mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising, at a first mobile device [104-1]: identifying a plurality of signal acquisition tasks corresponding to a wireless signal based positioning process, said wireless signal based positioning process being performed, at least in part, by said first mobile device; transmitting one or more signals to a second mobile device [104-2] representing a request indicative of a subset of said plurality of signal acquisition tasks to be performed by said second mobile device, said first mobile device and said second mobile device being co-located with an object, characterised in that at least one task of said subset of said plurality of signal acquisition tasks relates to acquiring one or more wireless positioning signals and said subset of said plurality of signal acquisition tasks is determined by said first mobile device based, at least in part, on detection of an operative condition, the operative condition comprising a determination by said first mobile device that said first mobile device is unavailable or unsuitable to perform at least one signal acquisition task of said plurality of signal acquisition tasks, or a combination thereof; and processing one or more signals received from said second mobile device and representing a response to said request indicative of one or more positioning measurement values determined based on said one or more wireless positioning signals. identifying a plurality of signal acquisition tasks corresponding to a wireless signal based positioning process, said wireless signal based positioning process being performed, at least in part, by said first mobile device; transmitting one or more signals to a second mobile device [104-2] representing a request indicative of a subset of said plurality of signal acquisition tasks to be performed by said second mobile device, said first mobile device and said second mobile device being co-located with an object, characterised in that at least one task of said subset of said plurality of signal acquisition tasks relates to acquiring one or more wireless positioning signals and said subset of said plurality of signal acquisition tasks is determined by said first mobile device based, at least in part, on detection of an operative condition, the operative condition comprising a determination by said first mobile device that said first mobile device is unavailable or unsuitable to perform at least one signal acquisition task of said plurality of signal acquisition tasks, or a combination thereof; and processing one or more signals received from said second mobile device and representing a response to said request indicative of one or more positioning measurement values determined based on said one or more wireless positioning signals.
A solder alloy characterized in that the solder alloy consists of: 0.005 % by mass or more and 0.1 % by mass or less of Mn; 0.001 % by mass or more and 0.1 % by mass or less of Ge; more than 0 % by mass and 4 % by mass or less of Ag; optionally 0.1 % by mass or more and 10 % by mass or less of Sb; optionally, a total amount of 0.1 % by mass or more and 10 % by mass or less of at least one element selected from a group consisting of Bi and In; optionally, 0.002 % by mass or more and 0.1 % by mass or less of at least one element selected from the group consisting of P and Ga; optionally, a total amount of 0.005 % by mass or more and 0.3 % by mass or less of at least one element selected from the group consisting of Ni, Co and Fe; and a remainder of Sn, wherein, when the solder alloy includes at least one element selected from the group consisting of Bi and In, the total amount of Bi, In and Sb is 0.1 % by mass or more and 10 % by mass or less. 0.005 % by mass or more and 0.1 % by mass or less of Mn; 0.001 % by mass or more and 0.1 % by mass or less of Ge; more than 0 % by mass and 4 % by mass or less of Ag; optionally 0.1 % by mass or more and 10 % by mass or less of Sb; optionally, a total amount of 0.1 % by mass or more and 10 % by mass or less of at least one element selected from a group consisting of Bi and In; optionally, 0.002 % by mass or more and 0.1 % by mass or less of at least one element selected from the group consisting of P and Ga; optionally, a total amount of 0.005 % by mass or more and 0.3 % by mass or less of at least one element selected from the group consisting of Ni, Co and Fe; and a remainder of Sn, wherein, when the solder alloy includes at least one element selected from the group consisting of Bi and In, the total amount of Bi, In and Sb is 0.1 % by mass or more and 10 % by mass or less.
