mhurhangee/patent-ind-claim-en huggingface dataset:
A spectacle lens comprising: a plastic base which has a convex surface and a concave surface; and a multilayer film which is disposed on at least the convex surface of the plastic base, wherein the multilayer film has an average reflectance of 2% to 10% over a wavelength range of 400 nm to 500 nm, and wherein the average reflectance of the multilayer film disposed on the convex surface of the plastic base over a wavelength range of 400 nm to 500 nm is greater than the average reflectance of the multilayer film disposed on the concave surface of the plastic base over a wavelength range of 400 nm to 500 nm. a plastic base which has a convex surface and a concave surface; and a multilayer film which is disposed on at least the convex surface of the plastic base, wherein the multilayer film has an average reflectance of 2% to 10% over a wavelength range of 400 nm to 500 nm, and wherein the average reflectance of the multilayer film disposed on the convex surface of the plastic base over a wavelength range of 400 nm to 500 nm is greater than the average reflectance of the multilayer film disposed on the concave surface of the plastic base over a wavelength range of 400 nm to 500 nm.
A controller for controlling wireless command transmission to a robotic device , the controller being configured to: obtain an action that is to be performed by a robotic device ; determine a quality of control, QoC, level associated with the action, wherein the QoC level is indicative of a Key Performance Indicator, KPI, requirement for execution of a command pertaining to the action, wherein the action belongs to at least one of multiple QoC levels associated with different KPI requirement levels for the robotic device ; and trigger a setting of at least one transmission parameter for a wireless transmission of the command pertaining to the action, wherein the setting is dependent on the QoC level determined for the action, wherein the setting of the at least one transmission parameter is defined by at least one of: a transmission resource consumption level and a Quality of Service, QoS, level of a wireless transmission channel , wherein a KPI requirement level pertaining to a lower KPI requirement corresponds to at least one of a lower transmission resource consumption level and a lower QoS level. obtain an action that is to be performed by a robotic device ; determine a quality of control, QoC, level associated with the action, wherein the QoC level is indicative of a Key Performance Indicator, KPI, requirement for execution of a command pertaining to the action, wherein the action belongs to at least one of multiple QoC levels associated with different KPI requirement levels for the robotic device ; and trigger a setting of at least one transmission parameter for a wireless transmission of the command pertaining to the action, wherein the setting is dependent on the QoC level determined for the action, wherein the setting of the at least one transmission parameter is defined by at least one of: a transmission resource consumption level and a Quality of Service, QoS, level of a wireless transmission channel , wherein a KPI requirement level pertaining to a lower KPI requirement corresponds to at least one of a lower transmission resource consumption level and a lower QoS level.
A direct write laser based machining process wherein in a machining step a laser beam is controlled to machine a glass material in a raster scan providing scan lines at a step pitch in a raster pass to ablate portions of the glass material and machine a desired contour surface on the glass material to create an optical element and characterised in that : multiple raster passes with consecutive scan lines of each raster pass being separated, provide an interlaced raster scan pattern at the step pitch.
