mhurhangee/patent-ind-claim-en huggingface dataset:
A method for manufacturing an article comprising: inserting at least one needle into a polymeric component that includes multiple layers and has a first surface, a second surface, and a thickness between the first surface and the second surface; wherein the inserting is to a depth less than the thickness so that the needle does not penetrate entirely through the polymeric component ; injecting ink into at least a portion of the polymeric component through the inserted needle so that the ink is embedded in at least one of the layers as a graphical image in the portion of the polymeric component ; and inflating the polymeric component with a fluid, wherein the inflating is either prior to or after the injecting. inserting at least one needle into a polymeric component that includes multiple layers and has a first surface, a second surface, and a thickness between the first surface and the second surface; wherein the inserting is to a depth less than the thickness so that the needle does not penetrate entirely through the polymeric component ; injecting ink into at least a portion of the polymeric component through the inserted needle so that the ink is embedded in at least one of the layers as a graphical image in the portion of the polymeric component ; and inflating the polymeric component with a fluid, wherein the inflating is either prior to or after the injecting.
A method for wireless communications by a user equipment, UE, comprising: receiving , via a first component carrier, control information that triggers transmission of an aperiodic reference signal in a second component carrier, wherein the first component carrier has a lower subcarrier spacing, SCS, than the second component carrier, and wherein the control information is received in a physical downlink control channel, PDCCH, slot; identifying a quasi co-location assumption for reception of the aperiodic reference signal in the second component carrier based at least in part on a control resource set not being configured for the second component carrier; and receiving the aperiodic reference signal of the second component carrier based at least in part on the quasi co-location assumption, wherein the aperiodic reference signal comprises a channel state information reference signal, CSI-RS, and wherein the CSI-RS occurs only for later slots than a last slot overlapping the PDCCH slot. receiving , via a first component carrier, control information that triggers transmission of an aperiodic reference signal in a second component carrier, wherein the first component carrier has a lower subcarrier spacing, SCS, than the second component carrier, and wherein the control information is received in a physical downlink control channel, PDCCH, slot; identifying a quasi co-location assumption for reception of the aperiodic reference signal in the second component carrier based at least in part on a control resource set not being configured for the second component carrier; and receiving the aperiodic reference signal of the second component carrier based at least in part on the quasi co-location assumption, wherein the aperiodic reference signal comprises a channel state information reference signal, CSI-RS, and wherein the CSI-RS occurs only for later slots than a last slot overlapping the PDCCH slot.
A method for processing a multi-channel, spatial format, input audio signal, wherein the spatial format is one of Higher Order Ambisonics or B-format and defines a plurality of channels, the method comprising determining object locations based on the input audio signal; and extracting object audio signals from the input audio signal based on the determined object locations, wherein the determining object locations comprises determining, for each of a number of frequency subbands, one or more dominant sound-arrival-directions; and wherein the extracting object audio signals from the input audio signal based on the determined object locations comprises: for each of the number of frequency subbands of the input audio signal, determining (S620), for each object location, a mixing gain for that frequency subband and that object location; for each of the number of frequency subbands, generating (S630), for each object location, a frequency subband output signal based on the input audio signal, the mixing gain for that frequency subband and that object location, and a spatial mapping function of the spatial format, wherein the spatial mapping function is a spatial decoding function of the spatial format for extracting an audio signal at a given location, from the plurality of the channels of the spatial format; and for each object location, generating (S640) an output signal by summing over the frequency subband output signals for that object location. for each of the number of frequency subbands of the input audio signal, determining (S620), for each object location, a mixing gain for that frequency subband and that object location; for each of the number of frequency subbands, generating (S630), for each object location, a frequency subband output signal based on the input audio signal, the mixing gain for that frequency subband and that object location, and a spatial mapping function of the spatial format, wherein the spatial mapping function is a spatial decoding function of the spatial format for extracting an audio signal at a given location, from the plurality of the channels of the spatial format; and for each object location, generating (S640) an output signal by summing over the frequency subband output signals for that object location.
