Abstract: A method for displaying representations of facial expressions on devices includes receiving, by a processor on a device, data from a sensor coupled to the device. The method includes identifying, by the processor, responsive to the received data, a level of progress that a user of the device made towards a goal. The method includes selecting, by the processor, responsive to the identification, an icon representing a facial expression. The method includes modifying, by the processor, a level of power for each of a plurality of light indicators embedded in the device to display the icon.

Abstract: A method includes sensing physical proximity between a first device and a second device. At least one of the first device and the second device has transferrable data stored thereon. The method further includes monitoring whether the first device and the second device maintain physical proximity. The method further includes transferring the data between the first device and the second device while the first device and the second device maintain physical proximity.

Abstract: A method for displaying representations of facial expressions on devices includes receiving, by a processor on a device, data from a sensor coupled to the device. The method includes identifying, by the processor, responsive to the received data, a level of progress that a user of the device made towards a goal. The method includes selecting, by the processor, responsive to the identification, an icon representing a facial expression. The method includes modifying, by the processor, a level of power for each of a plurality of light indicators embedded in the device to display the icon.

Abstract: A method for displaying representations of facial expressions on devices includes receiving, by a processor on a device, data from a sensor coupled to the device. The method includes identifying, by the processor, responsive to the received data, a level of progress that a user of the device made towards a goal. The method includes selecting, by the processor, responsive to the identification, an icon representing a facial expression. The method includes modifying, by the processor, a level of power for each of a plurality of light indicators embedded in the device to display the icon.

Abstract: A method for displaying representations of facial expressions on devices includes receiving, by a processor on a device, data from a sensor coupled to the device. The method includes identifying, by the processor, responsive to the received data, a level of progress that a user of the device made towards a goal. The method includes selecting, by the processor, responsive to the identification, an icon representing a facial expression. The method includes modifying, by the processor, a level of power for each of a plurality of light indicators embedded in the device to display the icon.

Abstract: A method includes sensing physical proximity between a first device and a second device. At least one of the first device and the second device has transferrable data stored thereon. The method further includes monitoring whether the first device and the second device maintain physical proximity. The method further includes transferring the data between the first device and the second device while the first device and the second device maintain physical proximity.

Abstract: A data collection system is formed from an analyte detection meter and a base station. The meter and the base station are operatively connected to one another to transfer data from the meter. The base station is able to communicate transferred data to a data receiving server, and the transfer of data occurs in response to a defined stimulus such as the proximity of the meter and base station or an alarm set at a predetermined time of day. The data collection system can be used in combination with a system interface that provides a data management system (DMS) resident on a device such as a personal computer. The DMS can recognize a particular meter and may incorporate into the displayed information not only the data resident on the meter but also information previously transferred from the meter. The DMS may be launched on the computer as soon as connection with a meter is detected.

Abstract: A method enables an application executing on a mobile computing device to access, via an application programming interface, data associated with a measurement taken by a blood glucose meter peripheral to the mobile computing device. The method includes transmitting, by a blood glucose meter peripherally connected to a mobile computing device, to a software module provided by a first organization and executing on the mobile computing device, a blood glucose reading of a user of the blood glucose meter. The method includes generating, by the software module, an identification of an event responsive to the transmitted blood glucose reading. The method includes providing, by the software module, an application programming interface allowing an application provided by a second organization and executing on the mobile computing device, to access data associated with at least one of the blood glucose reading and the identification of the event.

Abstract: The ability to switch at will between amperometric measurements and potentiometric measurements provides great flexibility in performing analyses of unknowns. Apparatus and methods can provide such switching to collect data from an electrochemical cell. The cell may contain a reagent disposed to measure glucose in human blood.

Abstract: The ability to switch at will between amperometric measurements and potentiometric measurements provides great flexibility in performing analyses of unknowns. Apparatus and methods can provide such switching to collect data from an electrochemical cell. The cell may contain a reagent disposed to measure glucose in human blood.

