mhurhangee/ep-ind-claims huggingface dataset:
A sealing arrangement for a shaft, comprising: a shaft; a retaining ring, and a sealing assembly, the sealing assembly including: a seal cartridge having at least one sealing element, first and second mating rings (306, 308) configured to axially locate the seal cartridge with respect to the shaft, wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft, and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread. a shaft; a retaining ring, and a sealing assembly, the sealing assembly including: a seal cartridge having at least one sealing element, first and second mating rings (306, 308) configured to axially locate the seal cartridge with respect to the shaft, wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft, and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread. a seal cartridge having at least one sealing element, first and second mating rings (306, 308) configured to axially locate the seal cartridge with respect to the shaft, wherein the second mating ring includes at least one tang configured to extend through at least one corresponding slot in the shaft, and characterized by the at least one tang being configured to engage said retaining ring to axially retain the second mating ring on the shaft without a screw thread.
A method for reporting power headroom in a user equipment, UE, of a multi-carrier system, the method comprising: transmitting, from the user equipment to a base station, a first physical uplink shared channel, PUSCH, in a predetermined subframe for a first component carrier, CC; transmitting, from the user equipment to the base station, a second PUSCH without a physical uplink control channel, PUCCH, in the predetermined subframe for a second CC even though the UE is configured to transmit the second PUSCH and the PUCCH simultaneously for the second CC; calculating a first power headroom value for the predetermined subframe of the first CC and a second power headroom value for the predetermined subframe of the second CC; and reporting the first and the second power headroom values to the base station, wherein the first power headroom value is calculated by considering a transmission power of the first PUSCH, and wherein the second power headroom value is calculated by using: PH SUM i = P CMAXc − 10 log 10 10 P PUSCHc _ scheduled i / 10 + 10 P O _ PUCCH j + PL + g i / 10 where P CMAXc represents the maximum transmission power of the UE, P PUSCH_scheduled (i) represents a transmission power of the second PUSCH, P O_PUCCH(j) is open-loop parameter of the PUCCH, PL is a path loss compensation value, and g(i) is a closed-loop parameter value dynamically accumulated to reach the predetermined subframe, 'i' is an index of the predetermined subframe, and 'c' is an index of the second CC. transmitting, from the user equipment to a base station, a first physical uplink shared channel, PUSCH, in a predetermined subframe for a first component carrier, CC; transmitting, from the user equipment to the base station, a second PUSCH without a physical uplink control channel, PUCCH, in the predetermined subframe for a second CC even though the UE is configured to transmit the second PUSCH and the PUCCH simultaneously for the second CC; calculating a first power headroom value for the predetermined subframe of the first CC and a second power headroom value for the predetermined subframe of the second CC; and reporting the first and the second power headroom values to the base station, wherein the first power headroom value is calculated by considering a transmission power of the first PUSCH, and wherein the second power headroom value is calculated by using: PH SUM i = P CMAXc − 10 log 10 10 P PUSCHc _ scheduled i / 10 + 10 P O _ PUCCH j + PL + g i / 10 where P CMAXc represents the maximum transmission power of the UE, P PUSCH_scheduled (i) represents a transmission power of the second PUSCH, P O_PUCCH(j) is open-loop parameter of the PUCCH, PL is a path loss compensation value, and g(i) is a closed-loop parameter value dynamically accumulated to reach the predetermined subframe, 'i' is an index of the predetermined subframe, and 'c' is an index of the second CC.
Light guide for a lighting and/or signaling device of an automobile vehicle, comprising: - at least one entry face, - at least one coupler (46, 47), - at least one main reflection face - an exit face, the guide being arranged in such a manner that, when a light source is disposed at a predetermined point with respect to the guide, the entry face transmits the light from the source to the coupler (46, 47) and the coupler (46, 47) transmits a part of this light to the main reflection face which directs it, in the form of a beam of parallel rays, directly or indirectly, toward the exit face in a direction forming an angle of 5° at the most with respect to an optical axis of the guide, said guide taking the form of a sheet, the exit face being on at least one of the edge faces of said sheet, each coupler (46,47) being associated with a main reflection face, the guide comprises at least two couplers (46,47) and two main reflection faces, the main reflection faces are connected together by at least one link face with a rectilinear cross-section, preferably parallel to the optical axis or forming an angle less than 5° with the optical axis, characterized in that the light guide is formed as a single piece by molding of a plastic material. - at least one entry face, - at least one coupler (46, 47), - at least one main reflection face - an exit face, the guide being arranged in such a manner that, when a light source is disposed at a predetermined point with respect to the guide, the entry face transmits the light from the source to the coupler (46, 47) and the coupler (46, 47) transmits a part of this light to the main reflection face which directs it, in the form of a beam of parallel rays, directly or indirectly, toward the exit face in a direction forming an angle of 5° at the most with respect to an optical axis of the guide, said guide taking the form of a sheet, the exit face being on at least one of the edge faces of said sheet, each coupler (46,47) being associated with a main reflection face, the guide comprises at least two couplers (46,47) and two main reflection faces, the main reflection faces are connected together by at least one link face with a rectilinear cross-section, preferably parallel to the optical axis or forming an angle less than 5° with the optical axis, characterized in that the light guide is formed as a single piece by molding of a plastic material.
