mhurhangee/patent-ind-claim-en huggingface dataset:
A method of profiling chromatin dynamics of obtained cell populations, the method comprising: (a) obtaining at least two samples of cell populations, each sample comprising cells of a different cell type or derived from a particular subject; (b) crosslinking the total cellular chromatin of said at least two samples; (c) isolating said total cellular chromatin on a solid support; (d) labeling DNA of said total cellular chromatin, wherein said labeling distinguishes between said total cellular chromatin of the first of said at least two samples and said total cellular chromatin of the second of said at least two samples; (e) releasing said total cellular chromatin from said solid support; (f) pooling said at least two samples of total cellular chromatin; and (g) isolating DNA which is complexed to a DNA binding protein of said total cellular chromatin using an agent which specifically binds to said DNA binding protein; and (h) analyzing said DNA of said total cellular chromatin. (a) obtaining at least two samples of cell populations, each sample comprising cells of a different cell type or derived from a particular subject; (b) crosslinking the total cellular chromatin of said at least two samples; (c) isolating said total cellular chromatin on a solid support; (d) labeling DNA of said total cellular chromatin, wherein said labeling distinguishes between said total cellular chromatin of the first of said at least two samples and said total cellular chromatin of the second of said at least two samples; (e) releasing said total cellular chromatin from said solid support; (f) pooling said at least two samples of total cellular chromatin; and (g) isolating DNA which is complexed to a DNA binding protein of said total cellular chromatin using an agent which specifically binds to said DNA binding protein; and (h) analyzing said DNA of said total cellular chromatin.
A method of receiving a signal by a user equipment , UE, in a wireless communication system supporting a plurality of component carriers, CCs, the method comprising: receiving, a radio resource control, RRC, signal including component carrier assignment information through a first type CC , the component carrier assignment information including information associated with a second type CC configured for the UE, the first type CC and the second type CC being time-aligned; receiving, an RRC signaling including a value related to a physical downlink shared channel, PDSCH, starting orthogonal frequency division multiplexing, OFDM, symbol of the second type CC, through the first type CC; receiving, from a base station , BS, a physical downlink control channel, PDCCH, including scheduling information of the PDSCH of the second type CC; and receiving the PDSCH of the second type CC through the second type CC based on the PDCCH of the first type CC and the value related to the PDSCH starting OFDM symbol of the second type CC, wherein the value related to the PDSCH starting OFDM symbol of the second type CC is changeable according to the RRC signaling. receiving, a radio resource control, RRC, signal including component carrier assignment information through a first type CC , the component carrier assignment information including information associated with a second type CC configured for the UE, the first type CC and the second type CC being time-aligned; receiving, an RRC signaling including a value related to a physical downlink shared channel, PDSCH, starting orthogonal frequency division multiplexing, OFDM, symbol of the second type CC, through the first type CC; receiving, from a base station , BS, a physical downlink control channel, PDCCH, including scheduling information of the PDSCH of the second type CC; and receiving the PDSCH of the second type CC through the second type CC based on the PDCCH of the first type CC and the value related to the PDSCH starting OFDM symbol of the second type CC, wherein the value related to the PDSCH starting OFDM symbol of the second type CC is changeable according to the RRC signaling.
A method of wireless communication performed by a user equipment, UE, comprising: receiving control information for a communication of the UE; wherein the control information includes an indication indicating whether the communication is associated with a slot-based data configuration where a Type A demodulation reference signal, DMRS, is used or a non-slot-based data configuration where a Type B DMRS is used; wherein the indication includes one or more bits that indicate whether the communication is associated with the slot-based data configuration or the non-slot-based data configuration; determining , based at least in part on the indication included in the control information, whether the communication is associated with the slot-based data configuration or the non-slot-based data configuration; and transmitting a DMRS associated with the communication based at least in part on whether the communication is associated with the slot-based configuration or the non-slot-based data configuration. receiving control information for a communication of the UE; wherein the control information includes an indication indicating whether the communication is associated with a slot-based data configuration where a Type A demodulation reference signal, DMRS, is used or a non-slot-based data configuration where a Type B DMRS is used; wherein the indication includes one or more bits that indicate whether the communication is associated with the slot-based data configuration or the non-slot-based data configuration; determining , based at least in part on the indication included in the control information, whether the communication is associated with the slot-based data configuration or the non-slot-based data configuration; and transmitting a DMRS associated with the communication based at least in part on whether the communication is associated with the slot-based configuration or the non-slot-based data configuration.
