Abstract: An example system includes at least two transceivers configured to be coupled to an interior of a cargo compartment of an aircraft, and to detect radio frequency identification (RFID) signals from an RFID tag coupled to baggage stored in the cargo compartment. The system also includes a processor configured to perform operations including receiving the signals detected by the transceivers. The operations also include based on runtimes of the signals, determining a respective distance from the baggage to each transceiver, where the respective distance defines a boundary centered at a known location of the transceiver and along which the baggage is estimated to be located relative to the transceiver. The operations also include identifying locations at which the boundaries of the transceivers intersect and, based on the locations, detecting an estimated storage location of the baggage. The operations also include controlling a display device to display the estimated storage location.

Abstract: The invention relates to a utility vehicle tire tyre having a tread with at least one circumferential channel (2, 2?, 2?) with a channel base (5) and channel walls (4, 4?). Base elevations are formed on the channel base. A top surface (8, 8?, 8?) of the base elevations (7, 7?, 7?) slopes downward uniformly toward the surface edge, wherein the channel walls (4, 4?) have, to the side of the base elevations (7, 7?, 7?), wall sections (4b, 4?b) which are convexly curved toward one another.

Abstract: The invention relates to a commercial vehicle tire which is cold-retreadable and comprises sidewalls (5), belt plies (2a) and a profiled tread (1) with shoulder flanks (8a) located outside the ground contact area and running to the sidewalls (5), wherein a buffing indicator (9, 9?, 9?) for indicating the buffing depth is provided on at least one shoulder flank (8a), running around in the circumferential direction, possibly interrupted in some portions and formed by a multiplicity of elevations (10), wherein the elevations (10) have with respect to the level of the shoulder flank (8a) a maximum thickness, determined perpendicularly to this level, of 0.5 mm to 2.0 mm. The elevations (10) of the buffing indicator (9, 9?, 9?) are dome-shaped and have a circular base area with a diameter of 0.5 mm to 2.0 mm.

Abstract: Tread profile of a vehicle tire with profile elements (1,12,13,14,15,6) separated from one another by grooves (7,8,9,10,23), wherein the profile elements (13,14,1,12) separated by a groove (9,7) are outwardly delimited in the radial direction R by a radially outer surface (16) forming the ground contact area and toward the groove (9,7) respectively by a profile element flank forming a groove wall (17,18), wherein a rubber rib (20,19) extending in the extension direction of the groove (9,7) is respectively formed in the profile element flanks which delimit the groove (9,7) and each form a different groove wall (17,18) of the groove (9,7), wherein the rubber rib (19) formed in one groove wall (17) is formed in a different radial position of the vehicle tire than the rubber rib (20) formed in the other groove wall (18), wherein the two rubber ribs each (19,20) extend over the entire extension length of the profile element flank and wherein each of these two rubber ribs (19,20) respectively extends along its enti

Abstract: The present disclosure generates a digital twin of the interior of a vehicle to initiate and track maintenance issues. In one aspect, the digital twin is formed using multiple captured images of the interior of the vehicle where multiple components in those images are identified using a machine learning (ML) model. The components identified by the ML model are then mapped to a model (e.g., a 3D model) of the components that lists their location in the vehicle and an identifier (e.g., a part number or serial number). In this manner, the digital twin can identify, using the identifiers, the various components in the images captured by a camera.

Abstract: A system for consumer goods management includes at least one sensor and at least one processor. The at least one sensor is configured to identify consumables and provide tracking information corresponding to the consumables. The at least one processor configured to acquire consumption information for a trip to be performed; determine a meal plan based on the consumption information, the meal plan specifying a plurality of types of consumables, quantities of the types of consumables, and a storage arrangement of the types of consumables; and acquire the tracking information from the at least one sensor to implement the meal plan.

Abstract: The invention relates to a pneumatic vehicle tire having a tread with profile block rows (1, 2) with profile blocks (5) delimited by channels (3, 4), which channels (3, 4) form T-shaped intersections in plan view and are delimited by a channel base (6, 6?) and by block flanks (5a, 5?a), wherein, in channels (3), there are formed projections (7, 7?) which, in a radial direction, have at their highest point a height (h1, h1?), in relation to the lowest point of the channels (3), of 10% to 80% of the profile depth. The projections (7, 7?) are positioned in intersection regions of T-shaped intersections of the channels (3, 4) and are attached to that block flank (5a) which is situated opposite the opening-in point of the opening-in channel (4).

