mhurhangee/patent-ind-claim-en huggingface dataset:
A frame loss concealment method for burst error handling, the method being performed by a receiving entity, the method comprising: generating a substitution frame spectrum by use of a primary frame loss concealment method, wherein the substitution frame spectrum is based on a spectrum of a frame of a previously received audio signal; determining (S101) a noise component, wherein a frequency characteristic of the noise component is a low-resolution spectral representation of the frame of the previously received audio signal; determining (S102) whether a number n of lost or erroneous frames exceeds a threshold; if the number n of lost or erroneous frames does not exceed the threshold, adding (S104, S208) the noise component to the substitution frame spectrum; if the number n of lost or erroneous frames exceeds the threshold, applying (S103, S206) an attenuation factor γ to the noise component before adding (S104, S208) the noise component to the substitution frame spectrum. generating a substitution frame spectrum by use of a primary frame loss concealment method, wherein the substitution frame spectrum is based on a spectrum of a frame of a previously received audio signal; determining (S101) a noise component, wherein a frequency characteristic of the noise component is a low-resolution spectral representation of the frame of the previously received audio signal; determining (S102) whether a number n of lost or erroneous frames exceeds a threshold; if the number n of lost or erroneous frames does not exceed the threshold, adding (S104, S208) the noise component to the substitution frame spectrum; if the number n of lost or erroneous frames exceeds the threshold, applying (S103, S206) an attenuation factor γ to the noise component before adding (S104, S208) the noise component to the substitution frame spectrum.
A process variable indicator comprising: a process variable sensor having an electrical characteristic that varies with the process variable; measurement circuitry coupled to the process variable sensor and configured to provide an indication relative to the electrical characteristic; and a processor coupled to the measurement circuitry , the processor being configured to compute a process variable based on the indication, characterised in that the processor is configured to determine, among a plurality of ranges, which range the process variable is within and generate a local visual output based on the process variable and the determined range, wherein generating the local visual output includes interacting with an actuator to cause movement of a physical indicator , and further comprising a pre-printed face disposed proximate the physical indicator , the pre-printed face having indicia indicative of the plurality of ranges, wherein the processor causes the physical indicator to move a first amount relative to a process variable difference in a first range, and move a second amount, different than the first amount, for the process variable difference in a second range. a process variable sensor having an electrical characteristic that varies with the process variable; measurement circuitry coupled to the process variable sensor and configured to provide an indication relative to the electrical characteristic; and a processor coupled to the measurement circuitry , the processor being configured to compute a process variable based on the indication, characterised in that the processor is configured to determine, among a plurality of ranges, which range the process variable is within and generate a local visual output based on the process variable and the determined range, wherein generating the local visual output includes interacting with an actuator to cause movement of a physical indicator , and further comprising a pre-printed face disposed proximate the physical indicator , the pre-printed face having indicia indicative of the plurality of ranges, wherein the processor causes the physical indicator to move a first amount relative to a process variable difference in a first range, and move a second amount, different than the first amount, for the process variable difference in a second range.
A combination comprising: (i) a pharmaceutically effective amount of Compound No. 1 or a pharmaceutically acceptable salt thereof and (ii) at least one additional therapeutic agent, wherein the at least one additional therapeutic agent comprises osimertinib or a pharmaceutically acceptable salt thereof, for the use for the treatment of non-small cell lung carcinoma (NSCLC) in a subject, wherein the NSCLC is EGFR-TKI-resistant NSCLC and/or the NSCLC is associated with an EGFR mutation. (i) a pharmaceutically effective amount of Compound No. 1 or a pharmaceutically acceptable salt thereof and (ii) at least one additional therapeutic agent, wherein the at least one additional therapeutic agent comprises osimertinib or a pharmaceutically acceptable salt thereof, for the use for the treatment of non-small cell lung carcinoma (NSCLC) in a subject, wherein the NSCLC is EGFR-TKI-resistant NSCLC and/or the NSCLC is associated with an EGFR mutation.
An emergency braking device including an actuator , a pressurising circuit supplying the actuator by a control pressure and a drain circuit including means for controlling the flow rate of the fluid supplying the actuator , upon draining the actuator , characterised in that the control means comprise a drain flow limiter and a counter-pressure pressure limiter configured to define an intermediate pressure between a low pressure level and the control pressure of the actuator .
