mhurhangee/ep-ind-claims huggingface dataset:
An expansion valve comprising: a main body including a first valve chamber having a first opening communicating with a first pipe, a second valve chamber having a second opening communicating with a second pipe, and a valve hole connecting the first valve chamber and the second valve chamber to each other; a valve body including a first main shaft, at least a part of which is provided in the first valve chamber, a second main shaft, at least a part of which is provided in the second valve chamber, and a constricted portion provided in the valve hole and connecting the first main shaft and the second main shaft to each other; characterized by a first porous member provided in a first passage between the first pipe and the valve hole; and a first shield member provided in a region of the first passage between the first pipe and the first porous member, and configured to shield a part of a passage cross-section of the first passage, the first shield member being provided in the first valve chamber, having, on at least a part of the first shield member, a flat surface opposed to the first opening with a gap between the flat surface and the first opening and perpendicular to an axial direction of the first opening, or a recessed surface opposed to the first opening with a gap between the recessed surface and the first opening and recessed in a direction away from the first opening. a main body including a first valve chamber having a first opening communicating with a first pipe, a second valve chamber having a second opening communicating with a second pipe, and a valve hole connecting the first valve chamber and the second valve chamber to each other; a valve body including a first main shaft, at least a part of which is provided in the first valve chamber, a second main shaft, at least a part of which is provided in the second valve chamber, and a constricted portion provided in the valve hole and connecting the first main shaft and the second main shaft to each other; characterized by a first porous member provided in a first passage between the first pipe and the valve hole; and a first shield member provided in a region of the first passage between the first pipe and the first porous member, and configured to shield a part of a passage cross-section of the first passage, the first shield member being provided in the first valve chamber, having, on at least a part of the first shield member, a flat surface opposed to the first opening with a gap between the flat surface and the first opening and perpendicular to an axial direction of the first opening, or a recessed surface opposed to the first opening with a gap between the recessed surface and the first opening and recessed in a direction away from the first opening.
An apparatus for processing digital video, the apparatus comprising: a representative-value calculator to obtain a representative value of luminance data of a plurality of pixels of the digital video data for each of the pixel blocks having a predetermined number of pixels, each of the pixel blocks corresponding to a unit of data subjected to the encoding procedure, as a quantized integer for each of the pixel blocks by rounding the result of an averaging function with the luminance data as a parameter; a data rewriter to determine whether the quantized integer of the representative value for each of the pixel blocks is a multiple of a preset integer N,with N being two or four, and, if not, rewrite the luminance data with a specific requirement giving the least range of change in the representative value of luminance data so that the quantized integer becomes a multiple of the integer N, whereas the luminance data remain unchanged if the quantized integer is a multiple of the integer N, thus encryptically processing the digital video data; and an encoder to encode the encryptically processed digital video data with orthogonal transform to produce a coded video signal. a representative-value calculator to obtain a representative value of luminance data of a plurality of pixels of the digital video data for each of the pixel blocks having a predetermined number of pixels, each of the pixel blocks corresponding to a unit of data subjected to the encoding procedure, as a quantized integer for each of the pixel blocks by rounding the result of an averaging function with the luminance data as a parameter; a data rewriter to determine whether the quantized integer of the representative value for each of the pixel blocks is a multiple of a preset integer N,with N being two or four, and, if not, rewrite the luminance data with a specific requirement giving the least range of change in the representative value of luminance data so that the quantized integer becomes a multiple of the integer N, whereas the luminance data remain unchanged if the quantized integer is a multiple of the integer N, thus encryptically processing the digital video data; and an encoder to encode the encryptically processed digital video data with orthogonal transform to produce a coded video signal.
