Abstract: An analyte test meter that detects contact between a user and an electrochemical test strip includes a test strip port, a capacitive sensor positioned proximate to the test strip port, and a controller connected to the test strip port and the capacitive sensor. The controller is configured to identify insertion of the electrochemical test strip into the test strip port, apply a drive signal to the capacitive sensor, measure a first response to the drive signal from the capacitive sensor, identify dosing of a fluid sample on the electrochemical test strip, apply the drive signal to the capacitive sensor after the dosing, measure a second response to the drive signal from the capacitive sensor, and detect contact between a body of a user and at least one electrode in the electrochemical test strip in response to a difference between the first and second responses exceeding a predetermined threshold.

Abstract: An analyte test meter that detects contact between a user and an electrochemical test strip includes a test strip port, a capacitive sensor positioned proximate to the test strip port, and a controller connected to the test strip port and the capacitive sensor. The controller is configured to identify insertion of the electrochemical test strip into the test strip port, apply a drive signal to the capacitive sensor, measure a first response to the drive signal from the capacitive sensor, identify dosing of a fluid sample on the electrochemical test strip, apply the drive signal to the capacitive sensor after the dosing, measure a second response to the drive signal from the capacitive sensor, and detect contact between a body of a user and at least one electrode in the electrochemical test strip in response to a difference between the first and second responses exceeding a predetermined threshold.

Abstract: The present invention provides a test strip for measuring a signal of interest in a biological fluid when the test strip is mated to an appropriate test meter, wherein the test strip and the test meter include structures to verify the integrity of the test strip traces, to measure the parasitic resistance of the test strip traces, and to provide compensation in the voltage applied to the test strip to account for parasitic resistive losses in the test strip traces.

Abstract: A handheld test strip illumination device includes a housing. A strip connector positioned within the housing receives a first portion of a test strip in a test strip test position. A light source is positioned within the housing. A lens/light reflecting device is aligned to receive photons emitted from the light source and direct the photons onto the first portion of the test strip within the strip connector. The first portion of the test strip within the strip connector includes a longitudinal transparent layer receiving the photons emitted from the lens/light reflecting device within the housing. The photons pass through the longitudinal transparent layer and are emitted from the longitudinal transparent layer in a second portion of the test strip positioned outside of the housing, thereby illuminating a dose area of the test strip.

Abstract: A test strip for analyzing a biological fluid using a test meter includes a biosensor to sense the biological fluid. The test strip includes contacts to communicate with the test meter and conductors connected to the contacts. The test strip further includes a combination of diodes, resistors, and short circuits arranged in various ways between the conductors. The test strip stores data based on a number of connections severed between the diodes, the resistors, the short circuits, and the conductors. The test meter reads the data and communicates with the biosensor via the contacts.

Abstract: Persons with diabetes often carry a handheld glucose meter as well as a portable computing device, such as a mobile phone. Given the close proximity of these two devices, the portable computing device can serve as a data collector for the glucose measures taken by the glucose meter. Improved techniques are set forth for transferring glucose measures automatically and seamlessly to the patient's portable computing device, including transmitting a single glucose measure automatically in response to navigating away from an interface which displays to the glucose measure.

Abstract: The present invention provides a test strip for measuring a signal of interest in a biological fluid when the test strip is mated to an appropriate test meter, wherein the test strip and the test meter include structures to verify the integrity of the test strip traces, to measure the parasitic resistance of the test strip traces, and to provide compensation in the voltage applied to the test strip to account for parasitic resistive losses in the test strip traces.

Abstract: Persons with diabetes often carry a handheld glucose meter as well as a portable computing device, such as a mobile phone. Given the close proximity of these two devices, the portable computing device can serve as a data collector for the glucose measures taken by the glucose meter. Improved techniques are set forth for transferring glucose measures automatically and seamlessly to the patient's portable computing device, including transmitting a single glucose measure automatically in response to navigating away from an interface which displays to the glucose measure.

Abstract: A handheld test strip illumination device includes a housing. A strip connector positioned within the housing receives a first portion of a test strip in a test strip test position. A light source is positioned within the housing. A lens/light reflecting device is aligned to receive photons emitted from the light source and direct the photons onto the first portion of the test strip within the strip connector. The first portion of the test strip within the strip connector includes a longitudinal transparent layer receiving the photons emitted from the lens/light reflecting device within the housing. The photons pass through the longitudinal transparent layer and are emitted from the longitudinal transparent layer in a second portion of the test strip positioned outside of the housing, thereby illuminating a dose area of the test strip.