A glass composition, comprising SiO 2 , Al 2 O 3 , Na 2 O, K 2 O, MgO and ZrO 2 , wherein the content of Al 2 O 3 is 15-28 parts by weight, the content of Na 2 O is 13-25 parts by weight, the content of K 2 O is 6-15 parts by weight, the content of MgO is 7-16 parts by weight, and the content of ZrO 2 is 0.1-5 parts by weight, relative to 100 parts by weight of SiO 2 ; and wherein the glass composition has an M value of 5-13, as calculated by the following formula : M = P 1 *wt(Na 2 O)+ P 2 *wt(K 2 O)+ P 3 *wt(MgO)+ P 4 *wt(ZrO 2 )- P 5 *wt(Al 2 O 3 ) *wt (Al 2 O 3 ) wherein wt(Na 2 O) represents the part by weight of Na 2 O relative to 100 parts by weight of SiO 2 , wt(K 2 O) represents the part by weight of K 2 O relative to 100 parts by weight of SiO 2 , wt(MgO) represents the part by weight of MgO relative to 100 parts by weight of SiO 2 , wt(ZrO 2 ) represents the part by weight of ZrO 2 relative to 100 parts by weight of SiO 2 , and wt(Al 2 O 3 ) represents the part by weight of Al 2 O 3 relative to 100 parts by weight of SiO 2 ; and wherein P 1 has a value of 0.53, P 2 has a value of 0.153, P 3 has a value of 0.36, P 4 has a value of 0.67, and P 5 has a value of 0.018. wherein the content of Al 2 O 3 is 15-28 parts by weight, the content of Na 2 O is 13-25 parts by weight, the content of K 2 O is 6-15 parts by weight, the content of MgO is 7-16 parts by weight, and the content of ZrO 2 is 0.1-5 parts by weight, relative to 100 parts by weight of SiO 2 ; and wherein the glass composition has an M value of 5-13, as calculated by the following formula : M = P 1 *wt(Na 2 O)+ P 2 *wt(K 2 O)+ P 3 *wt(MgO)+ P 4 *wt(ZrO 2 )- P 5 *wt(Al 2 O 3 ) *wt (Al 2 O 3 ) wherein wt(Na 2 O) represents the part by weight of Na 2 O relative to 100 parts by weight of SiO 2 , wt(K 2 O) represents the part by weight of K 2 O relative to 100 parts by weight of SiO 2 , wt(MgO) represents the part by weight of MgO relative to 100 parts by weight of SiO 2 , wt(ZrO 2 ) represents the part by weight of ZrO 2 relative to 100 parts by weight of SiO 2 , and wt(Al 2 O 3 ) represents the part by weight of Al 2 O 3 relative to 100 parts by weight of SiO 2 ; and wherein P 1 has a value of 0.53, P 2 has a value of 0.153, P 3 has a value of 0.36, P 4 has a value of 0.67, and P 5 has a value of 0.018. wherein wt(Na 2 O) represents the part by weight of Na 2 O relative to 100 parts by weight of SiO 2 , wt(K 2 O) represents the part by weight of K 2 O relative to 100 parts by weight of SiO 2 , wt(MgO) represents the part by weight of MgO relative to 100 parts by weight of SiO 2 , wt(ZrO 2 ) represents the part by weight of ZrO 2 relative to 100 parts by weight of SiO 2 , and wt(Al 2 O 3 ) represents the part by weight of Al 2 O 3 relative to 100 parts by weight of SiO 2 ; and wherein P 1 has a value of 0.53, P 2 has a value of 0.153, P 3 has a value of 0.36, P 4 has a value of 0.67, and P 5 has a value of 0.018.
A method for supporting frequency hopping by a base station in a wireless communication system, the method comprising: determining whether frequency hopping for a terminal is applied every group of transmission time intervals, TTIs, or every TTI; and transmitting , to the terminal, information indicating that the frequency hopping is applied every group of TTI and information related to a number of consecutive TTIs included in each group of TTIs for the frequency hopping, if the frequency hopping is applied every group of TTI, wherein data for the terminal is transmitted using same frequency band in each of said groups of consecutive TTIs. determining whether frequency hopping for a terminal is applied every group of transmission time intervals, TTIs, or every TTI; and transmitting , to the terminal, information indicating that the frequency hopping is applied every group of TTI and information related to a number of consecutive TTIs included in each group of TTIs for the frequency hopping, if the frequency hopping is applied every group of TTI, wherein data for the terminal is transmitted using same frequency band in each of said groups of consecutive TTIs.
A method for displaying images on a local dimming display in a second bit depth greater than a first bit depth in which the images have been encoded, the method comprising: decoding image data that have been encoded in the first bit depth; obtaining metadata , wherein the metadata include metadata characterizing a mapping of the image data represented in a high dynamic range bit depth to image data represented in the first bit depth, wherein the high dynamic range bit depth is greater than or equal to the second bit depth; identifying, based on the metadata , a tone mapping of the image data represented in the first bit depth and a backlight adjustment of the local dimming display which, in combination, recreate or approximate a mapping reverse to the mapping to achieve a determined luminance characteristics of the image; applying the identified tone mapping to map the image data represented in the first bit depth to image data represented in the second bit depth; selectively adjusting the luminance of individual elements of the backlight of the local dimming display based on the identified backlight adjustment; and displaying the tone mapped image data represented in the second bit depth on the local dimming display . decoding image data that have been encoded in the first bit depth; obtaining metadata , wherein the metadata include metadata characterizing a mapping of the image data represented in a high dynamic range bit depth to image data represented in the first bit depth, wherein the high dynamic range bit depth is greater than or equal to the second bit depth; identifying, based on the metadata , a tone mapping of the image data represented in the first bit depth and a backlight adjustment of the local dimming display which, in combination, recreate or approximate a mapping reverse to the mapping to achieve a determined luminance characteristics of the image; applying the identified tone mapping to map the image data represented in the first bit depth to image data represented in the second bit depth; selectively adjusting the luminance of individual elements of the backlight of the local dimming display based on the identified backlight adjustment; and displaying the tone mapped image data represented in the second bit depth on the local dimming display .