An aerosol-generating device comprising: an aerosol-generating element comprising a body and a receptacle for receiving a cartridge comprising an aerosol-forming substrate; a vessel having a liquid fill level and defining a head space outlet above the liquid fill level; a conduit for conveying airflow from the receptacle to the vessel; and a cap engageable with the body, the cap comprising: a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a grip member configured to releasably grip the cartridge received in the receptacle. an aerosol-generating element comprising a body and a receptacle for receiving a cartridge comprising an aerosol-forming substrate; a vessel having a liquid fill level and defining a head space outlet above the liquid fill level; a conduit for conveying airflow from the receptacle to the vessel; and a cap engageable with the body, the cap comprising: a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a grip member configured to releasably grip the cartridge received in the receptacle. a frame comprising a cavity and having a center axis, wherein the cavity is arranged for receiving the cartridge; and a grip member configured to releasably grip the cartridge received in the receptacle.
Light optics arrangement comprising: a collimating optics unit for the light emission (L) oriented in parallel of light introduced into the collimating optics unit by an illuminant , a first microlens array having a plurality of first microlenses , which first microlens array is connected optically downstream of the collimating optics unit in the direction of the parallel light emission (L), in order to emit in beams the light emitted oriented in parallel by the collimating optics unit for each microlens on the side facing away from the collimating optics unit in the prolongation of the parallel light emission (L), a second microlens array which is connected optically downstream of the first microlens array in the prolongation of the parallel light emission (L), comprising a plurality of second microlenses , each of which is associated with a first microlens for forming optical pairs (P1) of microlenses in order to emit the light emitted in beams by the associated first microlens on the side facing away from the first microlens array in a defined light emission direction (D), the microlens arrays being arranged so as to be movable relative to one another at least in one direction (Q) which is transverse to the direction of the parallel light emission (L) such that the defined light emission direction (D) is changed by the relative movement thereof with respect to one another, characterized in that the light optics arrangement is designed such that the relative mobility of the microlens arrays takes place along a Petzval curvature of at least one of the first or second microlenses . a collimating optics unit for the light emission (L) oriented in parallel of light introduced into the collimating optics unit by an illuminant , a first microlens array having a plurality of first microlenses , which first microlens array is connected optically downstream of the collimating optics unit in the direction of the parallel light emission (L), in order to emit in beams the light emitted oriented in parallel by the collimating optics unit for each microlens on the side facing away from the collimating optics unit in the prolongation of the parallel light emission (L), a second microlens array which is connected optically downstream of the first microlens array in the prolongation of the parallel light emission (L), comprising a plurality of second microlenses , each of which is associated with a first microlens for forming optical pairs (P1) of microlenses in order to emit the light emitted in beams by the associated first microlens on the side facing away from the first microlens array in a defined light emission direction (D), the microlens arrays being arranged so as to be movable relative to one another at least in one direction (Q) which is transverse to the direction of the parallel light emission (L) such that the defined light emission direction (D) is changed by the relative movement thereof with respect to one another, characterized in that the light optics arrangement is designed such that the relative mobility of the microlens arrays takes place along a Petzval curvature of at least one of the first or second microlenses .
A method comprising: selecting tiles from a plurality of tiles, wherein each tile of the plurality of tiles is a partition of automated speech recognition (ASR) data and the plurality of tiles include a plurality of geographically partitioned tiles and at least one common tile (118(c)), which includes a portion of said ASR data that has been identified as having an increased likelihood of being requested by a user, has been identified as likely to occur multiple times in the ASR data and/or corresponds to particular goods or services, wherein the ASR data are configured to be used to translate an audio input, wherein the selected tiles comprise at least one of the at least one common tile (118(c)) and at least one of the geographically partitioned tiles; the geographically partitioned tiles are selected based on: information related to a search intended by a user; and a geographic location; and the at least one common tile (118(c)) is selected based on the information but not the geographic position; and translating an audio input using ASR data from the selected tiles. selecting tiles from a plurality of tiles, wherein each tile of the plurality of tiles is a partition of automated speech recognition (ASR) data and the plurality of tiles include a plurality of geographically partitioned tiles and at least one common tile (118(c)), which includes a portion of said ASR data that has been identified as having an increased likelihood of being requested by a user, has been identified as likely to occur multiple times in the ASR data and/or corresponds to particular goods or services, wherein the ASR data are configured to be used to translate an audio input, wherein the selected tiles comprise at least one of the at least one common tile (118(c)) and at least one of the geographically partitioned tiles; the geographically partitioned tiles are selected based on: information related to a search intended by a user; and a geographic location; and the at least one common tile (118(c)) is selected based on the information but not the geographic position; and the selected tiles comprise at least one of the at least one common tile (118(c)) and at least one of the geographically partitioned tiles; the geographically partitioned tiles are selected based on: information related to a search intended by a user; and a geographic location; and information related to a search intended by a user; and a geographic location; and the at least one common tile (118(c)) is selected based on the information but not the geographic position; and translating an audio input using ASR data from the selected tiles.