A method for receiving data by a user equipment, UE, comprising: receiving control information in a downlink control channel, the control information indicating at least a time-frequency resource partition in a downlink data channel at which the data is located, and including a cyclic redundancy check, CRC, masked with a group identification, ID, known to the UE and at least one other UE; using the group ID to unmask the CRC; obtaining an indication of at least the time-frequency resource partition from the control information; and receiving the data in the downlink data channel at the time-frequency resource partition in accordance with the indication; characterized by: determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE. receiving control information in a downlink control channel, the control information indicating at least a time-frequency resource partition in a downlink data channel at which the data is located, and including a cyclic redundancy check, CRC, masked with a group identification, ID, known to the UE and at least one other UE; using the group ID to unmask the CRC; obtaining an indication of at least the time-frequency resource partition from the control information; and receiving the data in the downlink data channel at the time-frequency resource partition in accordance with the indication; characterized by: determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE. determining by virtue of the use of the group ID that the UE is a target UE that is to be assisted with receipt of the data; and using D2D communication to receive information from another UE that also received the data using the group ID, wherein the information is at least one of: the data, a re-encoded version of the data, and other information obtained when the data was decoded by the another UE.
An apparatus comprising: a quantum controller to generate physical pulses directed to qubits on a quantum processor in response to operations specified in a quantum runtime; quantum measurement circuitry to measure quantum values associated with the qubits following completion of at least a first cycle of quantum runtime operations; and a probabilistic compute engine, implemented in classical circuit logic, to analyze the one or more quantum values using inferencing and to adjust, based on the analysis, a level of quantum error correction applied across a surface of the entire quantum processor for improving an error rate on subsequent cycles of the quantum runtime. a quantum controller to generate physical pulses directed to qubits on a quantum processor in response to operations specified in a quantum runtime; quantum measurement circuitry to measure quantum values associated with the qubits following completion of at least a first cycle of quantum runtime operations; and a probabilistic compute engine, implemented in classical circuit logic, to analyze the one or more quantum values using inferencing and to adjust, based on the analysis, a level of quantum error correction applied across a surface of the entire quantum processor for improving an error rate on subsequent cycles of the quantum runtime.
A downhole expandable metal tubular having an axial extension, to be expanded in a well downhole to abut an inner face of a casing or a borehole, comprising: - a first section having a first outer diameter (ODi), - two circumferential projections having a second outer diameter (OD 2) which is larger than the first outer diameter, and - a second section arranged between the two projections, each projection having an inclined face tapering from the second outer diameter towards the second section, wherein the second section has a third outer diameter (OD 3) which is smaller than the first outer diameter in an unexpanded condition, and a sealing element is arranged between the projections opposite the second section so that during expansion, the second section bulges more radially outwards than the first section, forcing the sealing element radially outwards. - a first section having a first outer diameter (ODi), - two circumferential projections having a second outer diameter (OD 2) which is larger than the first outer diameter, and - a second section arranged between the two projections, each projection having an inclined face tapering from the second outer diameter towards the second section,
A cycling garment, said garment being a jersey, a jacket or a vest having a structure realized with an outer fabric layer and further comprising an inner fabric layer having different breathability properties from the outer layer, wherein the inner layer is internally joined to the outer layer and forms an inner lining of part of said cycling garment, characterized in that said inner layer is arranged to line only a front portion and side portions of the outer layer.
A wire processing system, comprising: a first wire; a second wire; and a tray having at least one tray surface configured to sequentially receive the first wire and the second wire from a wire feed system of a wire processing machine; the tray surface having a surface feature configured to provide a wire-to-surface coefficient of friction between the tray surface and the first wire higher than a wire-to-wire coefficient of friction between the first wire and the second wire laying on top of the first wire; and the wire-to-surface coefficient of friction reducing movement of at least a portion of the first wire relative to the tray surface during movement of the second wire relative to the first wire. a first wire; a second wire; and a tray having at least one tray surface configured to sequentially receive the first wire and the second wire from a wire feed system of a wire processing machine; the tray surface having a surface feature configured to provide a wire-to-surface coefficient of friction between the tray surface and the first wire higher than a wire-to-wire coefficient of friction between the first wire and the second wire laying on top of the first wire; and the wire-to-surface coefficient of friction reducing movement of at least a portion of the first wire relative to the tray surface during movement of the second wire relative to the first wire.
