22827results about "Couplings bases/cases" patented technology

An electronic device includes an upper cover, a lower cover combined with the upper cover, and a heat conducting pillar. An accommodating space is formed by the upper cover and the lower cover. The heat conducting pillar is disposed in the accommodating space and physically connected with the upper cover and the lower cover to balance the temperature of the upper cover and the lower cover.

A receptacle assembly for use in connecting an energy source to an energy delivering device is described herein. The receptacle assembly includes a face plate defining an aperture. The receptacle also includes an adapter assembly including an adapter plate, supporting a terminal that is operatively connected to the energy source. Additionally, the receptacle includes a spacer member interposed between an inner surface of the aperture of the face plate and an outer surface of the adapter plate, wherein the spacer member permits omni-directional movement of the adapter plate and terminal relative to the face plate.

Systems and method for installing computer equipment and power distribution equipment in facilities is provided. In one aspect, the present invention provides a power distribution rack, and uninterruptible power supply rack and a plurality of equipment racks. A plurality of power cables are run from the power distribution rack to each of the plurality of equipment racks using power cable tracks located on the roofs of the equipment racks.

The invention relates to a fast coupling structure of waterproof cable connector, mainly comprising a male connecting joint and a female connecting joint, both are positioned on the cable end for connection of electric power source or signals on an electric apparatus; the invention enables both of the male and the female connecting joints to have the fast coupling function and the waterproof effects; therefore, a user is able to easily and quickly connect or disassemble the coupling structure.

A permanent connector interconnects a hard-line coaxial cable to a connection housing. A contact is interconnected with and extends coaxially through a connector body. A collet one-piece with the contact receives a central conductor of the coaxial cable, while a sealing member and mandrel receive an outer conductor of the coaxial cable between them. A compression body positioned radially adjacent a portion of the connector body moves axially between first and second positions, wherein when the compression body is in its first position, the coaxial cable is removable from within the connector, and when the compression body is in its second position, the coaxial cable is not removable from within the connector. The compression body acts indirectly upon the sealing member so that an electrical connection is made between the sealing member and the outer conductor of the cable when the compression body is in its second position.

A method (10) of forming an electrically conducting feedthrough. The method (10) comprises a first step (11) of forming an electrically conductive structure (21) comprising a sacrificial component and a non-sacrificial component. At least a portion of the non-sacrificial component can then be coated with a relatively electrically insulating material (35) prior to removal of at least a portion of the sacrificial component from the electrically conductive structure. The structure of the feedthrough provides electrical connection through the wall of a housing of an implantable component while preventing unwanted transfer of materials between the interior of the component and the surrounding environment.

An enclosure includes a control panel, a plurality of controls, indicators, or both mounted on said control panel or in the enclosure. At least some of the plurality of controls, indicators, or both are configured to wirelessly communicate with each other inside the enclosure, and at least some controls include wirelessly controlled relays configured to control devices outside the enclosure.

An electrical connector is mounted on a corrugated coaxial cable. An electrical connection with the outer conductor of the cable is formed by compressing an elastomer body surrounding the end of the cable and flowing the body inwardly against the cable to hold a conductive member in electrical connection with the outer conductor.

An electrical connector adapted for interconnection with a helically corrugated outer conductor coaxial cable via axial compression. Threads formed in an interior bore of the connector body threadably engage helical corrugations of the outer conductor. Upon axial compression of an interface into an interference fit with the body, a leading edge of the outer conductor is deformed, creating a high quality uniform electrical interconnection and preventing unthreading of the cable from the connector. Gaskets environmentally sealing the various entry paths into the connector are also sealably compressed by the axial movement of the various connector components during axial compression.

A power distribution unit includes a first power box including a first chamber having a first termination zone, wherein a first wire set from a supply conduit is configured to be terminated at the first termination zone. The power distribution unit also includes a second power box ganged together with the first power box. The second power box has a second chamber open to the first chamber, and the second chamber has a second termination zone. A second wire set from at least one of the supply conduit and the first termination zone is configured to be terminated at the second termination zone.

An adapter panel has an adapter where a connector including a wireless IC tag in a side surface is inserted or removed. The adapter panel includes a booster antenna placed in a position facing the wireless IC tag of the adapter when the connector is inserted to the adapter, and an equipment antenna placed in a surface of the adapter panel which is a reverse side of the surface where the connector is inserted or removed in a position corresponding to the booster antenna. The adapter panel is applicable to electronic equipment and a cable connector identification system.

