A plastic flange for a medical container, the plastic flange defining an opening, the opening being surrounded by a peripheral collar, the collar providing a support to a user's fingers, wherein the flange comprises connecting means for connecting the flange to an external surface of a tubular barrel of the medical container, and wherein the flange further comprises a remotely readable electronic component for remote identification of the medical container, the remotely readable electronic component being embedded into the plastic flange.

A system includes a drip chamber. The drip chamber has a proximal end coupled with a drug container and a distal end coupled with fluidic tubing. The drip chamber has a proximal check valve configured to prevent fluid flow in a proximal direction and to allow fluid flow in a distal direction when a cracking pressure threshold is overcome. The drip chamber also includes a distal check valve configured to prevent fluid flow in the proximal direction and to allow fluid flow in the distal direction when a cracking pressure threshold is overcome. The cracking pressure threshold of the proximal check valve and the cracking pressure threshold of the distal check valve in combination is greater than or equal to 1 PSId. The system also includes a pneumatic port between the check valves that is configured to pneumatically couple with a pneumatic feedback control system.

A compliance monitoring system is provided for an injection device having an unused state and a used state. The system includes one or more radio frequency tags attached to a surface of the injection device and a portable monitoring accessory that includes a housing, a radio frequency antenna disposed within the housing, a wireless transmitter module disposed within the housing, and a processing circuit disposed within the housing. The processing circuit is configured to receive, via the radio frequency antenna, a first signal from the one or more radio frequency tags via a radio frequency communication protocol. The processing circuit is also configured to transmit, via the wireless transmitter, a second signal to a mobile device via a wireless communication protocol different from the radio frequency communication protocol. Both of the first signal and the second signal include state information of the injection device.

A method of processing blood includes receiving from a touch screen user input data for a protocol for a wash procedure. The user input data includes a numeric value. The method includes storing the protocol in a memory, receiving an identifier from a user, determining if the identifier permits the user to modify the protocol and receiving a modification of the protocol from the user. The method includes providing a plurality of authorizations, a second authorization being a default and an administrator authorization permitting the user to change a setting. The method includes comparing a password to a password stored in memory and, if there is a match, determining that the password is associated with an administrator. If a command to change the setting is received, the command is applied to change the setting. The blood is processed employing a wash procedure using the modified protocol and the changed setting.

Therapy gas delivery systems that provide run-time-to-empty information to a user of the system and methods for administering therapeutic gas to a patient. The therapeutic gas delivery system may include a gas pressure sensor attachable to a therapeutic gas source that communicates therapeutic gas pressure data to a therapeutic gas delivery system controller, a gas temperature sensor positioned to measure gas temperature in the therapeutic gas source that communicates therapeutic gas temperature data to the therapeutic gas delivery system controller, at least one flow controller that communicates therapeutic gas flow rate data to the therapeutic gas delivery system controller, at least one flow sensor that communicates flow rate data to the therapeutic gas delivery system controller, and at least one display that communicates run-time-to-empty to a user of the therapeutic gas delivery system. The therapeutic gas delivery system controller of the system includes a processor that executes an algorithm to calculate the run-time-to-empty from the data received from the gas pressure sensor, temperature sensor, flow controller and flow sensor, and directs the result to the display.

The present invention is directed to a system comprising a mobile inhaler (1) that is configured to be connected to at least one liquid container (17), and to deliver an amount of an inhaling substance (10). The mobile inhaler comprises furthermore at least one or a plurality of connector(s) (80) configured for connection of the mobile inhaler to the at least one liquid container and for intaking of at least a portion of the at least one liquid container's content(s). The system comprises furthermore the at least one liquid container, wherein each liquid container comprises at least one reservoir that comprises at least a portion of the inhaling substance or the inhaling substance. The present invention is furthermore directed to a method for operating the system, comprising delivering the inhaling substance by the system according to a set of conditions. Said set of conditions regulates at least one of a quantity and a general delivery of the inhaling substance.

The present invention relates to a feedback for inhalation. In order to further improve feedback and instructions to further support the correct use of an inhaler, a feedback apparatus (10) for inhalation is provided that comprises an inhaler interface (11), a processor (14), a feedback device (16), and a feature assigner (13). The inhaler interface is configured to temporarily attach the feedback apparatus to an inhalation apparatus. The feedback device is configured to provide a feedback to the user to aid in inhalation with the inhalation apparatus. The feature assigner is configured to identify a type of a predetermined feature of the attached inhalation apparatus, and the feedback device is configured to provide the feedback in dependency of the identified type of feature to instruct the user to adjust inhalation maneuver adapted to the attached inhalation apparatus. In an example, the predetermined feature is a device type of the inhalation apparatus, and the feature assigner is configured as an inhalation device type assigner (70) to identify the type of a currently used inhalation device. In another example, the predetermined feature is an accessory type of the inhalation apparatus, and the feature assigner is configured as an accessory type assigner (72) to identify the type of a currently used accessory.

The present invention relates to a medicament delivery device comprising a housing (60), which housing is arranged to accommodate a medicament container (62); a drive unit (86) operably arranged to act on said medicament container (62) for expelling a dose of medicament; an activation unit (74) operably connected to said drive unit for activating said drive unit (86); said drive unit (86) comprising an actuation element (84) arranged movable inside the housing (60) from an initial position prior to activation, to a displaced position after activation; at least a first NFC-chip (170, 172) comprising specific information arranged on said actuation element; at least one shielding element (174) arranged to said housing, such as to shield said at least first NFC-chip (170, 172) from being read by an NFC-chip reader when said actuation element (84) is either in the initial position or in the displaced position. The present invention also comprises a communication system in which said medicament delivery device is a part.

A medical system, usable for example in connection with a dialysis apparatus, may utilize radar waves for monitoring a patient, a medical area, or an object. The medical system includes at least one sending device for sending radar waves, and at least one receiving device for receiving reflected radar waves. The medical system further includes an evaluation unit for evaluating the reflected radar waves which have been received by the at least one receiving device, resulting in obtaining a result, and an output device for outputting the result or a signal based on the result.

A drug delivery device is provided comprising a housing having an exterior surface, drug ex-pelling means comprising an indicator member arranged to move corresponding to an action performed on or by the drug delivery device, and a carrier foil on which is formed or mounted an energy source, electronically controlled communication means, and a processor adapted to (i) receive input from the drug delivery device indicative of indicator member movement and (ii) control the communication means. The flexible carrier foil is mounted on the exterior of the housing, and the flexible carrier foil is covered at least in part by a sealing foil covering directly or indirectly the thereon formed or mounted components, whereby a sealed interior space for the components formed or mounted on the flexible carrier foil is formed between the housing exterior surface and the sealing foil.