A bed frame comprising a pair of side rails (46,48) of a T-shaped cross section forming a vertical flange having upper and lower edges and an outer surface facing outwardly of the bed frame and an inner surface, a horizontal flange extending inwardly from said inner surface of each of said side rails (46, 48) about midway between the upper and lower edges of the vertical flange, a light producing means affixed to the side rails (46, 48) and located along the inner surface of the vertical flange and underneath the horizontal flange.
A blow-molded structural panel comprising: a panel surface; and a stiffening rib structure extending outward from the panel surface, the stiffening rib structure comprising: a first end portion; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions (18a, 18b) disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height. a panel surface; and a stiffening rib structure extending outward from the panel surface, the stiffening rib structure comprising: a first end portion; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions (18a, 18b) disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height. a first end portion; a second end portion disposed opposite the first end portion; a first tall portion disposed adjacent the first end portion, the first tall portion having a first tall portion height; characterized in that the stiffening rib structure further comprises a second tall portion disposed adjacent the second end portion, the second tall portion having a second tall portion height; multiple short portions (18a, 18b) disposed between the first tall portion and the second tall portion, each of the multiple short portion having a short portion height that is less than the first tall portion height and less than the second tall portion height.
A method of manufacturing a glass bent sheet, comprising: printing a paste including glass powder that contains an alkali metal oxide as a component and a pigment onto a flat sheet-shaped glass substrate formed of a LAS-based crystallizable glass; performing bending work to the glass substrate having the paste printed thereon by heating; and crystallizing the crystallizable glass by heating, the method further comprising, after the printing and before the performing bending work and the crystallizing, provisionally sintering the paste printed onto the glass substrate by heating at a temperature equal to or higher than a softening point of the glass powder plus 20°C and lower than a highest heating temperature in the crystallizing, wherein the heating temperature in the provisionally sintering is from 700°C to 760°C, wherein in the provisional sintering the glass powder flows easily. printing a paste including glass powder that contains an alkali metal oxide as a component and a pigment onto a flat sheet-shaped glass substrate formed of a LAS-based crystallizable glass; performing bending work to the glass substrate having the paste printed thereon by heating; and crystallizing the crystallizable glass by heating, the method further comprising, after the printing and before the performing bending work and the crystallizing, provisionally sintering the paste printed onto the glass substrate by heating at a temperature equal to or higher than a softening point of the glass powder plus 20°C and lower than a highest heating temperature in the crystallizing, wherein the heating temperature in the provisionally sintering is from 700°C to 760°C, wherein in the provisional sintering the glass powder flows easily.
A method for reducing paging overhead in a network, the method comprising: determining whether a user equipment, UE, is substantially stationary, wherein the UE is substantially stationary if the UE has a mobility less than a threshold mobility, and will remain stationary for a period of time according to the threshold mobility, wherein the UE is located in a first network cell associated with a network; and in response to determining the UE is substantially stationary and will remain stationary for the period of time according to the threshold mobility, transmitting an indicator to the network; wherein the network responds to the indicator by transmitting a paging signal to the first network cell without transmitting the paging signal to one or more second network cells that are part of a same geographic tracking area as the first network cell. determining whether a user equipment, UE, is substantially stationary, wherein the UE is substantially stationary if the UE has a mobility less than a threshold mobility, and will remain stationary for a period of time according to the threshold mobility, wherein the UE is located in a first network cell associated with a network; and in response to determining the UE is substantially stationary and will remain stationary for the period of time according to the threshold mobility, transmitting an indicator to the network; wherein the network responds to the indicator by transmitting a paging signal to the first network cell without transmitting the paging signal to one or more second network cells that are part of a same geographic tracking area as the first network cell.
A method for cleaning used washing water from vehicle washing systems by means of particle separation with a cleaning device for process water, wherein the cleaning device has at least one drum, rotatably mounted in a housing, at least one process water inlet, discharging into the housing outside the drum, at least one process water drain, discharging from the drum, at least one housing outlet, arranged outside the drum for particle removal from the housing, and a rotary drive for the drum, wherein the drum has a plurality of openings, wherein the rotational speed of the drum and the pressure level of the housing are adjusted by means of the particle-rich process water supplied under excess pressure through the process water inlet such that process water enters the drum through the openings and particles are prevented from entering the drum through the openings due to the rotation of the drum with multiple g-force, wherein, due to the rotation of the drum, g-forces of at least 300 g are exerted on the particles, wherein the process water is supplied into the housing with an absolute pressure between 3 bar and 10 bar, and wherein the minimum opening width of the openings of the drum is greater than 2 mm.
