Abstract: Anti-snagging components for use in infusion sets are provided. The anti-snagging component includes a sliding surface that guides an infusion set component past an obstruction when the infusion set is moved during manufacture or use. An anti-snagging structure may be integrally formed as a portion of an infusion set component or the anti-snagging structure may be a separate component that connects or attaches to an infusion set component. Some anti-snagging structures include a covering portion to cover a needleless connector and a tail portion to connect to a length of tubing. The covering portion may include an anti-microbial coating.

Abstract: Anti-snagging components for use in infusion sets are provided. The anti-snagging component includes a sliding surface that guides an infusion set component past an obstruction when the infusion set is moved during manufacture or use. An anti-snagging structure may be integrally formed as a portion of an infusion set component or the anti-snagging structure may be a separate component that connects or attaches to an infusion set component. Some anti-snagging structures include a covering portion to cover a needleless connector and a tail portion to connect to a length of tubing. The covering portion may include an anti-microbial coating.

Abstract: Anti-snagging components for use in infusion sets are provided. The anti-snagging component includes a sliding surface that guides an infusion set component past an obstruction when the infusion set is moved during manufacture or use. An anti-snagging structure may be integrally formed as a portion of an infusion set component or the anti-snagging structure may be a separate component that connects or attaches to an infusion set component. Some anti-snagging structures include a covering portion to cover a needleless connector and a tail portion to connect to a length of tubing. The covering portion may include an anti-microbial coating.

Abstract: A float valve system for controlling an amount of liquid in a chamber is disclosed that includes a first valve seat and a second valve seat. Liquid enters the chamber in a first direction to the first valve seat and is transferred in a second direction to the second valve seat. First and second actuating members are provided to selectively open and close the first valve seat and the second valve seat, respectively. A first float is coupled to the first actuating member so as to close the first valve seat upon fluid in the chamber reaching a first predetermined level and a second float is coupled to the second actuating member so as to close the second valve seat upon fluid in the chamber reaching a second predetermined level that is different from the first predetermined level.

Abstract: A float valve system for controlling an amount of liquid in a chamber is disclosed that includes a first valve seat and a second valve seat. Liquid enters the chamber in a first direction to the first valve seat and is transferred in a second direction to the second valve seat. First and second actuating members are provided to selectively open and close the first valve seat and the second valve seat, respectively. A first float is coupled to the first actuating member so as to close the first valve seat upon fluid in the chamber reaching a first predetermined level and a second float is coupled to the second actuating member so as to close the second valve seat upon fluid in the chamber reaching a second predetermined level that is different from the first predetermined level.

Abstract: A heat and moisture exchange (HME) unit including a housing, a heat and moisture retaining media (HM media), and a valve mechanism. The housing forms an intermediate section extending between two ports, and defining first and second flow paths. The HM media is maintained along the first flow path. The valve mechanism includes an obstruction member movably retained within the housing and transitionable between opposing, first and second maximum points of travel. At the first maximum point of travel, the obstruction member closes the second flow path to permit airflow through only the first flow path. At the second maximum point of travel, the obstruction member permits airflow through both of the first and second flow paths. The HME unit is simple to use, yet provides an effective bypass state in which airflow freely progresses around the HM media.