A method for inspecting and measuring the mouthpieces of aerosol containers, and particularly for inspecting and measuring the join between the hole in the dome of an aerosol container and the corresponding valve holder cup and particularly of the dimensions of the continuous or discontinuous seam produced by the plastic deformation of said join, carrying out this method continuously along a packaging line for aerosol containers, characterized by comprising the following stages: • Stopping the relative speed between the aerosol container whose join between the hole in the dome and its corresponding valve holder cup has to be inspected in respect of a measuring head so that when the container reaches the measuring zone, the head has to move at the same speed as the container, or the container and the head have to be immobile when the measurement is taken. • Arrangement of the measuring head axially opposite the dome of the aerosol container in its transit along the inspection line; • Lowering the head until this comes into contact with the upper edge of the join between the hole in the dome and the valve holder cup; • Axial centring of the head over the aerosol container; • After setting the relative position between the head and the aerosol container, the approach of a measuring device, from a rest position, up to a predetermined height, coinciding with the plastic deformation zone which forms the joining seam; • Taking the measurement by means of sensors of different points of the perimeter at the predetermined height where the joining seam is located; • Retraction of the measuring device back to the rest position with withdrawal of the head until a new container is received; Transmission of the data, for good or bad parts, to a control unit, for removing any containers considered not up to standard from the production line. • Stopping the relative speed between the aerosol container whose join between the hole in the dome and its corresponding valve holder cup has to be inspected in respect of a measuring head so that when the container reaches the measuring zone, the head has to move at the same speed as the container, or the container and the head have to be immobile when the measurement is taken. • Arrangement of the measuring head axially opposite the dome of the aerosol container in its transit along the inspection line; • Lowering the head until this comes into contact with the upper edge of the join between the hole in the dome and the valve holder cup; • Axial centring of the head over the aerosol container; • After setting the relative position between the head and the aerosol container, the approach of a measuring device, from a rest position, up to a predetermined height, coinciding with the plastic deformation zone which forms the joining seam; • Taking the measurement by means of sensors of different points of the perimeter at the predetermined height where the joining seam is located; • Retraction of the measuring device back to the rest position with withdrawal of the head until a new container is received;
A plate-type heat exchanger comprising a plurality of stacked plates and a frame, and including a device for evaluating the extent to which the fluid circuit(s) have become coated in scale, characterised in that the evaluation device comprises an electrical resistor which is thermally connected to plate located at the end of the stack and means of measuring the temperature in the immediate vicinity of said resistor, said electrical resistor (21, 31) being placed between plate located at the end of the stack and the frame of the heat exchanger.
An additive composition comprising: a long chain primary amine, wherein the long chain primary amine is a C 8 -C 24 primary amine; an ethoxylated tertiary cycloalkylamine; and an amino acid; wherein the concentrations of the long chain primary amine, the tertiary cycloalkylamine, and the amino acid in the additive composition are selected so that each of the long chain primary amine, the ethoxylated tertiary cycloalkylamine, and the amino acid is present in an amount of 1 to 5 wt% in a processing fluid, including the additive composition, water and a base oil; wherein the additive composition is boron-free by containing less than 0.5 wt% boron and free of a secondary amine by containing less than 0.5 wt% secondary amine. a long chain primary amine, wherein the long chain primary amine is a C 8 -C 24 primary amine; an ethoxylated tertiary cycloalkylamine; and an amino acid;
A plastic lens, comprising: a plastic base material; and an antireflection film having an electrically conductive layer that is formed in contact with a surface of the plastic base material and that has colorless transparency, and an antireflection film main body that is composed of metal oxide, formed on the electrically conductive layer, wherein the antireflection film main body is formed in contact with the electrically conductive layer. a plastic base material; and an antireflection film having an electrically conductive layer that is formed in contact with a surface of the plastic base material and that has colorless transparency, and an antireflection film main body that is composed of metal oxide, formed on the electrically conductive layer, wherein the antireflection film main body is formed in contact with the electrically conductive layer.