Muffler for motor vehicles comprising: - an intake pipe of the exhaust gas which separates, at a fork , into a main pipe and a secondary pipe , - a muffler body which delimits an expansion volume and houses at least partially the main pipe and the secondary pipe , - wherein the intake pipe of the exhaust gas is in fluid continuous connection with the main pipe through the secondary pipe , and - wherein the main pipe comprises, downstream of the fork , a throttle valve which allows or prevents a further fluidic connection of the intake pipe of exhaust gas with the main pipe , and an output of the exhaust gases , for the expulsion of the gases from the pipe ; wherein the main pipe , at a first portion contained in the expansion volume , comprises a plurality of inlet holes suitable to allow the leakage into it of the exhaust gases expanded in the expansion volume , coming from the open end of the secondary pipe ; characterized in that the muffler body comprises a separator septum which divides it into the expansion volume containing the open end , the first portion and the inlet holes , so as to allow the conveying of the exhaust gases coming from the open end into the inlet holes , and a second portion which houses an end portion of the main pipe which ends with the output of the exhaust gases ; and wherein the end portion of the main pipe housed in said second portion comprises damping holes surrounded by sound absorbent material fitted around the end portion of the main pipe . - an intake pipe of the exhaust gas which separates, at a fork , into a main pipe and a secondary pipe , - a muffler body which delimits an expansion volume and houses at least partially the main pipe and the secondary pipe , - wherein the intake pipe of the exhaust gas is in fluid continuous connection with the main pipe through the secondary pipe , and - wherein the main pipe comprises, downstream of the fork , a throttle valve which allows or prevents a further fluidic connection of the intake pipe of exhaust gas with the main pipe , and an output of the exhaust gases , for the expulsion of the gases from the pipe ;
Lightweight component to be set up vertically, for an aircraft, having at least one cantilevered load support , said lightweight component comprising a support material , at least one vertical reinforcing structure and at least one horizontal reinforcing structure , wherein a cantilevered load receptacle is provided at the intersection of one of the vertical reinforcing structures with one of the horizontal reinforcing structures in place of the central support material , characterized in that the cantilevered load support comprises a core laminate (64; 24, 34) projecting from the lightweight component and consisting of two front side laminates which are deflected out of the plane of the support material from two opposite sides into the core laminate , and in that the thickness of the support material replaced by the cantilevered load support on both sides of the core laminate consists of the respective front side laminates and rear side laminates connected thereto, which are connected together as support material-replacing core laminates .
A method for broadcast event processing in a user equipment, the method comprising: receiving , by a control unit in the user equipment, a broadcast event; determining , by the control unit, whether a broadcast limiting condition is satisfied; and launching , by the control unit, a first application when it is determined that the broadcast limiting condition is satisfied, wherein the first application is a subscriber to the broadcast event; wherein the broadcast event is generated by an operating system or a second application, wherein the second application and the first application are both installed in the operating system, and the first application and the second application are different; wherein the broadcast limiting condition comprises at least one of a broadcast frequency limitation, a network status limitation of user equipment, an application status limitation, or a broadcast content limitation. receiving , by a control unit in the user equipment, a broadcast event; determining , by the control unit, whether a broadcast limiting condition is satisfied; and launching , by the control unit, a first application when it is determined that the broadcast limiting condition is satisfied, wherein the first application is a subscriber to the broadcast event; wherein the broadcast event is generated by an operating system or a second application, wherein the second application and the first application are both installed in the operating system, and the first application and the second application are different; wherein the broadcast limiting condition comprises at least one of a broadcast frequency limitation, a network status limitation of user equipment, an application status limitation, or a broadcast content limitation.
A method of assessing the reliability of bits (b j ) received by means of a modulation symbol (502; r) on a channel , the method comprising the following steps performed at a receiving side of the channel: - providing an input dataset (300; d J (1,...,J) ; d J-y (J-x) ) including a plurality of input values corresponding to different transmit hypotheses (s k ; H·s k ; b k ) according to a modulation alphabet used for encoding the bits in the symbol (502; r); - a first computing step of computing a first intermediary dataset (314; d J-1 (1,..,J-1) ; d J-x-1 (1,..,J-x-1) ) by combining the input values of the input dataset (300; d J (1,...,J) ; d J-x (1,...,J-x) ) according to a first combination scheme; - a second computing step of computing a second intermediary dataset (414; d J-1 (J) ; d J-x-1 (J-x) ; d J-y-1 (J-x) ) by combining the input values of the input dataset (300; d J (1,...,J) ; d J-x (1,...,J-x) ; d J-y (J-x) ) according to a second combination scheme different from the first combination scheme; and - assessing the reliability of the bits (b j ) based on the first intermediary dataset and the second intermediary dataset. - providing an input dataset (300; d J (1,...,J) ; d J-y (J-x) ) including a plurality of input values corresponding to different transmit hypotheses (s k ; H·s k ; b k ) according to a modulation alphabet used for encoding the bits in the symbol (502; r); - a first computing step of computing a first intermediary dataset (314; d J-1 (1,..,J-1) ; d J-x-1 (1,..,J-x-1) ) by combining the input values of the input dataset (300; d J (1,...,J) ; d J-x (1,...,J-x) ) according to a first combination scheme; - a second computing step of computing a second intermediary dataset (414; d J-1 (J) ; d J-x-1 (J-x) ; d J-y-1 (J-x) ) by combining the input values of the input dataset (300; d J (1,...,J) ; d J-x (1,...,J-x) ; d J-y (J-x) ) according to a second combination scheme different from the first combination scheme; and - assessing the reliability of the bits (b j ) based on the first intermediary dataset and the second intermediary dataset.
