mhurhangee/patent-ind-claim-en huggingface dataset:
Fastening device for holding a sensor having a cylindrical form limited by a proximal end and a distal end , the fastening device comprising: - a tubular body extending along a median longitudinal axis (I-I) between a first end and a second end and comprising a longitudinal through passage intended to receive said sensor ; - means for axially immobilizing the sensor in the longitudinal through passage ; - a flared portion , at the second end of the tubular body , extending radially inwards and defining an orifice with a cross-section having smaller dimensions than the dimensions of the cross-section of the sensor , characterized in that : - the axial immobilization means are shaped so as to keep the distal end of the sensor at a predetermined minimum longitudinal distance (E) from said flared portion , so that a space for radial conduction of fluid is formed between the flared portion and the distal end of the sensor ; - the fastening device comprises means for carrying a fluid inside the tubular body and into the radial conduction space between the flared portion and the distal end of the sensor . - a tubular body extending along a median longitudinal axis (I-I) between a first end and a second end and comprising a longitudinal through passage intended to receive said sensor ; - means for axially immobilizing the sensor in the longitudinal through passage ; - a flared portion , at the second end of the tubular body , extending radially inwards and defining an orifice with a cross-section having smaller dimensions than the dimensions of the cross-section of the sensor , - the axial immobilization means are shaped so as to keep the distal end of the sensor at a predetermined minimum longitudinal distance (E) from said flared portion , so that a space for radial conduction of fluid is formed between the flared portion and the distal end of the sensor ; - the fastening device comprises means for carrying a fluid inside the tubular body and into the radial conduction space between the flared portion and the distal end of the sensor .
A method for materially bonding a first metallic component , which comprises a first surface region , with a second metallic component , which comprises a second surface region , wherein the two surface regions face one another, and wherein at least one of the two components is a sintered component, wherein prior to the formation of the material connection between the two components with one another at least in the surface region of the sintered component, in which the material connection is formed, the density is increased, characterized in that for the production of the compacted surface region the latter is produced with an excess.
A gas turbine engine comprising: a fan including a plurality of fan blades rotatable about an axis; a compressor section including at least a first compressor section and a second compressor section , wherein the first compressor section comprises a low pressure compressor and the second compressor section comprises a high pressure compressor ; a combustor in fluid communication with the compressor section ; a turbine section in fluid communication with the combustor , wherein the turbine section comprises a low pressure turbine that drives the low pressure compressor via a first shaft and a high pressure turbine that drives the high pressure compressor via a second shaft ; and a geared architecture driven by the turbine section for rotating the fan about the axis, wherein the geared architecture couples the first shaft to the fan , characterized in that : the gas turbine engine further comprises an inducer forming an additional compression section positioned in front of the high and low pressure compressors ; and the gas turbine engine is configured to operate at an average exit temperature of the compressor section that is between about 810.9 K (1000 °F) and about 1088 K (1500 °F). a fan including a plurality of fan blades rotatable about an axis; a compressor section including at least a first compressor section and a second compressor section , wherein the first compressor section comprises a low pressure compressor and the second compressor section comprises a high pressure compressor ; a combustor in fluid communication with the compressor section ; a turbine section in fluid communication with the combustor , wherein the turbine section comprises a low pressure turbine that drives the low pressure compressor via a first shaft and a high pressure turbine that drives the high pressure compressor via a second shaft ; and a geared architecture driven by the turbine section for rotating the fan about the axis, wherein the geared architecture couples the first shaft to the fan , characterized in that : the gas turbine engine further comprises an inducer forming an additional compression section positioned in front of the high and low pressure compressors ; and the gas turbine engine is configured to operate at an average exit temperature of the compressor section that is between about 810.9 K (1000 °F) and about 1088 K (1500 °F). the gas turbine engine further comprises an inducer forming an additional compression section positioned in front of the high and low pressure compressors ; and the gas turbine engine is configured to operate at an average exit temperature of the compressor section that is between about 810.9 K (1000 °F) and about 1088 K (1500 °F).
A solidifying-agent composition for solidifying radioactive waste, comprising alumina cement and a gypsum powder, the alumina cement being contained 10 to 70 parts by weight of 100 parts by weight of the composition, and the gypsum powder being contained 5 to 50 parts by weight of 100 parts by weight of the composition, characterized in that it further comprises, of the total of 100 parts by weight of the composition, 1 to 10 parts by weight of a resin powder, 0.01 to 3 parts by weight of a reaction accelerator, 0.01 to 5 parts by weight of a retention agent, 0.01 to 5 parts by weight of a defoaming agent, and 0.1 to 10 parts by weight of a fluidizing agent.