A film (200; 300) for printing comprising: a print layer (202; 302; 302'); a core layer (206; 306); an adhesive layer (208; 308); wherein the core layer (206; 306) is between the print layer (202; 302; 302') and the adhesive layer (208; 308), wherein the print layer (202; 302; 302') comprises a blend of at least one high absorption capacity material selected from the group consisting of poly(methyl methacrylate), modified poly(methyl methacrylate), polystyrene, polyethylene terephthalate glycol-modified, impact modified polystyrene, styrene acrylic copolymer, styrene-olefin copolymer, styrene-acrylic-olefin copolymer, acrylonitrile butadiene styrene polymer, styrene acrylonitrile polymer, and copolyester polymer, and at least one low absorption capacity material comprising an olefin polymer, wherein the olefin polymer is one or more of ethylene acrylate copolymers, ethylene vinyl acetate, and ethylene acrylic ester terpolymer; wherein the core layer (206; 306) comprises one or more polyolefins, and wherein the print layer (202; 302; 302') comprises at least 20 wt.-% high absorption capacity material and at least 17 wt.-% low absorption capacity material. a print layer (202; 302; 302'); a core layer (206; 306); an adhesive layer (208; 308); wherein the core layer (206; 306) is between the print layer (202; 302; 302') and the adhesive layer (208; 308), wherein the print layer (202; 302; 302') comprises a blend of at least one high absorption capacity material selected from the group consisting of poly(methyl methacrylate), modified poly(methyl methacrylate), polystyrene, polyethylene terephthalate glycol-modified, impact modified polystyrene, styrene acrylic copolymer, styrene-olefin copolymer, styrene-acrylic-olefin copolymer, acrylonitrile butadiene styrene polymer, styrene acrylonitrile polymer, and copolyester polymer, and at least one low absorption capacity material comprising an olefin polymer, wherein the olefin polymer is one or more of ethylene acrylate copolymers, ethylene vinyl acetate, and ethylene acrylic ester terpolymer; wherein the core layer (206; 306) comprises one or more polyolefins, and wherein the print layer (202; 302; 302') comprises at least 20 wt.-% high absorption capacity material and at least 17 wt.-% low absorption capacity material.
Wearable backpack comprising at least a main compartment configured so as it is possible to insert personal belongings, and, separated from said main compartment, at least one technical compartment in which an airbag device is inserted comprising an airbag sack adapted to take a rest configuration in which said airbag sack is deflated and folded in said technical compartment , thus being completely contained in said technical compartment , and a working configuration in which said airbag sack is filled with air or gas and takes up said technical compartment and projects at least partially outwards from said technical compartment , said technical compartment is obtained between said main compartment and a wall which constitutes the backrest of the backpack which comes into contact with the user's back when the backpack is put on, said technical compartment is provided with an upper recloseable opening and with a lower recloseable opening to allow said airbag sack to expand outwards from above and below, wherein in said working configuration, said airbag sack projects from said technical compartment both above and below said technical compartment . said technical compartment is obtained between said main compartment and a wall which constitutes the backrest of the backpack which comes into contact with the user's back when the backpack is put on, said technical compartment is provided with an upper recloseable opening and with a lower recloseable opening to allow said airbag sack to expand outwards from above and below, wherein in said working configuration, said airbag sack projects from said technical compartment both above and below said technical compartment .
A method for seismic exploration, the method comprising: obtaining dual wave-fields measured below the sea surface using dual wave-field sensors ; selecting an observation level ; decomposing , by computer, the dual wave-fields into a down-going wave-field and an up-going wave-field at the observation level; and generating , by computer, seismic images using the down-going and up-going wave-fields; characterised by using pressure changes caused by variations of a sea surface as a low-frequency seismic energy source during said generation by computer of the seismic images , wherein the low-frequency seismic energy source includes wave energy at frequencies less than five hertz forming the dual wave-fields measured below the sea surface. obtaining dual wave-fields measured below the sea surface using dual wave-field sensors ; selecting an observation level ; decomposing , by computer, the dual wave-fields into a down-going wave-field and an up-going wave-field at the observation level; and generating , by computer, seismic images using the down-going and up-going wave-fields; characterised by using pressure changes caused by variations of a sea surface as a low-frequency seismic energy source during said generation by computer of the seismic images , wherein the low-frequency seismic energy source includes wave energy at frequencies less than five hertz forming the dual wave-fields measured below the sea surface.
Household refrigeration appliance with an interior compartment for accommodating foodstuffs which is bounded by walls of an interior container and with a keep-fresh container for foodstuffs in which an ambient humidity different from that of the interior compartment can be set and the ambient humidity can be set independently of the rest of the interior compartment , wherein the keep-fresh container is arranged displaceably in a housing of the household refrigeration appliance , wherein a front wall of the keep-fresh container forms an outer wall of the household refrigeration appliance , wherein the keep-fresh container comprises a carrier tray on which the front wall is arranged, wherein the carrier tray comprises a side wall on an upper edge of which a setting element for setting the ambient humidity in the keep-fresh container is arranged, wherein the keep-fresh container has a receiving tray for foodstuffs and a cover separate thereto positioned in a raisable and lowerable manner above the receiving tray , wherein an actuating element for the actuation of the cover is arranged on the upper edge , said element being coupled to a coupling element on the cover , and wherein the setting element and the actuating element are arranged in a setting unit and the setting element is coupled to the actuating element by a coupling device.
