Abstract: A system for measuring volume flow of a material includes: an imaging receiver for receiving images of a screen deck of a vibratory shaker from an overhead position; at least one illumination device for projecting a line of light onto the screen deck from an angle different than a viewing angle of the imaging receiver to the screen deck; and a mounting bracket for holding the imaging receiver and the at least one illumination device in a substantially fixed relative position to one another and to the screen deck. The system is determines the volume flow of the material based on the images of the screen deck.

Abstract: A system for measuring volume flow of a material includes: an imaging receiver for receiving images of a screen deck of a vibratory shaker from an overhead position; at least one illumination device for projecting a line of light onto the screen deck from an angle different than a viewing angle of the imaging receiver to the screen deck; and a mounting bracket for holding the imaging receiver and the at least one illumination device in a substantially fixed relative position to one another and to the screen deck. The system is determines the volume flow of the material based on the images of the screen deck.

Abstract: A system for making sure that two wireless devices (a perimeter-anchoring device and a constrained device) are not separated too far apart by having a dynamic perimeter that follows the perimeter-anchoring device as it moves. In some embodiments, the size and/or shape of the perimeter is controlled by machine logic based rules, based at least in part, upon a set of environmental factor(s). Some possible environmental factors include: line of sight, pollution, noise level, presence of stranger(s), streets, traffic, body(ies) of water, contamination, allergen, or blocking obstruction(s).

Abstract: A flow analyzer includes a flow body having a single-piece construction. The flow body includes a flow path extending through the flow body along a flow direction between opposing inlet and outlet ports and an enclosed wiring conduit extending substantially transverse to the flow direction between a first side of the flow body and a second side of the flow body. The enclosed wiring conduit is isolated from the flow path. An illumination unit is disposed on the first side of the flow body and configured to illuminate fluid within the flow path. An observation unit is disposed on the second side of the flow body and configured to visually observe the fluid within the flow path.

Abstract: A system for making sure that two wireless devices (a perimeter-anchoring device and a constrained device) are not separated too far apart by having a dynamic perimeter that follows the perimeter-anchoring device as it moves. In some embodiments, the size and/or shape of the perimeter is controlled by machine logic based rules, based at least in part, upon a set of environmental factor(s). Some possible environmental factors include: line of sight, pollution, noise level, presence of stranger(s), streets, traffic, body(ies) of water, contamination, allergen, or blocking obstruction(s).

Abstract: A flow analysis system for analyzing fluid from a process flow line includes a flow analyzer, a single point sampler configured to connect to the process flow line, the single point sampler including a sample line having an inflow passage and an outflow passage, an inflow pipe connecting the inflow passage of the sample line to the flow analyzer, and an outflow pipe connecting the flow analyzer to the outflow passage of the sample line.

Abstract: A system for making sure that two wireless devices (a perimeter-anchoring device and a constrained device) are not separated too far apart by having a dynamic perimeter that follows the perimeter-anchoring device as it moves. In some embodiments, the size and/or shape of the perimeter is controlled by machine logic based rules, based at least in part, upon a set of environmental factor(s). Some possible environmental factors include: line of sight, pollution, noise level, presence of stranger(s), streets, traffic, body(ies) of water, contamination, allergen, or blocking obstruction(s).

Abstract: A system for making sure that two wireless devices (a perimeter-anchoring device and a constrained device) are not separated too far apart by having a dynamic perimeter that follows the perimeter-anchoring device as it moves. In some embodiments, the size and/or shape of the perimeter is controlled by machine logic based rules, based at least in part, upon a set of environmental factor(s). Some possible environmental factors include: line of sight, pollution, noise level, presence of stranger(s), streets, traffic, body(ies) of water, contamination, allergen, or blocking obstruction(s).

Abstract: A flow analyzer includes a flow body having a single-piece construction. The flow body includes a flow path extending through the flow body along a flow direction between opposing inlet and outlet ports and an enclosed wiring conduit extending substantially transverse to the flow direction between a first side of the flow body and a second side of the flow body. The enclosed wiring conduit is isolated from the flow path. An illumination unit is disposed on the first side of the flow body and configured to illuminate fluid within the flow path. An observation unit is disposed on the second side of the flow body and configured to visually observe the fluid within the flow path.

Abstract: A direct line sampling system includes a flow line for a process flow, a diluent flush line for a diluent, and a sampling valve structure disposed in the flow line. The sampling valve structure includes a sampling chamber and has a first position in which the sampling chamber is in communication with the flow line so as to provide a path for the process flow through the sampling chamber. The sampling chamber captures a sample from the process flow when the sampling valve structure switches to a second position in which the sampling chamber is in communication with the diluent flush line. The diluent flushes the sample to a mixing chamber disposed downstream of the diluent flush line where the sample is diluted. An outlet line extends from an outlet of the mixing chamber to an analysis instrument configured to analyze particles in the diluted sample of the process flow.

Abstract: A direct line sampling system includes a flow line for a process flow, a diluent flush line for a diluent, and a sampling valve structure disposed in the flow line. The sampling valve structure includes a sampling chamber and has a first position in which the sampling chamber is in communication with the flow line so as to provide a path for the process flow through the sampling chamber. The sampling chamber captures a sample from the process flow when the sampling valve structure switches to a second position in which the sampling chamber is in communication with the diluent flush line. The diluent flushes the sample to a mixing chamber disposed downstream of the diluent flush line where the sample is diluted. An outlet line extends from an outlet of the mixing chamber to an analysis instrument configured to analyze particles in the diluted sample of the process flow.

