292results about "Electric and fluid coupling" patented technology

A multifunction power / data distribution system which consists of a cable system that provides power, data, and air cooling from a single wall outlet. Each device, has a single cable which brings power, data, and / or cooled air to that device. The system includes an appliance coupler assembly which may incorporate a fiber optics signal line, a coax cable, a cooled air supply line, and / or a telephone line. The data lines may be combined into a single high bandwidth line. Only a single cable is required to be run between the appliance coupler socket on the wall and an appliance, such as a PC, telephone, etc., to connect the appliance to an external power source, to a data network, to telephone network, or to a source of air cooling. The system provides for, and describes several types of, mating wall sockets and appliance end plugs.

The present invention relates to a line connector for media lines, consisting of a connector piece with at least one junction portion for junction connection to a media line or to an assembly and with a transitional portion contiguous to the junction portion and having a flow duct. In this case, at least in the region of the transitional portion, electrical heating means are provided in an arrangement at least partially surrounding the flow duct. Furthermore, the invention relates to a ready-made media line consisting of a pipeline with a heating conductor arranged on the circumference and with a heatable line connector fastened at least to one pipeline end of the media line.

A transmission system in a downhole component comprises a plurality of data transmission elements. A coaxial cable having an inner conductor and an outer conductor is disposed within a passage in the downhole component such that at least one capacitor is disposed in the passage and having a first terminal coupled to the inner conductor and a second terminal coupled to the outer conductor. Preferably the transmission element comprises an electrically conducting coil. Preferably, within the passage a connector is adapted to electrically connect the inner conductor of the coaxial cable and the lead wire. The coaxial capacitor may be disposed between and in electrically communication with the connector and the passage. In another embodiment a connector is adapted to electrical connect a first and a second portion of the inner conductor of the coaxial cable and a coaxial capacitor is in electrical communication with the connector and the passage.

An electronic equipment enclosure (10) for housing electronic equipment (11), and broadly comprising a pivot bracket (22); a plurality of sleeves (24), each being associated with a transmit terminal (26), a receive terminal (28), protective circuitry (30), and test circuitry (32); a spreader plate (38); and a heat sink (40). The pivot bracket (22) allows for tilting an outer housing (12) up to 30° relative to a mounting surface. The separate and distinct transmit and receive terminals (26,28) maintain minimum cross-talk and interference levels. The protective and the test circuitries (30,32) are located on daughter boards adjacent each sleeve (24) so as to be easily accessible. The spreader plate (38) is operable to force the sleeves (24) into direct contact with the interior surface of the outer housing (18). The heat sink (40) is operable to facilitate conductive heat transfer between the sleeves (24) and the lid (18).

An apparatus for installing data transmission hardware in downhole tools includes an insert insertable into the box end or pin end of drill tool, such as a section of drill pipe. The insert typically includes a mount portion and a slide portion. A data transmission element is mounted in the slide portion of the insert. A biasing element is installed between the mount portion and the slide portion and is configured to create a bias between the slide portion and the mount portion. This biasing element is configured to compensate for varying tolerances encountered in different types of downhole tools. In selected embodiments, the biasing element is an elastomeric material, a spring, compressed gas, or a combination thereof.

A connector (20) to a couple breathing conduit to a patient interface or another conduit. The connector allows for an electrical connection (22a, 22b) in a first conduit (14a) to be connected to another electrical connection (21a, 21b) in a patient interface or second conduit (14b). The connector is capable of swivelling without disrupting the gas flow through the conduits of the electrical connection.

An automated (robotic) floor cleaner (100) is adapted to allow sterile cleaning of sensitive environments, such as hospital room. In particular, the floor-cleaner chassis (124) is redesigned to be mounted on a deck (102) containing cleaning devices that contact the floor. The cleaning devices mounted on the deck (102) include vacuum head (132), brushes (120), cleaning fluid sprays (128), and conceivably sanitizing devices such as UV germicidal light, are provided pre-sterilized. As such, the adapted floor-cleaner chassis (124) allows the deck (102) to be mounted to the bottom of the chassis (124), the floor-cleaner (100) is then used to clean a floor, after which, the deck (102) is removed from the chassis (124) and disposed. The robotic-floor cleaner (100) and sterilization system cleans floor between or even during cases. Further, the robotic floor cleaner (100) reduces the “turnover time” required between cases, as it operates simultaneously while the staff prepares the room for the next case.

An electric line arrangement, in particular a charging cable for a motor vehicle, having at least one electrically conductive lead which can be placed in electrical contact at its ends in order to transmit electrical energy, an insulation layer which surrounds the lead circumferentially, and a coolant duct in which a cooling fluid for cooling the lead is conducted, wherein the insulation layer is spaced apart from the lead, and the coolant duct is formed between the insulation layer and the lead in such a way that the cooling fluid flows directly around the lead.

An automated (robotic) floor cleaner (100) is adapted to allow sterile cleaning of sensitive environments, such as hospital room. In particular, the floor-cleaner chassis (124) is redesigned to be mounted on a deck (102) containing cleaning devices that contact the floor. The cleaning devices mounted on the deck (102) include vacuum head (132), brushes (120), cleaning fluid sprays (128), and conceivably sanitizing devices such as UV germicidal light, are provided pre-sterilized. As such, the adapted floor-cleaner chassis (124) allows the deck (102) to be mounted to the bottom of the chassis (124), the floor-cleaner (100) is then used to clean a floor, after which, the deck (102) is removed from the chassis (124) and disposed. The robotic-floor cleaner (100) and sterilization system cleans floor between or even during cases. Further, the robotic floor cleaner (100) reduces the “turnover time” required between cases, as it operates simultaneously while the staff prepares the room for the next case.