A decision support system for a radiotherapy system comprising: - an interface for receiving radiotherapy beam parameters and/or parameters related to observed and/or simulated motion of at least one volume; and - a processing unit configured to: ∘ perform substantially real-time dose reconstruction to obtain a delivered radiation dose generated by a radiotherapy beam of the radiotherapy system in at least one volume; ∘ repeatedly estimate a remaining radiation dose of the radiotherapy session based on an observed and/or simulated motion of the at least one volume; ∘ repeatedly estimate a final delivered radiation dose for the radiotherapy session as a sum of the delivered radiation dose and the estimated remaining radiation dose; characterised in that the processing unit is further configured to: ∘ re-estimate the remaining radiation dose for an emulated intervention, such as a re-positioning of an object and/or an organ at risk exposed to the radiotherapy, and/or a re-positioning of the beam and/or a re-optimization of a treatment plan, for the remaining part of the radiotherapy session. - an interface for receiving radiotherapy beam parameters and/or parameters related to observed and/or simulated motion of at least one volume; and - a processing unit configured to: ∘ perform substantially real-time dose reconstruction to obtain a delivered radiation dose generated by a radiotherapy beam of the radiotherapy system in at least one volume; ∘ repeatedly estimate a remaining radiation dose of the radiotherapy session based on an observed and/or simulated motion of the at least one volume; ∘ repeatedly estimate a final delivered radiation dose for the radiotherapy session as a sum of the delivered radiation dose and the estimated remaining radiation dose; ∘ perform substantially real-time dose reconstruction to obtain a delivered radiation dose generated by a radiotherapy beam of the radiotherapy system in at least one volume; ∘ repeatedly estimate a remaining radiation dose of the radiotherapy session based on an observed and/or simulated motion of the at least one volume; ∘ repeatedly estimate a final delivered radiation dose for the radiotherapy session as a sum of the delivered radiation dose and the estimated remaining radiation dose; ∘ re-estimate the remaining radiation dose for an emulated intervention, such as a re-positioning of an object and/or an organ at risk exposed to the radiotherapy, and/or a re-positioning of the beam and/or a re-optimization of a treatment plan, for the remaining part of the radiotherapy session.
A loudspeaker system comprising: a line array assembly comprising: a plurality of electro-acoustic transducers arranged along a vertical axis ; and a base for supporting the line array assembly, the base housing electronics for powering the line array assembly, wherein the loudspeaker system further comprises a receptacle supported by the base for receiving a portion of the line array assembly, wherein the base, the receptacle, and the line array assembly together define a flow path to facilitate a convective air flow to pass between the base and the line array assembly for cooling the electronics. a plurality of electro-acoustic transducers arranged along a vertical axis ; and a base for supporting the line array assembly, the base housing electronics for powering the line array assembly, wherein the loudspeaker system further comprises a receptacle supported by the base for receiving a portion of the line array assembly, wherein the base, the receptacle, and the line array assembly together define a flow path to facilitate a convective air flow to pass between the base and the line array assembly for cooling the electronics.
A vehicle disc brake having, on a disc outer peripheral side of an action part of a caliper body having a cylinder hole into which a piston is inserted, boss parts each having a union hole through which a pressurized operating fluid is introduced to a hydraulic chamber provided between a bottom of the cylinder hole and the piston and boss parts each having a bleeder hole through which air included in an operating fluid is exhausted, a total number of the boss parts each having the union hole and the boss parts each having the bleeder hole provided in parallel being three or more, wherein at least two boss parts disposed at both ends in a disc rotational direction are provided closer to a disc rotor than the other boss parts , and wherein each of the boss parts each having the bleeder hole is provided with a bearing surface (S3) for a bleeder screw to be screwed into the bleeder hole , a banjo bolt is screwed into each of the boss parts each having the union hole via a banjo having a hose connection part , each of the boss parts each having the union hole is provided with a bearing surface (S1, S2) for the banjo bolt to be screwed into the union hole , the bearing surface (S1, S2) for the banjo bolt being disposed outward in a disc radial direction of the banjo , characterized in that the bearing surface (S1) of the boss part disposed at one end in the disc rotational direction and the bearing surface (S2) of the boss part disposed at the other end in the disc rotational direction project outward in the disc radial direction of the bearing surface (S3) of the boss part adjacent thereto.
