Honeywell

A shroud system (150) provides stress management for thermal gradients and compliance. The shroud system includes a support structure (204) having an annular shape and defining a shroud cavity (214). A shroud (202) is disposed, at least partly, in the shroud cavity. A rotor (114) is rotatable about an axis and within the shroud. The shroud includes a body (194) that has a first surface facing the rotor and a second surface facing away from the rotor. The shroud includes a pair of rails (140) that are parallel to each other and that are spaced apart from each other. The rails extend from the second surface. The body has a thickness in a radial direction, and the thickness is less than a minimum compliance limit. The pair of rails provide stiffness to the shroud to enable the thickness of the body to be less than the minimum limit.

An example method for method of determining quality of a sheet roll comprises: monitoring data indicative of defects on either side of the sheet roll comprising data indicative of: surface defects of the sheet roll; registration defects of the sheet roll; and quality and control system (QCS) defects of the sheet roll. The example method further comprises grouping the defects into a group of defects; calculating a weighted centroid for the group of defects; and displaying a representation of the group of defects at the weighted centroid.

Systems and methods are provided for monitoring aeronautical data onboard an aircraft for inconsistencies. The systems include a communication system, a media system, and a controller configured to receive aeronautical data from at least two sources, wherein the aeronautical data includes information indicative of statuses of one or more aeronautical elements, parse the aeronautical data to generate parsed aeronautical data having the information contained therein having matching formats, identify statuses of the one or more aeronautical elements as indicated by each of the sources, compare the statuses, detect an inconsistency between the statuses of a first aeronautical element, and generate, on the media system, an alert in response to detecting the inconsistency between the statuses of the first aeronautical element.

An example method for delayed scanning of a moving discontinuous sheet of patches in a manufacturing process comprises: initiating a first scan with a scanning sensor to scan a first path across the patches; initiating a second scan with the scanning sensor after completion of the first scan to scan a second path across the patches; calculating a delay time to position a third scan path of within a threshold distance from first scan path, the second scan path, or both the first scan path and the second scan path; and delaying initiation of a third scan with the scanning sensor by the calculated delay time; and initiating the third scan subsequent to elapse of the delay time.

A scanning apparatus includes a scanner head or other scanner device configured to take measurements of a sheet of flat stock of material having a pattern of coating material disposed on one or more of the top surface and/or a bottom surface of the sheet. The scanning apparatus can perform one or more start-up procedures by scanning the sheet as the sheet moves past the scanner head in a machine direction in order to generate a coating profile of the pattern of the coating matter disposed on the surface(s) of the sheet. The coating profile may then be used as a set of baseline measurements for quality control purposes related to further quantities of production of the sheet.

Devices, methods, and systems for a virtual controller based fire alarm system are described herein. An example device for a virtual controller based fire alarm system includes a virtual controller storing control logic that when executed, causes the virtual controller to receive an indication of a fire alarm event from a standalone fire sensing device, and send a control command to the standalone fire sensing device to initiate a response to the fire alarm event by the standalone fire sensing device.

A system, comprises at least one processor configured to: receive, into a large language model, a natural language description of a new object type not yet included in a previously trained object detection model for detecting objects in images; generate, based on the natural language description of the new object type and using at least one image generating generative artificial intelligence model, an image dataset including visual examples of the new object type; perform additional training of the previously trained object detection model using the image dataset including the visual examples of the new object type to fine-tune the previously trained object detection model to generate a fine-tuned object detection model capable of detecting the new object type in the images; and provide the fine-tuned object detection model to systems for use in detecting the new object type in newly acquired images.

A heat exchanger core includes a first flow structure and a second flow structure are stacked and thermally coupled with a first frame member and a second frame member cooperatively defining a distribution wall. The distribution wall has an external side and an internal side. The distribution wall includes a plurality of apertures extending through the first frame member from the external side to the internal side to fluidly communicate with the first passage. The second frame member projects from the first frame member on the internal side of the distribution wall to provide a boundary for the first passage.

Scanning sensor assemblies and method of use. A scanning sensor assembly configured for scanning a sheet material includes a measurement head, a drive belt fixedly coupled the measurement head, a motor coupled to the drive belt, the motor controlling position of the measurement head using the drive belt, an electronics cabinet, and a cable coupling the electronics cabinet to the measurement head. The assembly also includes a moving bearing surface adapted to move with the measurement head, wherein the cable rests against the moving bearing surface, thereby preventing abrasion damage to the cable.

Devices, systems, and methods for an event device with display device for event detection are described herein. In some examples, one or more embodiments include a display device, a detector, a base, a memory, and a processor configured to execute executable instructions stored in the memory to receive an identifier signal including device identifier information for the event device, transmit, based on the identifier signal, a display signal to the display device, and cause, based on the display signal, the display device to display the device identifier information for the event device.