Rotating selection device (1; 41) for a household appliance (H), having - at least one rotary knob with a front display surface and a peripheral gripping surface and - at least one lighting means (18-20) for illuminating the front display surface , wherein - the lighting means (18-20) is arranged in a stationary manner and - is aligned such that it backlights an off-centre partial region (F) of the display surface in a direct line with respect to an axis of rotation (D), - the rotary knob has a base body , a ring and a cover plate , characterised in that - the base body has a tubular basic shape having a translucent cover wall on the front side, - the base body has a fastening region for a rotary mechanism (W), - the ring can be placed on a side wall of the base body , - the cover plate can be placed on the translucent cover wall and - the cover plate has a pattern with symbols (30-32) to be backlit. - at least one rotary knob with a front display surface and a peripheral gripping surface and - at least one lighting means (18-20) for illuminating the front display surface , - the lighting means (18-20) is arranged in a stationary manner and - is aligned such that it backlights an off-centre partial region (F) of the display surface in a direct line with respect to an axis of rotation (D), - the rotary knob has a base body , a ring and a cover plate , - the base body has a tubular basic shape having a translucent cover wall on the front side, - the base body has a fastening region for a rotary mechanism (W), - the ring can be placed on a side wall of the base body , - the cover plate can be placed on the translucent cover wall and - the cover plate has a pattern with symbols (30-32) to be backlit.
Composite wall construction for a building , comprising a wall layer extending along a flat or curved surface made of a number of stone elements , such as bricks, closers, slabs or the like and a textile concrete layer , which has a textile reinforcement made of reinforcement fibres which is enclosed on both sides by concrete and which extends along the surface , wherein the dimensions (x1, y1) of the textile reinforcement along the surface at least correspond to the dimensions (x2, y2) of the wall layer along the surface .
A shovel including a lower traveling body and an upper turning body turnably mounted on the lower traveling body , the shovel comprising: a hydraulic actuator; an operating apparatus for operating the hydraulic actuator; an object detector configured to detect an object within a predetermined area around the shovel; a gate lock lever (D1) capable of switching the operating apparatus between an enabled state and a disabled state; and a control device capable of switching the operating apparatus between the enabled state and the disabled state separately from the gate lock lever (D1), characterised in that the control device is configured to disable the operating apparatus in response to determining that the object is present within the predetermined area based on an output of the object detector while the operating apparatus is switched to the enabled state by the gate lock lever (D1), during a standby state of the shovel, the standby state including a state in which a power source is in operation and the operating apparatus is in a neutral state. a hydraulic actuator; an operating apparatus for operating the hydraulic actuator; an object detector configured to detect an object within a predetermined area around the shovel; a gate lock lever (D1) capable of switching the operating apparatus between an enabled state and a disabled state; and a control device capable of switching the operating apparatus between the enabled state and the disabled state separately from the gate lock lever (D1), characterised in that the control device is configured to disable the operating apparatus in response to determining that the object is present within the predetermined area based on an output of the object detector while the operating apparatus is switched to the enabled state by the gate lock lever (D1), during a standby state of the shovel, the standby state including a state in which a power source is in operation and the operating apparatus is in a neutral state.