A load carrier foot comprising a torque transfer device and a hood or lid for closing the load carrier foot, the torque transfer device being adapted to transfer a torque via a rotational motion by a user, said torque transfer device comprising a connection member , such as a screw, connectable to said load carrier foot and a head portion arranged to said connection member , said connection member comprises a longitudinal centre axis about which the torque transfer device is adapted to rotate, said head portion comprising a first and a second member , said first member and said second member are configured to cooperate so that said first member can be rotated a limited amount of degrees without transferring torque to said connection member , wherein said limited amount of degrees is equal or less than ±350 degrees, characterized in that the rotation permitted by the first member allows the first member to be stored inside the load carrier foot when the hood or lid is closed, whereby the first member interacts with the hood or lid to provide a lock, thereby preventing the torque transfer device from accidentally unscrewing itself.
A portion capsule for the production of a beverage, having a capsule body having a capsule base and a filling side , wherein a cavity for receiving a pulverulent or liquid beverage substrate is configured between the capsule base and the filling side , and wherein a filter element is disposed between the beverage substrate and the capsule base , wherein the filter element is provided so as to be in at least three layers, characterized in that a fibrous layer that is produced by hot air spinning is provided between two layers .
A method for making a dental appliance configured to position at least one tooth of a patient, the method comprising: printing a hardenable liquid resin composition on a major surface of a polymeric material to form a pattern thereon comprising a plurality of unhardened liquid regions , wherein the hardenable liquid resin composition comprises a glass ionomer, a resin modified glass ionomer, or combinations thereof, along with at least one therapeutic agent and a dental filler in an aqueous hardenable resin matrix; hardening the unhardened liquid regions to form a corresponding array of structures on the major surface, wherein the structures have a characteristic cross-sectional dimension of about 25 microns to about 1 mm, and a feature spacing of about 100 microns to about 2000 microns and forming a dental appliance from the polymeric material, wherein the dental appliance comprises an arrangement of cavities configured to receive one or more teeth. printing a hardenable liquid resin composition on a major surface of a polymeric material to form a pattern thereon comprising a plurality of unhardened liquid regions , wherein the hardenable liquid resin composition comprises a glass ionomer, a resin modified glass ionomer, or combinations thereof, along with at least one therapeutic agent and a dental filler in an aqueous hardenable resin matrix; hardening the unhardened liquid regions to form a corresponding array of structures on the major surface, wherein the structures have a characteristic cross-sectional dimension of about 25 microns to about 1 mm, and a feature spacing of about 100 microns to about 2000 microns and forming a dental appliance from the polymeric material, wherein the dental appliance comprises an arrangement of cavities configured to receive one or more teeth.
A method for processing information, characterized by comprising: encapsulating , by a first node in a layer 2 network, bit indexed explicit replication, BIER, bit string length information of the first node into a link layer discovery protocol data unit, LLDPDU; and sending , by the first node , the LLDPDU to a second node in the layer 2 network, so that the second node parses the LLDPDU to acquire BIER bit string length information of the first node and modifies bit string length information of a BIER header according to the BIER bit string length information of the first node to forward the BIER traffic to the first node ; wherein the second node is an adjacent node of the first node , and the second node forwards BIER traffic according to the BIER bit string length information of the first node . encapsulating , by a first node in a layer 2 network, bit indexed explicit replication, BIER, bit string length information of the first node into a link layer discovery protocol data unit, LLDPDU; and sending , by the first node , the LLDPDU to a second node in the layer 2 network, so that the second node parses the LLDPDU to acquire BIER bit string length information of the first node and modifies bit string length information of a BIER header according to the BIER bit string length information of the first node to forward the BIER traffic to the first node ; wherein the second node is an adjacent node of the first node , and the second node forwards BIER traffic according to the BIER bit string length information of the first node .
An image processing method , wherein the method is applied to a display system that supports N types of interface modes, N≥1, and the display system comprises a processing device and a display device; and the method comprises: decoding (S302), by the processing device, first image data received from an input interface to determine (S210), by the processing device in the display system, a format of first image data, wherein the format of the first image data is a first image data format; determining (S220), by the processing device, a first interface mode that is currently used, wherein the first interface mode is determined when the processing device establishes physical connections with the display device,; and if the first image format is not an image format supported by the first interface mode, processing (S230), by the processing device, the first image data to generate second image data, wherein a format of the second image data is a second image data format, and the second image data format is the image format supported by the first interface mode. decoding (S302), by the processing device, first image data received from an input interface to determine (S210), by the processing device in the display system, a format of first image data, wherein the format of the first image data is a first image data format; determining (S220), by the processing device, a first interface mode that is currently used, wherein the first interface mode is determined when the processing device establishes physical connections with the display device,; and if the first image format is not an image format supported by the first interface mode, processing (S230), by the processing device, the first image data to generate second image data, wherein a format of the second image data is a second image data format, and the second image data format is the image format supported by the first interface mode.