Abstract: A pump down assist sub that utilizes a universal thread pattern that is directly coupled to a setting tool firing head that is coupled to the bottom of a conventional perforating gun system, wherein the pump down assist sub eliminates the need for a setting tool and setting sleeve which reduces the length and weight of the overall tool string.

Abstract: A tool that allows viscous fluid to be injected into a flow tube to form a fluid seal around the wireline, and allow the fluid to be removed from the tool below a packoff in order to isolate well pressure from packoff rubbers.

Abstract: Safe addressable firing controls positioned within a reusable housing that only allows voltage and current from the shooting panel to reach the explosive device by addressing the switch to open allowing electricity to pass through it and setting off the chain reaction during detonation, wherein the safe addressable firing controls positioned within a cartridge that creates a safety barrier between the surface equipment and a downhole tool, such as an explosive device.

Abstract: A lubricator vent sub is placed at a lowest point in a greasehead with maximum volume to relieve trapped air, wherein the lubricator vent sub creates a secondary flow path for the trapped air.

Abstract: A tool that allows viscous fluid to be injected into a flow tube to form a fluid seal around the wireline, and allow the fluid to be removed from the tool below a packoff in order to isolate well pressure from packoff rubbers.

Abstract: A pump down assist sub that utilizes a universal thread pattern that is directly coupled to a setting tool firing head that is coupled to the bottom of a conventional perforating gun system, wherein the pump down assist sub eliminates the need for a setting tool and setting sleeve which reduces the length and weight of the overall tool string.

Abstract: A method of operating a video camera includes capturing a scene of imaging data using a focal plane array (FPA) module of the video camera. The scene of imaging data is characterized by a first bit depth. The method also includes processing, using an image processing module coupled to the FPA module, the scene of imaging data to provide display data characterized by a second bit depth less than the first bit depth. The method further includes forming a super frame including the display data and the scene of imaging data and outputting the super frame.

Abstract: Some embodiments of the present light fixtures include a body, a waveguide, and one or more independently-controllable light sources. The waveguide is configured to be coupled to the body and may include a first end configured to receive light emitted from at least one of the light source(s) and to direct the received light to (and in some embodiments, emit the received light from) a second end of the waveguide. In some embodiments of the present fixtures, the waveguide defines an opening through which light emitted from at least one of the light source(s) can pass, the light source(s) being coupled to the body such that a first one of the light source(s) emits light into the first end of the waveguide and a second one of the light source emits light through the opening.

Abstract: Some embodiments of the present light fixtures include a body, a waveguide, and one or more independently-controllable light sources. The waveguide is configured to be coupled to the body and may include a first end configured to receive light emitted from at least one of the light source(s) and to direct the received light to (and in some embodiments, emit the received light from) a second end of the waveguide. In some embodiments of the present fixtures, the waveguide defines an opening through which light emitted from at least one of the light source(s) can pass, the light source(s) being coupled to the body such that a first one of the light source(s) emits light into the first end of the waveguide and a second one of the light source emits light through the opening.

Abstract: Some fixture mounts include a body that is couplable to a structure, the body having an upper surface, a lower surface, and a peripheral surface that connects the upper and lower surfaces and defines one or more ledges, wherein the body is couplable to a fixture such that each of first and second protruding features of the fixture is received between one of the ledge(s) and the upper surface. In some fixture mounts, the protruding features are slidable along the ledge(s) above which they are received such that the fixture is rotatable relative to the body. In some fixture mounts, at least one of the ledge(s) is tapered such that, as a protruding feature of the fixture that is received above the ledge is moved toward the ledge, the fixture is urged toward the upper surface.

