Abstract: In one embodiment, a device includes a plurality of vials each bearing a unique identifier and in discrete locations in the device and an alignment assembly for aligning one of the discrete locations with an access point for dispensing one of the plurality of vials. Computer instructions select a vial of the plurality of vials to be dispensed and inventory information of the plurality of vials is stored, including unique identifiers and a status for each vial. Instructions can deactivate dispensing of the vials based on a signal from an environmental sensor. A deactivation assembly deactivates dispensing of the vials based on the instructions.

Abstract: According to one aspect, a quick disconnect connector is provided. The quick disconnect connector includes a first component and a second component which is matable with the first component. A releasing element is engageable with at least one of the first component and the second component to unmate the first component and the second component. A locking element is movable between a locked position and an unlocked position. The locking element, in the locked position, engages the releasing element to prevent the releasing element from unmating the first component and the second component. The locking element is movable from the unlocked position to the locked position by application of a locking force to the locking element. The locking force can be applied to the locking element by fluid being carried by the quick-disconnect connector.

Abstract: According to one aspect, a quick disconnect connector is provided. The quick disconnect connector includes a first component and a second component which is matable with the first component. A releasing element is engageable with at least one of the first component and the second component to unmate the first component and the second component. A locking element is movable between a locked position and an unlocked position. The locking element, in the locked position, engages the releasing element to prevent the releasing element from unmating the first component and the second component. The locking element is movable from the unlocked position to the locked position by application of a locking force to the locking element. The locking force can be applied to the locking element by fluid being carried by the quick-disconnect connector.

Abstract: According to one aspect, a quick disconnect connector is provided. The quick disconnect connector includes a first component and a second component which is matable with the first component. A releasing element is engageable with at least one of the first component and the second component to unmate the first component and the second component. A locking element is movable between a locked position and an unlocked position. The locking element, in the locked position, engages the releasing element to prevent the releasing element from unmating the first component and the second component. The locking element is movable from the unlocked position to the locked position by application of a locking force to the locking element. The locking force can be applied to the locking element by fluid being carried by the quick-disconnect connector.

Abstract: According to one aspect, a quick disconnect connector is provided. The quick disconnect connector includes a first component and a second component which is matable with the first component. A releasing element is engageable with at least one of the first component and the second component to unmate the first component and the second component. A locking element is movable between a locked position and an unlocked position. The locking element, in the locked position, engages the releasing element to prevent the releasing element from unmating the first component and the second component. The locking element is movable from the unlocked position to the locked position by application of a locking force to the locking element. The locking force can be applied to the locking element by fluid being carried by the quick-disconnect connector.

Abstract: A connector for use in a contaminated environment is provided. The connector includes first and second couplers which are coupled together to produce a fluid path through the connector. Prior to coupling of the first and second couplers, the first and second couplers include plastic caps for minimizing the contaminants on the couplers. Elastomer face seals which can be contaminated are mated against one another compressing to expel contaminants and trapping contaminants between the elastomer face seals. The elastomer face seals are captured between a pair of O-rings. Parts of the elastomer face seals are flushed with fluid as the connector is coupled to further reduce contamination. All internal passages and the elastomer face seals are treated with an antimicrobial compound. The connector vents to the atmosphere during engagement of the first and second couplers such that the connector can operate at a higher pressure with reduced engagement force.

Abstract: A connector for use in a contaminated environment is provided. The connector includes first and second couplers which are coupled together to produce a fluid path through the connector. Prior to coupling of the first and second couplers, the first and second couplers include plastic caps for minimizing the contaminants on the couplers. Elastomer face seals which can be contaminated are mated against one another compressing to expel contaminants and trapping contaminants between the elastomer face seals. The elastomer face seals are captured between a pair of O-rings. Parts of the elastomer face seals are flushed with fluid as the connector is coupled to further reduce contamination. All internal passages and the elastomer face seals are treated with an antimicrobial compound. The connector vents to the atmosphere during engagement of the first and second couplers such that the connector can operate at a higher pressure with reduced engagement force.

Abstract: A connector (10) for use in a contaminated environment is provided. The connector includes first and second couplers (13, 14) which are coupled together to produce a fluid path (148) through the connector. The outer boundaries of the fluid path define a fluid path envelope. The surfaces (126, 128) which could be contaminated and which lie within the fluid path envelope are mated against one another and then captured between a pair of O-rings (46, 122). Parts of these surfaces, as well as other surfaces (130, 132) lying outside the fluid path envelope, are flushed with fluid (142, 144) as the connector is coupled to further reduce contamination. O-rings are also used to clean contamination from parts of some of the surfaces. As a result of these contamination control procedures, the connector can be assembled in a contaminated environment without introducing contamination into the fluid stream passing through the connector.

Abstract: A valve mechanism for opening the seal on a high pressure gas cylinder, e.g., a cylinder having an internal pressure on the order of 6,000 psi, is provided. The valve includes a piston assembly which carries a cutter for puncturing the cylinder's seal. The initial puncture is performed manually. Thereafter, the escaping gas from the cylinder is used to force the piston towards the seal to complete the puncturing process.