A device configured for performing localization using one or both of a depth sensor and a monocular camera that are transportable with the device, the device comprising: at least one processor operationally connected to the depth sensor and the monocular camera ; at least one memory storing program code that is executed by the at least one processor to perform operations to: receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination that the benefit level of activating the monocular camera satisfies an activation rule; characterized in that the benefit level of activating the monocular camera for localization is determined based on: converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information. at least one processor operationally connected to the depth sensor and the monocular camera ; at least one memory storing program code that is executed by the at least one processor to perform operations to: receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination receive depth data from the depth sensor; determine a benefit level of activating the monocular camera for localization, based on the depth data; and activate the monocular camera for localization based on a determination that the benefit level of activating the monocular camera satisfies an activation rule; characterized in that the benefit level of activating the monocular camera for localization is determined based on: converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information. converting the depth data, which represents a 3-dimensional, 3D, localization map, to 2-dimensional, 2D, depth data representing a 2D depth image; generating an approximation of depth information that can be acquired from the monocular camera if activated, based on the 2D depth image; and determining the benefit level of activating the monocular camera for localization based on the approximation of depth information.
An adhesive medical article comprising a backing layer having a first major surface and a second major surface opposite to the first major surface, wherein the backing layer comprises a central portion and an outer circumferential portion , wherein the article further comprises a pressure sensitive adhesive pattern coating applied onto at least part of the first major surface of the backing layer in such a way as to form a plurality of adhesive coated and adhesive uncoated areas (7; 8) of the backing layer, wherein the adhesive uncoated areas comprise a central collection portion and at least one longitudinal extension radiating from the central collection portion towards the outer circumferential portion of the backing layer, wherein the pressure sensitive adhesive is selected from the group consisting of hydrophobic pressure sensitive adhesives.
A disposable absorbent incontinence article comprising: a liquid permeable topsheet , a liquid impermeable backsheet and an absorbent core positioned in between the topsheet and the backsheet , whereby the topsheet , backsheet and absorbent core form a chassis of the absorbent article ; the absorbent article further comprising a front region , a rear region and a crotch region , said crotch region interconnecting the front and the rear region; a longitudinal axis (L) which extends from the front region over the crotch region to the rear region, and a transverse axis (T) which is generally perpendicular to the longitudinal axis (L); whereby the chassis comprises two transversely opposed side edges substantially extending along the longitudinal axis (L), and a front edge and a rear edge at respectively the front region and rear region , which front edge and rear edge substantially extend along the transverse axis (T); the absorbent article further comprising at least one front side panel attached to the front region and/or at least one rear side panel attached to the rear region , whereby said front and/or rear side panel comprises a proximal edge and a distal edge which are transversely opposed, and an upper edge and a lower edge , each extending between the proximal to the distal edge, the upper edge being located closer to the front edge or rear edge of the chassis than the lower edge for respectively a front side panel and a rear side panel ; wherein the proximal and the distal edge substantially run parallel to each other along the longitudinal axis (L) and whereby the upper edge of the front and/or the rear side panel makes a non-zero angle alpha with the transverse axis (T), whereby the lower edge of the front and/or the rear side panel makes an angle beta with the transverse axis (T), characterized in that the angle beta is larger than the angle alpha.
