Abstract: A test strip eject mechanism for a fluid testing device comprising an actuation button and a lever having a distal end movably engaged with the button, the lever configured to rotate about a fulcrum, wherein the lever has a proximal end movably engaged with a sled which slides to transport the test strip, the device configured such that a user's insertion of a test strip onto the sled and in an insertion direction into the device causes the sled to contact the lever arm and the lever arm to contact and move the actuation button in an outward direction of the medical device and into a position where the actuation button can be actuated by the user.

Abstract: An inventive medical system has a housing with a first guiding surface. A preassembled module is received in the housing. The module includes electronics electrically connected to an analytical sensor, an insertion component configured for inserting the analytical sensor into body tissue of a user and a sterility cap at least partially surrounding the insertion component. The module has a second guiding surface. A protective cap is removably connected to the housing and covers the preassembled module. The protective cap is removable from the housing by pulling the protective cap from the housing. The first guiding surface guides the protective cap during the pulling of the protective cap from the housing and the second guiding surface guides the sterility cap during pulling the sterility cap from the insertion component. The length of the first guiding surface exceeds the length of the second guiding surface.

Abstract: An inventive medical system has a housing with a first guiding surface. A preassembled module is received in the housing. The module includes electronics electrically connected to an analytical sensor, an insertion component configured for inserting the analytical sensor into body tissue of a user and a sterility cap at least partially surrounding the insertion component. The module has a second guiding surface. A protective cap is removably connected to the housing and covers the preassembled module. The protective cap is removable from the housing by pulling the protective cap from the housing. The first guiding surface guides the protective cap during the pulling of the protective cap from the housing and the second guiding surface guides the sterility cap during pulling the sterility cap from the insertion component. The length of the first guiding surface exceeds the length of the second guiding surface.

Abstract: Disclosed herein is a cradle for a medical device. The cradle has an inner cradle side and an opposing outer cradle side, wherein the outer cradle side is adapted for attachment to a patient's skin with at least part of the outer cradle side facing the patient's skin. The medical device has a medical device coupler, wherein the medical device coupler is adapted for coupling the medical device to the cradle such that part of the medical device is facing the inner cradle side. The cradle further includes a drain fluidly coupling the inner cradle side with the outer cradle side.

Abstract: An inventive medical system includes a skin-mountable medical device, the skin-mountable medical device including an activatable tactile indicator. The medical system further includes a user interface configured to receive location information, the location information indicating a body location where the skin-mountable medical device shall be mounted. The medical system is configured to determine an active control pattern in dependence of the location information and to control activation of the tactile indicator in accordance with the active control pattern. Also disclosed are a remote control for use in combination with a skin-mountable medical device as well as methods for providing tactile indications to a user of a medical system.

Abstract: A test strip eject mechanism for a fluid testing device comprising an actuation button and a lever having a distal end movably engaged with the button, the lever configured to rotate about a fulcrum, wherein the lever has a proximal end movably engaged with a sled which slides to transport the test strip, the device configured such that a user's insertion of a test strip onto the sled and in an insertion direction into the device causes the sled to contact the lever arm and the lever arm to contact and move the actuation button in an outward direction of the medical device and into a position where the actuation button can be actuated by the user.

Abstract: This disclosure teaches a disposable inserter which includes a housing having arranged in a displaceable configuration an inserter assembly comprising a cannula assembly with a cannula, a manually operable member for displacing the inserter assembly from a retracted position to an advanced position in order to manually insert the cannula into the skin of a patient, a locking element for blocking or enabling displacement of the inserter assembly, and a coupling arrangement for coupling the disposable inserter to a reusable inserter for automatically displacing the inserter assembly from the retracted position to the advanced position in order to automatically insert the cannula into the skin of the patient.

Abstract: An inventive medical system has a housing with a first guiding surface. A preassembled module is received in the housing. The module includes electronics electrically connected to an analytical sensor, an insertion component configured for inserting the analytical sensor into body tissue of a user and a sterility cap at least partially surrounding the insertion component. The module has a second guiding surface. A protective cap is removably connected to the housing and covers the preassembled module. The protective cap is removable from the housing by pulling the protective cap from the housing. The first guiding surface guides the protective cap during the pulling of the protective cap from the housing and the second guiding surface guides the sterility cap during pulling the sterility cap from the insertion component. The length of the first guiding surface exceeds the length of the second guiding surface.

Abstract: An insertion device including an insertion needle holder and a drive mechanism for linearly moving the insertion needle holder in a puncturing direction. The insertion needle holder also includes at least one actuating element for actuating a drive mechanism. The drive mechanism converts a driving motion of the actuating element, which extends transversely or opposite to the puncturing direction, into a puncturing motion of the insertion needle holder.

Abstract: A puncturing system has a carrier tape carrying multiple lancets, a device housing comprising a conveying facility for moving the lancets into a usage position consecutively by moving the carrier tape in a conveying direction, a puncturing drive for accelerating one of the lancets that is positioned in the usage position in a puncturing motion, an opening in the device housing for touching against a body part in which a puncture is to be made by the puncturing motion of one of the lancets, an actuation facility for driving the conveying facility, and an unlockable interlock comprising a stop that blocks further transport of the carrier tape as soon as one of the lancets has reached the usage position.

