Abstract: An object detection and tracking system includes a visual image system, a thermal image system, a location mapping system, and a processing unit in communication with or part of one or more of the visual, thermal, and location mapping systems. The visual image system includes one or more optical sensors positioned relative to an area to capture a visual image. The thermal image system includes one or more infrared sensors positioned relative to the area to capture a thermal image concurrently with capture of the visual image to cooperatively identify an object in the area. The location mapping system is positioned relative to the area to determine a location of the object in the area. The processing unit overlays the visual image, the thermal image, and the determined location of the object in the area to identify the object, locate the object, and track the object within the area.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: An object detection and tracking system to identify an object of interest and to determine the location of the object within an area. The system includes a processing unit, a visual image system, a thermal image system, and a location mapping system. The visual image system is positioned relative to an area to capture a visual image of at least a portion of the area. The thermal image system is positioned relative to the area to capture a thermal image of at least a portion of the area concurrently with capture of the visual image to cooperatively identify an object in the area. The at least portion of the area captured in the thermal image conforms to the at least portion of the area captured in the visual image. The location mapping system is positioned relative to the area to determine a location of the object in the area.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: A system including a proximity monitor associated with an entity. The proximity monitor includes a communication interface, a memory, and an electronic processor. The communication interface receives first position state data and identification data associated with a neighboring entity. The electronic processor includes instructions to associate a first shape model with the neighboring entity based on the identification data, determine a first space occupied by the neighboring entity based on the first position state data and the first shape model, identify a proximity event based on the first space occupied by the neighboring entity relative to a position of the entity, and generate an alert based on the proximity event.

Abstract: An object detection and tracking system to identify an object of interest and to determine the location of the object within an area. The system includes a processing unit, a visual image system, a thermal image system, and a location mapping system. The visual image system is positioned relative to an area to capture a visual image of at least a portion of the area. The thermal image system is positioned relative to the area to capture a thermal image of at least a portion of the area concurrently with capture of the visual image to cooperatively identify an object in the area. The at least portion of the area captured in the thermal image conforms to the at least portion of the area captured in the visual image. The location mapping system is positioned relative to the area to determine a location of the object in the area.

Abstract: A proximity monitor includes an electronic processor, a proximity detector, and a memory. The proximity detector is to receive a proximity signal, and the electronic processor is to determine a time-of flight measurement for the proximity signal, determine a proximity measure based on the time-of-flight, identify a proximity event based on the proximity measure, and store a leg entry for the proximity event in the memory, the log entry identifying a first identifier associated with the proximity monitor and a second identifier associated with a sender of the proximity signal.

Abstract: An imaging system positioned relative to a three-dimensional area for capturing an image includes an image sensor having an X-Y plane and an aspect ratio defined by the quantity of pixels in the X-Y plane; and a non-linear light focusing element constructed with a profile to form an altered view of a three-dimensional desired zone of the area with a desired pixel distribution. The non-linear light focusing element redirects the pixels of the image sensor from an undesired zone of the area to within a frame that encompasses the three-dimensional desired zone of the area to form the altered view of the desired zone. The image sensor captures the altered view of the desired zone to match the aspect ratio of the image sensor.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: An imaging system positioned relative to a three-dimensional area for capturing an image includes an image sensor having an X-Y plane and an aspect ratio defined by the quantity of pixels in the X-Y plane; and a non-linear light focusing element constructed with a profile to form an altered view of a three-dimensional desired zone of the area with a desired pixel distribution. The non-linear light focusing element redirects the pixels of the image sensor from an undesired zone of the area to within a frame that encompasses the three-dimensional desired zone of the area to form the altered view of the desired zone. The image sensor captures the altered view of the desired zone to match the aspect ratio of the image sensor.

Abstract: A system for capturing an image includes a camera positioned relative to an area, a camera sensor having an X-Y plane and an aspect ratio defined by a quantity of pixels in the X-Y plane, and a lens constructed with a profile to optically capture a desired zone of the area. The lens remaps pixels associated with the area outside the desired zone to within the desired zone to form a desired pixel distribution within a captured image of the desired zone.

Abstract: A module gathers information about the level of water in a water well and sends the information to a database. A sensor tracks the level of water in the well, how it changes over time, and the pace of recharge including the rate of water replenishment from the groundwater source. The system can be programmed to send alerts to interested parties when certain thresholds are reached.

Abstract: A system includes a first light assembly including a first light, a first motion sensor, and a first transceiver. A second light assembly includes a second light, a second motion sensor, and a second transceiver, the second light assembly positioned a first distance from the first light assembly. A third light assembly includes a third light, a third motion sensor, and a third transceiver. The third light assembly is positioned a second distance from the first light assembly, the second distance being greater than the first distance. The first light is transitioned to an on condition and the first transceiver broadcasts a signal in response to the first motion detector detecting motion, and the second transceiver receives the signal and activates the second light in response to the signal and the third transceiver does not receive the signal.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: A lighting system includes a light emitting element operable to emit light at a level between zero and 100 percent, a light level sensor positioned to detect a total level of light, and a motion detector positioned to detect a motion in a predefined space. A controller is coupled to the light emitting element, the light level sensor, and the motion detector and is operable to compare a measured total level of light to a set point and to activate the light emitting element in response to the measured total light level being below the setpoint. The controller is further operable to activate the light emitting element in response to the detection of motion within the space.

Abstract: A vision testing device includes a hood having an interior space defining a first side and a second side. A first electronic device is operable to project a first image to the first side and a second electronic device is operable to project a second image to the second side. The first image and the second image comprise computer-generated images. A mirror extends from the first side to the second side and is positioned to reflect the first image and the second image. A first viewing lens is in optical communication with the first side and is configured to receive the first image reflected from the mirror. A second viewing lens is in optical communication with the second side and is configured to receive the second image reflected from the mirror.

Abstract: An actuator system includes a piston-cylinder arrangement including a piston that is movable with respect to a cylinder. A first flow path is in fluid communication with the piston-cylinder arrangement and a second flow path is in fluid communication with the piston-cylinder arrangement. A control system is operable to fluidly connect the first flow path to a source of high-pressure fluid and to connect the second flow path to a drain to move the piston in a first direction. A pressure sensor is fluidly connected to the first flow path and is operable to measure sufficient pressure data during the movement of the piston to generate a pressure versus time curve. The control system is operable to compare the generated pressure versus time curve to a known standard pressure versus time curve stored in the control system to determine the condition of the piston-cylinder arrangement.

Abstract: A vision testing device includes a hood having an interior space defining a first side and a second side. A first electronic device is operable to project a first image to the first side and a second electronic device is operable to project a second image to the second side. The first image and the second image comprise computer-generated images. A mirror extends from the first side to the second side and is positioned to reflect the first image and the second image. A first viewing lens is in optical communication with the first side and is configured to receive the first image reflected from the mirror. A second viewing lens is in optical communication with the second side and is configured to receive the second image reflected from the mirror.

Abstract: A vision testing device includes a partition defining a first side and a second side and an electronic device operable to project a first image to the first side and a second image to the second side. The first image and the second image comprise computer-generated images, and the first image is identical to but offset from the second image. A mirror extends from the first side to the second side and is positioned to reflect the first image and the second image. A first viewing lens is in optical communication with the first side and configured to receive the first image reflected from the mirror. A second viewing lens is in optical communication with the second side and configured to receive the second image reflected from the mirror.