Abstract: Certain aspects of the present disclosure provide a method that includes: collecting seat sensor data associated with a plurality of seats in a vehicle; selecting a first subset of data from the collected seat sensor data; providing the first subset of data to a fault detection model; receiving, from the fault detection model, one or more detected seat component faults; and generating, based on the one or more detected seat component faults, a seat condition map associated with the vehicle.

Abstract: A pneumatic vehicle tire, in particular a commercial vehicle tire, includes a tread which has a profile and has at least one circumferential groove (1) which is encircling in the circumferential direction, is embodied to a profile depth (PT) and in the cross section, starting at the tread external face, is composed of three adjoining groove portions, one outer groove portion (2) that expands in a funnel-shaped manner toward the outside, one 1 mm to 3 mm wide contracted groove portion, and one inner groove portion (4) which lies radially inward, is expanded in relation to the contracted groove portion (3) and has the largest cross-sectional face of all portions, and which is delimited by two cover flanks (4a), lateral groove flanks (4?b, 4?b) that adjoin said cover flanks (4a), and a groove base (4c).

Abstract: A pneumatic vehicle tire at least having: a tread including an outer tread cap with a profiled tread and an inner tread base, a carcass, a bead region with a bead core, an inner layer and sidewalls is provided. The material thickness (d(2)) of the tread base is configured to decrease from the center of the tread toward each of the side walls. Furthermore, a method for retreading a pneumatic vehicle tire is provided.

Abstract: The invention relates to a utility vehicle tyre having a tread with at least one circumferential channel (2, 2?, 2?) with a channel base (5) and channel walls (4, 4?), wherein base elevations (7, 7?, 7?) are formed on the channel base (5) in a manner distributed over the circumference and acting centrally as stone ejectors, with a height (h1, h3) of 25% to 60% of the profile height (T1) and a greater extent in the circumferential direction than in the axial direction, which base elevations (7, 7?, 7?) either contact the channel walls (4, 4?) or are at distances (a1) of up to 4.0 mm therefrom in the axial direction and are bounded in the radial direction by a top surface (8, 8?, 8?) having an encircling surface edge, wherein the channel walls (4, 4?) between the base elevations (7, 7?, 7?) have wall portions (4a, 4?a) which converge toward each other.

Abstract: A system for consumer goods management includes at least one sensor and at least one processor. The at least one sensor is configured to identify consumables and provide tracking information corresponding to the consumables. The at least one processor configured to acquire consumption information for a trip to be performed; determine a meal plan based on the consumption information, the meal plan specifying a plurality of types of consumables, quantities of the types of consumables, and a storage arrangement of the types of consumables; and acquire the tracking information from the at least one sensor to implement the meal plan.

Abstract: Certain aspects of the present disclosure provide a method that includes: collecting seat sensor data associated with a plurality of seats in a vehicle; selecting a first subset of data from the collected seat sensor data; providing the first subset of data to a fault detection model; receiving, from the fault detection model, one or more detected seat component faults; and generating, based on the one or more detected seat component faults, a seat condition map associated with the vehicle.

Abstract: The invention relates to a pneumatic vehicle tire having a tread with profile block rows (1, 2) with profile blocks (5) delimited by channels (3, 4), which channels (3, 4) form T-shaped intersections in plan view and are delimited by a channel base (6, 6?) and by block flanks (5a, 5?a), wherein, in channels (3), there are formed projections (7, 7?) which, in a radial direction, have at their highest point a height (h1, h?1), in relation to the lowest point of the channels (3), of 10% to 80% of the profile depth. The projections (7, 7?) are positioned in intersection regions of T-shaped intersections of the channels (3, 4) and are attached to that block flank (5a) which is situated opposite the opening-in point of the opening-in channel (4).