Abstract: A lancet cartridge has a U-shaped support with a pair of anchor portions, a base portion, and a pair of deformable leg portions connecting the anchor portions to the base portion. The pair of deformable leg portions change shape from an initial shape to an extended shape in response to an external applied force and recover to a retracted shape upon removal of the force. The lancet cartridge also has a lancet having a tip end, an opposing base end, and an axis extending between the tip end and the base end. A portion of the lancet is disposed between the pair of deformable leg portions of the U-shaped support. The lancet is movable between a starting position, an extended puncturing position, and an ending position along the axis of the lancet in a path defined by the U-shaped support. When the lancet is in the starting position, the tip end of the lancet is disposed at least partially through the base portion of the U-shaped support, and the U-shaped support is in the initial shape.

Abstract: The present invention provides a method of transferring data between a diagnostic measurement device and a portable consumer electronic device (CED). The method includes a step of communicatively coupling the diagnostic measurement device and the CED through an audio port located on the CED. The method also includes the step of transferring data from the diagnostic measurement device to the CED through the audio port of the consumer electronic device.

Abstract: A lancet cartridge has a U-shaped support with a pair of anchor portions, a base portion, and a pair of deformable leg portions connecting the anchor portions to the base portion. The pair of deformable leg portions change shape from an initial shape to an extended shape in response to an external applied force and recover to a retracted shape upon removal of the force. The lancet cartridge also has a lancet having a tip end, an opposing base end, and an axis extending between the tip end and the base end. A portion of the lancet is disposed between the pair of deformable leg portions of the U-shaped support. The lancet is movable between a starting position, an extended puncturing position, and an ending position along the axis of the lancet in a path defined by the U-shaped support. When the lancet is in the starting position, the tip end of the lancet is disposed at least partially through the base portion of the U-shaped support, and the U-shaped support is in the initial shape.

Abstract: A data collection system is formed from an analyte detection meter and a base station. The meter and the base station are operatively connected to one another to transfer data from the meter. The base station is able to communicate transferred data to a data receiving server, and the transfer of data occurs in response to a defined stimulus such as the proximity of the meter and base station or an alarm set at a predetermined time of day. The data collection system can be used in combination with a system interface that provides a data management system (DMS) resident on a device such as a personal computer. The DMS can recognize a particular meter and may incorporate into the displayed information not only the data resident on the meter but also information previously transferred from the meter. The DMS may be launched on the computer as soon as connection with a meter is detected.

Abstract: A liquid crystal display driver has N common drive lines and M segment drive lines. A liquid crystal display has M segment driver leads and N times P common drive leads, P being at least two. P multiplexers are provided, each external to the liquid crystal display driver. Each of the M segment driver lines is connected with a respective one of the M segment drive leads. Each multiplexer comprising N switches, each switch defining a normally-open contact, a normally-closed contact, and a common contact. Each of the switches is connected by its common contact with a respective one of the common drive leads of the liquid crystal display. Each of the switches is connected by its normally-closed contact with a cancel signal. The N switches of each multiplexer are each connected with a respective one of the N common drive lines of the liquid crystal display driver.

Abstract: Abstract of the Disclosure A test meter has a display, and has a test strip containing an electrochemical cell disposed to analyze a bodily fluid for a property of interest. While the analysis is in progress, the display is changed no less often than once per half second.

Abstract: The ability to switch at will between amperometric measurements and potentiometric measurements provides great flexibility in performing analyses of unknowns. Apparatus and methods can provide such switching to collect data from an electrochemical cell. The cell may contain a reagent disposed to measure glucose in human blood.

Abstract: Abstract of the Disclosure The ability to switch at will between amperometric measurements and potentiometric measurements provides great flexibility in performing analyses of unknowns. Apparatus and methods can provide such switching to collect data from an electrochemical cell. The cell may contain a reagent disposed to measure glucose in human blood.

Abstract: A target document having a plurality of features is summarized by collecting contextual data external to the document. On the basis of this contextual data, the features of the target document are then weighted to indicate the relative importance of that feature. This results in a weighted target document that is then summarized.