mhurhangee/ep-ind-claims huggingface dataset:
Supporting plate for a self-centering chuck meant to support and lock the rim of a wheel, comprising: - a main element, comprising a plurality of spokes, each having a groove wherein respective jaws of said chuck can slide; characterised in that the supporting plate further comprises: - a plurality of peripheral sectors, each fixed to said main element between two of said spokes. - a main element, comprising a plurality of spokes, each having a groove wherein respective jaws of said chuck can slide; characterised in that the supporting plate further comprises: - a plurality of peripheral sectors, each fixed to said main element between two of said spokes.
A method for secure handoff, comprising: an access terminal securely communicating with a first access point using a first transient session key, wherein the first transient session key is generated based on a first interim master key, and wherein the first interim master key is generated based on a top-level master key and a first sequence number associated with the first access point; the access terminal associating a second sequence number with a second access point; the access terminal initiating a secure handoff from the first access point to the second access point, wherein the second sequence number is forwarded to the first access point; the access terminal generating a second interim master key based on the first interim master key and the second sequence number; the access terminal generating a second transient session key based on the second interim master key; and the access terminal securely communicating with the second access point using the second transient session key. an access terminal securely communicating with a first access point using a first transient session key, wherein the first transient session key is generated based on a first interim master key, and wherein the first interim master key is generated based on a top-level master key and a first sequence number associated with the first access point; the access terminal associating a second sequence number with a second access point; the access terminal initiating a secure handoff from the first access point to the second access point, wherein the second sequence number is forwarded to the first access point; the access terminal generating a second interim master key based on the first interim master key and the second sequence number; the access terminal generating a second transient session key based on the second interim master key; and the access terminal securely communicating with the second access point using the second transient session key.
A method of operating a first communications device, comprising: selecting between a first mode of operation and a second mode of operation, said first mode of operation using a first set of parameters to operate an oscillator of said first communications device when communicating in a first frequency band, said second mode of operation using a second set of parameters to operate said oscillator of the first communications device when communicating in a second frequency band, said second set of parameters having a predetermined relationship to the first set of parameters and wherein the first set and second set of parameters relate to frequency and/or timing operations of the first communications device; making at least one device setting change in accordance with said predetermined relationship when a current mode of operation is different from a selected mode of operation; performing a calibration operation based on a signal received in the first frequency band from a second communications device to calibrate said oscillator of the first communications device to operate in accordance with the parameter in the first set of parameters, wherein the calibration is a first communications device frequency calibration and/or a first communications device timing calibration; and switching to the second mode of operation, wherein the switching includes changing one or more device operating parameters without undoing said calibration operation. selecting between a first mode of operation and a second mode of operation, said first mode of operation using a first set of parameters to operate an oscillator of said first communications device when communicating in a first frequency band, said second mode of operation using a second set of parameters to operate said oscillator of the first communications device when communicating in a second frequency band, said second set of parameters having a predetermined relationship to the first set of parameters and wherein the first set and second set of parameters relate to frequency and/or timing operations of the first communications device; making at least one device setting change in accordance with said predetermined relationship when a current mode of operation is different from a selected mode of operation; performing a calibration operation based on a signal received in the first frequency band from a second communications device to calibrate said oscillator of the first communications device to operate in accordance with the parameter in the first set of parameters, wherein the calibration is a first communications device frequency calibration and/or a first communications device timing calibration; and switching to the second mode of operation, wherein the switching includes changing one or more device operating parameters without undoing said calibration operation.
A method comprising: receiving audio data corresponding to a plurality of audio channels; determining audio characteristics of the audio data, the audio characteristics including spatial parameter data and at least one of tonality information or transient information; determining at least two channel-specific decorrelation filtering processes for the audio data based, at least in part, on the tonality information or the transient information, the channel-specific decorrelation filtering processes causing a specific inter-decorrelation signal coherence, "IDC", which is a measure of correlation between decorrelation signals, between channel-specific decorrelation signals for at least one pair of channels, each of the channel-specific decorrelation filtering processes comprising applying a decorrelation filter to at least a portion of a corresponding audio channel of the audio data to produce filtered audio data, the channel-specific decorrelation signals being produced by performing operations on the filtered audio data; applying the channel-specific decorrelation filtering processes to at least a portion of the audio data to produce the channel-specific decorrelation signals; determining mixing parameters based, at least in part, on the spatial parameter data; and mixing the channel-specific decorrelation signals with a direct portion of the audio data according to the mixing parameters, the direct portion corresponding to the portion to which the decorrelation filter is applied. receiving audio data corresponding to a plurality of audio channels; determining audio characteristics of the audio data, the audio characteristics including spatial parameter data and at least one of tonality information or transient information; determining at least two channel-specific decorrelation filtering processes for the audio data based, at least in part, on the tonality information or the transient information, the channel-specific decorrelation filtering processes causing a specific inter-decorrelation signal coherence, "IDC", which is a measure of correlation between decorrelation signals, between channel-specific decorrelation signals for at least one pair of channels, each of the channel-specific decorrelation filtering processes comprising applying a decorrelation filter to at least a portion of a corresponding audio channel of the audio data to produce filtered audio data, the channel-specific decorrelation signals being produced by performing operations on the filtered audio data; applying the channel-specific decorrelation filtering processes to at least a portion of the audio data to produce the channel-specific decorrelation signals; determining mixing parameters based, at least in part, on the spatial parameter data; and mixing the channel-specific decorrelation signals with a direct portion of the audio data according to the mixing parameters, the direct portion corresponding to the portion to which the decorrelation filter is applied.