Method for calculating an image matrix size N for the purpose of reconstructing image data of an examination subject from projection data, wherein - the projection data was acquired (S1) during a relative rotational movement between a radiation source of a computed tomography system and the examination subject, - the image matrix size N is calculated (S3) as a function of the extent of the axial field of view F ax of the computed tomography system and a sharpness value ρ c in the image data to be reconstructed, and - the calculated image matrix size is made available (S4) to a reconstruction unit for the purpose of reconstructing the image data from the projection data, and - the image matrix size N is calculated according to N = ΔN ∗ ⌈ 2 ∗ a ∗ F ax ∗ ρ c ΔN ⌉ or according to N = min N max , max N min , ΔN ∗ ⌈ 2 ∗ F ax ∗ ρ c ∗ f ΔN + c ⌉ , where N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter. - the projection data was acquired (S1) during a relative rotational movement between a radiation source of a computed tomography system and the examination subject, - the image matrix size N is calculated (S3) as a function of the extent of the axial field of view F ax of the computed tomography system and a sharpness value ρ c in the image data to be reconstructed, and - the calculated image matrix size is made available (S4) to a reconstruction unit for the purpose of reconstructing the image data from the projection data, and - the image matrix size N is calculated according to N = ΔN ∗ ⌈ 2 ∗ a ∗ F ax ∗ ρ c ΔN ⌉ or according to N = min N max , max N min , ΔN ∗ ⌈ 2 ∗ F ax ∗ ρ c ∗ f ΔN + c ⌉ , where N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter. N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter.
A case (1030; 1130) for an electronic device, the case comprising: a metallic member (1031; 1131) that forms a side portion of the case , the metallic member formed of a metallic material, wherein the side portion includes: at least one hole area (1045, 1055; 1165) passing through the metallic member (1031; 1131), wherein the hole area defines a curved inner wall in an opening in the metallic member, characterized by a bonding layer (1041, 1051; 1161) coated on the curved inner wall, the bonding layer including an organic material and an anodizing oxidation layer, and an insulation member (1042, 1052; 1162) formed, by injection molding of a polymer resin, on the bonding layer such that a substantial portion of the hole area remains open, forming a through-hole to accommodate an insertion of a connector. at least one hole area (1045, 1055; 1165) passing through the metallic member (1031; 1131), wherein the hole area defines a curved inner wall in an opening in the metallic member, characterized by a bonding layer (1041, 1051; 1161) coated on the curved inner wall, the bonding layer including an organic material and an anodizing oxidation layer, and an insulation member (1042, 1052; 1162) formed, by injection molding of a polymer resin, on the bonding layer such that a substantial portion of the hole area remains open, forming a through-hole to accommodate an insertion of a connector.
A semiconductor package comprising: a semiconductor chip on a substrate ; a voltage measurement circuit ; and a thermoelectric module , wherein the thermoelectric module is separated from the voltage measurement circuit and configured to convert heat released from the semiconductor chip into an auxiliary power, wherein the voltage measurement circuit is configured to measure an external voltage to be input into the semiconductor chip and configured to control the thermoelectric module to apply the auxiliary power to the semiconductor chip in response to a change in the external voltage, and characterized in that the thermoelectric module includes a first metal film , a second metal film , and a plurality of p-type semiconductors and a plurality of n-type semiconductors alternately arranged to have a loop shape surrounding sidewalls of the semiconductor chip , wherein one of the plurality of p-type semiconductors is connected to the first metal film and one of the plurality of n-type semiconductors is connected to the second metal film such that an operating current providing the auxiliary power flows through the first and second metal films in accordance with a temperature variation (ΔT) between a first providing temperature (T1) provided to the first metal film and a second providing temperature (T2) provided to the second metal film . a semiconductor chip on a substrate ; a voltage measurement circuit ; and a thermoelectric module , wherein the thermoelectric module is separated from the voltage measurement circuit and configured to convert heat released from the semiconductor chip into an auxiliary power, wherein the voltage measurement circuit is configured to measure an external voltage to be input into the semiconductor chip and configured to control the thermoelectric module to apply the auxiliary power to the semiconductor chip in response to a change in the external voltage, and characterized in that the thermoelectric module includes a first metal film , a second metal film , and a plurality of p-type semiconductors and a plurality of n-type semiconductors alternately arranged to have a loop shape surrounding sidewalls of the semiconductor chip , wherein one of the plurality of p-type semiconductors is connected to the first metal film and one of the plurality of n-type semiconductors is connected to the second metal film such that an operating current providing the auxiliary power flows through the first and second metal films in accordance with a temperature variation (ΔT) between a first providing temperature (T1) provided to the first metal film and a second providing temperature (T2) provided to the second metal film .
