Albright IP Limited

Disclosed is a separator device 10 for removing suspended particles from heating and/or cooling system fluid. The separator device 10 comprises an inlet 16 and outlet 18 for fluid flow, a method of generating a swirl of fluid on entry to the housing 12, a magnetic element and mesh filter 46 positioned between the inlet 16 and outlet 18 and a sediment collection region 76 for the retainment of separated debris. The mesh filter 46 is in the form of a basket, having an open end facing the bottom of the separator device 10, just above the inlet 16, and the sediment collection region 76 is below the inlet.

The present application discloses a multi-functional wireless test platform, including: a multi-probe arc-shaped fixture (1) configured to hold multiple probe antennas, which are used to receive electric field data emitted by a device under test; a robotic arm (3) configured to drive the multi-probe arc-shaped fixture (1) to perform spherical scanning of the device under test with the device under test being the center of a sphere; a motion system (2, 6, 7) for the device under test configured to mount and drive the device under test to execute predetermined movements to cooperate and complete the spherical scanning; and a control system (9) used to determine the spherical scanning parameters, and to sample and analyse the electric field data emitted by the device under test to obtain its performance parameters. The present application can implement wireless testing of multiple functions using a single device, thereby significantly saving testing space and time costs.

A separator 10 for removing particles from suspension in a fluid, comprising: an inlet 26a and an outlet 26b for fluid; a mesh 32 between the inlet and the outlet; a turbine 33 comprising one or more vanes 40 to allow a flow of fluid through the separator to rotate the turbine; and one or more brushes 42 or scrapers fixed to the turbine for removing particles from the mesh.

Disclosed is a separator device 10 for removing suspended particles from heating and/or cooling system fluid. The separator device 10 comprises a hydrocyclone separator 38, an inlet 24 to the hydrocyclone separator 38, a sediment collection region 78 disposed below an aperture 46 in the hydrocyclone separator 38, a blocking wall 54 across a central part of the top of the hydrocyclone separator 38 to define an outflow annulus, a mesh basket 44, and an outlet 24 from the separator device 10 for returning fluid back to the central heating and/or cooling system circuit. Suspended particles are primarily removed from the fluid by a vortex that establishes in the hydrocyclone separator 38, and remaining particles are captured and retained in the mesh basket 44 disposed above the hydrocyclone separator 38.

A fastener extractor device for removing seized fasteners and aiding in disengaging the extractor device from said seized fastener afterwards. The extractor device includes a shank body, a drive head, a torque-tool body, a tubular sleeve, an external thread, and an internal thread. The torque-tool body includes a plurality of laterally-bracing sidewalls and an at least one engagement feature. The engagement feature is integrated into a specific sidewall to bite into a sized fastener. The drive head is terminally and concentrically connected to the shank body to receive an external torque tool. The torque-tool body is terminally and concentrically connected to the shank body, opposite the drive head. The tubular sleeve is slidably engaged along the shank body through the internal thread and the external thread to physically disengaged the torque-tool body from a seized fastener.

A device for automatically controlling the rate of flow of water out of a radiator in a central heating system is provided. The device includes a temperature sensor disposed within a conduit for detecting temperature of the water flowing out of the radiator and a valve connected to the temperature sensor and disposed within the conduit. The valve is movable to a closed position as the detected water temperature increases to a set point temperature, and to an open position as the detected water temperature decreases below the set point temperature.

A screw bit body allows for efficient torque force application onto a socket fastener. The screw bit body includes a plurality of laterally-bracing sidewalls, a first base, and a second base. The laterally-bracing sidewalls are radially distributed about a rotation axis of the screw bit body with each further including a first lateral edge, a second lateral edge, a bracing surface, and an engagement cavity. The engagement cavity creates an additional gripping point to prevent slippage in between the screw bit body and the socket fastener. The engagement cavity traverses normal and into the bracing surface. Additionally, the engagement cavity traverses into the screw bit body from the first base to the second base. The engagement cavity is specifically positioned offset from the first lateral edge by a first distance.

A system for dispatching and navigating an unmanned aerial vehicle (UAV) to a target location comprises a UAV and a navigation module comprising a processor and a memory storing a 3D map comprising the target location and machine-readable instructions such that, when executed by the navigation module processor, cause the processor to perform a method comprising identifying a location of the UAV with respect to the 3D map, receiving a target location input, identifying the target location with respect to the 3D map, generating at least one potential route connecting the location of the UAV and the target location, assigning to at least one potential route an evaluation score according to at least one route assessment criterion, selecting the potential route having the highest evaluation score as a preferred route, and transmitting the preferred route to the UAV.

A storage system (100) is provided that includes a primary container (102), a first insulation layer (104), a secondary container (106), a secondary bottom (108), and a second insulation layer (110). The primary container (102) has a primary bottom (112). The first insulation layer (104) is disposed below the primary bottom (112). The secondary bottom (108) is disposed below the first insulation layer (104) and the secondary container (106). The secondary bottom (108) has an expansion joint (114) configured to permit the secondary bottom (108) to expand and/or contract independently from the secondary container (106). The second insulation layer (110) is disposed below the secondary bottom (108). In the event of LNG leaking from the primary container (102), the second insulation layer (110) is protected from LNG contact by the secondary bottom (108). The carbon steel liner (116) located on the outside face (117) of the concrete wall (118) remains vapor tight and liquid tight in the event of any amount of LNG leaking from the primary container (102).

A device for protecting, controlling, and monitoring electrical medium range switchgear or other electrical devices comprising use of a Rogowski coil embedded in the bottle of a switchgear and surrounding the Mains flow of current carrying voltage, a capacitive or similar voltage-like divider, also surrounding the Mains and extending around the bottle, and providing analog signals from those devices to an integrated circuit for conversion to digital signals after possible adjustment by look up tables stored on the integrated circuit, and then transmitting as output the digital signals to a data accumulator where the same are optionally time stamped and compared to one another, to a standard or to themselves at a different time.