mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method of detecting deviations in packaging containers for liquid food in a manufacturing plant, said method comprising: obtaining image data (Ic) of a packaging container ; analyzing the image data (Ic) for detection of a current deviation; processing the current deviation in relation to a set of basis functions ([BF]), which is associated with a deviation type of the current deviation, to obtain a current set of weights ([W]c) that represent the current deviation; determining a current grading (Gc) of the current deviation based on the current set of weights ([W]c); determining a time stamp for the current deviation; determining, based on the time stamp, associated production parameters of the manufacturing plant, and correlating the time stamp, the current grading (Gc) and the deviation type with the production parameters; communicating control instructions to a machine in the manufacturing plant comprising modified production parameters according to the current grading (Gc) and/or the deviation type. obtaining image data (Ic) of a packaging container ; analyzing the image data (Ic) for detection of a current deviation; processing the current deviation in relation to a set of basis functions ([BF]), which is associated with a deviation type of the current deviation, to obtain a current set of weights ([W]c) that represent the current deviation; determining a current grading (Gc) of the current deviation based on the current set of weights ([W]c); determining a time stamp for the current deviation; determining, based on the time stamp, associated production parameters of the manufacturing plant, and correlating the time stamp, the current grading (Gc) and the deviation type with the production parameters; communicating control instructions to a machine in the manufacturing plant comprising modified production parameters according to the current grading (Gc) and/or the deviation type.
A frame for a respiratory mask comprising: a body including an exterior surface and an interior surface ; the exterior surface including a yoke receiving structure configured to receive a yoke, wherein the yoke receiving structure spans the longitudinal distance of the body, the exterior surface further including an inlet collar , defining an inlet ; the interior surface including an outlet collar , defining an outlet , wherein a gas pathway is formed between the inlet and the outlet, and wherein the perimeter of the gas pathway at the inlet is less than the perimeter of the gas pathway at the outlet . a body including an exterior surface and an interior surface ; the exterior surface including a yoke receiving structure configured to receive a yoke, wherein the yoke receiving structure spans the longitudinal distance of the body, the exterior surface further including an inlet collar , defining an inlet ; the interior surface including an outlet collar , defining an outlet , wherein a gas pathway is formed between the inlet and the outlet, and wherein the perimeter of the gas pathway at the inlet is less than the perimeter of the gas pathway at the outlet .
A method performed by a user equipment , the method comprising: receiving data with a first bandwidth configuration at a first subframe on a first downlink channel of an frequency-division duplexing, FDD, pair; transmitting data with a second bandwidth configuration at a second subframe on a first uplink channel of the FDD pair; receiving data including an indicator with a third bandwidth configuration at a first subframe on a second downlink channel , the second downlink channel having a different carrier frequency than the channels of the FDD pair, wherein a guard band is adjacent to the second downlink channel and at least one channel of the FDD pair; determining that the indicator includes a field indicating a different bandwidth configuration for at least one channel, the different bandwidth configuration being selected from a set of predetermined bandwidth configurations and the at least one channel being at least one of the at least one FDD pair channel adjacent to the guard band or the second downlink channel , wherein the different bandwidth configuration is provided in response to a determination that there is a likelihood of interference or that there will be interference between the channels in a subsequent second subframe and the different bandwidth configuration corresponds to a reduced allocation of subcarrier resources in the at least one channel to increase a frequency width of the guard band ; and applying the different bandwidth configuration at the second subframe for at least one of transmitting and receiving on the at least one channel. receiving data with a first bandwidth configuration at a first subframe on a first downlink channel of an frequency-division duplexing, FDD, pair; transmitting data with a second bandwidth configuration at a second subframe on a first uplink channel of the FDD pair; receiving data including an indicator with a third bandwidth configuration at a first subframe on a second downlink channel , the second downlink channel having a different carrier frequency than the channels of the FDD pair, wherein a guard band is adjacent to the second downlink channel and at least one channel of the FDD pair; determining that the indicator includes a field indicating a different bandwidth configuration for at least one channel, the different bandwidth configuration being selected from a set of predetermined bandwidth configurations and the at least one channel being at least one of the at least one FDD pair channel adjacent to the guard band or the second downlink channel , wherein the different bandwidth configuration is provided in response to a determination that there is a likelihood of interference or that there will be interference between the channels in a subsequent second subframe and the different bandwidth configuration corresponds to a reduced allocation of subcarrier resources in the at least one channel to increase a frequency width of the guard band ; and applying the different bandwidth configuration at the second subframe for at least one of transmitting and receiving on the at least one channel.
