Abstract:
A method of formatting digital data and a method of decoding the formatted digital data. User selectable format parameters vary the dimensions and other attributes of spots and the cells containing those spots as well as other features which the formatting process formats into a pattern. A method of encoding the formatted digital data using these format parameters allows for encoding a substrate optimally for any given printer or scanner. One embodiment provides for markers to facilitate determination of cell locations. In one embodiment the decoding process achieves a pyramid gain of knowledge by locating a landmark (801), which is located in a known position relative to a metasector (802), which contains information about the encoding process used to encode the main body of data (803), which the decoding process decodes to recover the original digital data. Further embodiments include encryption, transmission by facsimile, inclusion of human readable information, and automatic launches of computer files.
Abstract:
A method of formatting digital data and a method of decoding the formatted digital data. User selectable format parameters vary the dimensions and other attributes of spots and the cells containing those spots as well as other features which the formatting process formats into a pattern. A method of encoding the formatted digital data using these format parameters allows for encoding a substrate optimally for any given printer or scanner. One embodiment provides for markers to facilitate determination of cell locations. In one embodiment the decoding process achieves a pyramid gain of knowledge by locating a landmark (801), which is located in a known position relative to a metasector (802), which contains information about the encoding process used to encode the main body of data (803), which the decoding process decodes to recover the original digital data. Further embodiments include encryption, transmission by facsimile, inclusion of human readable information, and automatic launches of computer files.
Abstract:
A method of searching the Internet or onboard database or other source through devices that contain or are coupled to cameras or other imaging devices, the method including extracting search terms from the human-understandable content encoded in a machine-readable code and displayed to the recipient on the device following the imaging of that code by the device's imager. The method of search utilizes a method of navigation and input that produces a location indicator on the device display that corresponds to the location of an image of a machine-readable code in the sensor of the device's imager.
Abstract:
A method of formatting digital data and a method of decoding the formatted digital data. User selectable format parameters vary the dimensions and other attributes of spots and the cells containing those spots as well as other features which the formatting process formats into a pattern. A method of encoding the formatted digital data using these format parameters allows for encoding a substrate optimally for any given printer or scanner. One embodiment provides for markers to facilitate determination of cell locations. In one embodiment the decoding process achieves a pyramid gain of knowledge by locating a landmark (801), which is located in a known position relative to a metasector (802), which contains information about the encoding process used to encode the main body of data (803), which the decoding process decodes to recover the original digital data. Further embodiments include encryption, transmission by facsimile, inclusion of human readable information, and automatic launches of computer files.
Abstract:
This invention relates primarily to a method and apparatus of visualization accomplished by utilizing an imaging device, whether as a dedicated apparatus or a standalone device such as a smartphone, or an imaging device connected to other devices such as to a personal computer with attached monitor. The imaging device of the visualization process and/or apparatus images and recognizes a machine-recognizable graphic, whether a machine-readable code or other mark or other recognizable feature and, based on instructions pre-loaded into the associated computing device, displays an image signaled by such instructions. The invention further allows the user to change the display through signals generated by the user by moving the imaging device in certain preprogrammed manners relative to the machine-recognizable graphic. The imaging device thereby becomes an input device for purposes of navigating and visualizing a wealth of details related to a base display such as a map.
Abstract:
A method of formatting digital data and a method of decoding the formatted digital data. User selectable format parameters vary the dimensions and other attributes of spots and the cells containing those spots as well as other features which the formatting process formats into a pattern. A method of encoding the formatted digital data using these format parameters allows for encoding a substrate optimally for any given printer or scanner. One embodiment provides for markers to facilitate determination of cell locations. In one embodiment the decoding process achieves a pyramid gain of knowledge by locating a landmark (801), which is located in a known position relative to a metasector (802), which contains information about the encoding process used to encode the main body of data (803), which the decoding process decodes to recover the original digital data. Further embodiments include encryption, transmission by facsimile, inclusion of human readable information, and automatic launches of computer files.
Abstract:
A method of formatting digital data and a method of decoding the formatted digital data. User selectable format parameters vary the dimensions and other attributes of spots and the cells containing those spots as well as other features which the formatting process formats into a pattern. A method of encoding the formatted digital data using these format parameters allows for encoding a substrate optimally for any given printer or scanner. One embodiment provides for markers to facilitate determination of cell locations. In one embodiment the decoding process achieves a pyramid gain of knowledge by locating a landmark (801), which is located in a known position relative to a metasector (802), which contains information about the encoding process used to encode the main body of data (803), which the decoding process decodes to recover the original digital data. Further embodiments include encryption, transmission by facsimile, inclusion of human readable information, and automatic launches of computer files.
Abstract:
A method of searching the Internet or onboard database or other source through devices that contain or are coupled to cameras or other imaging devices, the method including extracting search terms from the human-understandable content encoded in a machine-readable code and displayed to the recipient on the device following the imaging of that code by the device's imager. The method of search utilizes a method of navigation and input that produces a location indicator on the device display that corresponds to the location of an image of a machine-readable code in the sensor of the device's imager.
Abstract:
A camera module and method for focusing a tunable lens configured to continuously vary its optical power in response to a drive signal. A drive circuit generates the drive signal so that the tunable lens performs a continuous scan of its optical power. An image sensor is configured to acquire light images passing through the tunable lens, and to convert the light images to image signals during the continuous scan. A processor is configured to generate focus scores of the acquired light images using the image signals during the continuous scan. The processor is configured to determine from the focus scores a peak focus score achieved or achievable, and to instruct the drive circuit to adjust the drive signal so that the tunable lens settles at a value of the optical power that corresponds to the peak focus score.
Abstract:
A camera module and method for focusing a tunable lens configured to continuously vary its optical power in response to a drive signal. A drive circuit generates the drive signal so that the tunable lens performs a continuous scan of its optical power. An image sensor is configured to acquire light images passing through the tunable lens, and to convert the light images to image signals during the continuous scan. A processor is configured to generate focus scores of the acquired light images using the image signals during the continuous scan. The processor is configured to determine from the focus scores a peak focus score achieved or achievable, and to instruct the drive circuit to adjust the drive signal so that the tunable lens settles at a value of the optical power that corresponds to the peak focus score.