Abstract: This disclosure teaches a disposable inserter which includes a housing having arranged in a displaceable configuration an inserter assembly comprising a cannula assembly with a cannula, a manually operable member for displacing the inserter assembly from a retracted position to an advanced position in order to manually insert the cannula into the skin of a patient, a locking element for blocking or enabling displacement of the inserter assembly, and a coupling arrangement for coupling the disposable inserter to a reusable inserter for automatically displacing the inserter assembly from the retracted position to the advanced position in order to automatically insert the cannula into the skin of the patient.

Abstract: A method for producing an analytical tape, in particular a lancet tape, is proposed. The analytical tape is designed for being used in an analytical testing device with at least a sample-taking function. In the method, at least one supporting tape is provided in a continuous process. A plurality of lancet elements are successively applied directly to the supporting tape at at least one application point.

Abstract: There is disclosed an insertion device comprising an insertion needle holder and a drive mechanism for linearly moving the insertion needle holder in a puncturing direction. The insertion needle holder also includes at least one actuating element for actuating a drive mechanism. The drive mechanism converts a driving motion of the actuating element, which extends transversely or opposite to the puncturing direction, into a puncturing motion of the insertion needle holder.

Abstract: A lancing actuator (114) includes a drive element (118) for driving a lancing element, the drive element being guided within a housing (112), a combined compression and torsion element (120) which, by a relaxing movement thereof, is adapted to drive the lancing motion, a combined triggering and driving device (122) having an actuating element (124) and a locking device (126), wherein the actuating element has an initial state and an actuated state and is accessible from the outside of the housing, wherein, in the initial state, the drive element is locked in the locking device under a torsional stress exerted by the combined compression and torsion element, wherein the combined triggering and driving device is configured in a manner that, when the actuating element makes a movement along an actuation path from the initial state into the actuated state, a torque is exerted on the drive element which prevails over the torsional stress exerted by the combined compression and torsion element such that the drive e

Abstract: An insertion device includes an insertion needle holder and a drive mechanism for linearly moving the insertion needle holder in a puncturing direction. The insertion needle holder also includes at least one actuating element for actuating a drive mechanism. The drive mechanism converts a driving motion of the actuating element, which extends transversely or opposite to the puncturing direction, into a puncturing motion of the insertion needle holder.

Abstract: A puncturing system has a carrier tape carrying multiple lancets, a device housing comprising a conveying facility for moving the lancets into a usage position consecutively by moving the carrier tape in a conveying direction, a puncturing drive for accelerating one of the lancets that is positioned in the usage position in a puncturing motion, an opening in the device housing for touching against a body part in which a puncture is to be made by the puncturing motion of one of the lancets, an actuation facility for driving the conveying facility, and an unlockable interlock comprising a stop that blocks further transport of the carrier tape as soon as one of the lancets has reached the usage position.

Abstract: A puncturing system has a carrier tape carrying multiple lancets, a device housing comprising a conveying facility for moving the lancets into a usage position consecutively by moving the carrier tape in a conveying direction, a puncturing drive for accelerating one of the lancets that is positioned in the usage position in a puncturing motion, an opening in the device housing for touching against a body part in which a puncture is to be made by the puncturing motion of one of the lancets, an actuation facility for driving the conveying facility, and an unlockable interlock comprising a stop that blocks further transport of the carrier tape as soon as one of the lancets has reached the usage position.

Abstract: The invention relates to a system for collecting samples and to a method for collecting a liquid sample. The system comprises at least one analytical aid, the analytical aid comprising a lancet and a test element, and the test element having a test field for analysis of the liquid sample. The system for collecting samples comprises a coupling element which can be successively connected to the lancet, in a first position of the analytical aid, and to the test element, in a second position of the analytical aid. The system for collecting samples also comprises a drive unit for moving the coupling element from a rest position to a deployed position, such that the movement of the coupling element is transmitted to the lancet, coupled thereto, in order to execute a puncturing movement, or is transmitted to the test element, coupled thereto, in order to execute a sample recovery movement.

Abstract: A replaceable magazine for use in an analytic test instrument a plurality of analytic aids on a carrier tape. The analytic aids can be made available in an application position of the magazine by means of the carrier tape. The magazine has a supply reel for holding regions of the carrier tape with unused analytic aids and a take-up reel for holding regions of the carrier tape with used-up analytic aids. The carrier tape can be moved in a spooling direction from the supply reel to the take-up reel. The magazine has a rewind lock of the take-up reel. The magazine has a tape release device, which is configured to make available a take-up reel tape reserve of the carrier tape on the side of the application position facing the take-up reel. The take-up reel tape reserve enables a lifting movement of an analytic aid situated in the application position.

Abstract: A sampling system for collecting a liquid sample, having at least one analytic auxiliary means is proposed. The sampling system has a coupling element for coupling onto the analytic auxiliary means and at least one drive unit for driving a movement of the coupling element from a rest position into a deflected position. The drive unit comprises an energy transducer which is designed to generate a rotational movement with different rotational directions. The drive unit furthermore has a coupling device with at least one rotational-direction sensitive element, wherein the coupling device is designed to couple the energy transducer to a first system function in a first rotational direction, and to couple said transducer to a second system function which differs from the first system function in a second rotational direction which differs from the first rotational direction.