Abstract: Some fixture mounts include a body that is couplable to a structure, the body having an upper surface, a lower surface, and a peripheral surface that connects the upper and lower surfaces and defines one or more ledges, wherein the body is couplable to a fixture such that each of first and second protruding features of the fixture is received between one of the ledge(s) and the upper surface. In some fixture mounts, the protruding features are slidable along the ledge(s) above which they are received such that the fixture is rotatable relative to the body. In some fixture mounts, at least one of the ledge(s) is tapered such that, as a protruding feature of the fixture that is received above the ledge is moved toward the ledge, the fixture is urged toward the upper surface.

Abstract: Some embodiments of the present light fixtures include a body, a waveguide, and one or more independently-controllable light sources. The waveguide is configured to be coupled to the body and may include a first end configured to receive light emitted from at least one of the light source(s) and to direct the received light to (and in some embodiments, emit the received light from) a second end of the waveguide. In some embodiments of the present fixtures, the waveguide defines an opening through which light emitted from at least one of the light source(s) can pass, the light source(s) being coupled to the body such that a first one of the light source(s) emits light into the first end of the waveguide and a second one of the light source emits light through the opening.

Abstract: A method of operating a video camera includes capturing a scene of imaging data using a focal plane array (FPA) module of the video camera. The scene of imaging data is characterized by a first bit depth. The method also includes processing, using an image processing module coupled to the FPA module, the scene of imaging data to provide display data characterized by a second bit depth less than the first bit depth. The method further includes forming a super frame including the display data and the scene of imaging data and outputting the super frame.

Abstract: A method of operating a video camera includes capturing a scene of imaging data using a focal plane array (FPA) module of the video camera. The scene of imaging data is characterized by a first bit depth. The method also includes processing, using an image processing module coupled to the FPA module, the scene of imaging data to provide display data characterized by a second bit depth less than the first bit depth. The method further includes forming a super frame including the display data and the scene of imaging data and outputting the super frame.

Abstract: A downlight includes a housing having a thermally-conductive upper wall, a lower wall defining an aperture, and a sidewall extending between the upper wall and the lower wall, where a majority, by weight, of the upper wall includes a first material, and a majority, by weight, of the sidewall includes a second material that is different than the first material; and a light fixture configured to be coupled to the housing such that a light source of the light fixture is adjacent to and in thermal communication with the upper wall.

Abstract: A method of operating a video camera includes capturing a scene of imaging data using a focal plane array (FPA) module of the video camera. The scene of imaging data is characterized by a first bit depth. The method also includes processing, using an image processing module coupled to the FPA module, the scene of imaging data to provide display data characterized by a second bit depth less than the first bit depth. The method further includes forming a super frame including the display data and the scene of imaging data and outputting the super frame.

Abstract: A method of operating a video camera includes capturing a scene of imaging data using the video camera, wherein the imaging data is characterized by a first bit depth and processing the imaging data to provide display data characterized by a second bit depth less than the first bit depth. The method also includes framing the imaging data and the display data and outputting the framed imaging and display data.

Abstract: A method for testing an insert packer assembly positioned within a diverter assembly includes inserting a test tool through an opening of the insert packer assembly and into a bore of the diverter assembly. The method includes driving multiple annular flexible components of the insert packer assembly radially inward to contact an outer annular surface of the test tool to form a sealed space between the multiple annular flexible components and the outer annular surface of the test tool. The method also includes applying a fluid to the sealed space to increase a pressure within the sealed space and monitoring the pressure within the sealed space over a period of time to determine a condition of the insert packer assembly.

Abstract: Some of the present downlights include a housing having a thermally-conductive upper wall, a lower wall that defines an aperture, and a sidewall extending between the thermally-conductive upper wall and the lower wall, and a light fixture including or configured to receive a light source, where the light fixture is configured to be coupled to the housing such that the light source is adjacent to and in thermal communication with the thermally-conductive upper wall. In some downlights, the thermally-conductive upper wall is removably coupled to the sidewall. In some downlights, the light fixture has a reflector configured to direct light from the light source and through the aperture, and the light fixture is configured to be coupled to the housing such that the reflector is spaced apart from the sidewall.