A patient table, modified with a fixed-base design thereby allowing for heavy patients, providing tilting and cantilevering capabilities, table top extension (i.e. providing head to toe coverage), and overall stability, is described. The operating room table re-design includes incorporation of utility sources into the architecture of the table, so that utilities, such as wiring, vacuum, and gas hoses, arise from the table itself. The source of all utilities to the table (as opposed to those emanating from the table) may come from an underground connection. Further, the table is interchangeable with tables customized for a specific procedure.

Two embodiments of a connector that can be mated without regard for its orientation are disclosed. One embodiment is mated and demated autonomously as part of a system for recovering, docking with, recharging and re-launching unmanned aerial vehicles. Another embodiment is employed on the decks of vessels to facilitate mating and demating of various equipment providing different functions to reconfigure the vessel. Because both embodiments are configured for connection irrespective of angular orientation over 360°, they are especially suited for harsh environments including autonomous operation, rough seas, darkness and the like.

Cabling for a motor vehicle includes at least one fluid hose, a first cable for heating the fluid hose and at least one electrical connector for connecting the cable to an electrical supply, and at least one hose connector for connecting the fluid hose to a cooperating connector means. The hose connector may be provided with an electrically heated device arranged to heat at least part of the hose connector.

The present invention relates to an electrically heatable media line (1), comprising a fluid line (2) and at least one fluid connector (4) connected to a line end (2a). The fluid line (2) and the fluid connector (4) respectively have electric heating means (6, 10), wherein the fluid line (2) and / or the fluid connector (4) including electric connections (16) of the heating means (6, 10) are / is enclosed by a plastic molding compound.

Cabling for a motor vehicle includes a fluid hose, a cable for heating the fluid hose and at least one electrical connector for connecting the cable to an electrical supply, with the fluid hose and the cable being completely surrounded by an external protective sheath. It is possible to provide heated cabling, with a fluid hose and an electrical cable being completely encapsulated.

The present invention is directed to fluid compensated downhole connectors and connection systems employing an intensified dielectric fluid compensation. Also disclosed is a permanent downhole fluid compensated electrical connector assembly employing an intensified dielectric fluid compensation. The present disclosure is also directed to a field bypass connector system for a downhole completion tool, such as a packer, and a retrievable wet connect system also employing intensified dielectric fluid compensation.

A connecting system for connecting a ventilation tube to a respiratory humidifier (1) is provided, wherein the ventilation tube comprises an electrical line and the respiratory humidifier (1) comprises a housing (2) and a liquid container (4), the connection system including a first connection element (6) arranged on the liquid container (4); a first electrical contact element (24) arranged on the housing (2); and a second connection element (14), which can be connected to the ventilation tube (7, 9) and comprises a second electrical contact element (16), which can be connected to the electrical line of the ventilation tube (7, 9); wherein the first connection element (6) and the second connection element (14) can be connected to each other in a first connecting direction in such a way that, by establishment of the pneumatic connection of the ventilation tube (7, 9) to the liquid container (4), the electrical connection of the first contact element (24) to the second contact element (16) is produced. The electrical connection of the first contact element (24) to the second contact element (16) can be established in a second connecting direction different from the first connecting direction, preferably in a direction essentially perpendicular to the first connecting direction.

An extruded metal connector that does not require an insulating layer in the channels is disclosed. Further an extruded metal connector that does not require and IPCB is also disclosed. The connector includes a metallic extruded housing having one or more connector channels formed therein during extrusion. The one or more connector channels have first and second ends and channel walls. The connector also includes a singular or plurality of pin guides each with a central aperture and each operatively coupled to a corresponding channel. An intermediate printed circuit board (IPCB) or other such member having one or more spaced apart first electrical contact pins serves to hold the connector pins within the connector channels and away from the channel walls by the IPCB at the first end of the channel. Pin guides arranged at the other ends of the channel support the ends of the contact pins opposite on the opposite end so that the pins remain in the center of each channel and away from the channel walls when no IPCB is used.

An interface connector is provided for connecting homogenous spacecraft cells. The interface connector includes at least one male valve assembly and at least one female valve assembly. The male valve assembly includes an extendable and retractable piston having a central conduit. The female valve assembly has a central bore closed by a ball valve. Preferably, the male and female valves are positioned so that extension of the piston engages the ball valve so as to create a fluid pathway. Various components in the male and female valve assemblies are electrically conductive to allow the transmission of power and data. Further, the male valve assembly is constructed to function as a propulsion thruster when not mated to a female valve assembly.

The invention is directed to a cable assembly (10, 10a-b), comprising a cable (10, 10a-b) with a cable hose (11, 11a-b) and at least one conductor (12, 12a-f) arranged therein. The cable hose (11, 11a-b) is spaced a distance apart from the conductor (12) forming a first interstitial space (15,a-b) between the at least conductor (12) and the cable hose (11, 11a-b). At least one tube (20, 20a-b) for conveying of a cooling fluid (21), and a connector (30) comprising at least one contact member (31) interconnected to the at least one conductor (12) and a chamber (32). Said chamber (32) comprises a first port (33) which is interconnected to the first interstitial space between the at least one conductor (12, 12a-f) and the cable hose (11, 11a-b) and a second port (34a, 34a-b) which is interconnected to the at least one tube (20, 20a-b).

A high power drive stack system is provided which includes a cabinet (20) having a vaporizable dielectric fluid cooling system (110) and a plurality of receivers (22) for accepting a plurality of modules (30) containing power electronics. The modules are removably attachable to the receivers by at least two non-latching, dry-break connectors (210). Each of the at least two connectors providing both a fluid connection and an electrical connection between the cabinet and the module.