mhurhangee/ep-ind-claims huggingface dataset:
Device for dispensing a fluid product, comprising a body that extends in a plane orthogonal to a principal median plane of the device, that comprises a central housing, a slit stopper arranged in the central housing of the body, that is made from an elastically deformable material and that is delimited by an external face, an internal face and a peripheral wall, the slit stopper comprising a slit approximately parallel to the principal median plane of the device, that extends from the internal face to the external face, and that comprises two facing walls (30a, 30b) that bear in contact with each other, the slit stopper comprising a groove made in the internal face, that comprises two inclined faces each of which extends a wall (30a, 30b) of the slit in the inwards direction, characterised in that the two facing walls (30a, 30b) can move apart following a movement perpendicular to the principal median plane of the device under pressure from the product to be dispensed, by elastic deformation of the slit stopper, and in that the slit stopper comprises a rib projecting from its peripheral wall that fits into an associated groove in the central housing, and in that there is a radial clearance present between the bottom of the groove and the free end of the rib.
A head-mounted display device, comprising: a near-eye display system configured to output a first-eye image to a first eyebox and a second-eye image to a second eyebox; a logic device; and a storage device comprising instructions executable by the logic device to cause the logic device to: receive an input of a three-dimensional, 3D, location of a pupil of a first eye and a 3D location of a pupil of a second eye relative to the near-eye display system, and characterized in that the storage device further comprises instructions executable by the logic device to cause the logic device to: based upon the 3D location of the pupil of the first eye and the 3D location of the pupil of the second eye, determine a location at which the pupil of the first eye begins to exit the first eyebox, and attenuate a luminance of the second-eye image at a location in the second-eye image based upon the location at which the pupil of the first eye begins to exit the first eyebox. a near-eye display system configured to output a first-eye image to a first eyebox and a second-eye image to a second eyebox; a logic device; and a storage device comprising instructions executable by the logic device to cause the logic device to: receive an input of a three-dimensional, 3D, location of a pupil of a first eye and a 3D location of a pupil of a second eye relative to the near-eye display system, and characterized in that the storage device further comprises instructions executable by the logic device to cause the logic device to: based upon the 3D location of the pupil of the first eye and the 3D location of the pupil of the second eye, determine a location at which the pupil of the first eye begins to exit the first eyebox, and attenuate a luminance of the second-eye image at a location in the second-eye image based upon the location at which the pupil of the first eye begins to exit the first eyebox. based upon the 3D location of the pupil of the first eye and the 3D location of the pupil of the second eye, determine a location at which the pupil of the first eye begins to exit the first eyebox, and attenuate a luminance of the second-eye image at a location in the second-eye image based upon the location at which the pupil of the first eye begins to exit the first eyebox.
A method for providing predictive energy consumption feedback for powering a transport climate control system (100, 124, 135, 155), comprising: obtaining one or more route parameters, wherein the route parameters include a duration of a route; obtaining a pre-route energy level of an energy storage source supplying power to the transport climate control system (100, 124, 135, 155); determining, using a processor, an expected energy consumption of the transport climate control system (100, 124, 135, 155) for the route based on the one or more route parameters; comparing, using a processor, the expected energy consumption for the route to the pre-route energy level of the energy storage source; and when the expected energy consumption is greater than the pre-route energy level of the energy storage source, displaying an alert via a human-machine interface. obtaining one or more route parameters, wherein the route parameters include a duration of a route; obtaining a pre-route energy level of an energy storage source supplying power to the transport climate control system (100, 124, 135, 155); determining, using a processor, an expected energy consumption of the transport climate control system (100, 124, 135, 155) for the route based on the one or more route parameters; comparing, using a processor, the expected energy consumption for the route to the pre-route energy level of the energy storage source; and when the expected energy consumption is greater than the pre-route energy level of the energy storage source, displaying an alert via a human-machine interface.