A knee joint prosthesis configured to move between an extended position and a flexion position, the knee joint prosthesis comprising: a femoral component configured to be mounted to a femur; a tibial component configured to be mounted to a tibia and to engage the femoral component to form the knee joint prosthesis ; a first post fixedly connected to one of the femoral component and the tibial component , and a first cam recess defined on the other of the femoral component and the tibial component , the first cam recess configured to engage the first post in either the extended position or the flexion position of the knee joint prosthesis; and a second post fixedly connected to one of the femoral component and the tibial component , and a second cam recess defined on the other of the femoral component and the tibial component , the second cam recess configured to engage the second post in either the extended position or the flexion position of the knee joint prosthesis , wherein each post includes a rounded convex surface and each cam recess is a rounded concave surface, and a radius of the rounded convex surface is equivalent to a radius of the rounded concave surface, wherein the first post , the second post , the first cam recess and the second cam recess are each positioned at a location between adjacent condyles of the knee joint prosthesis . a femoral component configured to be mounted to a femur; a tibial component configured to be mounted to a tibia and to engage the femoral component to form the knee joint prosthesis ; a first post fixedly connected to one of the femoral component and the tibial component , and a first cam recess defined on the other of the femoral component and the tibial component , the first cam recess configured to engage the first post in either the extended position or the flexion position of the knee joint prosthesis; and a second post fixedly connected to one of the femoral component and the tibial component , and a second cam recess defined on the other of the femoral component and the tibial component , the second cam recess configured to engage the second post in either the extended position or the flexion position of the knee joint prosthesis , wherein each post includes a rounded convex surface and each cam recess is a rounded concave surface, and a radius of the rounded convex surface is equivalent to a radius of the rounded concave surface, wherein the first post , the second post , the first cam recess and the second cam recess are each positioned at a location between adjacent condyles of the knee joint prosthesis .
A method for diagnosing, predicting or prognosing acute myocardial infarction (AMI) in an individual comprising: assaying a sample from the individual for cardiac troponin I (cTnI) and detecting a concentration of cTnl in the sample, wherein the sample is a plasma sample or a serum sample from blood; wherein said concentration is determined by a cTnl assay with a limit of detection for said cTnl in said sample of less than 5 pg/ml; and comparing the detected concentration of cTnl to a threshold concentration of 7 pg/ml; wherein a cTnl level over the threshold concentration in a single sample indicates, predicts, or provides a basis for prognosis of AMI; wherein the individual is human. assaying a sample from the individual for cardiac troponin I (cTnI) and detecting a concentration of cTnl in the sample, wherein the sample is a plasma sample or a serum sample from blood; wherein said concentration is determined by a cTnl assay with a limit of detection for said cTnl in said sample of less than 5 pg/ml; and comparing the detected concentration of cTnl to a threshold concentration of 7 pg/ml; wherein a cTnl level over the threshold concentration in a single sample indicates, predicts, or provides a basis for prognosis of AMI; wherein the individual is human.
A mobile phone case comprising: a protective case element designed to cover a mobile phone ; a housing element attached to the case element; a rechargeable battery located within the housing element; an external power port conductively coupled to the rechargeable battery , the external power port being configured for accepting power from an external power source , so as to recharge the rechargeable battery ; an electronic cigarette element retained within the housing element and comprising a heating element conductively coupled to the rechargeable battery , the heating element being configured for heating a liquid into a vapor and a movable mouthpiece , comprising a tubular element, designed to allow a user to inhale said vapor through said mouthpiece; and a processor configured for routing power from the rechargeable battery to the heating element of the electronic cigarette element characterized in that the electronic cigarette element is coupled to the housing such that the mouthpiece comprising the tubular element can move between a retracted position and an extended position, wherein in the retracted position the mouthpiece is substantially encased by the housing, and wherein in the extended position a portion of the tubular element not encased by the housing allows a user to inhale said vapor through said tubular element with his mouth. a protective case element designed to cover a mobile phone ; a housing element attached to the case element; a rechargeable battery located within the housing element; an external power port conductively coupled to the rechargeable battery , the external power port being configured for accepting power from an external power source , so as to recharge the rechargeable battery ; an electronic cigarette element retained within the housing element and comprising a heating element conductively coupled to the rechargeable battery , the heating element being configured for heating a liquid into a vapor and a movable mouthpiece , comprising a tubular element, designed to allow a user to inhale said vapor through said mouthpiece; and a processor configured for routing power from the rechargeable battery to the heating element of the electronic cigarette element characterized in that the electronic cigarette element is coupled to the housing such that the mouthpiece comprising the tubular element can move between a retracted position and an extended position, wherein in the retracted position the mouthpiece is substantially encased by the housing, and wherein in the extended position a portion of the tubular element not encased by the housing allows a user to inhale said vapor through said tubular element with his mouth.