A multi-segment header for an agricultural harvester comprising a multi-segment chassis having a longitudinal support beam , and an auger extending widthwise across the multi-segment chassis and adjacent the longitudinal support beam, and characterized by a backsheet extension mounted to a posterior end of the longitudinal support beam of the multi-segment chassis.
A microwave sending device, comprising: a receiver , configured to receive a common public radio interface, CPRI frame, and send the CPRI frame to a separator ; the separator , configured to: receive the CPRI frame from the receiver ; separate a control word, CW and antenna-carrier, I/Q data from the CPRI frame, wherein the antenna-carrier I/Q data comprises first I/Q data; and send the CW to a first modulator , and send the first I/Q data to a data processor ; the first modulator , configured to: receive the CW from the separator ; modulate the CW to obtain a modulated CW; and send the modulated CW to a combiner ; the data processor , configured to: receive the first I/Q data from the separator ; copy the first I/Q data to obtain two pieces of first I/Q data; modulate a first piece of first I/Q data to obtain modulated first I/Q data; determine whether channel quality of a microwave channel meets a requirement; and if the channel quality of the microwave channel does not meet the requirement, send the modulated first I/Q data to the combiner ; the combiner , configured to: receive the modulated CW from the first modulator ; receive the modulated first I/Q data from the data processor ; generate a first microwave air interface frame based on the modulated first I/Q data and the modulated CW; and send the first microwave air interface frame to a digital transmitter ; and the digital transmitter , configured to receive the first microwave air interface frame from the combiner , and send the first microwave air interface frame by using the microwave channel. a receiver , configured to receive a common public radio interface, CPRI frame, and send the CPRI frame to a separator ; the separator , configured to: receive the CPRI frame from the receiver ; separate a control word, CW and antenna-carrier, I/Q data from the CPRI frame, wherein the antenna-carrier I/Q data comprises first I/Q data; and send the CW to a first modulator , and send the first I/Q data to a data processor ; the first modulator , configured to: receive the CW from the separator ; modulate the CW to obtain a modulated CW; and send the modulated CW to a combiner ; the data processor , configured to: receive the first I/Q data from the separator ; copy the first I/Q data to obtain two pieces of first I/Q data; modulate a first piece of first I/Q data to obtain modulated first I/Q data; determine whether channel quality of a microwave channel meets a requirement; and if the channel quality of the microwave channel does not meet the requirement, send the modulated first I/Q data to the combiner ; the combiner , configured to: receive the modulated CW from the first modulator ; receive the modulated first I/Q data from the data processor ; generate a first microwave air interface frame based on the modulated first I/Q data and the modulated CW; and send the first microwave air interface frame to a digital transmitter ; and the digital transmitter , configured to receive the first microwave air interface frame from the combiner , and send the first microwave air interface frame by using the microwave channel.
A tire having a crown prolonged by two sidewalls , the sidewalls being ended by two beads , a carcass reinforcement passing into the crown and the sidewalls and being anchored in the beads , the crown being reinforced by a crown reinforcement placed circumferentially between the carcass reinforcement and a tread forming the crown , said tread comprising at least two radially superposed portions comprising: - a surfacic portion intended to come into contact with ground during rolling at least when the tread is new and in the cured state, the surfacic portion being made of a rubber composition A; - an internal portion radically inner located to the surfacic portion , the internal portion being made of a rubber composition B; wherein each of the rubber compositions A and B comprises at least a diene elastomer, between 50 and 150 phr of a reinforcing filler, between 20 and 160 phr of a plasticizer, and microparticles; wherein a content noted C A of the microparticles in the rubber composition A is between 2 and 40 phr, said content C A being higher than a content noted C B of the microparticles in the rubber composition B; wherein the microparticles have a median particle size by volume, which is measured by laser diffraction methods in accordance with ISO standard 13320-1, which satisfy the following relations: - 50 μm < D50 < 150 μm; wherein: - D50 is the medium particle size by volume corresponding to 50 % of a cumulative distribution obtained from the volume particle size distribution. - a surfacic portion intended to come into contact with ground during rolling at least when the tread is new and in the cured state, the surfacic portion being made of a rubber composition A; - an internal portion radically inner located to the surfacic portion , the internal portion being made of a rubber composition B; wherein each of the rubber compositions A and B comprises at least a diene elastomer, between 50 and 150 phr of a reinforcing filler, between 20 and 160 phr of a plasticizer, and microparticles; wherein a content noted C A of the microparticles in the rubber composition A is between 2 and 40 phr, said content C A being higher than a content noted C B of the microparticles in the rubber composition B; wherein the microparticles have a median particle size by volume, which is measured by laser diffraction methods in accordance with ISO standard 13320-1, which satisfy the following relations: - 50 μm < D50 < 150 μm; wherein: - D50 is the medium particle size by volume corresponding to 50 % of a cumulative distribution obtained from the volume particle size distribution. - 50 μm < D50 < 150 μm; wherein: - D50 is the medium particle size by volume corresponding to 50 % of a cumulative distribution obtained from the volume particle size distribution. - D50 is the medium particle size by volume corresponding to 50 % of a cumulative distribution obtained from the volume particle size distribution.
