Abstract: Systems, devices, techniques and methods are disclosed for implementing an actuator mechanism of an analyte testing device. In one aspect, a method to test an analyte includes advancing an analyte sensor from a first position within a sensor cartridge of an analyte testing device to a second position that exposes at least a portion of the analyte sensor outside of the device, advancing a lancet projecting component from an initial position to a cocked position for a subsequent projection of a lancet, in which the advancing the analyte sensor and the advancing the lancet projecting component are initiated by a single operation, projecting the lancet to expose at least a portion of the lancet outside of the device, receiving a testing sample including an analyte at the exposed portion of the analyte sensor, processing the testing sample to determine a parameter of the analyte, and ejecting the analyte sensor from the device.

Abstract: An analyte testing system having an analyte testing device and a docking station is described. The analyte testing device includes a plurality of lancets, a plurality of analyte sensors, electronics for deriving test data from the analyte sensors, a visual display that displays test data, and a data recording facility that records non-test data. Examples of non-test data include text diary information, audio diary information, food eaten, minutes exercised, medication taken, and estimated calories burned. The docking station has a power interface and data interface that provide power and data connectivity to the testing device. The docking station also has a storage facility configured to automatically store the test data and non-test data.

Abstract: An analyte testing system having an analyte testing device and a docking station is described. The analyte testing device includes a plurality of lancets, a plurality of analyte sensors, electronics for deriving test data from the analyte sensors, a visual display that displays test data, and a data recording facility that records non-test data. Examples of non-test data include text diary information, audio diary information, food eaten, minutes exercised, medication taken, and estimated calories burned. The docking station has a power interface and data interface that provide power and data connectivity to the testing device. The docking station also has a storage facility configured to automatically store the test data and non-test data.

Abstract: An analyte testing device housing a lancet cartridge and a test strip cartridge is described. The testing device simplifies analyte testing/monitoring by providing an actuator and linkage mechanism that: (i) cocks a lancing device, (ii) exposes a test strip for use; and (iii) advances the lancet cartridge. The testing device also includes conversion electronics, which receives a signal from a test trip and converts the signal into readable data.

Abstract: An analyte testing device includes an analyte sensor, a lancet, and a mechanism with an actuator that operates to independently expose the analyte sensor and advance the lancet into position for use. The analyte sensor is preferably included in an analyte sensor cartridge that houses a plurality of sensors. Similarly, the lancet is preferably included in a lancet cartridge that houses a plurality of lancets. The actuator can be a lever configured to expose the analyte sensor and advance the lancet into position with a single motion (e.g., pulling the lever). The actuator also preferably operates to cock a hammer in preparation for lancing a body member to draw a blood sample. The mechanism can be a linkage coupled with the actuator and configured to engage the analyte sensor and lancet.

Abstract: A test unit cartridge for holding a plurality of test units includes a first test unit that contains a first analyte sensor and a second test unit that contains a second analyte sensor. The first and second analyte sensors use first and second reagents to detect first and second analytes, respectively. The first analyte is different from the second analyte and the first and second test units are functionally non-fungible. The plurality of test units can also include a third test unit that contains two analyte sensors having two reagents for detecting two different analytes using one fluid sample. A method of using the test unit cartridge is also described, which comprises loading the cartridge into an analyte testing device and cocking an actuator of the device that is configured to (i) expose an analyte sensor of a test unit, (ii) ready a lancet, and (iii) advance a lancet cartridge.

Abstract: An analyte testing device housing a lancet cartridge and a test strip cartridge is described. The testing device simplifies analyte testing/monitoring by providing an actuator and linkage mechanism that: (i) cocks a lancing device, (ii) exposes a test strip for use; and (iii) advances the lancet cartridge. The testing device also includes conversion electronics, which receives a signal from a test trip and converts the signal into readable data.

Abstract: A test unit cartridge for holding a plurality of test units includes a first test unit that contains a first analyte sensor and a second test unit that contains a second analyte sensor. The first and second analyte sensors use first and second reagents to detect first and second analytes, respectively. The first analyte is different from the second analyte and the first and second test units are functionally non-fungible. The plurality of test units can also include a third test unit that contains two analyte sensors having two reagents for detecting two different analytes using one fluid sample. A method of using the test unit cartridge is also described, which comprises loading the cartridge into an analyte testing device and cocking an actuator of the device that is configured to (i) expose an analyte sensor of a test unit, (ii) ready a lancet, and (iii) advance a lancet cartridge.

Abstract: A test unit cartridge for holding a plurality of test units includes a first test unit that contains a first analyte sensor and a second test unit that contains a second analyte sensor. The first and second analyte sensors use first and second reagents to detect first and second analytes, respectively. The first analyte is different from the second analyte and the first and second test units are functionally non-fungible. The plurality of test units can also include a third test unit that contains two analyte sensors having two reagents for detecting two different analytes using one fluid sample. A method of using the test unit cartridge is also described, which comprises loading the cartridge into an analyte testing device and cocking an actuator of the device that is configured to (i) expose an analyte sensor of a test unit, (ii) ready a lancet, and (iii) advance a lancet cartridge.

Abstract: A test unit cartridge for holding a plurality of test units includes a first test unit that contains a first analyte sensor and a second test unit that contains a second analyte sensor. The first and second analyte sensors use first and second reagents to detect first and second analytes, respectively. The first analyte is different from the second analyte and the first and second test units are functionally non-fungible. The plurality of test units can also include a third test unit that contains two analyte sensors having two reagents for detecting two different analytes using one fluid sample. A method of using the test unit cartridge is also described, which comprises loading the cartridge into an analyte testing device and cocking an actuator of the device that is configured to (i) expose an analyte sensor of a test unit, (ii) ready a lancet, and (iii) advance a lancet cartridge.

Abstract: An analyte testing device includes an analyte sensor, a lancet, and a mechanism with an actuator that operates to independently expose the analyte sensor and advance the lancet into position for use. The analyte sensor is preferably included in an analyte sensor cartridge that houses a plurality of sensors. Similarly, the lancet is preferably included in a lancet cartridge that houses a plurality of lancets. The actuator can be a lever configured to expose the analyte sensor and advance the lancet into position with a single motion (e.g., pulling the lever). The actuator also preferably operates to cock a hammer in preparation for lancing a body member to draw a blood sample. The mechanism can be a linkage coupled with the actuator and configured to engage the analyte sensor and lancet.

Abstract: Various embodiments provide an improved snow pusher with a removable friction-reducing edge. An example embodiment includes a blade having a generally rectangular shape and being of rigid material, the blade including an angled lower portion; a slider for removable attachment to the angled lower portion of the blade, the slider being fabricated from a friction-reducing material; a handle attachment mechanism for removable attachment to the blade; and a handle for removable attachment to the handle attachment mechanism.

Abstract: A compact appliance providing high resolution display capability in an ergonomically designed package. Subassemblies of the device are mechanically coupled to avoid interference between a user's hands and face while the device is used, while concurrently providing ergonomically located control for substantially all functions of the device.

Abstract: A high performance rotary axis. An upper and lower unit are coupled together by a pair of bearings to permit relative rotation between the units. The bearings are biased relative to others along a link to reduce play between the bearings. A processor and sensor provide for detection of relative positions between the units. A floating stop may be provided to permit rotation about the axis in greater than 360°.