A composition comprising a soluble alkaline phosphatase (sALP) wherein the sALP comprises asfotase alfa (SEQ ID NO: 1) or an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO: 1 for use in treating tracheobronchomalacia (TBM) in a patient having hypophosphatasia (HPP), wherein the sALP is administered to the patient in a regimen providing a dosage of greater than or equal to 6 mg/kg/week, and wherein administration of the sALP results in an improvement in TBM in the patient.
Testing machine clamping head for clamping a specimen biased by a static and/or dynamic testing load comprising a) at least two clamping jaws between which the specimen which is to be tested can be clamped by a clamping force, b) a hydraulic clamping device which by means of a hydraulic pressure generates an actuating force which causes the clamping force at the clamping jaws , characterized in that the testing machine clamping head comprises a mechanical securing device which partially or completely maintains the clamping force when the hydraulic pressure in the hydraulic clamping device is reduced or removed. a) at least two clamping jaws between which the specimen which is to be tested can be clamped by a clamping force, b) a hydraulic clamping device which by means of a hydraulic pressure generates an actuating force which causes the clamping force at the clamping jaws ,
A fuel injector for an internal combustion engine, the fuel injector comprising: a nozzle needle which is movable within a nozzle body to control fuel delivery through an outlet; a control chamber for fuel defined, at least in part, within the nozzle body so that an upper surface of the nozzle needle is exposed to fuel within the control chamber ; and A valve housing comprising a control valve and being located above the nozzle body having a lower surface including a first region located, in part, above or defining a contact region for the nozzle body surrounding the control chamber , characterized in that the lower surface further comprises a relieved region further separated from the nozzle body , relative to at least the first region , so as create an increased contact pressure at the first region when the housing part and the nozzle body are clamped together, relative to a lower surface in which there is no relieved region and wherein the lower surface includes a second region located above or defining a ceiling of the control chamber and, the fuel injector further comprising a spill path provided in the housing part which opens into the second region and provides a flow path for fuel out of the control chamber to a low pressure drain. a nozzle needle which is movable within a nozzle body to control fuel delivery through an outlet; a control chamber for fuel defined, at least in part, within the nozzle body so that an upper surface of the nozzle needle is exposed to fuel within the control chamber ; and A valve housing comprising a control valve and being located above the nozzle body having a lower surface including a first region located, in part, above or defining a contact region for the nozzle body surrounding the control chamber , characterized in that the lower surface further comprises a relieved region further separated from the nozzle body , relative to at least the first region , so as create an increased contact pressure at the first region when the housing part and the nozzle body are clamped together, relative to a lower surface in which there is no relieved region and wherein the lower surface includes a second region located above or defining a ceiling of the control chamber and, A valve housing comprising a control valve and being located above the nozzle body having a lower surface including a first region located, in part, above or defining a contact region for the nozzle body surrounding the control chamber , characterized in that the lower surface further comprises a relieved region further separated from the nozzle body , relative to at least the first region , so as create an increased contact pressure at the first region when the housing part and the nozzle body are clamped together, relative to a lower surface in which there is no relieved region and wherein the lower surface includes a second region located above or defining a ceiling of the control chamber and, the fuel injector further comprising a spill path provided in the housing part which opens into the second region and provides a flow path for fuel out of the control chamber to a low pressure drain.
A functional health food composition for use in preventing or ameliorating insomnia caused by stress comprising an extract of Hibiscus syriacus flower as an effective ingredient.