A bio sensor interface apparatus that utilizes pre-existing or standard electrical connectors of mobile devices such as smart phones, mobile media players, and tablets. The interface device transforms the input bio sensor signals to compatible electrical signals for input to one or more of the mobile's connectors. That signals are then conducted via one or more input conductors in the connectors to the mobile's microprocessor, which may display or transmit the biosensor signals and derive further measurements from them.

The light-emitting module according to the present invention comprises a heat dissipation element, a substrate for example a metal core printed circuit board (MCPCB), or FR4 board which is coupled to one or more light-emitting elements and provides a means for operative connection of the light-emitting elements to a source of power. The substrate is positioned such that it is thermally coupled to the heat dissipation element. The light-emitting module further comprises a housing element which matingly connects with the heat dissipation element, wherein the housing element may further comprise an optical element integrated therein for manipulation of the light generated by the one or more light-emitting elements.

A modular power distribution unit (PDU) for supplying electric power to attached equipment in environments such as data centers, computer rooms, and communication centers, where power requirements for attached equipment may vary. The power distribution unit includes a frame and one or more user-replaceable power modules, which fit into slots in the frame. Each power module provides one of more plug receptacles for attaching equipment to provide power thereto. The power modules are available in a variety of receptacle types, receptacle numbers, and power rating configurations to accommodate various equipment in a particular environment, as needed. The frame includes an internal connector panel for distributing power from a power source to the power modules when they are inserted in the frame. The power modules may be removed, installed, and interchanged in the frame without interrupting power to other power modules or to the power distribution unit.

Housings for electronic devices are disclosed. According to one aspect, adjoining surfaces of electronic device housings can be mounted or arranged such that adjoining surfaces are flush to a high degree of precision. The electronic devices can be portable and in some cases handheld.

An electrical connector includes an inner shielding shell, an insulating housing, a plurality of terminals and an outer shielding shell. The inner shielding shell defines an accommodating chamber therein. The insulating housing has a base body engaged with a rear of the accommodating chamber and a tongue portion extended forward from the base portion to stretch into a front of the accommodating chamber. A ring-shaped cavity is opened in a periphery of the base body for receiving a waterproof washer therein. An outer periphery of the waterproof washer abuts against insides of the inner shielding shell. The terminals are disposed in the insulating housing. The outer shielding shell surrounds the inner shielding shell. The outer shielding shell has at least one soldering arm soldered to a printed circuit board for achieving a ground function of the inner shielding shell through the outer shielding shell.

A connector for a coaxial cable includes a connector body and a fastening member for connecting said connector to an object such as an equipment port. A post is fitted at least partially inside the connector body for receiving a prepared end of the cable. A compression member is fitted to a back of the connector body. An elastomeric band is fitted inside a cavity formed at least in part by the compression member. Axial movement of the compression member onto said connector body causes the elastomeric band to seal an outer layer of the cable to the connector to isolate the inside of the connector from environmental influences.

An electrical connector with electrically lossy materials bridging ground members. The lossy conductive members may be formed by filling a settable binder with conductive particles, allowing the partially conductive members to be formed through an insert molding process. Connectors assembled from wafers that contain signal conductors held within an insulative housing may incorporate lossy conductive members by having filled thermal plastic molded onto the insulatative housing. The lossy conductive members may be used in conjunction with magnetically lossy materials. The lossy conductive members reduce ground system do resonance within the connector, thereby increasing the high frequency performance of the connector.

A coaxial cable connector includes a coupler, a post and a body member. One end of the body member includes a lip that is inserted through the opening in an annular collar of the coupler. In a cable-installed position, the shank of the post is received in the body member to form an annular chamber which is sufficiently narrow to compress the outer conductor and the jacket of a coaxial cable to establish a distal seal. Tightening of the coupler to the terminal compresses the lip between the flange of the post and the annular collar for establishing a proximal seal. Related methods also are provided.

A universal mounting apparatus formed of a device cradle that is configured with a base plate having a device mounting surface with an integral stop structure adjacent to a first end thereof and projected thereabove, and a linear drive channel arranged along a first axis thereof. The universal mounting apparatus including a clamping mechanism having a linear drive shaft structured to slidingly engage the linear drive channel with a movable clamp structure projected above the device mounting surface adjacent to a second end of the base plate, the movable clamp structure has clamping surfaces inclined toward the device mounting surface and the integral stop structure projected thereabove. A spring is coupled for biasing the movable clamp structure toward the integral stop structure along the first axis.