An absorbent article selected from a diaper or pant, said article comprising: a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastic material selected from the group consisting of an elastomeric film and a plurality of elastic strands , the elastic material attached to the cover layer , wherein said least one cover layer and elastic material are joined by mechanical bonding, at a plurality of discrete bonding elements and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , wherein said panel comprises an average of no more than two wrinkles between two consecutive discrete bonding elements along a panel length (L) extending substantially parallel to the transverse axis, and characterised that the plurality of discrete bonding elements are disposed in a repeated pattern and wherein said repeated pattern consists of a plurality of sinusoidally oriented discrete bonding elements . a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastic material selected from the group consisting of an elastomeric film and a plurality of elastic strands , the elastic material attached to the cover layer , a. at least one cover layer ; and b. an elastic material selected from the group consisting of an elastomeric film and a plurality of elastic strands , the elastic material attached to the cover layer , wherein said least one cover layer and elastic material are joined by mechanical bonding, at a plurality of discrete bonding elements and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , wherein said panel comprises an average of no more than two wrinkles between two consecutive discrete bonding elements along a panel length (L) extending substantially parallel to the transverse axis, and characterised that the plurality of discrete bonding elements are disposed in a repeated pattern and wherein said repeated pattern consists of a plurality of sinusoidally oriented discrete bonding elements .
An ultrasonic sensor assembly , comprising a sensor body having opposing open ends for enabling fluid flow therethrough, the sensor body defining an interior measurement section therein disposed about a longitudinal axis, the sensor body defining a plurality of spiral flow paths disposed about a longitudinal axis of the measurement section and the spiral flow paths being formed by curved interior walls of the sensor body, curved vanes, extending through the measurement section; one or more pairs of ultrasonic transceivers mounted to the sensor body in spaced longitudinal relationship across the measurement section; and an electronics housing mounted to the sensor body, the electronics housing is operable for communication with the pair of ultrasonic transceivers to measure fluid parameters within the measurement section. a sensor body having opposing open ends for enabling fluid flow therethrough, the sensor body defining an interior measurement section therein disposed about a longitudinal axis, the sensor body defining a plurality of spiral flow paths disposed about a longitudinal axis of the measurement section and the spiral flow paths being formed by curved interior walls of the sensor body, curved vanes, extending through the measurement section; one or more pairs of ultrasonic transceivers mounted to the sensor body in spaced longitudinal relationship across the measurement section; and an electronics housing mounted to the sensor body, the electronics housing is operable for communication with the pair of ultrasonic transceivers to measure fluid parameters within the measurement section.
Process for obtaining a sheet of thermoplastic material characterised in that it comprises the steps of a. producing a semi-processed product of thermoplastic polyurethane (TPU) based on aliphatic polyethers or aliphatic polyesters by an extrusion or moulding or melting process of particulate material, without addition of process solvents and/or plasticisers, b. cooling down to room temperature said semi-processed product, c. reducing into pieces of the desired shape said semi-processed product and mounting with a predefined scheme said pieces in a formwork, d. causing said pieces in the formwork to undergo pressure and heat until melting, with a temperature in the range 110-200°C and a pressure of 200-2000 KN/m 2 , until obtaining an integral block; e. cutting said integral block into a semi-processed product in the shape of sheets, possibly repeating multiple times in succession steps c-e. a. producing a semi-processed product of thermoplastic polyurethane (TPU) based on aliphatic polyethers or aliphatic polyesters by an extrusion or moulding or melting process of particulate material, without addition of process solvents and/or plasticisers, b. cooling down to room temperature said semi-processed product, c. reducing into pieces of the desired shape said semi-processed product and mounting with a predefined scheme said pieces in a formwork, d. causing said pieces in the formwork to undergo pressure and heat until melting, with a temperature in the range 110-200°C and a pressure of 200-2000 KN/m 2 , until obtaining an integral block; e. cutting said integral block into a semi-processed product in the shape of sheets, possibly repeating multiple times in succession steps c-e.