Turbomachine part comprising : - a substrate of metallic or composite material, - a coating layer to protect against the infiltration of compounds such as calcium, magnesium, aluminium or silicon oxides, or CMAS, the coating layer at least partially covering the surface of the substrate, the coating layer comprising a plurality of elementary layers, each elementary layer having a substantially homogeneous chemical composition and substantially homogeneous physicochemical characteristics, elemental layers of a first set of elemental layers being sandwiched between elemental layers of a second set of elemental layers, each elemental layer of the first set and each elemental layer of the second set comprising an anti-CMAS compound, the part being characterised in that each elementary layer of the first assembly has a tenacity which differs by at least 0.7 Mpa.m 1/2 , or a coefficient of thermal expansion which differs by at least 3.5 10 -6 K -1 , respectively with respect to the tenacities or the coefficients of thermal expansion of all the elementary layers of the second assembly, each zone of contact between an elementary layer of the first assembly and an elementary layer of the second assembly forming an interface which encourages the propagation of cracks along said interface. - a substrate of metallic or composite material, - a coating layer to protect against the infiltration of compounds such as calcium, magnesium, aluminium or silicon oxides, or CMAS, the coating layer at least partially covering the surface of the substrate, the coating layer comprising a plurality of elementary layers, each elementary layer having a substantially homogeneous chemical composition and substantially homogeneous physicochemical characteristics, elemental layers of a first set of elemental layers being sandwiched between elemental layers of a second set of elemental layers, each elemental layer of the first set and each elemental layer of the second set comprising an anti-CMAS compound, the part being characterised in that each elementary layer of the first assembly has a tenacity which differs by at least 0.7 Mpa.m 1/2 , or a coefficient of thermal expansion which differs by at least 3.5 10 -6 K -1 , respectively with respect to the tenacities or the coefficients of thermal expansion of all the elementary layers of the second assembly, each zone of contact between an elementary layer of the first assembly and an elementary layer of the second assembly forming an interface which encourages the propagation of cracks along said interface.
A method of nanostructuring the surface of a solid material to form a regular pattern of nanostructures on said surface, said method comprising the following step: - providing the solid material, said material having a surface; and characterised in that the method comprises the following steps: - irradiation of a portion of the surface by a femtosecond laser beam, comprising a plurality of pulse trains , wherein: • each pulse train comprises at least two pulses , • each pulse has a peak fluence, and a sum of the peak fluences of the pulses in a pulse train is between 10% and 70% of a threshold fluence corresponding to a material ablation threshold for one pulse for said material, • two consecutive pulses of a pulse train are temporally separated by a peak-to-peak duration ΔT between 500 fs and 150 ps, • two consecutive pulse trains are temporally separated by a duration (D) greater than 10 ΔT, - obtaining a regular pattern of nanostructures on said surface portion, having a spatial periodicity of less than 130 nm, - moving the femtosecond laser beam over the surface so as to irradiate other parts of said surface. - providing the solid material, said material having a surface; - irradiation of a portion of the surface by a femtosecond laser beam, comprising a plurality of pulse trains , wherein: • each pulse train comprises at least two pulses , • each pulse has a peak fluence, and a sum of the peak fluences of the pulses in a pulse train is between 10% and 70% of a threshold fluence corresponding to a material ablation threshold for one pulse for said material, • two consecutive pulses of a pulse train are temporally separated by a peak-to-peak duration ΔT between 500 fs and 150 ps, • two consecutive pulse trains are temporally separated by a duration (D) greater than 10 ΔT, • each pulse train comprises at least two pulses , • each pulse has a peak fluence, and a sum of the peak fluences of the pulses in a pulse train is between 10% and 70% of a threshold fluence corresponding to a material ablation threshold for one pulse for said material, • two consecutive pulses of a pulse train are temporally separated by a peak-to-peak duration ΔT between 500 fs and 150 ps, • two consecutive pulse trains are temporally separated by a duration (D) greater than 10 ΔT, - obtaining a regular pattern of nanostructures on said surface portion, having a spatial periodicity of less than 130 nm, - moving the femtosecond laser beam over the surface so as to irradiate other parts of said surface.
