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: Embodiments are described for authenticating a login request for logging in to a user account on a host system. An example method includes receiving, by the host system, as part of the login request, an authentication image. The method also includes determining that the login request is sent from an authorized login-location, by comparing the authentication image with a reference image from the authorized login-location. The method further includes, in response to the login request being sent from the authorized login-location, facilitating access to the user account.

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 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: 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: To encode information into a two-dimensional (2D) symbol, a palette is selected to represent data in the 2D symbol, the palette including a set of shape fillers. A Base number system is selected according to the palette. A rule is selected, where the rule determines a manner of reading an encoded form of the data from the 2D symbol. The rule and the data are encoded as a set of shapes, where the shapes in the set of shapes are configured using the palette and arranged into a grid pattern, with or without visible grid lines, to form the 2D symbol. The 2D symbol is output in a size that matches an area.

Abstract: To encode information into a two-dimensional (2D) symbol, a palette is selected to represent data in the 2D symbol, the palette including a set of shape fillers. A Base number system is selected according to the palette. A rule is selected, where the rule determines a manner of reading an encoded form of the data from the 2D symbol. The rule and the data are encoded as a set of shapes, where the shapes in the set of shapes are configured using the palette and arranged into a grid pattern, with or without visible grid lines, to form the 2D symbol. The 2D symbol is output in a size that matches an area.

Abstract: A particular assembly is exploded into a first structure specifying multiple levels each comprising at least one component configured within each of the levels. One or more differences are detected from any level of the first structure of the particular assembly for the demand and to any level of a second structure of one or more selected completed assemblies from among the one or more completed assemblies. An order is allocated to the demand, based on the one or more differences, of at least one of a set, a subset, and a superset of the one or more selected completed assemblies, for efficiently managing manufacturing of configurable products within the configure-to-order environment.

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: To encode information into a two-dimensional (2D) symbol, a palette is selected to represent data in the 2D symbol, the palette including a set of shape fillers. A Base number system is selected according to the palette. A rule is selected, where the rule determines a manner of reading an encoded form of the data from the 2D symbol. The rule and the data are encoded as a set of shapes, where the shapes in the set of shapes are configured using the palette and arranged into a grid pattern, with or without visible grid lines, to form the 2D symbol. The 2D symbol is output in a size that matches an area.

Abstract: To encode information into a two-dimensional (2D) symbol, a palette is selected to represent data in the 2D symbol, the palette including a set of shape fillers. A Base number system is selected according to the palette. A rule is selected, where the rule determines a manner of reading an encoded form of the data from the 2D symbol. The rule and the data are encoded as a set of shapes, where the shapes in the set of shapes are configured using the palette and arranged into a grid pattern, with or without visible grid lines, to form the 2D symbol. The 2D symbol is output in a size that matches an area.

Abstract: A method, apparatus, and computer program product for accessing a device. The device receives a key from an operating system in response to the device in a locked state being connected to a data processing system after the operating system for the data processing system is running. The device compares the key received from the operating system with a set of keys stored in the device. The key is based on a system identifier for the data processing system and a password. The device determines whether a match is present between the key and the set of keys. The device changes the device from the locked state to an unlocked state in response to a determination that the match is present.

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.

Abstract: A method, apparatus, and computer program product for accessing a device. The device receives a key from an operating system in response to the device in a locked state being connected to a data processing system after the operating system for the data processing system is running. The device compares the key received from the operating system with a set of keys stored in the device. The key is based on a system identifier for the data processing system and a password. The device determines whether a match is present between the key and the set of keys. The device changes the device from the locked state to an unlocked state in response to a determination that the match is present.

Abstract: Transforming data provided in an enterprise management framework to provide solutions through a multidimensional model for a business process. Enterprise wide data may be aggregated and integrated through a three-dimensional visual model that synchronizes the data to enable relationships between multiple categories of data. The three-dimensional visual model enables the real-time composition of virtual solutions to business processes.