Abstract: An aquarium system includes a tank, a motion sensor, and a light source. The motion sensor is adapted to sense motion within a predetermined distance from the tank. The light source has a controllable intensity projecting light into the tank. The intensity varies responsive to motion sensed by the motion sensor. When the motion sensor senses movement, the light is on at 100% intensity. After some period of no-motion, such as about 60 seconds, the lighting slowly dims to around 20% of full brightness. When it senses movement again, the lighting slowly ramps up to 100% intensity.

Abstract: A resource exploration and recovery component including a fractal geometry.

Abstract: An electrical connector for a circuit card assembly including a PCB includes a mating housing having a mating end movable relative to the PCB and contact modules coupled to the mating housing including signal contacts having a mating conductor, a mounting conductor and a flexible conductor. The flexible conductor is flexible to allow relative movement of the mating conductor relative to the mounting conductor. The flexible conductor has a bent portion changing shape. The contact modules have ground contacts providing electrical shielding for the signal contacts. The ground contacts include covers extending along and providing shielding along at least one side of the bent portion of the corresponding signal contact.

Abstract: The present invention relates to process and apparatus for removing aldehydes from acetone. More specifically, the present invention relates to a process and apparatus for removing aldehydes from acetone by reacting the aldehydes with caustic in an acetone column and washing the organic phase with a plurality of water streams.

Abstract: An electrical connector includes a plurality of contact modules and ground shields. The ground shields are interleaved with the contact modules within a housing, such that the ground shields alternate with the contact modules. The contact modules include multiple electrical signal conductors held by a dielectric body of the respective contact module. Each of the ground shields includes a plate that defines a bridge slot therethrough and a ground bridge extending from the plate. The ground bridge extends from the plate at a location that is spaced apart from the bridge slot. The ground bridges of the ground shields extend laterally across corresponding contact modules. Distal tips of the ground bridges are received within the bridge slots of adjacent ground shields disposed along opposite sides of the corresponding contact modules, and the distal tips engage edges of the bridge slots to electrically connect the ground shields together.

Abstract: A communication system includes a first circuit card assembly having a first PCB including a first slot and a first electrical connector mounted to the first PCB along the first slot and having a first mating end. The communication system includes a second circuit card assembly having a second PCB and a second electrical connector mounted to the second PCB and having a second mating end. The first and second circuit card assemblies are mated along a board mating axis parallel to the first slot with the first PCB oriented perpendicular to the second PCB. The first and second mating ends are oriented parallel to the board mating axis. The second PCB is received in the first slot to align the second mating end with the first mating end.

Abstract: An electrical connector includes a plurality of contact modules and ground shields. The ground shields are interleaved with the contact modules within a housing, such that the ground shields alternate with the contact modules. The contact modules include multiple electrical signal conductors held by a dielectric body of the respective contact module. Each of the ground shields includes a plate that defines a bridge slot therethrough and a ground bridge extending from the plate. The ground bridge extends from the plate at a location that is spaced apart from the bridge slot. The ground bridges of the ground shields extend laterally across corresponding contact modules. Distal tips of the ground bridges are received within the bridge slots of adjacent ground shields disposed along opposite sides of the corresponding contact modules, and the distal tips engage edges of the bridge slots to electrically connect the ground shields together.

Abstract: An electrical connector includes a housing and a plurality of signal conductors held within the housing. The housing includes a mating shroud protruding forward from a front wall of the housing and defining a port that receives a mating circuit card therein. Each of the signal conductors includes a mating contact disposed within the mating shroud and a mounting contact that projects beyond a bottom end of the housing to electrically connect to a circuit board. The mounting contacts are located within a termination area of the electrical connector. The housing defines a nesting cavity extending rearward from the front wall along the bottom end. The nesting cavity is disposed between the mating shroud and the termination area along a longitudinal axis of the electrical connector. The nesting cavity is configured to accommodate a discrete, second connector that is mounted to the circuit board.

Abstract: An electrical cable includes a conductor assembly having a first conductor, a second conductor and an insulator surrounding the first conductor and the second conductor. The conductor assembly extends along a longitudinal axis for a length of the electrical cable, along a lateral axis bisecting the first and second conductors, and along a transverse axis centered between the first and second conductors. The longitudinal axis, the lateral axis and the transverse axis are mutually perpendicular axes. The insulator has an outer surface. A cable shield is wrapped around the core having an inner edge and a flap covering the inner edge. The cable shield forms a void at the inner edge. The cable shield engages the outer surface entirely circumferentially around the insulator except at the void. The void is aligned with the transverse axis.

Abstract: An electrical connector includes a housing and a plurality of conductors held within the housing. The conductors are configured to electrically connect to mating conductors of a mating connector. The conductors each extend a length between a mating end and a mounting end of the respective conductor. One or more of the conductors include a copper alloy core, a copper plating layer, and a protective outer layer. The copper plating layer surrounds the copper alloy core, and is composed of a different material than the copper alloy core. The protective outer layer is disposed on and surrounds the copper plating layer. The protective outer layer is composed of a non-conductive polymeric material.

Abstract: A connector assembly includes a housing and contact modules having signal contacts with signal pins and a ground shield providing electrical shielding for the signal contacts with ground pins. The connector assembly includes a conductive gasket compressible between the bottoms of the contact modules and the circuit board. The conductive gasket has a top and a bottom facing the circuit board. The conductive gasket has signal openings extending therethrough receiving corresponding signal pins in spaced apart locations to electrically isolate the signal pins from the conductive gasket. The conductive gasket at least partially fills a space between the bottoms of the contact modules and the circuit board to provide electrical shielding for the signal pins between the bottoms of the contact modules and the circuit board.