A method for controlling a state of an electronic system including a first device including a first battery ; a second device including a second battery , the second battery of the second device adapted to receive a charge from the first battery of the first device , the method comprising: operating, by the first device , in a low power mode in which delivery of a charge from the first battery to the second battery is prevented; detecting, by the first device , one or more first conditions corresponding to shipment; remaining in the low power mode while the one or more first conditions are detected; detecting, by the first device , one or more second conditions corresponding to an end of shipment; automatically transitioning, by the first device , to a high power mode in response to detection of the one or more second conditions, in which high power mode delivery of charge from the first battery to the second battery is enabled, wherein the first and second conditions are detected based on an orientation of the first device , based on light or sound sensed by the first device , or based on receiving by the first device a beacon from a transportation vehicle. operating, by the first device , in a low power mode in which delivery of a charge from the first battery to the second battery is prevented; detecting, by the first device , one or more first conditions corresponding to shipment; remaining in the low power mode while the one or more first conditions are detected; detecting, by the first device , one or more second conditions corresponding to an end of shipment; automatically transitioning, by the first device , to a high power mode in response to detection of the one or more second conditions, in which high power mode delivery of charge from the first battery to the second battery is enabled, wherein the first and second conditions are detected based on an orientation of the first device , based on light or sound sensed by the first device , or based on receiving by the first device a beacon from a transportation vehicle.
Crossmember of a vehicle driving station, having a transverse main metal element and a central strut intended to be fastened to the floor of the vehicle, the strut being a unitary component comprising two legs substantially perpendicular to a longitudinal direction of the transverse main metal element and at least one connecting bar between the two legs , upper and lower fastening means being provided at the top and bottom of the strut for fastening it to the main metal element and the floor, respectively, characterized in that : - the upper fastening means comprise a pair of half-shells joined to each leg , at least one half-shell of each pair being part of the leg, the half-shells of each pair being secured together, entirely enclosing the transverse main metal element , in a plane perpendicular to the longitudinal direction thereof, and following the contour of the transverse main metal element . - the upper fastening means comprise a pair of half-shells joined to each leg , at least one half-shell of each pair being part of the leg, the half-shells of each pair being secured together, entirely enclosing the transverse main metal element , in a plane perpendicular to the longitudinal direction thereof, and following the contour of the transverse main metal element .
An apparatus for heat shrink wrap product packaging, the apparatus comprising: first and second opposed and spaced apart side wall assemblies , the first and second side wall assemblies defining a longitudinally extending product conveyance path therebetween; a center divider extending above the conveyance path between the first and second opposed and spaced apart side wall assemblies , wherein the center divider moves between a retracted position and a vertical position dividing the conveyance path, wherein the center divider comprises an internal air passageway and a lateral air flow mechanism configured to deliver air across the conveyance path in directions toward each of the first and second side wall assemblies , wherein the lateral air flow mechanism comprises a deflector at an air outlet end of the central divider. first and second opposed and spaced apart side wall assemblies , the first and second side wall assemblies defining a longitudinally extending product conveyance path therebetween; a center divider extending above the conveyance path between the first and second opposed and spaced apart side wall assemblies , wherein the center divider moves between a retracted position and a vertical position dividing the conveyance path, wherein the center divider comprises an internal air passageway and a lateral air flow mechanism configured to deliver air across the conveyance path in directions toward each of the first and second side wall assemblies , wherein the lateral air flow mechanism comprises a deflector at an air outlet end of the central divider.
An orthodontic bracket consisting of: an outer body ; an inner body coupled to the outer body, wherein the inner body is elastomeric; and a bracket base configured to couple to a tooth; and optionally an adhesive on a bonding surface of the bracket base, wherein the inner body is disposed between the outer body and the bracket base, characterised in that the inner body has thickness of at least 0.1mm. an outer body ; an inner body coupled to the outer body, wherein the inner body is elastomeric; and a bracket base configured to couple to a tooth; and optionally an adhesive on a bonding surface of the bracket base, wherein the inner body is disposed between the outer body and the bracket base, characterised in that the inner body has thickness of at least 0.1mm.
A small molecule compound combination for reprogramming digestive tract derived epithelial cells to endodermal stem/progenitor cells, wherein, the small molecule compound combination is a combination of 8 small molecule compounds : FBP, Bay K 8644 (Bay), Bix01294 (Bix), SB431542 (SB), VPA, RG108 (RG), PD0325901 and PS48, or FBP, Bay K 8644 (Bay), Bix01294 (Bix), A83-01 (A83), VPA, RG108 (RG), PD0325901 and PS48; or the small molecule compound combination is a combination of 4 small molecule compounds: Bix01294 (Bix), Bay K 8644 (Bay), RG108 (RG), and SB431542 (SB), referred to as BBRS combination, or Bix01294 (Bix), Bay K 8644 (Bay), RG108 (RG), and A83-01 (A83), referred to as BBRA combination.