Abstract: Tread profile of a pneumatic vehicle tyre—in particular for commercial vehicles—comprising a regroovable tread profile with radially raised profile elements (1, 2, 3, 4, 5) and with grooves (6, 7, 8, 9), which respectively separate two adjacent profile elements (1, 2, 3, 4, 5) from one another, wherein the grooves (6, 7, 8, 9) are bounded inwards in the radial direction R by a groove base (10) and on both sides in the axial direction by a profile element flank, forming the groove wall (12, 13), and wherein at least one regrooving indicator (14) for indicating the regrooving depth is respectively formed in one or more grooves (3), characterized in that, in at least one groove (8), all of the regrooving indicators (14) formed therein are formed in a groove wall (12) at a height H measured in the radial direction R of H>0 mm above the groove base (10), wherein the height H corresponds to the maximum radial abrasion position of the tyre for regrooving.

Abstract: Pneumatic vehicle tire, in particular a commercial vehicle tire, having a tread which has a profile and has at least one circumferential groove (1) which is encircling in the circumferential direction, is embodied to a profile depth (PT) and in the cross section, starting at the tread external face, is composed of three adjoining groove portions, one outer groove portion (2) that expands in a funnel-shaped manner toward the outside, one 1 mm to 3 mm wide contracted groove portion, and one inner groove portion (4) which lies radially inward, is expanded in relation to the contracted groove portion (3) and has the largest cross-sectional face of all portions, and which is delimited by two cover flanks (4a), lateral groove flanks (4?b, 4?b) that adjoin said cover flanks (4a), and a groove base (4c).

Abstract: Pneumatic vehicle tire having a tread profile with profile bands separated by circumferential channels, each delimited outward by an outer surface and toward the channel by a flank forming a channel wall. In a channel base, first and second rubber blocks are formed. The first blocks are attached in the flank of the first band and the second blocks are attached in the flank of the second band. The first and second blocks are arranged one behind the other in an alternating sequence. Each first block extends in the axial direction as far as a position in the axial extent region of two second blocks and ends with a spacing to the flank of the second band. Each second block extends the axial direction as far as a position in the axial extent region of two first blocks and ends with a spacing to the flank of the first band.

Abstract: A portable electronic device for assessing an affected area of an aircraft is disclosed. A reference marker having a known size is located on the aircraft. The portable electronic device includes a processor in communication with a structural database, where the structural database includes a template that defines a maximum allowable size of damage to the aircraft. The processor executes instructions for determining an actual size of the affected area based on the known size of the reference marker. The processor also executes instructions for comparing the actual size of the affected area with the maximum allowable size of damage to the aircraft. The processor further executes instructions for determining that the actual size of the affected area exceeds the maximum allowable size of damage to the aircraft.

Abstract: Tread profile of a pneumatic vehicle tyre—in particular for commercial vehicles—comprising a regroovable tread profile with radially raised profile elements (1, 2, 3, 4, 5) and with grooves (6, 7, 8, 9), which respectively separate two adjacent profile elements (1, 2, 3, 4, 5) from one another, wherein the grooves (6, 7, 8, 9) are bounded inwards in the radial direction R by a groove base (10) and on both sides in the axial direction by a profile element flank, forming the groove wall (12, 13), and wherein at least one regrooving indicator (14) for indicating the regrooving depth is respectively formed in one or more grooves (3), characterized in that, in at least one groove (8), all of the regrooving indicators (14) formed therein are formed in a groove wall (12) at a height H measured in the radial direction R of H>0 mm above the groove base (10), wherein the height H corresponds to the maximum radial abrasion position of the tyre for regrooving.

Abstract: A portable electronic device for assessing an affected area of an aircraft is disclosed. A reference marker having a known size is located on the aircraft. The portable electronic device includes a processor in communication with a structural database, where the structural database includes a template that defines a maximum allowable size of damage to the aircraft. The processor executes instructions for determining an actual size of the affected area based on the known size of the reference marker. The processor also executes instructions for comparing the actual size of the affected area with the maximum allowable size of damage to the aircraft. The processor further executes instructions for determining that the actual size of the affected area exceeds the maximum allowable size of damage to the aircraft.