Abstract: A handheld medical device that simultaneously charges its re-chargeable battery and measures one or more characteristics of a bodily fluid is taught. The handheld medical device includes a re-chargeable battery, a wireless power receiver, a battery charging module, and a measurement module. The re-chargeable battery is electrically connected to provide power to components of the handheld medical device. The wireless power receiver outputs power received wirelessly, via an antenna, from a wireless power transmitter that is external to the handheld medical device. The battery charging module selectively charges the re-chargeable battery based on the power received wirelessly from the wireless power transmitter. While the handheld medical device is not connected by wire to any other device, the measurement module measures a characteristic of a sample of a bodily fluid simultaneously with the battery charging module charging the re-chargeable battery.

Abstract: An electronic device may communicate wirelessly with another electronic device. The electronic device may include a first processor configured to control only wireless communications with the another device but not operations associated only with the electronic device, a second processor configured to control the operations associated only with the electronic device but not the wireless communications with the another device, and a memory device connected between the first and second processors. The first and second processors may each be configured to exchange information with the memory device separately and independently of the exchange of information by the other of the first and second processors with the memory device.

Abstract: The present invention provides a test strip for measuring a signal of interest in a biological fluid when the test strip is mated to an appropriate test meter, wherein the test strip and the test meter include structures to verify the integrity of the test strip traces, to measure the parasitic resistance of the test strip traces, and to provide compensation in the voltage applied to the test strip to account for parasitic resistive losses in the test strip traces.

Abstract: A test strip for analyzing a biological fluid using a test meter includes a biosensor to sense the biological fluid. The test strip includes contacts to communicate with the test meter and conductors connected to the contacts. The test strip further includes a combination of diodes, resistors, and short circuits arranged in various ways between the conductors. The test strip stores data based on a number of connections severed between the diodes, the resistors, the short circuits, and the conductors. The test meter reads the data and communicates with the biosensor via the contacts.

Abstract: The present invention provides a test strip for measuring a concentration of an analyte of interest in a biological fluid, wherein the test strip may be encoded with information that can be read by a test meter into which the test strip is inserted. In one embodiment, a first test strip comprises: a first measurement electrode connectable to a test meter; a first trace loop with a first associated resistance, where the first trace loop is connectable to the test meter; and a second trace loop with a second associated resistance, where the second trace loop is connectable to the test meter. The test meter is adapted to: receive the first test strip; connect to the first measurement electrode, the first trace loop, and the second trace loop; and obtain a first resistance ratio by comparing the first and second associated resistances.

Abstract: The present invention provides a test strip for measuring a concentration of an analyte of interest in a biological fluid, wherein the test strip may be encoded with information that can be read by a test meter into which the test strip is inserted.

Abstract: The present invention provides a test strip for measuring a concentration of an analyte of interest in a biological fluid, wherein the test strip may be encoded with information that can be read by a test meter into which the test strip is inserted.

Abstract: An electronic device may remotely control a medical device. The electronic device may include a wireless communication circuit configured to wirelessly communicate with the medical device, and a processor that receives from the medical device via the wireless communication circuit screen data generated by the medical device for display on a display device thereof and to control a display device of the electronic device according to the received screen data to display on the electronic device display the screen data generated by the medical device, to emulate at least some of a plurality of user keys of the medical device with selected ones of a plurality of user buttons of the electronic device, and to control the display device of the electronic device to display a map that relates emulated ones of the plurality of user keys to selected ones of the user buttons.

Abstract: A connector for establishing electrical connection between a testing device and a test strip with a biological fluid thereon includes a contact pad on the test strip, and one or more contact wires in the testing device. When the strip is inserted into the testing device, part of the strip's end engages a contact portion of a contact wire and deflects it in a direction normal to the direction of insertion. In certain embodiments the radius of curvature (in the direction of insertion) of the contact portion is controlled to reduce abrasion of the strip by the wire. In other embodiments the radius of curvature (perpendicular to the direction of insertion) is controlled to reduce the abrasion of the strip by the wire. Sometimes the contact portion and/or contact pad is plated with a sacrificial material to reduce the coefficient of friction. In other embodiments various numbers of contacts receive the end of the strip substantially simultaneously, or are staggered in rows to distribute the resistance presented.

Abstract: A remote measurement system measures the concentrations of analytes in fluid samples. The system includes a metering device that can receive signals from a test strip or alternatively interrogate the test strip to obtain information. The test strip includes an area for receiving a fluid sample and electrochemically producing a current response that is sensed within the fluid sample. The test strip also includes an antenna and a radio frequency signal circuit for transmitting a signal indicative of the current response of a fluid sample to be analyzed. The metering device receives the signal and can convert it into a readable display in some embodiments. Remote electrochemical analysis of a fluid sample is thereby obtained.

Abstract: The present invention provides a test strip for measuring a signal of interest in a biological fluid when the test strip is mated to an appropriate test meter, wherein the test strip and the test meter include structures to verify the integrity of the test strip traces, to measure the parasitic resistance of the test strip traces, and to provide compensation in the voltage applied to the test strip to account for parasitic resistive losses in the test strip traces.