A sputtering chamber component comprising a particle trap , the particle trap comprising: a first pattern formed on at least a portion of a surface of the particle trap, the first pattern arranged in a repeating pattern having a first pattern thread count, the first pattern having a first pattern top surface and comprising one of (a) or (b): (a) first indentations having a first depth and separated by first and second threads , the first and second threads having first and second thread top surfaces that form the first pattern top surface, and (b) first ridges having a first height and separated by first and second grooves, the first ridges having first ridge top surfaces that form the first pattern top surface; and, a second pattern formed on at least a portion of the first pattern top surface, the second pattern arranged in a repeating pattern having a second thread count, the second pattern having a second pattern top surface and comprising one of (c) or (d): (c) second indentations having a second depth and separated by third and fourth threads, the third and fourth threads having third and fourth thread top surfaces configured to form the second pattern top surface and (d) second ridges having a second height and separated by third and fourth grooves , the second ridges having second ridge top surfaces configured to form the second pattern top surface, wherein the first pattern is formed by pressing a first knurling tool into the sputtering chamber component and the second pattern is formed by pressing a second knurling tool into the sputtering chamber component, wherein the first knurling tool and the second knurling tool have thread counts that are different. (a) first indentations having a first depth and separated by first and second threads , the first and second threads having first and second thread top surfaces that form the first pattern top surface, and (b) first ridges having a first height and separated by first and second grooves, the first ridges having first ridge top surfaces that form the first pattern top surface; and, a second pattern formed on at least a portion of the first pattern top surface, the second pattern arranged in a repeating pattern having a second thread count, the second pattern having a second pattern top surface and comprising one of (c) or (d): (c) second indentations having a second depth and separated by third and fourth threads, the third and fourth threads having third and fourth thread top surfaces configured to form the second pattern top surface and (d) second ridges having a second height and separated by third and fourth grooves , the second ridges having second ridge top surfaces configured to form the second pattern top surface,
A measuring pipe for a measurement device, in particular for a flow measurement device, wherein the measuring pipe in particular exhibits a hollow cylindrical form at least in sections, comprising: - a tubular body , in particular exhibiting a hollow cylindrical form at least in sections, with a wall and a lumen that is enclosed by said wall, in particular exhibiting a cylindrical shape, and configured to carry a fluid process medium (FL1); - as well as a sensor bracket that is arranged on and firmly bonded to an outer surface of the wall of the body such that it faces outward, namely away from the lumen, in particular exhibiting a convex shape at least in sections, and in particular produced as a connecting piece, which is configured to be mechanically connected to at least one sensor component, namely a component of a sensor used to record at least one measured variable of a process medium located in the lumen, in such a way that it can be removed again; - wherein both the wall of the body and also the sensor bracket are produced from metal; - and wherein the sensor bracket is produced directly on the outer surface of the wall of the body, which itself was in particular produced in a prior primary shaping process, at least partially in an additive production process, in particular a fused deposition process and/or a powder bed process. - a tubular body , in particular exhibiting a hollow cylindrical form at least in sections, with a wall and a lumen that is enclosed by said wall, in particular exhibiting a cylindrical shape, and configured to carry a fluid process medium (FL1); - as well as a sensor bracket that is arranged on and firmly bonded to an outer surface of the wall of the body such that it faces outward, namely away from the lumen, in particular exhibiting a convex shape at least in sections, and in particular produced as a connecting piece, which is configured to be mechanically connected to at least one sensor component, namely a component of a sensor used to record at least one measured variable of a process medium located in the lumen, in such a way that it can be removed again; - wherein both the wall of the body and also the sensor bracket are produced from metal; - and wherein the sensor bracket is produced directly on the outer surface of the wall of the body, which itself was in particular produced in a prior primary shaping process, at least partially in an additive production process, in particular a fused deposition process and/or a powder bed process.