A connector is provided for coupling an end of a coaxial cable to a terminal, such as a cable terminal, a terminal for coupling to another connector, and the like. The connector includes a coupler, such as a nut, having a receiving port for engaging the terminal. The coupler also includes an annular collar. The connector also includes a body member, one end of which includes a lip. The lip is inserted through the collar opening. The other end of the body section includes an inner surface portion. The connector still further includes a post, an end of which is sized for insertion between the dielectric and the outer conductor of the cable. The post further includes a post flange and a post shank. The post shank forms a post channel sufficient in diameter to receive the inner conductor and the dielectric of the cable. The post is movable between a cable-insertion position and a cable-installed position. In the cable-installed position, the post shank is received in the body member to form an annular chamber between the post shank and the inner surface portion. The annular chamber is sufficiently narrow in this cable-installed position to compress the outer conductor and the jacket with the post shank and the inner surface portion for establishing a distal seal. Tightening of the coupler to the terminal compresses the lip between the post flange and the annular collar for establishing a proximal seal. Related methods also are provided.

A seal for a coaxial cable electrical connector more specifically an internal seal for a coaxial cable connector placed within a coaxial cable and its constituent components. A coaxial cable connector is in electrical communcation with an inductive transformer and a coaxial cable. The connector is in electrical communication with the outer housing of the inductive transformer. A generally coaxial center conductor, a portion of which could be the coil in the inductive transformer, passes through the connector, is electrically insulated from the connector, and is in electrical communication with the conductive core of the coaxial cable. The electrically insulating material also doubles as a seal to safegaurd against penetration of fluid, thus protecting against shorting out of the electrical connection. The seal is a multi-component seal, which is pre-compressed to a desired pressure rating. The coaxial cable and inductive transformer are disposed within downhole tools to transmit electrical signals between downhole tools within a drill string. The internal coaxial cable connector and its attendant seal can be used in a plurality of downhole tools, such as sections of pipe in a drill string, drill collars, heavy weight drill pipe, and jars.

A cam-follower release mechanism for fiber optic modules with side releases. The cam-follower release mechanism translates rotational motion into linear motion. The release mechanism has a rotatable bail lever with a cam lobe that pivots about a pivot point and presses against a bearing surface of the fiber optic module. The release mechanism further has a base with a pin about with the rotatable bail lever may pivot and a sliding fork with sliding side actuators and delatch actuators at each end. As a follower, the base and sliding fork is linearly pulled as the rotatable bail lever is rotated. As the sliding fork is pulled out, the delatch actuators at each end push in on side tabs of a cage into which the fiber optic module may be inserted. The release mechanism further has a spring to apply a force against the rotation of the rotatable bail lever to return it to home and retain the release mechanism moveable coupled to the fiber optic module. The fiber optic module further includes opto-electronic devices mounted to a printed circuit board, and a housing.

In addition to the single molded part incorporating features of the conventional nut, sealing member and body, the connector includes a post and a hollow compression sealing ring. The post includes an integrally formed stem and flange portions, with the compression ring axially movable upon the body and including a tapered surface which applies a radially inward force to the body, compressing the cable and providing tight frictional engagement of the connector and cable. When in its fully installed position, the axial length of the ring is sufficient to entirely enclose the unitary body and nut, preferably having an interference fit with the outer surface of the nut portion, thus locking and sealing the connector threads to the equipment port. The compression ring is preferably of metal to shield the internal plastic parts of the connector from UV rays.

A connector assembly (10) is provided including a first connector (12) and a second connector (14) configured to mateably engage the first connector (12). The first connector (12) includes a housing (16), a conductor assembly (18) positioned within the housing and projecting from housing, and a resilient seal member (30) enclosing an interface between the housing (16) and the portion of the conductor assembly projecting from the housing. The second connector (14) includes an outer contact (60), an inner contact (62) nested within a portion of the outer contact (60), and a housing (64) containing the inner and outer contacts. Conductors of the conductor assembly (18) of the first connector (12) engage the outer (60) and inner (62) contacts of the second connector (14). Another resilient seal member (45) includes a flexible skirt (50) formed at an end portion thereof. The flexible skirt (50) forms a shroud covering a mating interface between a first conductor (20) of the first connector (12) and the inner contact (62) of the second connector (14) when the first and second connectors are mated. Design features incorporated into the second connector housing (64), inner contact (62), and outer contact (60) act to retard undesirable unmating of the connectors. The connector assembly (10) of the present invention may be used in applications requiring a dual wire or coaxial connector resistant to adverse environmental conditions, such as exposure to high-pressure gases or liquids, elevated temperatures, vibration, salt spray, etc.