A method for processing signals by a user equipment, UE, in a wireless communication system, the method comprising: receiving a physical downlink control channel, PDCCH, addressed by a Cell-Radio Network Temporary Identifier, C-RNTI, from a network; receiving a data signal including a medium access control, MAC, protocol data unit, PDU, based on the PDCCH from the network, wherein the MAC PDU includes a MAC service data unit, SDU, for a multicast/broadcast service, MBS, and a Group-Radio Network Temporary Identifier, G-RNTI; identifying a logical channel among two or more logical channels for the MBS, based on the G-RNTI and a logical channel identifier; and transferring the MAC SDU for the MBS to the identified logical channel. receiving a physical downlink control channel, PDCCH, addressed by a Cell-Radio Network Temporary Identifier, C-RNTI, from a network; receiving a data signal including a medium access control, MAC, protocol data unit, PDU, based on the PDCCH from the network, wherein the MAC PDU includes a MAC service data unit, SDU, for a multicast/broadcast service, MBS, and a Group-Radio Network Temporary Identifier, G-RNTI; identifying a logical channel among two or more logical channels for the MBS, based on the G-RNTI and a logical channel identifier; and transferring the MAC SDU for the MBS to the identified logical channel.
Heat exchanger for a device, comprising the following features: a. at least one coolant conduit having a first and a second end through which a coolant is guidable and which consists of electrically conductive material, b. at least one retaining clamp, which at least partially supports the coolant conduit , and c1. a first electric voltage source which is connectable to the first and second end of the coolant conduit or to the ends of at least a selected section of the coolant conduit so that an electrical heating current flows in the coolant conduit , and/or c2. a second electric voltage source which is connectable to at least one coil arrangement adjacent to the at least one coolant conduit so that an electrical heating current is inducible in the at least one coolant conduit by a magnetic field of the coil arrangement , characterized in that d. the first and the second end of the coolant conduit are each connected by means of an insulating sleeve with a coolant circuit of a device to insulate the coolant circuit of the device electrically from the coolant conduit . a. at least one coolant conduit having a first and a second end through which a coolant is guidable and which consists of electrically conductive material, b. at least one retaining clamp, which at least partially supports the coolant conduit , and c1. a first electric voltage source which is connectable to the first and second end of the coolant conduit or to the ends of at least a selected section of the coolant conduit so that an electrical heating current flows in the coolant conduit , and/or c2. a second electric voltage source which is connectable to at least one coil arrangement adjacent to the at least one coolant conduit so that an electrical heating current is inducible in the at least one coolant conduit by a magnetic field of the coil arrangement , characterized in that d. the first and the second end of the coolant conduit are each connected by means of an insulating sleeve with a coolant circuit of a device to insulate the coolant circuit of the device electrically from the coolant conduit .
A communication control system including a plurality of control devices configured to communicate via a fifth-generation mobile communication system , 5G, network and a plurality of controlled devices respectively controlled by the plurality of control devices , wherein each control device of the plurality of control devices comprises an information creation unit configured to calculate a total number of emergency stop groups based on emergency stop group information in which each emergency stop group number assigned to each emergency stop group that is determined based on a range to be affected by an anomaly in each controlled device of the plurality of controlled devices is associated with each corresponding control device of the plurality of control devices , and create slice information for connecting to the same number of user plane functions, UPFs, as the total number of emergency stop groups; a 5G connection unit configured to register the control device of the 5G connection unit itself with the 5G network, and acquire UPF destination information, which is destination information of the UPFs; and a destination information acquisition unit configured to, based on the UPF destination information, associate each emergency stop group number with a destination UPF without duplication of a destination UPF between the emergency stop groups, and store information in which each emergency stop group number is associated with a destination UPF in a destination conversion table. network and a plurality of controlled devices respectively controlled by the plurality of control devices , wherein each control device of the plurality of control devices comprises an information creation unit configured to calculate a total number of emergency stop groups based on emergency stop group information in which each emergency stop group number assigned to each emergency stop group that is determined based on a range to be affected by an anomaly in each controlled device of the plurality of controlled devices is associated with each corresponding control device of the plurality of control devices , and create slice information for connecting to the same number of user plane functions, UPFs, as the total number of emergency stop groups; a 5G connection unit configured to register the control device of the 5G connection unit itself with the 5G network, and acquire UPF destination information, which is destination information of the UPFs; and a destination information acquisition unit configured to, based on the UPF destination information, associate each emergency stop group number with a destination UPF without duplication of a destination UPF between the emergency stop groups, and store information in which each emergency stop group number is associated with a destination UPF in a destination conversion table.