A controller for a DC-DC converter wherein the DC-DC converter comprises a series arrangement of a high-side switch and low-side switch with a half-bridge node (V-hb) therebetween, the controller comprising a high-side part for driving the high-side switch and configured to be powered, when the low-side switch is open, by a rechargeable power supply connected between the half-bridge node and a power supply node (V_suphs), the high-side part comprising a level shifter, a driver, a latch part comprising a latch having a set input (slatch), a reset input (rlatch), a further reset input, a Q output and a Q-not output and configured to latch the driver via the Q-output to either an on-state or an off-state, and a further circuit having an input coupled to the Q-not output of the latch, wherein the further reset input is coupled to an output of the further circuit and wherein the further circuit is configured to draw a bias current from the rechargeable power supply to operate, wherein the latch part is configured to prevent the further circuit from drawing current from the power supply unless the set input is high and/or the driver is in the on-state. the controller comprising a high-side part for driving the high-side switch and configured to be powered, when the low-side switch is open, by a rechargeable power supply connected between the half-bridge node and a power supply node (V_suphs), the high-side part comprising a level shifter, a driver, a latch part comprising a latch having a set input (slatch), a reset input (rlatch), a further reset input, a Q output and a Q-not output and configured to latch the driver via the Q-output to either an on-state or an off-state, and a further circuit having an input coupled to the Q-not output of the latch, wherein the further reset input is coupled to an output of the further circuit and wherein the further circuit is configured to draw a bias current from the rechargeable power supply to operate, wherein the latch part is configured to prevent the further circuit from drawing current from the power supply unless the set input is high and/or the driver is in the on-state.
A method of controlling access to a building, the method comprising: receiving a visitor access request for a visitor mobile device; determining a residential group assigned to the visitor mobile device, the residential group including at least one resident mobile device; transmitting the visitor access request to at least one of a resident mobile device within the residential group and a manager device; receiving an access grant from at least one of the resident mobile device within the residential group and the manager device; granting a visitor mobile device access to at least one of a selected elevator car (204-1, 204-2), a selected door (205-1, 205-2), and a selected floor (280a, 280b, 280c, 280d, 280e,280f); and automatically creating the residential group in response to a location of the resident mobile device. receiving a visitor access request for a visitor mobile device; determining a residential group assigned to the visitor mobile device, the residential group including at least one resident mobile device; transmitting the visitor access request to at least one of a resident mobile device within the residential group and a manager device; receiving an access grant from at least one of the resident mobile device within the residential group and the manager device; granting a visitor mobile device access to at least one of a selected elevator car (204-1, 204-2), a selected door (205-1, 205-2), and a selected floor (280a, 280b, 280c, 280d, 280e,280f); and automatically creating the residential group in response to a location of the resident mobile device.
A robot comprising: an arm having at least one joint (31, 31') comprising a joint driving means, the joint driving means having a plurality of actuation lanes (34, 34', 35, 35') and a fault detection and isolation system adapted to detect a fault in any one of the actuation lanes, wherein the fault detection and isolation system is operable to isolate the or each actuation lane exhibiting the fault.
A control device for a vehicle, the vehicle including an engine and an automatic transmission, the automatic transmission including an input shaft and a plurality of engagement elements (C1, C2, C3, C4, B1, B2), the plurality of engagement elements (C1, C2, C3, C4, B1, B2) including an engaging element and a disengaging element, the automatic transmission being configured to establish a plurality of gear positions having different speed ratios by selectively engaging and disengaging the plurality of engagement elements (C1, C2, C3, C4, B1, B2) through hydraulic pressure control and configured to transmit power from the engine to a drive wheel side, the control device comprising: an electronic control unit configured to: control a hydraulic pressure of the engaging element and a hydraulic pressure of the disengaging element in accordance with a preset target output shaft torque, during a power-on downshift; characterized in that said electronic control unit is configured to: delay a start of decrease in the hydraulic pressure of the disengaging element from a start of a torque phase while maintaining the hydraulic pressure of the disengaging element at the start of the torque phase; and start decreasing the hydraulic pressure of the disengaging element when the electronic control unit determines that overspeed of the input shaft is occurring during the torque phase and a predetermined condition is established, the predetermined condition being one of a condition in which a delay time from the start of the torque phase exceeds a predetermined upper limit delay time and a condition in which the overspeed has converged within the upper limit delay time. the automatic transmission including an input shaft and a plurality of engagement elements (C1, C2, C3, C4, B1, B2), the plurality of engagement elements (C1, C2, C3, C4, B1, B2) including an engaging element and a disengaging element, the automatic transmission being configured to establish a plurality of gear positions having different speed ratios by selectively engaging and disengaging the plurality of engagement elements (C1, C2, C3, C4, B1, B2) through hydraulic pressure control and configured to transmit power from the engine to a drive wheel side, delay a start of decrease in the hydraulic pressure of the disengaging element from a start of a torque phase while maintaining the hydraulic pressure of the disengaging element at the start of the torque phase; and start decreasing the hydraulic pressure of the disengaging element when the electronic control unit determines that overspeed of the input shaft is occurring during the torque phase and a predetermined condition is established, the predetermined condition being one of a condition in which a delay time from the start of the torque phase exceeds a predetermined upper limit delay time and a condition in which the overspeed has converged within the upper limit delay time.
