Abstract:
A joint unit is provided, including a main body, a bush, which is fastened to the main body in the axial direction and forms with the main body a receiving space intended to receive a connecting piece not forming part of the joint unit, and a retaining unit for interacting with the main body and the connecting piece. The bush and the retaining unit are formed together in one piece. A joint assembly is further provided, including a joint unit and a connecting piece.
Abstract:
In a fluid-transfer coupling device (5) that connects a plug (70) and a socket (10) to each other to communicate respective flow paths in the socket and the plug with each other, the plug includes, at least, an inner spacer (74) having an inner passage (78) formed to allow a passage of fluid, a plug collar (73) covering the outer circumferential surface of the inner spacer and a flange (75) formed on a proximal end of the plug to connect the plug to a conduit. The plug collar and the flange are made of metal. Consequently, even if the flow rate of the fluid is large, the plug can be firmly supported in the device. The inner spacer is made of a resinous material. In this connection, at least one portion of an outer circumferential portion of the plug may be formed of metal.
Abstract:
A connector apparatus includes first and second mating connectors that can be joined to make a fluid connection. The connectors are constructed to discriminate improper connectors so that no fluid tight connection can be formed with improper connectors. The connector apparatus can be used with a system for compression therapy to prevent deep vein thrombosis.
Abstract:
A quick connect and quick release coupling for connecting two pipes, including a male element and a female element that are axially fitted and interlocked one inside the other and wherein a locking mechanism retains the male element in a coupled position and a temporarily retaining mechanism immobilizes the male element, after its release by the locking mechanism, in a position for flushing a pipe connected to the male element. The locking mechanism is controlled by a sleeve that slides relative to a body of the female element. When the temporarily retaining mechanism retains the male element in flushing position, it is subjected to a first force (E1) derived from a pressure (P) of the fluid flowing (F) from the male element outwards and to a second force (E2), opposite to the first, exerted by elastic return means which, when the pressure (P) drops to a safety threshold, moves the temporarily retaining mechanism into a position for releasing the male element from the female element.
Abstract:
A plug-in coupling for fluidic systems, in particular for CO2- and fuel-conducting systems, including a housing (1) and a plug (2) which can be inserted into the housing (1). The plug (2) can be inserted by a plug stem (3) into a receiving opening (4) of the housing (1) in a manner sealed by at least one circumferential seal (5, 5a, 5b) and, when inserted, for it to be locked therein against release by a locking device having at least one latching element (7) arranged on the plug (2) and a latching shoulder (8) interacting with the latching element (7). The housing (1) has two-part design with an inner housing part (1a) and an outer housing part (1b), which can be connected releasably to the inner housing part (1a) so that it essentially surrounds the inner housing part (1a). In order to install it without destroying it, the latching shoulder (8) is formed at one end in an entry region (4a) of the receiving opening (4) on the outer housing part (1b).
Abstract:
A fluid-transfer coupling device includes a cylindrical housing (1), a cylindrical slider (25), which contains a valve sleeve (15) accommodating a valve (16) to be opened by pressure and which can slide in the cylindrical housing and plug supporting means (60), which supports a plug (70) on condition of being drawn up to an advanced end in the valve sleeve by the movement of the slider. With this constitution, even when using a coupling device having a relatively-large diameter, it is possible to supply fluid stably. Further the plug supporting means is arranged in front of the forward end of the slider. Additionally, the plug supporting means is provided with an improper connection preventing mechanism (68, 69a to 69d, 77) for preventing other plugs, except for a specified plug from being connected.
Abstract:
A connector apparatus includes first and second mating connectors that can be joined to make a fluid connection. The connectors are constructed to discriminate improper connectors so that no fluid tight connection can be formed with improper connectors. The connector apparatus can be used with a system for compression therapy to prevent deep vein thrombosis.
Abstract:
A plastic tubing organization system is provided that facilitates easy identification of the terminal ends of the tubing while also including an end cap that protects the pipe from contamination and facilitates installation thereof. The system generally includes an indexing card with a plurality of receiver positions therein and a plurality of end caps removably received within the receiver positions on the indexing card. Further, the end caps are coded to match the receiver positions thereby allowing easy correlation between the tubing bearing the end cap and the receiver position on the indexing card.
Abstract:
A plug-in coupling for fluidic systems, in particular for CO2— and fuel-conducting systems, including a housing (1) and a plug (2) which can be inserted into the housing (1). The plug (2) can be inserted by a plug stem (3) into a receiving opening (4) of the housing (1) in a manner sealed by at least one circumferential seal (5, 5a, 5b) and, when inserted, it can be locked therein against release by a locking device having at least one latching element (7) arranged on the plug (2) and a latching shoulder (8) interacting with the latching element (7). The housing (1) has two-part design with an inner housing part (1a) and an outer housing part (1b), which can be connected releasably to the inner housing part (1a) so that it essentially surrounds the inner housing part (1a). In order to install it without destroying it, the latching shoulder (8) is formed at one end in an entry region (4a) of the receiving opening (4) on the outer housing part (1b).
Abstract:
In an improved quick disconnect coupling comprised of operator-actuated coupler and nipple assemblies, the former including an actuating sleeve, with the coupled assemblies having first and second sealing assemblies respectively, wherein the improvement comprises, in combination, that each of the sealing assemblies includes, in addition to the known torodial sealing element, a first non-continuous metallic backup ring and a second non-metallic backup ring interposed between the torodial sealing element and the first backup ring, both backup rings being of generally truncated triangular shape, in cross section; and a metallic insulating sleeve, surrounding the actuating sleeve while being substantially fully radially spaced therefrom, via a peripheral air gap, except for a band portion at one end thereof, this band being interference-fitted on a corresponding portion of the actuating sleeve and including a plurality of axially-extending, spaced, scalloped recesses defining an additional insulating air space and having spaced boundaries that provide surfaces for the interference-fitting.