A mobile node, MN , comprising: • an antenna comprising a proximate end , a distal end , and a midpoint ; • a first feed coupled to the antenna between the proximate end and the midpoint; • a second feed coupled to the antenna between the distal end and the midpoint; ▪ a main feed coupled to a signal source of the MN; • a first switch configured to toggle between coupling the first feed to the main feed and coupling the second feed to the main feed; and • a controller configured to: ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value. • an antenna comprising a proximate end , a distal end , and a midpoint ; • a first feed coupled to the antenna between the proximate end and the midpoint; • a second feed coupled to the antenna between the distal end and the midpoint; ▪ a main feed coupled to a signal source of the MN; • a first switch configured to toggle between coupling the first feed to the main feed and coupling the second feed to the main feed; and • a controller configured to: ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value. ∘ receive a power reflection threshold value for a specified transmission signal and/or signal type from a lookup table of the MN; ∘ toggle the first switch if reflected power from the antenna exceeds the power reflection threshold value.
A light generating system comprising: - a plurality of light sources configured to provide light source light ; - an elongated luminescent body having a first face and a second face defining a length (L) of the elongated luminescent body , the elongated luminescent body comprising one or more side faces , the elongated luminescent body comprising a radiation input face and the second face comprising a first radiation exit window , wherein the radiation input face is configured in a light receiving relationship with the plurality of light sources , wherein the elongated luminescent body comprises luminescent material configured to convert at least part of the light source light into luminescent material light , wherein the second face has an angle (α) unequal to 0° and unequal to 180° with the radiation input face ), and wherein the second face has a second face surface area (A1); - a beam shaping optical element comprising a radiation entrance window optically coupled with the first radiation exit window and configured to receive at least part of the converter light , wherein the first radiation exit window has a first radiation exit window surface area (A2) which is smaller than the second face surface area (A1), and wherein the second face surface area (A1) that is not optically coupled to the beam shaping optical element comprises a first reflecting element , characterized in that said beam shaping optical element is a partial beam shaping optical element configured as a beam shaping optical element intersected along a plane parallel to a plane of symmetry of it. - a plurality of light sources configured to provide light source light ; - an elongated luminescent body having a first face and a second face defining a length (L) of the elongated luminescent body , the elongated luminescent body comprising one or more side faces , the elongated luminescent body comprising a radiation input face and the second face comprising a first radiation exit window , wherein the radiation input face is configured in a light receiving relationship with the plurality of light sources , wherein the elongated luminescent body comprises luminescent material configured to convert at least part of the light source light into luminescent material light , wherein the second face has an angle (α) unequal to 0° and unequal to 180° with the radiation input face ), and wherein the second face has a second face surface area (A1); - a beam shaping optical element comprising a radiation entrance window optically coupled with the first radiation exit window and configured to receive at least part of the converter light , wherein the first radiation exit window has a first radiation exit window surface area (A2) which is smaller than the second face surface area (A1), and wherein the second face surface area (A1) that is not optically coupled to the beam shaping optical element comprises a first reflecting element , characterized in that said beam shaping optical element is a partial beam shaping optical element configured as a beam shaping optical element intersected along a plane parallel to a plane of symmetry of it.
A method of operating a network node having a first communications interface connectable to a first communications network and a second communications interface connectable to a second communications network, the method comprising the steps of: the network node accessing a service using the first communications network; analysing data relating to the first communications network to identify a plurality of fault-indicative events; determining a first rate of the plurality of fault-indicative events over a first unit of time; the network node accessing the service using the second communications network if the first rate satisfies a first trigger threshold, characterised by : determining a second rate of the plurality of fault-indicative events over a second unit of time, wherein the first trigger threshold is varied as a function of the second rate. the network node accessing a service using the first communications network; analysing data relating to the first communications network to identify a plurality of fault-indicative events; determining a first rate of the plurality of fault-indicative events over a first unit of time; the network node accessing the service using the second communications network if the first rate satisfies a first trigger threshold, characterised by : determining a second rate of the plurality of fault-indicative events over a second unit of time, wherein the first trigger threshold is varied as a function of the second rate. determining a second rate of the plurality of fault-indicative events over a second unit of time, wherein the first trigger threshold is varied as a function of the second rate.