A non-transitory machine-readable storage medium encoded with instructions executable by a hardware processor of a computing device for access point signal estimation, the machine-readable storage medium comprising instructions to cause the hardware processor to: receive a first pathloss value in a first frequency, the first pathloss value indicating a difference in transmit power of a particular access point (240, 340) and a received signal strength observed by a first access point (210, 310); receive a second pathloss value in the first frequency, the second pathloss value indicating a difference in transmit power of the particular access point (240, 340) and a received signal strength observed by a second access point (220, 320); characterised by instructions to cause the hardware processor to: receive a third pathloss value in a second frequency that is different from the first frequency, the third pathloss value indicating a difference in transmit power of the particular access point (240, 340) and a received signal strength observed by the second access point (220, 320) in the second frequency; and generate, using the first pathloss value, second pathloss value, and third pathloss value, an estimated pathloss between the first access point (210, 310) and the particular access point (240, 340) in the second frequency. receive a first pathloss value in a first frequency, the first pathloss value indicating a difference in transmit power of a particular access point (240, 340) and a received signal strength observed by a first access point (210, 310); receive a second pathloss value in the first frequency, the second pathloss value indicating a difference in transmit power of the particular access point (240, 340) and a received signal strength observed by a second access point (220, 320); characterised by instructions to cause the hardware processor to: receive a third pathloss value in a second frequency that is different from the first frequency, the third pathloss value indicating a difference in transmit power of the particular access point (240, 340) and a received signal strength observed by the second access point (220, 320) in the second frequency; and generate, using the first pathloss value, second pathloss value, and third pathloss value, an estimated pathloss between the first access point (210, 310) and the particular access point (240, 340) in the second frequency. receive a third pathloss value in a second frequency that is different from the first frequency, the third pathloss value indicating a difference in transmit power of the particular access point (240, 340) and a received signal strength observed by the second access point (220, 320) in the second frequency; and generate, using the first pathloss value, second pathloss value, and third pathloss value, an estimated pathloss between the first access point (210, 310) and the particular access point (240, 340) in the second frequency.
Convoluted bellows air spring (1, 101) having at least one belt ring (2, 112, 122), wherein the convoluted bellows air spring (1, 101) is tiltable about a pivot axis (6, 106), characterized in that the belt ring (2, 112, 122), or if there are a number of belt rings (2, 112, 122) the belt rings (2, 112, 122), is or are respectively articulated by means of a lever (7, 117, 127), wherein the articulating pivot axis (10,110,120) of the respective lever (7, 117, 127) differs from the pivot axis (6, 106) of the convoluted bellows air spring (1, 101), and - in a convoluted bellows air spring (1, 101) having two folds and a belt ring (2, 112, 122), the intersection of two fictitious auxiliary lines (11, 12) namely defines a first auxiliary line which, in the starting position of the convoluted bellows air spring (1, 101), is perpendicular to the main axis of the convoluted bellows air spring (1, 101) and, as seen in the axial direction, runs centrally through an adjacent convoluted bellows fold, - in a convoluted bellows air spring (1, 101) having three folds and two belt rings (2, 112, 122), the intersections of three fictitious auxiliary lines (110, 120, 132) namely defines a second auxiliary line and a third auxiliary line which, in the starting position of the convoluted bellows air spring (1, 101), are each perpendicular to the main axis of the convoluted bellows air spring (1, 101) and, as viewed in the axial direction, run centrally through the respective outer convoluted bellows folds, - with a fourth fictitious auxiliary line (12, 132) which runs parallel to the main axis (13, 13) of the convoluted bellows air spring (1, 101) through the pivot axis (6, 106) of the convoluted bellows air spring (1, 101). - in a convoluted bellows air spring (1, 101) having two folds and a belt ring (2, 112, 122), the intersection of two fictitious auxiliary lines (11, 12) namely defines a first auxiliary line which, in the starting position of the convoluted bellows air spring (1, 101), is perpendicular to the main axis of the convoluted bellows air spring (1, 101) and, as seen in the axial direction, runs centrally through an adjacent convoluted bellows fold, - in a convoluted bellows air spring (1, 101) having three folds and two belt rings (2, 112, 122), the intersections of three fictitious auxiliary lines (110, 120, 132) namely defines a second auxiliary line and a third auxiliary line which, in the starting position of the convoluted bellows air spring (1, 101), are each perpendicular to the main axis of the convoluted bellows air spring (1, 101) and, as viewed in the axial direction, run centrally through the respective outer convoluted bellows folds, - with a fourth fictitious auxiliary line (12, 132) which runs parallel to the main axis (13, 13) of the convoluted bellows air spring (1, 101) through the pivot axis (6, 106) of the convoluted bellows air spring (1, 101).