Electrode for a secondary battery cell having an, in particular foil-like, electrode main body, - wherein the electrode main body comprises a collector portion as a current collector and a contact portion for making electrical contact with a cell tab, and - wherein the collector portion and the contact portion have different electrical conductivities and/or different thermal conductivities, characterized in that - the electrode main body is formed from a metal foil, wherein the collector portion and the contact portion of the electrode main body have different thicknesses (d Kol, d Kon), or - the collector portion is formed of a first material and the contact portion is formed of a second material different to the first material. - wherein the electrode main body comprises a collector portion as a current collector and a contact portion for making electrical contact with a cell tab, and - wherein the collector portion and the contact portion have different electrical conductivities and/or different thermal conductivities, characterized in that - the electrode main body is formed from a metal foil, wherein the collector portion and the contact portion of the electrode main body have different thicknesses (d Kol, d Kon), or - the collector portion is formed of a first material and the contact portion is formed of a second material different to the first material.
A composition comprising a polyolefin polymer; a carbon black; and an expanded graphite at 0.1-35 percent of the total weight of the composition, the expanded graphite having a BET surface area of at least 250 m 2 /g to 1500 m 2 /g.
A heat transfer element temperature variation system comprising: - a heat transfer element configured to thermally couple to an insulating fluid included in a housing of an electrical device, thereby being capable of heating and cooling said fluid; - an ambient temperature sensor configured to continuously obtain an indicator of a temperature of an environment external to the housing and the fluid; and - a control system coupled to the heat transfer element and the ambient temperature sensor, the control system being configured to instruct the heat transfer element to adjust a temperature of the insulating fluid by modifying a power supplied to the heat transfer element, the power supplied responding incrementally to variations of the continuously obtained temperature indicator from the ambient temperature sensor. - a heat transfer element configured to thermally couple to an insulating fluid included in a housing of an electrical device, thereby being capable of heating and cooling said fluid; - an ambient temperature sensor configured to continuously obtain an indicator of a temperature of an environment external to the housing and the fluid; and - a control system coupled to the heat transfer element and the ambient temperature sensor,
A sweetening composition, characterized in that it has: - from 80% to 95% by dry weight of crystalline pulverulent sorbitol, - an enthalpy at most equal to 150 J/g, - a volume mean diameter of between 200 and 350 μm, - a specific surface area, determined according to the BET method, which is less than 0.6 m 2 /g, preferably between 0.15 and 0.4 m 2 /g, and even more preferentially between 0.20 and 0.35 m 2 /g. - from 80% to 95% by dry weight of crystalline pulverulent sorbitol, - an enthalpy at most equal to 150 J/g, - a volume mean diameter of between 200 and 350 μm, - a specific surface area, determined according to the BET method, which is less than 0.6 m 2 /g, preferably between 0.15 and 0.4 m 2 /g, and even more preferentially between 0.20 and 0.35 m 2 /g.
A method of generating an acoustic wave representing reverberations from a desired virtual acoustic environment, said method including the steps of having a recording surface defined by a spatial distribution of recording transducers (x) and an emitting surface defined by a spatial distribution of emitting transducers (○), wherein the emitting surface defines a volume within which the recording surface is located, recording an acoustic wave, extrapolating the recorded wave to the emitting surface using a wavefield propagator representing the desired virtual acoustic environment and emitting the extrapolated wave from the emitting transducers (○); the method being characterized in that: the recorded acoustic wave is originating from within a volume defined by the recording surface and it is recorded using the recording transducers (x).
A resin for enhancing the wet strength of paper, the resin having a ratio of azetidinium ions to amide residues of 0.7 to 1, wherein the resin is obtainable by a process comprising: a) reacting a polyamine with a symmetric cross-linker to produce a partially cross-linked polyamine, wherein the symmetric cross-linker is selected from a polyethylene glycol diacrylate, a bis(acrylamide) compound, a di-epoxide compound, a polyazetidinium compound, N,N'-methylene-bis-methacrylamide, poly(ethylene glycol) diglycidyl ether, poly(propylene glycol) diglycidyl ether, and any combination thereof; b) adding an epihalohydrin to the partially cross-linked polyamine to produce a halohydrin-functionalized polymer; and c) cyclizing the halohydrin-functionalized polymer to form the resin having azetidinium moieties. a) reacting a polyamine with a symmetric cross-linker to produce a partially cross-linked polyamine, wherein the symmetric cross-linker is selected from a polyethylene glycol diacrylate, a bis(acrylamide) compound, a di-epoxide compound, a polyazetidinium compound, N,N'-methylene-bis-methacrylamide, poly(ethylene glycol) diglycidyl ether, poly(propylene glycol) diglycidyl ether, and any combination thereof; b) adding an epihalohydrin to the partially cross-linked polyamine to produce a halohydrin-functionalized polymer; and c) cyclizing the halohydrin-functionalized polymer to form the resin having azetidinium moieties.