A process for producing water-absorbing polymer particles, comprising polymerization of a monomer solution or suspension, comprising a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers, drying the resulting polymer gel on a through circulation belt dryer, crushing the dried polymer gel, pre-grinding, separating of incompletely dried particles with a vibrating screen, grinding and classifying the resulting polymer particles, wherein the vibrating screen is a perforated plate having a thickness from 0.5 to 5mm, an opening area from 20 to 80% and a hole diameter from 5 to 20mm. a) at least one ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers mentioned under a) and e) optionally one or more water-soluble polymers,
A control method of the small bypass system for a steam-driven generating unit, wherein said generating unit comprises at least a boiler and a turbine as well as a main steam pipe and a big bypass system that are connected with said boiler and said turbine, wherein a small bypass system is provided on the main steam pipe close to said turbine, and said small bypass system comprises a steam pipe of a small bypass and at least one group of small bypass adjusting valves (10, 11); said small bypass adjusting valves (10, 11) are small capacity adjusting valves for reducing temperature and pressure, and in said steam pipe of the small bypass, stop valves are also provided in front of and/or behind said small bypass adjusting valves (10, 11); and the flow of said bypass system is 5% - 30% of the flow of said main steam pipe, characterized in that the control method comprises the following steps: step 1: prior to opening said big bypass system of said generating unit, firstly opening the small bypass stop valves, and gradually open said small bypass adjusting valves (10, 11), so that the main steam from said boiler is discharged to a reheat system of said generating unit via said bypass system, until said bypass system reaches a maximum flow; step 2: after said small bypass system has reached the maximum flow, immediately adjusting said big bypass system to an opening that corresponds to a maximum flow of said small bypass, and at the same time closing said small bypass adjusting valves (10, 11), so that the flow of said small bypass system is quickly shifted to said big bypass system; step 3: when said big bypass system has gradually reached a relatively bigger opening, gradually opening said small bypass adjusting valves (10, 11) to the maximum flow. step 1: prior to opening said big bypass system of said generating unit, firstly opening the small bypass stop valves, and gradually open said small bypass adjusting valves (10, 11), so that the main steam from said boiler is discharged to a reheat system of said generating unit via said bypass system, until said bypass system reaches a maximum flow; step 2: after said small bypass system has reached the maximum flow, immediately adjusting said big bypass system to an opening that corresponds to a maximum flow of said small bypass, and at the same time closing said small bypass adjusting valves (10, 11), so that the flow of said small bypass system is quickly shifted to said big bypass system; step 3: when said big bypass system has gradually reached a relatively bigger opening, gradually opening said small bypass adjusting valves (10, 11) to the maximum flow.
A C1 esterase inhibitor (C1-INH) protein for use in a method of treating antibody-mediated rejection of a kidney allograft in a patient in need thereof, wherein the method comprises intravenous administration of the C1-INH protein at an initial dose of about 5,000 units and six subsequent doses of 2,500 units given every other day for a total of 13 days of administration, wherein the patient is a human leukocyte antigen donor-sensitized kidney transplant recipient, and wherein the method results in a long-lasting therapeutic effect. wherein the method comprises intravenous administration of the C1-INH protein at an initial dose of about 5,000 units and six subsequent doses of 2,500 units given every other day for a total of 13 days of administration, wherein the patient is a human leukocyte antigen donor-sensitized kidney transplant recipient, and wherein the method results in a long-lasting therapeutic effect.
Graphene derivative, comprising at least one graphene layer, characterized in that the graphene layer is functionalized with a covalently bound polyglycerol compound comprising a polyglycerol backbone and at least one substituent in the nature of a covalently bound sulfate group.