Abstract: A grounding member for an electrical connector that has a conductive body including a ring portion that has opposite front and rear edges, the front edge is configured to face a coupling member of the electrical connector, and opposite inner and outer surfaces, the inner surface is configured to face a body of the electrical connector. At least a first resilient arm that extends from the front edge of the ring portion. The first resilient arm has a coupling member contact surface configured to contact the coupling member of the electrical connector. At least a second resilient arm that extends from the rear edge of the ring portion. The second resilient arm has a body contact surface configured to contact the body of the electrical connector. At least one sleeve engagement member that extends from the ring portion configured to engage a gripping sleeve.

Abstract: An electrical connector that comprises a connector body that has opposite first and second ends. The first end is configured to be coupled with a prepared end of a cable. A coupling member that has an interface end configured to interface with a mating connector and a free end opposite the interface end that is rotatable with respect to the connector body at the second end of the connector body. A resilient grounding member is disposed between an outer surface of the second end of the connector body and the free end of the coupling member. Each of the connector body, the coupling member, and the resilient grounding member is conductive thereby creating a grounding path between the connector body and the coupling member.

Abstract: An electrical connector that includes a connector body that has opposite first and second ends where the first end is configured to be coupled with a prepared end of a cable. A coupling member has an interface end configured to interface with a mating connector and a free end that is rotatable with respect to the connector body at the second end of the body. A gripping sleeve is configured to receive at least a portion of the coupling member and the connector body. The gripping sleeve includes a main body that has an internal bore with an inner surface. At least one electrically conductive grounding member disposed on the inner surface of the gripping sleeve. The grounding member has a coupling member contact surface and a connector body contact surface that provide a grounding path between the connector body and the coupling member.

Abstract: An electrical connector that comprises a connector body that has opposite first and second ends. The first end is configured to be coupled with a prepared end of a cable. A coupling member that has an interface end configured to interface with a mating connector and a free end opposite the interface end that is rotatable with respect to the connector body at the second end of the connector body. A resilient grounding member is disposed between an outer surface of the second end of the connector body and the free end of the coupling member. Each of the connector body, the coupling member, and the resilient grounding member is conductive thereby creating a grounding path between the connector body and the coupling member.

Abstract: An electrical connector that comprises a connector body that has opposite first and second ends. The first end is configured to be coupled with a prepared end of a cable. A coupling member that has an interface end configured to interface with a mating connector and an free end opposite the interface end that is rotatable with respect to the connector body at the second end of the connector body. A resilient grounding member is disposed between an outer surface of the second end of the connector body and the free end of the coupling member. Each of the connector body, the coupling member, and the resilient grounding member is conductive thereby creating a grounding path between the connector body and the coupling member.

Abstract: An electrical connector that comprises a connector body that has opposite first and second ends. The first end is configured to be coupled with a prepared end of a cable. A coupling member that has an interface end configured to interface with a mating connector and an free end opposite the interface end that is rotatable with respect to the connector body at the second end of the connector body. A resilient grounding member is disposed between an outer surface of the second end of the connector body and the free end of the coupling member. Each of the connector body, the coupling member, and the resilient grounding member is conductive thereby creating a grounding path between the connector body and the coupling member.

Abstract: An electrical connector that comprises a connector body that has opposite first and second ends. The first end is configured to be coupled with a prepared end of a cable. A coupling member that has an interface end configured to interface with a mating connector and an free end opposite the interface end that is rotatable with respect to the connector body at the second end of the connector body. A resilient grounding member is disposed between an outer surface of the second end of the connector body and the free end of the coupling member. Each of the connector body, the coupling member, and the resilient grounding member is conductive thereby creating a grounding path between the connector body and the coupling member.

Abstract: A connector for terminating a coaxial cable that comprises a connector body that has a first end adapted to receive the coaxial cable and a second end adapted to couple with a mating connector. A locking sleeve that has an interface end is engageable with the first end of the connector body. The locking sleeve includes an outer engagement ring spaced from the interface end thereby defining an outer annular receiving area between the outer engagement ring and the interface end. The outer annular receiving area is configured to receive the first end of the connector body in an interference fit. The locking sleeve is axially moveable relative to the connector body between a holding position in which the locking sleeve is detachably coupled to the connector body and a locked position in which the locking sleeve is inseparably coupled to the connector body.

Abstract: A connector for terminating a coaxial cable that comprises a connector body that has a first end adapted to receive the coaxial cable and a second end adapted to couple with a mating connector. A locking sleeve that has an interface end is engageable with the first end of the connector body. The locking sleeve includes an outer engagement ring spaced from the interface end thereby defining an outer annular receiving area between the outer engagement ring and the interface end. The outer annular receiving area is configured to receive the first end of the connector body in an interference fit. The locking sleeve is axially moveable relative to the connector body between a holding position in which the locking sleeve is detachably coupled to the connector body and a locked position in which the locking sleeve is inseparably coupled to the connector body.