Abstract: An electrical cable includes a conductor assembly having a first conductor, a second conductor, and an insulator structure surrounding the first conductor and the second conductor. The insulator structure has an outer surface. The first and second conductors carry differential signals. A cable shield is wrapped around the conductor assembly and engages the outer surface of the insulator structure. The cable shield has an inner edge and a flap covering the inner edge. The cable shield forms a void at the inner edge being located closer to the first conductor than the second conductor. The first conductor has a first diameter and the second conductor has a second diameter. The first diameter is less than the second diameter.

Abstract: An electrical cable includes a conductor assembly having a first conductor, a second conductor, a first insulator surrounding the first conductor and a second insulator surrounding the second conductor. The first insulator has a first thickness between the first conductor and an outer surface. The second insulator has a second thickness between the second conductor and an outer surface. The first thickness is greater than the second thickness. A cable shield is wrapped around the conductor assembly and engages the outer surface of the first insulator along a first segment and engaging the outer surface of the second insulator along a second segment. The cable shield has an inner edge and a flap covering the inner edge. The cable shield forms a void at the inner edge located closer to the first conductor than the second conductor.

Abstract: A connector assembly includes a housing and contact modules having signal contacts with signal pins and a ground shield providing electrical shielding for the signal contacts with ground pins. The connector assembly includes a conductive gasket compressible between the bottoms of the contact modules and the circuit board. The conductive gasket has a top and a bottom facing the circuit board. The conductive gasket has signal openings extending therethrough receiving corresponding signal pins in spaced apart locations to electrically isolate the signal pins from the conductive gasket. The conductive gasket at least partially fills a space between the bottoms of the contact modules and the circuit board to provide electrical shielding for the signal pins between the bottoms of the contact modules and the circuit board.

Abstract: A flush valve assembly has a pilot valve and a drive train for selective driving the pilot valve between an open position and a closed position. The drive train has a drive gear coupled to a motor for rotating the drive gear and a valve gear coupled to the pilot valve and intermeshing with the drive gear. At least one of the drive gear and the valve gear have a flag extending outwardly therefrom. A sensor positioned to detect the flag and establish a rotational position of the drive gear and the valve gear to thereby establish an opened or closed position of the pilot valve.

Abstract: In various embodiments, an electrochemical cell is provided. The electrochemical cell may include a first electrode including a first metal oxide layer, the first layer having a first surface. The electrochemical cell may further include a second electrode including a second metal oxide layer, the second layer having a second surface, the second layer parallel to the first layer. The electrochemical cell may also include an electrolyte in direct physical contact with the first electrode and the second electrode. The first surface may be in direct physical contact to the second surface.

Abstract: A communication system includes a first circuit card assembly having a first PCB and a first electrical connector with first contacts and a second circuit card assembly having a second PCB and a second electrical connector with second contacts. At least one of the PCBs include a slot configured to receive the other PCB when mated in a board mating direction. The first electrical connector is mated to the second electrical connector in a connector mating direction perpendicular to the board mating direction. The first contacts are mated to the second contacts in a contact mating direction as the first PCB and the second PCB are mated in the board mating direction and as the first electrical connector and the second electrical connector are mated in the connector mating direction. The contact mating direction is non-parallel to the board mating axis and non-parallel to the connector mating axis.

Abstract: An electrical connector for a circuit card assembly including a PCB includes a mating housing having a mating end movable relative to the PCB and contact modules coupled to the mating housing including signal contacts having a mating conductor, a mounting conductor and a flexible conductor. The flexible conductor is flexible to allow relative movement of the mating conductor relative to the mounting conductor. The flexible conductor has a bent portion changing shape. The contact modules have ground contacts providing electrical shielding for the signal contacts. The ground contacts include covers extending along and providing shielding along at least one side of the bent portion of the corresponding signal contact.

Abstract: Systems and methods for maritime infrasound detection can include at least one waterborne platform. A microbarometer, inertial measurement unit (IMU) and heave cancellation component (HCC) can be mounted on the waterborne platform. The HCC can receive a pressure input from the microbarometer and the IMU to generate an output pressure that can be indicative of an infrasound signal of interest (SOI). The HCC can further include a filter and an adaptive algorithm. The filter can receive IMU pressure and environment noise pressure as inputs. An error signal from the HCC output can also be supplied through a closed feedback loop that includes a Recursive Least Squares adaptive algorithm, which can further include a weighted, tapped delay line. The system can further include a remote data center for receiving the HCC output from the waterborne platform(s), which can be buoys, vessel or USV's.

Abstract: Systems and methods for maritime infrasound detection can include at least one waterborne platform. A microbarometer, inertial measurement unit (IMU) and heave cancellation component (HCC) can be mounted on the waterborne platform. The HCC can receive a pressure input from the microbarometer and the IMU to generate an output pressure that can be indicative of an infrasound signal of interest (SOI). The HCC can further include a filter and an adaptive algorithm. The filter can receive IMU pressure and environment noise pressure as inputs. An error signal from the HCC output can also be supplied through a closed feedback loop that includes a Recursive Least Squares adaptive algorithm, which can further include a weighted, tapped delay line. The system can further include a remote data center for receiving the HCC output from the waterborne platform(s), which can be buoys, vessel or USV's.