A copper alloy, comprising: from 1.2 wt% to 1.4 wt% nickel; from 0.3 wt% to 0.4 wt% silicon; from 0.3 wt% to 0.4 wt% chromium; from 0.08 wt% to 0.12 wt% manganese; from 0.02 wt% to 0.06 wt%zirconium; and balance copper and unavoidable impurities; wherein the alloy has a 0.2% offset yield strength of at least 551 MPa and a conductivity of at least 48% IACS. from 1.2 wt% to 1.4 wt% nickel; from 0.3 wt% to 0.4 wt% silicon; from 0.3 wt% to 0.4 wt% chromium; from 0.08 wt% to 0.12 wt% manganese; from 0.02 wt% to 0.06 wt%zirconium; and balance copper and unavoidable impurities; wherein the alloy has a 0.2% offset yield strength of at least 551 MPa and a conductivity of at least 48% IACS.
Hand-held power tool, comprising a tool rotatable about an axis of rotation by a drive unit, a protective cover at least partially surrounding the tool, an outlet opening for transporting out of the protective cover the material removed by the tool from a workpiece to be machined, and a suction adapter (13; 40) connected to the protective cover and having a connecting portion with a suction opening for the connection of a suction means, characterised in that the suction adapter (13; 40) has a guide means for guiding the material removed, the guide means having an outlet opening (26; 41) that is different from the suction opening, and that the suction adapter (13; 40) can be operated in a first mode or in a second mode, wherein, in the first mode, the suction means is connected to the connecting portion in such a manner that the suction flow generated by the suction means can draw the material removed through the suction opening and, in the second mode, the power tool is operated without the suction means in such a manner that the material is removed from the outlet opening (26; 41).
A loopback structure of a processor, comprising a register file unit, a data storing unit, and a data reading unit; wherein the register file unit is configured to provide a data reading-writing service for the data storing unit and the data reading unit; wherein in response to executing a single instruction: the data storing unit, which is connected to the register file unit, is configured to read data via a reading port of the register file unit, to perform a data transformation on the read data, and to feed the transformed data back to the data reading unit; and the data reading unit, which is connected to the register file unit and the data storing unit, is configured to transform the data fed back by the data storing unit, and to write the transformed data in the register file unit via a writing port of the register file unit. the data storing unit, which is connected to the register file unit, is configured to read data via a reading port of the register file unit, to perform a data transformation on the read data, and to feed the transformed data back to the data reading unit; and the data reading unit, which is connected to the register file unit and the data storing unit, is configured to transform the data fed back by the data storing unit, and to write the transformed data in the register file unit via a writing port of the register file unit.
A displacement detection device, comprising: a magnet which is displaced in one direction (Ds), is rod-shaped and whose longitudinal direction forms a predetermined angle (θ) with the one direction (Ds); and a sensor in which magnetic detection element groups, each of which comprises at least two magnetic detection elements, which detect a magnetic flux density of a magnetic field formed by the magnet in a direction orthogonal to the one direction (Ds), are arranged in pairs with a predetermined interval, and which outputs a difference between outputs of the magnetic detection element groups wherein the sensor comprises the at least two magnetic detection elements (11l 1, 11l 2, 11r 1, 11r 2) included in each of the magnetic detection element groups and have a sensitive direction in a first direction orthogonal to the one direction (Ds); and magnetic concentrators (12l, 12r) which convert a magnetic flux in a second direction orthogonal to the one direction (Ds) and the first direction into a magnetic flux in the first direction. a magnet which is displaced in one direction (Ds), is rod-shaped and whose longitudinal direction forms a predetermined angle (θ) with the one direction (Ds); and a sensor in which magnetic detection element groups, each of which comprises at least two magnetic detection elements, which detect a magnetic flux density of a magnetic field formed by the magnet in a direction orthogonal to the one direction (Ds), are arranged in pairs with a predetermined interval, and which outputs a difference between outputs of the magnetic detection element groups wherein the sensor comprises the at least two magnetic detection elements (11l 1, 11l 2, 11r 1, 11r 2) included in each of the magnetic detection element groups and have a sensitive direction in a first direction orthogonal to the one direction (Ds); and magnetic concentrators (12l, 12r) which convert a magnetic flux in a second direction orthogonal to the one direction (Ds) and the first direction into a magnetic flux in the first direction.