Abstract: A connector assembly includes an electrical connector and a sleeve. The electrical connector has opposite first and second ends. The first end is rotatable with respect to the second end and configured to couple to a mating connector. The second end is configured to terminate a cable. The sleeve is molded over the first end such that the sleeve is fixed to the first end, and the sleeve and the first end of the connector together rotate with respect to the second end of the connector. Also, the sleeve has an outer gripping surface.

Abstract: A connector assembly includes an electrical connector and a sleeve. The electrical connector has opposite first and second ends. The first end is rotatable with respect to the second end and configured to couple to a mating connector. The second end is configured to terminate a cable. The sleeve has an outer gripping surface, and an inner bore for receiving the electrical connector such that the sleeve and the first end of the connector are rotatable together.

Abstract: A connector assembly includes an electrical connector and a sleeve. The electrical connector has opposite first and second ends. The first end is rotatable with respect to the second end and configured to couple to a mating connector. The second end is configured to terminate a cable. The sleeve has an outer gripping surface, and an inner bore for receiving the electrical connector such that the sleeve and the first end of the connector are rotatable together.

Abstract: A connector assembly includes an electrical connector and a sleeve. The electrical connector has opposite first and second ends. The first end is rotatable with respect to the second end and configured to couple to a mating connector. The second end is configured to terminate a cable. The sleeve is molded over the first end such that the sleeve is fixed to the first end, and the sleeve and the first end of the connector together rotate with respect to the second end of the connector. Also, the sleeve has an outer gripping surface.

Abstract: An electronic imaging module is disclosed which is removably insertable into a photographic camera for reversibly converting the camera into an electronic imaging camera. The electronic imaging module includes a sensing unit, a processing unit, and a coupling unit. The sensing unit detects an object image and converts the image to a corresponding electrical signal. The processing unit, which is configured for location within the camera's film cassette holder, includes a storage unit for storing the electrical signal and a transmission link for transmitting the electrical signal to external devices such as a control unit or a base unit. The coupling unit couples the sensing unit to the processor unit. The coupling unit is adjustable to ensure that the sensing unit is in alignment with the camera optical path and the film plane and the processing unit is secured within the film cassette holder.

Abstract: An ultrasonic transducer assembly capable of being operated in a corrosive and/or abrasive environment that might otherwise degrade transducer performance and/or damage transducer related components. The assembly includes an ultrasonic transducer of the type having a vibratile diaphragm supported at its periphery by a support housing and having the diaphragm center portion spaced a predetermined distance from a protective perforated cover. A channel is provided in the transducer between opposite sides of the vibratile diaphragm to avoid temperature induced pressure differentials between gases (air) present in the space immediately adjacent opposite diaphragm surfaces. A plastic film is adhesively attached to the outer surface of this diaphragm-protecting cover and the entire transducer is enclosed within an outer housing. A flexible seal engages the plastic film and an outer housing surface.

Abstract: A capacitance-type electrostatic transducer is provided that can be operated in an environment where it may be subjected to excessive mechanical vibrations. Unwanted gain variations and/or spurious electrical signals produced by said transducer when operated in such an environment are precluded, at reduced cost, by mechanically attaching the electrically conductive transducer spring that urges the backplate into cooperative engagement with the vibratile diaphragm of said transducer, to said transducer backplate.

Abstract: Method and apparatus for significantly reducing the size and cost of an electroacoustical transducer. The transducer assembly includes a backplate with a grooved electrically conductive surface and a spring whose center portion supports the center portion of said backplate. The vibratile diaphragm of said transducer cooperatively engages said grooved backplate surface and the periphery of said diaphragm is bonded to a peripheral extension of said spring while said spring is being compressed under a predetermined amount of spring-flexing force.

Abstract: A method and device for significantly improving the efficiency and sensitivity of an electroacoustical transducer. A relatively inelastic vibratile diaphragm is preformed to the shape of a mating backplate prior to the time it is actually mated to said backplate. By such preforming, the efficiency and sensitivity reducing effects from a wrinkled transducer diaphragm are minimized in that said wrinkles move to a diaphragm region where they have no effect on transducer sensitivity when the backplate is subsequently mated to said diaphragm.

Abstract: Conformity between a cooperatively engaged vibratile diaphragm and backplate of a capacitance-type electrostatic transducer assembly is improved, and unwanted mechanical vibrations in said backplate are substantially reduced, by means of a low cost, easily fabricated spring in engagement with the housing of said transducer assembly that presses on selected peripheral portions of said transducer backplate.

Abstract: A method and device for significantly improving the efficiency and sensitivity of an electroacoustical transducer. A relatively inelastic vibratile diaphragm is preformed to the shape of a mating backplate prior to the time it is actually mated to said backplate. By such preforming, the efficiency and sensitivity reducing effects from a wrinkled transducer diaphragm are minimized in that said wrinkles move to a diaphragm region where they have no effect on transducer sensitivity when the backplate is subsequently mated to said diaphragm.