A gas flow sensor for a ventilator comprising: a. a flow path extending between a first end that connects to a supply of gas and a second end that couples to a patient airway interface ; b. a constant temperature anemometer sensor arranged within the flow path between those ends; c. a sampling port is configured to be coupled with a gas analyser device; and d. an orifice which is in fluid communication with the flow path and the sampling port so that in use gas may be drawn from the flow path for analysis, the gas being drawn through the orifice from the flow path at a position located between the anemometer sensor and the first end, wherein the distance between the orifice and the anemometer sensor is in the range of 3 - 10 mm. a. a flow path extending between a first end that connects to a supply of gas and a second end that couples to a patient airway interface ; b. a constant temperature anemometer sensor arranged within the flow path between those ends; c. a sampling port is configured to be coupled with a gas analyser device; and d. an orifice which is in fluid communication with the flow path and the sampling port so that in use gas may be drawn from the flow path for analysis, the gas being drawn through the orifice from the flow path at a position located between the anemometer sensor and the first end, wherein the distance between the orifice and the anemometer sensor is in the range of 3 - 10 mm.
A silver-plated product comprising: a base material of copper or a copper alloy; and a silver plating film formed on the base material, wherein a surface of the silver plating film has an arithmetic average roughness Ra of not greater than 0.1 micrometers, and the silver plating film has a orientation ratio of 35 % to 60 % according to the method specified in the description. a base material of copper or a copper alloy; and a silver plating film formed on the base material, wherein a surface of the silver plating film has an arithmetic average roughness Ra of not greater than 0.1 micrometers, and the silver plating film has a orientation ratio of 35 % to 60 % according to the method specified in the description.
Use of glass fibres of circular cross section in a mixture comprising at least one polyamide MXDZ, obtained from the polycondensation of meta-xylylenediamine (MXD) with a C 6 to C 18 , more particularly C 6 to C 12 , aliphatic dicarboxylic acid (Z), and at least one aliphatic polyamide A obtained from the polycondensation of a unit chosen from: - a C 6 to C 12 lactam, - a C 6 to C 12 amino acid and - a unit XY obtained from the polycondensation of a C 4 to C 18 , more particularly C 4 to C 12 , aliphatic diamine (X) and a C 6 to C 18 , more particularly C 6 to C 12 , aliphatic dicarboxylic acid (Y), glass fibres of circular cross section and optionally at least one impact modifier and/or at least one additive, said glass fibres of circular cross section and said mixture constituting a composition, said glass fibres of circular cross section being present at from 30% to 75% by weight, more particularly from 40% to 65% by weight and relative to the total weight of the composition, for improving the elongation at break, after implementation thereof, more particularly by injection moulding or compression moulding, the elongation at break being measured by the standard ISO 527. - a C 6 to C 12 lactam, - a C 6 to C 12 amino acid and - a unit XY obtained from the polycondensation of a C 4 to C 18 , more particularly C 4 to C 12 , aliphatic diamine (X) and a C 6 to C 18 , more particularly C 6 to C 12 , aliphatic dicarboxylic acid (Y), glass fibres of circular cross section and optionally at least one impact modifier and/or at least one additive, said glass fibres of circular cross section and said mixture constituting a composition, said glass fibres of circular cross section being present at from 30% to 75% by weight, more particularly from 40% to 65% by weight and relative to the total weight of the composition, for improving the elongation at break, after implementation thereof, more particularly by injection moulding or compression moulding, the elongation at break being measured by the standard ISO 527.
A process for biomass torrefaction, comprising: adding biomass to a fluidized bed reactor; adding oxygen containing gas to said reactor; adjusting the oxygen content of a fluidizing gas within the reactor, wherein the oxygen content of the fluidizing gas is maintained at greater than 10 volume percent and the oxygen content of the gas leaving said reactor is less than 8 volume percent; initiating heating of said biomass by increasing the temperature of said reactor, wherein the temperature of the reactor is controlled by controlling biomass feed rate and the amount of oxygen containing gas introduced to the reactor; heating said biomass; maintaining said biomass within said reactor for a predetermined time; removing water from said biomass; vaporizing volatile organic compounds associated with said biomass; torrefying said biomass; and combusting said volatile organic compounds to help maintain the temperature of said reactor. adding biomass to a fluidized bed reactor; adding oxygen containing gas to said reactor; adjusting the oxygen content of a fluidizing gas within the reactor, wherein the oxygen content of the fluidizing gas is maintained at greater than 10 volume percent and the oxygen content of the gas leaving said reactor is less than 8 volume percent; initiating heating of said biomass by increasing the temperature of said reactor, wherein the temperature of the reactor is controlled by controlling biomass feed rate and the amount of oxygen containing gas introduced to the reactor; heating said biomass; maintaining said biomass within said reactor for a predetermined time; removing water from said biomass; vaporizing volatile organic compounds associated with said biomass; torrefying said biomass; and combusting said volatile organic compounds to help maintain the temperature of said reactor.