Movable compartment and movable compartment engagement system for household appliances, specifically for refrigerators apparatus, defined by a cabinet comprising side walls delimiting at least one inner compartment capable of housing at least one movable compartment with side edges comprising upper skirts protruding downwards, the system comprising at least one left slide means cooperating, in use, with left side wall of the cabinet and the skirt extending from upper edge of the right side wall of the movable compartment, and at least one right slide means cooperating, in use, with the right side wall of the cabinet and the skirt extending from the upper edge of the left side wall of the movable compartment; said engagement system being wherein the back end of each of the upper edges of the side walls (21, 22) of the movable compartment comprises at least one substantially convex protrusion, wherein the longitudinal surface of the skirt of the movable compartment comprises at least one protrusion having a substantially convex lower end; the at least one left slide means comprises a lower inner channel cooperating with the substantially convex lower end of the movable compartment and an upper surface cooperating with at least one substantially convex protrusion of the movable compartment, wherein the front end of said lower inner channel comprises a semicircular protrusion provided with a longitudinal slot cooperating with the skirt of the movable compartment, and the width of the longitudinal slot is substantially coincident with the width of the skirt; the at least one right slide means comprises a lower inner channel cooperating with the substantially convex lower end of the movable compartment and an upper surface cooperating with at least one substantially convex protrusion of the movable compartment, wherein the front end of said lower inner channel comprises a semicircular protrusion provided with a longitudinal slot cooperating with the skirt of the movable compartment wherein said slide means (100, 200) comprise, on the inner side of the side surfaces (105, 205), at least one resilient member (106, 206) cooperating with the skirt of the movable compartment, wherein said slide means (100, 200) comprise, on the outer side of their side surfaces (105, 205), at least one respective engagement element (101, 201) cooperating, in use, with the side walls (131, 132), wherein said system comprises means for eliminating side movement clearances of the movable compartment, means for eliminating possible diagonal displacement of the movable compartment during its movement, and means for absorbing variation in the movable compartment assembling, wherein the means for eliminating side movement clearances of the movable compartment comprises said semicircular protrusions (103, 203) and said longitudinal slots (104, 204); wherein the means for eliminating possible diagonal displacement of the movable compartment comprises said lower inner channel (102, 202), and wherein the means for absorbing variation in the movable compartment assembling comprises said at least one semicircular protrusion (103, 203).
A method in a first node for handling a pattern-based guard band, the first node being comprised in a wireless communications network, the method comprising: configuring the pattern-based guard band, the pattern-based guard band comprising a pattern, the pattern comprising at least a first set of time resources and a second set of time resources, wherein the first set of time resources is associated with a first guard band configuration and the second set of time resources is associated with one of: no guard band configuration and a second guard band configuration, wherein the second guard band configuration is different from the first guard band configuration, applying the configured pattern-based guard band by the first node or signaling the configured pattern-based guard band to a second network node. configuring the pattern-based guard band, the pattern-based guard band comprising a pattern, the pattern comprising at least a first set of time resources and a second set of time resources, wherein the first set of time resources is associated with a first guard band configuration and the second set of time resources is associated with one of: no guard band configuration and a second guard band configuration, wherein the second guard band configuration is different from the first guard band configuration, applying the configured pattern-based guard band by the first node or signaling the configured pattern-based guard band to a second network node.