Abstract: Example systems, devices, media, and methods are described for evaluating movements and physical exercises in augmented reality using the display of an eyewear device. A motion evaluation application implements and controls the capturing of frames of motion data using an inertial measurement unit (IMU) on the eyewear device. The method includes presenting virtual targets on the display, localizing the current eyewear device location based on the captured motion data, and presenting virtual indicators on the display. The virtual targets represent goals or benchmarks for the user to achieve using body postures. The method includes detecting determining whether the eyewear device location represents an intersecting posture relative to the virtual targets, based on the IMU data. The virtual indicators display real-time feedback about user posture or performance relative to the virtual targets.

Abstract: A nozzle cap assembly includes a nut positioned at a first end of the nozzle cap assembly; a base positioned at a second end of the nozzle cap assembly, the base configured to mount on a nozzle of a fire hydrant; an enclosure positioned between the nut and the base, the enclosure defining a cavity; and an antenna, a modem, and a power source positioned within the cavity, the modem connected in electrical communication with the antenna and the power source.

Abstract: Example systems, devices, media, and methods are described for evaluating movements and physical exercises in augmented reality using the display of an eyewear device. A motion evaluation application implements and controls the capturing of frames of motion data using an inertial measurement unit (IMU) on the eyewear device. The method includes presenting virtual targets on the display, localizing the current eyewear device location based on the captured motion data, and presenting virtual indicators on the display. The virtual targets represent goals or benchmarks for the user to achieve using body postures. The method includes detecting determining whether the eyewear device location represents an intersecting posture relative to the virtual targets, based on the IMU data. The virtual indicators display real-time feedback about user posture or performance relative to the virtual targets.

Abstract: An application enables users of electronic eyewear devices to bring a workout session anywhere and have aspects of the workout session (e.g., number of repetitions) recorded automatically. It also allows users to have always-on visibility of their workout instructor so that they can, for example, continue to maintain a visual guide for their form/pose. Virtual avatars perform demonstrations about activities such as yoga in an augmented reality environment using the display of an electronic eyewear device. The demonstration elements can be controlled using voice commands.

Abstract: This disclosure describes, in part, systems for enabling facilities to customize the layouts of items located within the facilities. For instance, an entity may be associated with multiple facilities. The facilities may be located at various geographic locations, include various retail layouts/sizes, sell various items, and/or the like. As such, it may be difficult to generate planograms that can be used by more than one of the facilities. Therefore, for different facilities, the entity may determine (1) locations of inventory locations within the facilities, (2) categories of items to include at the inventory locations, (3) identifiers of items associated with the categories, (4) quantities of items to include at the inventory locations, and/or the like. The facilities can then use these determinations to determine the actual items, as well as the locations for the actual items, at the inventory locations.

Abstract: A nozzle cap assembly can include a nozzle cap body defining a top end and a bottom end, the nozzle cap body defining a base positioned at the top end and a curved side wall extend from the base down to the bottom end; an enclosure coupled to the top end, the enclosure rotationally fixed relative to the nozzle cap body, the enclosure at least partially defining an enclosure cavity; and a nut base positioned opposite from the nozzle cap body, the enclosure positioned between the nut base and the base.

Abstract: A nozzle cap assembly can include a nozzle cap body defining a top end and a bottom end, the nozzle cap body defining a base positioned at the top end and a curved side wall extend from the base down to the bottom end; an enclosure coupled to the top end, the enclosure rotationally fixed relative to the nozzle cap body, the enclosure at least partially defining an enclosure cavity; and a nut base positioned opposite from the nozzle cap body, the enclosure positioned between the nut base and the base.

Abstract: A nozzle cap assembly can include a nozzle cap body defining a top end and a bottom end, the nozzle cap body defining a base positioned at the top end and a curved side wall extend from the base down to the bottom end; an enclosure coupled to the top end, the enclosure rotationally fixed relative to the nozzle cap body, the enclosure at least partially defining an enclosure cavity; and a nut base positioned opposite from the nozzle cap body, the enclosure positioned between the nut base and the base.

Abstract: A nozzle cap assembly can include a nozzle cap body defining a top end and a bottom end, the nozzle cap body defining a base positioned at the top end and a curved side wall extend from the base down to the bottom end; an enclosure coupled to the top end, the enclosure rotationally fixed relative to the nozzle cap body, the enclosure at least partially defining an enclosure cavity; and a nut base positioned opposite from the nozzle cap body, the enclosure positioned between the nut base and the base.