A method for detecting an oblique ear-probe insertion into an acoustic waveguide , the method comprising the steps of - inserting an ear probe into a waveguide ; - emitting an acoustic stimulus into said waveguide via said ear probe ; - measuring an ear-probe response; - estimating a characteristic impedance ( Ẑ 0 ) of said waveguide from said measured ear-probe response in a plurality of frequency ranges of said ear-probe response; and - utilizing said estimated characteristic impedance ( Ẑ 0 ) for each of the plurality of said frequency ranges to characterize the degree of obliqueness in said ear-probe insertion. - inserting an ear probe into a waveguide ; - emitting an acoustic stimulus into said waveguide via said ear probe ; - measuring an ear-probe response; - estimating a characteristic impedance ( Ẑ 0 ) of said waveguide from said measured ear-probe response in a plurality of frequency ranges of said ear-probe response; and - utilizing said estimated characteristic impedance ( Ẑ 0 ) for each of the plurality of said frequency ranges to characterize the degree of obliqueness in said ear-probe insertion.
Actuator having a drive unit and a transmission unit , wherein the drive unit - in the axial direction of a transmission axle of the transmission unit - is fixed to the transmission unit, characterized in that the axial fixing takes place by means of a fixing element which is incorporated between an alignment element of the drive unit and a counter element of the transmission unit .
Steel composition for the production of components with improved anti-coking properties, consisting of in weight percentage: - from 0.08% to 0.15% carbon (C), - from 0.3 to 1% manganese (Mn), - from 1.4 to 3% silicon (Si), - from 0.5 to 3% copper (Cu), - from 8 to 10% chromium (Cr), - from 0.5 to 3% nickel (Ni), - from 0.01 to 0.07% nitrogen (N), - from 0.8 to 1.1% molybdenum (Mo), - from 0 to 0.04% aluminum (Al), the remainder of the composition being iron (Fe) and impurities, for which the mass content of the following impurities does not exceed: - 0.025% phosphorus (P), - 0.02% sulfur (S), - 0.02% titanium (Ti), - 0.05% niobium (Nb), - 0.05% vanadium (V), - 0.1% tungsten (W), and - 0.05% cobalt (Co). - from 0.08% to 0.15% carbon (C), - from 0.3 to 1% manganese (Mn), - from 1.4 to 3% silicon (Si), - from 0.5 to 3% copper (Cu), - from 8 to 10% chromium (Cr), - from 0.5 to 3% nickel (Ni), - from 0.01 to 0.07% nitrogen (N), - from 0.8 to 1.1% molybdenum (Mo), - from 0 to 0.04% aluminum (Al), - 0.025% phosphorus (P), - 0.02% sulfur (S), - 0.02% titanium (Ti), - 0.05% niobium (Nb), - 0.05% vanadium (V), - 0.1% tungsten (W), and - 0.05% cobalt (Co).
A tire , comprising: a hub ; a first traction element coupled to the hub and comprising a first backing plate ; and a second traction element coupled to the hub and comprising a second backing plate ; wherein the second traction element is discrete from the first traction element , characterised in that the first traction element comprises a first elastomeric material bonded to the first backing plate, wherein the first backing plate defines a first aperture configured to receive a first protrusion radially extending from the hub ; and the second traction element comprises a second elastomeric material bonded to the second backing plate, wherein the second backing plate defines a second aperture configured to receive a second protrusion radially extending from the hub . a hub ; a first traction element coupled to the hub and comprising a first backing plate ; and a second traction element coupled to the hub and comprising a second backing plate ; wherein the second traction element is discrete from the first traction element , characterised in that the first traction element comprises a first elastomeric material bonded to the first backing plate, wherein the first backing plate defines a first aperture configured to receive a first protrusion radially extending from the hub ; and the second traction element comprises a second elastomeric material bonded to the second backing plate, wherein the second backing plate defines a second aperture configured to receive a second protrusion radially extending from the hub .
An image forming apparatus comprising: a body provided at one side thereof with an opening ; a transfer device movably installed at the body so as to be detachable through the opening ; and at least one locking lever rotatably installed at the transfer device , wherein the at least one locking lever is operable to rotate between a first position at which one end of the at least one locking lever protrudes from the transfer device and a second position at which the one end is accommodated within the transfer device , and the body comprises a locking protrusion that is operable to be locked with an other end of the at least one locking lever in a state that the at least one locking lever is at the first position. a body provided at one side thereof with an opening ; a transfer device movably installed at the body so as to be detachable through the opening ; and at least one locking lever rotatably installed at the transfer device , wherein the at least one locking lever is operable to rotate between a first position at which one end of the at least one locking lever protrudes from the transfer device and a second position at which the one end is accommodated within the transfer device , and the body comprises a locking protrusion that is operable to be locked with an other end of the at least one locking lever in a state that the at least one locking lever is at the first position.