A method to produce a mammalian cell line producing at least one antibody, a derivative thereof or an antigen binding fragment comprising the steps of: (a) transforming a mammalian cell with a polynucleotide sequence comprising (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (b) providing at least one round of amplification in the presence of a selection and amplification agent; and (c) selecting the mammalian cell line once a cell production yield of 0.3-1.5 g/L in extended unfed batch culture and/or a cell productivity of 10-100 pg/cell/day in unfed batch culture of the antibody, a derivative thereof or the antigen binding fragment is reached; wherein the concentration of selection and amplification agent is 50% or less than the concentration used to reach an equivalent production yield, compared with a mammalian cell of (a) transformed with said polynucleotide sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is less than 0.9. (a) transforming a mammalian cell with a polynucleotide sequence comprising (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (i) a sequence that encodes the antibody, a derivative thereof or the antigen binding fragment and has a codon adaptation index that is equal to or greater than 0.9; and (ii) a sequence that encodes a selection marker which is capable of providing amplification of the polynucleotide sequence; (b) providing at least one round of amplification in the presence of a selection and amplification agent; and (c) selecting the mammalian cell line once a cell production yield of 0.3-1.5 g/L in extended unfed batch culture and/or a cell productivity of 10-100 pg/cell/day in unfed batch culture of the antibody, a derivative thereof or the antigen binding fragment is reached;
Running gear for a gondola of a gondola lift system , wherein the running gear is intended for use with support means of the gondola lift system , wherein the running gear has the following features: a running gear frame which can be coupled to a cabin of the gondola via a support arm ; at least one running wheel , which is mounted or can be mounted rotatably on the running gear frame , for travelling on a running means of the support means ; a guide unit coupled to the running gear frame via a swivelling boom , wherein the guide unit comprises a guide element for positive locking with one of two guide means of the support means and an actuator element for positive locking with one of two actuator means of the support means rigidly coupled to the running means for deflecting the running means ; and at least one actuator for swivelling the boom with the guide unit in order to selectively establish a positive connection with one of the guide devices and one of the actuator devices at a branching point of the support means for selecting the path of travel of the gondola . a running gear frame which can be coupled to a cabin of the gondola via a support arm ; at least one running wheel , which is mounted or can be mounted rotatably on the running gear frame , for travelling on a running means of the support means ; a guide unit coupled to the running gear frame via a swivelling boom , wherein the guide unit comprises a guide element for positive locking with one of two guide means of the support means and an actuator element for positive locking with one of two actuator means of the support means rigidly coupled to the running means for deflecting the running means ; and at least one actuator for swivelling the boom with the guide unit in order to selectively establish a positive connection with one of the guide devices and one of the actuator devices at a branching point of the support means for selecting the path of travel of the gondola .
Device for the aftertreatment of exhaust gases from an emission source, in particular an internal combustion engine, with a first tubular flow section , a deflecting region and a second annular flow section , the annular flow section being formed between an inner wall delimiting the tubular flow section and an outer wall delimiting the annular flow section , at least one annular honeycomb body being arranged in the annular flow section , and at least one annular heating disc being arranged in the annular flow section, wherein the heating disc can be electrically contacted by means of at least two electrical feedthroughs , which are arranged on the outer wall, characterized in that the heating disc is formed from two heating disc halves.
A multilayer film comprising at least three layers comprising: (A) a core layer comprising a high density polyethylene (HDPE) having a density from 0.940 g/cc to 0.980 g/cc; (B) skin layers on opposite sides of the core layer, each skin layer comprising (i) a propylene/ethylene copolymer with from greater than 0 wt% to 5 wt% units derived from ethylene comonomer; (ii) from 3,000 to 3,500 ppm of a slip agent; and (iii) from 4,000 to 10,000 ppm of an antiblock agent. (A) a core layer comprising a high density polyethylene (HDPE) having a density from 0.940 g/cc to 0.980 g/cc; (B) skin layers on opposite sides of the core layer, each skin layer comprising (i) a propylene/ethylene copolymer with from greater than 0 wt% to 5 wt% units derived from ethylene comonomer; (ii) from 3,000 to 3,500 ppm of a slip agent; and (iii) from 4,000 to 10,000 ppm of an antiblock agent. (i) a propylene/ethylene copolymer with from greater than 0 wt% to 5 wt% units derived from ethylene comonomer; (ii) from 3,000 to 3,500 ppm of a slip agent; and (iii) from 4,000 to 10,000 ppm of an antiblock agent.