol representative of a 1-bit, each of the first data symbol and the second data symbol include a line segment. The method further includes designating a starting indicator and an ending indicator. The method also includes generating, by a processing device, the 2D symbology. The 2D symbology includes a series of data symbols representing a binary string. Each data symbol in the series of data symbols are positioned in an end-to-end orientation starting at the starting indicator and ending at the ending indicator. The series of data symbols include 0-bit symbols represented by the first data symbol and 1-bit symbols represented by the second data symbol.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented comprises assigning a first color representative of a 0-bit and a second color representative of a 1-bit. The method further comprises designating a starting cell pair and an ending cell pair. The method also comprises generating, by a processing device, the 2D symbology. The 2D symbology comprises a series of cells in a cell space starting with the starting cell pair and ending with the ending cell pair. Each cell between the starting cell pair and the ending cell pair corresponds to a bit of a binary string and has a common cell length. The cells corresponding to a 0-bit are colored the first color and the cells corresponding to a 1-bit are colored the second color.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method includes assigning a first data symbol representative of a 0-bit and a second data symbol representative of a 1-bit, each of the first data symbol and the second data symbol include a line segment. The method further includes designating a starting indicator and an ending indicator. The method also includes generating, by a processing device, the 2D symbology. The 2D symbology includes a series of data symbols representing a binary string. Each data symbol in the series of data symbols are positioned in an end-to-end orientation starting at the starting indicator and ending at the ending indicator. The series of data symbols include 0-bit symbols represented by the first data symbol and 1-bit symbols represented by the second data symbol.

Abstract: Examples of techniques for encoding data in a 2D symbology are disclosed. In one example implementation according to aspects of the present disclosure, a computer-implemented method for encoding data in a 2D symbology is provided. The method includes assigning a first color representative of a 0-bit and a second color representative of a 1-bit. The method further includes designating a starting indicator and an ending indicator. The method also includes generating, by a processor, the 2D symbology, the 2D symbology includes a series of data segments and null segments representing a binary string. The series of data segments and null segments starts with the starting indicator and ends with the ending indicator. The data segments include 0-bit segments of the first color and 1-bit segments of the second color. The null segments are positioned between each of the data segments and are of a third color.

Abstract: An additional layer of encoding is provided using conventional one-dimensional (“1-D”) bar code symbology. Dark bars of at least 2 heights are used (where the dark bars may be narrow or wide, and may be separated by a space that is narrow or wide) for 2-dimensional (“2-D”) encoding. Whereas the width of the dark bars is significant in the 1-D encoding, the height of the dark bars is significant for the 2-D encoding. In one approach, dark bars of a shortest height are used for encoding conventional 1-D data, while dark bars of other heights encode additional data in a 2-D portion of a bar code. In another approach, consecutive dark bars are used in combination, according to a mapping which correlates the various combinations of bar heights to respective characters. The 2-D encoding rules may be proprietary, providing a type of data privacy.

Abstract: An additional layer of encoding is provided using conventional one-dimensional (“1-D”) bar code symbology. Dark bars of at least 2 heights are used (where the dark bars may be narrow or wide, and may be separated by a space that is narrow or wide) for 2-dimensional (“2-D”) encoding. Whereas the width of the dark bars is significant in the 1-D encoding, the height of the dark bars is significant for the 2-D encoding. In one approach, dark bars of a shortest height are used for encoding conventional 1-D data, while dark bars of other heights encode additional data in a 2-D portion of a bar code. In another approach, consecutive dark bars are used in combination, according to a mapping which correlates the various combinations of bar heights to respective characters. The 2-D encoding rules may be proprietary, providing a type of data privacy.