Abstract: A flow cell device for observing a fluid includes a housing defining an inlet and an outlet, a first viewing member, and a second viewing member. The first viewing member, which is disposed in and coupled to the housing, includes a first window and a spray ring. The spray ring includes cleaning ports in fluid communication with a cleaning fluid inlet port. The second viewing member includes a second window and is disposed in and coupled to the housing opposite the first viewing member such that an aperture that is in fluid communication with the inlet and the outlet is defined between the first window and the second window. The spray ring does not extend past a surface of the first window facing the aperture and each of the cleaning ports is oriented such that a fluid provided under pressure to the cleaning ports is ejected toward the second window.

Abstract: A flow cell device for observing a fluid includes a housing defining an inlet and an outlet, a first viewing member, and a second viewing member. The first viewing member, which is disposed in and coupled to the housing, includes a first window and a spray ring. The spray ring includes cleaning ports in fluid communication with a cleaning fluid inlet port. The second viewing member includes a second window and is disposed in and coupled to the housing opposite the first viewing member such that an aperture that is in fluid communication with the inlet and the outlet is defined between the first window and the second window. The spray ring does not extend past a surface of the first window facing the aperture and each of the cleaning ports is oriented such that a fluid provided under pressure to the cleaning ports is ejected toward the second window.

Abstract: A system is described for providing a workforce planning tool. The system may include a memory, an interface, and a processor. The memory may store organizational information including the number of employees, a growth percentage over a period of time, net employee turnover over the period of time, and a hiring percentage over the period of time for each hire type used by the organization. The processor may receive the information and determine a talent gap consisting of a total number of hires required based on the number of employees, the growth percentage and the net employee turnover. The processor may determine a number of hires of each hire type based on the hiring percentage for each hire type and the total number of hires, and may transform the number of hires for each hire type into a hiring strategy. The processor may provide the hiring strategy to the user.

Abstract: An inspection device for inspecting a granular product includes a feed tray having a receiving region for receiving the granular product and an imaging region and a vibration device configured to impart vibrations to the feed tray for moving granules of the granular product from the receiving region to the imaging region. The inspection device also includes an image capturing device configured to capture an image of a sample of the granular product in an image area of the imaging region. In addition, a method for inspecting a granular product includes disposing the granular product on a receiving region of a feed tray, vibrating the feed tray so as to induce a movement of the granular product from the receiving region of the feed tray to an imaging region of the feed tray, and capturing an image of a sample of the granular product in an image area of the imaging region.

Abstract: A particle inspection device includes a feeder configured to drop a particle through an image area. The feeder includes a tray surface having a flat portion and an edge portion disposed above the image area. The inspection device also includes a vibration device configured to vibrate the feeder induce movement of the particle from the flat portion to the edge portion and an image capturing device configured to capture an image of the particle in the image area. The edge portion may be a downwardly curved edge section and configured to maintain the orientation and reduce tumbling motion as the particle slides off the tray and falls through the image area. Alternately or additionally, a landing element is provided having a landing surface disposed in the image area and angled with respect to the flat portion of the tray surface and configured to receive the particle. The image capturing device is configured to capture an image of the particle on the landing surface.

Abstract: A fluid inspection device for inspecting a fluid in a vessel includes an elongate insertion well having a rear end disposed at the wall of the vessel and a front end disposed in the interior of the vessel. An inside of the insertion well is sealed off from the fluid in the vessel and an outside of the insertion well is in contact with the fluid in the vessel. A camera unit is disposed in the inside of the insertion well, and a lens in operative communication with the camera unit is disposed at the front end of the insertion well so that a front end of the lens is in contact with the fluid and a rear end of the lens is inside the insertion well. In addition, a light guide having a light emitting end is configured to guide light from the inside of the insertion well to the light emitting end.

Abstract: A particle inspection device includes a feeder configured to drop a particle through an image area, a reflector configured to provide a reflected view of the particle in the image area, and an image capturing device configured to capture an image of the particle in the image area such that the image includes at least a direct view of the particle and the reflected view of the particle. In addition, a method for inspecting a particle includes dropping the particle through an image area, providing a reflected view of the particle in the image area using a reflector, and capturing an image of the particle in the image area using an image capturing device so that the image includes a direct view of the particle and the reflected view of the particle.

Abstract: An inspection device for inspecting a granular product includes a feed tray having a receiving region for receiving the granular product and an imaging region and a vibration device configured to impart vibrations to the feed tray for moving granules of the granular product from the receiving region to the imaging region. The inspection device also includes an image capturing device configured to capture an image of a sample of the granular product in an image area of the imaging region. In addition, a method for inspecting a granular product includes disposing the granular product on a receiving region of a feed tray, vibrating the feed tray so as to induce a movement of the granular product from the receiving region of the feed tray to an imaging region of the feed tray, and capturing an image of a sample of the granular product in an image area of the imaging region.

Abstract: The present invention describes a method and an apparatus for plasma coating the inside surface of a container to provide an effective barrier against gas transmission. The method provides a way to deposit rapidly and uniformly very thin and nearly defect-free layers of polyorganosiloxane and silicon oxide on the inner surface of a container to achieve more than an order of magnitude increase in barrier properties.