Abstract: A system for detecting and reporting the separation of two entities including where the entities are people or items. In some implementations, the system performs separation checking triggered by movement conditions, or by checking of the state of an entity upon separation, and additionally adapts checking methods according to a condition.

Abstract: A system for detecting and reporting the separation of two entities including where the entities are people or items. In some implementations, the system performs separation checking triggered by movement conditions, or by checking of the state of an entity upon separation, and additionally adapts checking methods according to a condition.

Abstract: A reporting system includes a mobile computing device that wirelessly communicates with one or more sensors to track the use of a protective product. Reports are provided on the mobile computing device to remind and motivate a user of the protective product to use it at times most beneficial for receiving the intended protection from it.

Abstract: A method (2304) of decoding a QR code having two initially detected finder patterns (2901, 2902; 2911, 2912) is provided. The method forms (2402) a pattern matching template (2700, 2800) based on characteristics of the detected finder patterns and determines (2403) at least one candidate region (2904, 2905; 2913, 2914) about the detected finder patterns. The candidate region is typically based at least on the relative positions of the detected finder patterns. The method detects (2404) a previously undetected third finder pattern of the QR code in the at least one candidate region by correlating content of the candidate region with the pattern matching template. With the identified third finder pattern and each of the two initially detected finder patterns, decoding (2305) the QR code can then be performed. Also disclosed is a method of detecting a two-dimensional code comprising known target features and coded data in an image.

Abstract: A system for detecting and reporting human activity. In some implementations, the system reports, records or rewards detected human activities including correct and incorrect human activities, behaviours or habits including additionally remotely communicating the report, record or reward.

Abstract: An integrated physical sensor grid system includes a plurality of nodes, a processor, and a computing device. One or more nodes consisting of electrical contacts and one or more sensors to detect electrical properties at each electrical contact are connected to a processor. The computing device is configured to display instructions to a user. The processor and mobile computing measure and compares readings of the one or more sensors against expected values indicated in the lesson plan. The computing device is configured to display results to the user in response to the comparison of readings against expected progress. The lesson plan consists of instructions and expected values to verify. The lesson plan may be shared by access to a database.

Abstract: A reporting system includes a mobile computing device that wirelessly communicates with one or more sensors to track the use of a protective product. Reports are provided on the mobile computing device to remind and motivate a user of the protective product to use it at times most beneficial for receiving the intended protection from it.

Abstract: Disclosed herein is a method for identifying a constellation of alignment marks within an arrangement of computer readable marks in an image (1412), the arrangement of computer readable marks (1412) including alignment marks (1401-1406) and data carrying marks (1407-1410). The alignment marks (1401-1406) define a reference grid within the arrangement of computer readable marks and the data carrying marks (1407-1410) are modulated with respect to the reference grid to encode data. The method selects at least two marks (1501, 1502) from the arrangement of computer readable marks and determines a rotation center with reference to the selected marks (1501, 1502). The method then determines rotated positions for the selected marks by rotating each of the selected marks by a predetermined angle about the rotation center.

Abstract: A method (2304) of decoding a QR code having two initially detected finder patterns (2901, 2902; 2911, 2912) is provided. The method forms (2402) a pattern matching template (2700, 2800) based on characteristics of the detected finder patterns and determines (2403) at least one candidate region (2904, 2905; 2913, 2914) about the detected finder patterns. The candidate region is typically based at least on the relative positions of the detected finder patterns. The method detects (2404) a previously undetected third finder pattern of the QR code in the at least one candidate region by correlating content of the candidate region with the pattern matching template. With the identified third finder pattern and each of the two initially detected finder patterns, decoding (2305) the QR code can then be performed. Also disclosed is a method of detecting a two-dimensional code comprising known target features and coded data in an image.

Abstract: Disclosed herein is a method for identifying a constellation of alignment marks within an arrangement of computer readable marks in an image (1412), the arrangement of computer readable marks (1412) including alignment marks (1401-1406) and data carrying marks (1407-1410). The alignment marks (1401-1406) define a reference grid within the arrangement of computer readable marks and the data carrying marks (1407-1410) are modulated with respect to the reference grid to encode data. The method selects at least two marks (1501, 1502) from the arrangement of computer readable marks and determines a rotation centre with reference to the selected marks (1501, 1502). The method then determines rotated positions for the selected marks by rotating each of the selected marks by a predetermined angle about the rotation centre.

Abstract: A method of rendering a scan line of a graphic object image in a scan line renderer for spans of pixels laying between consecutive x-ordered edges intersecting the scan line includes maintaining a set of depths present in the rendering of the scan line, with the set being maintained in depth order. For each span, the set contains at least those depths that are active in the span, and the set is subject to removal of at least one depth at a subsequent span on the scan line where the corresponding depth is no longer active.

Abstract: Disclosed is an imaging engine system (699) generally intended for the reproduction of graphical object images using apparatus having limited computing resources, such as so-called “thin clients”. Numerous developments of traditional image processing and rendering enable high quality image generation. One such development takes advantage of temporal coherence between one frame in an animation sequence and the succeeding frame. In particular, there will often be some edges (233, 235) of graphical objects that remain “static” across several contiguous frames. One example of this includes those edges used to draw image background detail. Another development performs antialiasing during scan line rendering of a graphic object image where sub-pixel resolution coverage bit-masks (A-buffers 29-34) are generated for a limited number of scan lines at a time. Preferably the A-buffers are generated for only one pixel at a time.

Abstract: Disclosed is an imaging engine system (699) generally intended for the reproduction of graphical object images using apparatus having limited computing resources, such as so-called “thin clients”. Numerous developments of traditional image processing and rendering enable high quality image generation. One such development takes advantage of temporal coherence between one frame in an animation sequence and the succeeding frame. In particular, there will often be some edges (233, 235) of graphical objects that remain “static” across several contiguous frames. One example of this includes those edges used to draw image background detail. Another development performs antialiasing during scan line rendering of a graphic object image where sub-pixel resolution coverage bit-masks (A-buffers 29-34) are generated for a limited number of scan lines at a time. Preferably the A-buffers are generated for only one pixel at a time.

Abstract: A method (200) for generating a device driver in an information processing apparatus (101) for a device connected thereto, such as a printer (115), is disclosed. The method (100) obtains a Printer Characterization File (PCF) which contains a characterization of the device (115) or a group of devices. The device driver is then generated by using the PCF to configure a Device Model Independent Printer Driver (DMIPD) stored with an application on an unchangeable memory, such as a CD-ROM.

Abstract: Disclosed is an imaging engine system (699) generally intended for the reproduction of graphical object images using apparatus having limited computing resources, such as so-called “thin clients”. Numerous developments of traditional image processing and rendering enable high quality image generation. One such development takes advantage of temporal coherence between one frame in an animation sequence and the succeeding frame. In particular, there will often be some edges (233, 235) of graphical objects that remain “static” across several contiguous frames. One example of this includes those edges used to draw image background detail. Another development performs antialiasing during scan line rendering of a graphic object image where sub-pixel resolution coverage bit-masks (A-buffers 29–34) are generated for a limited number of scan lines at a time. Preferably the A-buffers are generated for only one pixel at a time.

Abstract: A method (200) for generating a device driver in an information processing apparatus (101) for a device connected thereto, such as a printer (115), is disclosed. The method (100) obtains a Printer Characterization File (PCF) which contains a characterization of the device (115) or a group of devices. The device driver is then generated by using the PCF to configure a Device Model Independent Printer Driver (DMIPD) stored with an application on an unchangeable memory, such as a CD-ROM.