A breakaway connector apparatus including a housing and a breakaway component is configured for attachment directly to a needle-free fitting on an intravenous line. The breakaway connector apparatus includes only one valve. The apparatus is configured to open both the valve and a seal on the needle-free fitting when the breakaway component is attached to the needle-free fitting. When tension is applied to the connector, the breakaway component is configured to detach from the apparatus while remaining attached to the needle-free fitting, thereby closing the valve on the apparatus and also closing the seal on the needle-free fitting. In some embodiments, the breakaway connector apparatus includes one or more securing arms and one or more corresponding securing bars to prevent re-connection of the apparatus following disengagement of the breakaway component from the apparatus.

The present invention relates to a device for identifying the connection status between a patient catheter and a cassette system having flexible tubing assembly, which is intended to be used in a dialysis machine, wherein the device comprises the cassette system having flexible tubing assembly and an electrical circuit, which is disposed on the cassette system having flexible tubing assembly as well as on the patient catheter, and wherein the device furthermore comprises a measuring device for measuring at least one electrical property of the electrical circuit, which depends on said connection status.

A system includes a flow sensor contained within a flow sensor housing, a base, and a seal. The base houses a controller that generates at least one operation modification signal, and the flow sensor is separable from and mountable onto the base. A bottom surface of the flow sensor housing includes the seal. The seal forms a liquid-tight engagement between the flow sensor housing and the base when the flow sensor is mounted onto the base.

An apparatus is provided for detecting mating of a cap with a fluid delivery device having a housing, a receptacle, and a sensor. The housing is configured to carry an insulin delivery device having a reservoir of the fluid. The receptacle is provided by the housing having a coupling with a locking recess configured to receive a cap with a sprung locking arm. The pressure sensor is carried by the receptacle proximate the coupling and configured to detect engagement force of the sprung locking arm with the receptacle when mated with the housing. A method is also provided.

A system includes a flow sensor contained within a flow sensor housing, a base, and a seal. The base houses a controller that generates at least one operation modification signal, and the flow sensor is separable from and mountable onto the base. A bottom surface of the flow sensor housing includes the seal. The seal forms a liquid-tight engagement between the flow sensor housing and the base when the flow sensor is mounted onto the base.

This disclosure includes an apparatus for detecting mating of a cap with a fluid delivery device having a housing, a receptacle, and a sensor. The housing is configured to carry an insulin delivery device having a reservoir of the fluid. The receptacle is provided by the housing having a coupling with a locking recess configured to receive a cap with a sprung locking arm. The pressure sensor is carried by the receptacle proximate the coupling and configured to detect engagement force of the sprung locking arm with the receptacle when mated with the housing. A method is also provided.

Quick disconnect fluid coupling devices described herein. The fluid couplings are configured for use in fluid systems for the purpose of providing a low-spill quick disconnect coupling. The fluid couplings include portions that are pivotable in relation to each other to open and close a fluid pathway through the fluid couplings. Particular embodiments of these fluid coupling can be configured to improve medical fluid handling equipment because the fluid coupling devices can be connected and disconnected (e.g., multiple times) while minimizing fluid spillage.

Various smart medical connection embodiments of the present disclosure encompass a magnetic connectivity manager energizing ferromagnet(s) in response to a powering on the magnetic connectivity manager and a sensing of a connection strain on a medical base (21) and/or a patient base (31) of the device, whereby a magnetic connectivity interface (22, 32) activates a magnetic connectivity between metallic module(s) and the ferromagnet(s) for interfacing the conduit channels of the bases. The various smart medical connection embodiments of the present disclosure further encompass the magnetic connectivity manager deenergizing the ferromagnet(s) in response to a powering down of the magnetic connectivity manager and/or a sensing of a disconnection strain on the base(s), whereby the magnetic connectivity interface (22, 32) deactivates the magnetic connectivity between the metallic module(s) and the ferromagnet(s) for interfacing the conduit channels of the bases.

In some examples, a connector includes a plug configured to mechanically couple with a socket to establish fluid communication from a first conduit to a second conduit. The plug is configured to mechanically engage the first conduit and the socket is configured to mechanically engage the second conduit. In examples, the plug is configured to insert into a socket well of the socket. The connector includes a clamp head configured to mechanically engage the plug when the plug mechanically couples with the socket. The clamp head is configured to mechanically engage the plug to help sustain the mechanical coupling of the plug and the socket. In some examples, the connector may include an output device configured to provide an output indicating when the plug is mechanically coupled with the socket.

A capacitive priming sensor for a medical fluid delivery system is disclosed. In an example embodiment, a priming sensor includes a housing including a recessed section configured to accept a portion of a tube. The recessed section of the housing includes a first side including a first conductive plate and a member including a second conductive plate. The member is moveably connected to a second side of the recessed section for detecting insertion of the portion of the tube into the housing of the priming sensor. The recessed section also includes a third side opposing the first side. The third side includes a third conductive plate disposed across from a top portion of the first conductive plate, and a fourth conductive plate disposed across from a bottom portion of the first conductive plate. The priming sensor also includes capacitive sensors or detectors for measuring capacitances between the conductive plates.