Abstract: Example systems, devices, media, and methods are described for evaluating movements and physical exercises in augmented reality using the display of an eyewear device. A motion evaluation application implements and controls the capturing of frames of motion data using an inertial measurement unit (IMU) on the eyewear device. The method includes presenting virtual targets on the display, localizing the current eyewear device location based on the captured motion data, and presenting virtual indicators on the display. The virtual targets represent goals or benchmarks for the user to achieve using body postures. The method includes detecting determining whether the eyewear device location represents an intersecting posture relative to the virtual targets, based on the IMU data. The virtual indicators display real-time feedback about user posture or performance relative to the virtual targets.

Abstract: A nozzle cap assembly includes a body with a first curved side wall, the body defining a top end and a bottom end positioned opposite from the top end; a nut, the top end of the body positioned between the nut and the bottom end of the body; a spacer comprising a hollow body, the hollow body defining a curved outer surface, the spacer positioned between the nut and the bottom end of the body; and an antenna assembly coupled to the curved outer surface.

Abstract: A nozzle cap assembly includes a body with a first curved side wall, the body defining a top end and a bottom end positioned opposite from the top end; a nut, the top end of the body positioned between the nut and the bottom end of the body; a spacer comprising a hollow body, the hollow body defining a curved outer surface, the spacer positioned between the nut and the bottom end of the body; and an antenna assembly coupled to the curved outer surface.

Abstract: A nozzle cap assembly includes a body with a first curved side wall, the body defining a top end and a bottom end positioned opposite from the top end; a nut, the top end of the body positioned between the nut and the bottom end of the body; a spacer comprising a hollow body, the hollow body defining a curved outer surface, the spacer positioned between the nut and the bottom end of the body; and an antenna assembly coupled to the curved outer surface.

Abstract: A nozzle cap assembly includes a body with a first curved side wall, the body defining a top end and a bottom end positioned opposite from the top end; a nut, the top end of the body positioned between the nut and the bottom end of the body; a spacer comprising a hollow body, the hollow body defining a curved outer surface, the spacer positioned between the nut and the bottom end of the body; and an antenna assembly coupled to the curved outer surface.

Abstract: A nozzle cap assembly includes a nozzle cap including a base, the base defining a top end and a bottom end; and a nut positioned opposite from the bottom end; an enclosure positioned between the top end of the base and the nut, the enclosure defining a cavity within the enclosure; at least one antenna positioned within the cavity.

Abstract: A method for manufacturing a nozzle cap, the method including attaching an antenna printed circuit board (“PCB”) strip to an inner cover surface of an antenna cover; and inserting the antenna cover into a scallop defined by a circumferential wall of a cap body to position the antenna PCB strip between the antenna cover and the circumferential wall, the circumferential wall defining an outer wall surface, the antenna cover covering the scallop, the scallop extending radially inward into the circumferential wall relative to a first portion and a second portion of the outer wall surface, the scallop circumferentially positioned between the first portion and the second portion of the outer wall surface.

Abstract: A nozzle cap assembly can include a nozzle cap body defining a top end and a bottom end, the nozzle cap body defining a base positioned at the top end and a curved side wall extend from the base down to the bottom end; an enclosure coupled to the top end, the enclosure rotationally fixed relative to the nozzle cap body, the enclosure at least partially defining an enclosure cavity; and a nut base positioned opposite from the nozzle cap body, the enclosure positioned between the nut base and the base.

Abstract: A nozzle cap assembly includes a body with a first curved side wall, the body defining a top end and a bottom end positioned opposite from the top end; a nut, the top end of the body positioned between the nut and the bottom end of the body; a spacer comprising a hollow body, the hollow body defining a curved outer surface, the spacer positioned between the nut and the bottom end of the body; and an antenna assembly coupled to the curved outer surface.

Abstract: A nozzle cap assembly includes a nozzle cap including a base, the base defining a top end and a bottom end; and a nut positioned opposite from the bottom end; an enclosure positioned between the top end of the base and the nut, the enclosure defining a cavity within the enclosure; at least one antenna positioned within the cavity.

Abstract: A nozzle cap assembly includes a nut positioned at a first end of the nozzle cap assembly; a base positioned at a second end of the nozzle cap assembly, the base configured to mount on a nozzle of a fire hydrant; an enclosure positioned between the nut and the base, the enclosure defining a cavity; and an antenna, a modem, and a power source positioned within the cavity, the modem connected in electrical communication with the antenna and the power source.