A composition comprising a nucleic acid delivery vehicle, a nucleic acid encoding interleukin-7 (IL-7), and a nucleic acid encoding chemokine (C-C motif) ligand 19 for use in inhibiting a malignant tumor recurrence, wherein the nucleic acid delivery vehicle is an immune cell having a cell surface molecule that recognizes a malignant tumor cell antigen, and the malignant tumor recurrence is a malignant tumor recurrence ascribable to a malignant tumor cell having no malignant tumor antigen that is specifically recognized by the cell surface molecule.
A support channel assembly for supporting a bundle, the support channel assembly comprising: a support channel having a bottom, a long side, and a short side, wherein the long side and the short side each having a hook (126, 130) at a distal end; and at least one flange engaging the support channel, the at least one flange having a top, a bottom, a first side, and a second side, wherein the top defines a locking tie receiving area and the first side and the second side define a support channel engaging area, characterized in that the at least one flange has an opening in the first side dividing the first side into an upper side and a lower side, and the locking tie receiving area is a groove defined by the top, the upper side and the opening. a support channel having a bottom, a long side, and a short side, wherein the long side and the short side each having a hook (126, 130) at a distal end; and at least one flange engaging the support channel, the at least one flange having a top, a bottom, a first side, and a second side, wherein the top defines a locking tie receiving area and the first side and the second side define a support channel engaging area, characterized in that the at least one flange has an opening in the first side dividing the first side into an upper side and a lower side, and the locking tie receiving area is a groove defined by the top, the upper side and the opening.
A pharmaceutical composition comprising: (i) a drug component comprising at least one pharmaceutically acceptable salt of glycopyrrolate, and at least one corticosteroid selected from budesonide and beclomethasone dipropionate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (H FA-152a). (i) a drug component comprising at least one pharmaceutically acceptable salt of glycopyrrolate, and at least one corticosteroid selected from budesonide and beclomethasone dipropionate; and (ii) a propellant component at least 90 weight % of which is 1,1-difluoroethane (H FA-152a).
Method for producing a hyperactive MuA transposase variant comprising at least one single-amino-acid-change, the method comprising the steps of modifying the nucleic acid encoding wild type MuA transposase consisting of SEQ ID NO:1 or an enzymatically active deletion variant thereof so that the modified nucleic acid encodes a MuA transposase variant consisting of SEQ ID NO:1 or an enzymatically active deletion variant thereof with one or more single-amino-acid changes at the amino acid positions of SEQ ID NO:1 selected from the group consisting of: 59, 97, 160, 179, 233, 254, 258, 302, 335, 340, 345, 374, 447, 464, 478, 482, 483, 487, 495, 507, 539, 594 and 617, and identifying those MuA variants the transposase activity of which is higher than the transposase activity of the wild type MuA.
Aircraft having at least one heat transfer device (2, 11, 43, 12, 24, 30, 38, 50, 70, 90, 104, 116, 118, 124, 144, 150, 152, 160) for an outer skin of the aircraft, the at least one heat transfer device comprising: - at least one supply line for a coolant, - at least one discharge line for the coolant, - at least one bunch of coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120) through which coolant flows, and - at least one gap (60, 128, 154, 156) between the coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120) and a cover (20, 58) of a housing for receiving the coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120), which housing comprises webs (18, 56), the gap comprising at least one air inlet (64, 72, 94) and at least one air outlet (69, 78, 96) for the purpose of allowing air to flow through it wherein the coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120) for the purpose of emitting heat to the surroundings of the aircraft in the case of a heat transfer device (2, 11, 43, 12, 24, 30, 50, 70, 90, 104, 116, 118, 124, 144, 150, 152, 160) attached to the outer skin of the aircraft are at least in some regions positioned directly on the outer skin of the aircraft, characterized by two vertically distanced slits (134, 132) in the outer skin of the aircraft for creating a convection current of air flowing from the surrounding of the aircraft into at least one gap (128, 154, 156). - at least one supply line for a coolant, - at least one discharge line for the coolant, - at least one bunch of coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120) through which coolant flows, and - at least one gap (60, 128, 154, 156) between the coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120) and a cover (20, 58) of a housing for receiving the coolant ducts (10, 16, 26, 34, 47, 48, 52, 76, 88, 92, 106, 120), which housing comprises webs (18, 56), the gap comprising at least one air inlet (64, 72, 94) and at least one air outlet (69, 78, 96) for the purpose of allowing air to flow through it
Tissue product with at least four plies made of tissue paper base sheet or nonwoven, comprising: - a first outer ply and a second outer ply and at least two inner plies (17, 18) between the first outer ply and the second outer ply, wherein - only one of the inner plies is un-embossed; - at least one of the outer plies comprises a décor embossing pattern; and - at least two adjacent inner plies comprise the un-embossed inner ply and one micro-embossed inner ply; wherein the outer plies (2, 4) comprise a micro-embossing pattern, characterized in that, either the density of the micro-embossed protrusions of the micro-embossed inner ply is different to the density of embossed protrusions of the micro-embossing pattern of the outer ply which is adjacent to the micro-embossed inner ply or the micro-embossed protrusions of the micro-embossed inner ply and the embossed protrusions of the adjacent outer ply are not in register with one another. - a first outer ply and a second outer ply and at least two inner plies (17, 18) between the first outer ply and the second outer ply, wherein - only one of the inner plies is un-embossed; - at least one of the outer plies comprises a décor embossing pattern; and - at least two adjacent inner plies comprise the un-embossed inner ply and one micro-embossed inner ply; wherein the outer plies (2, 4) comprise a micro-embossing pattern, characterized in that, either the density of the micro-embossed protrusions of the micro-embossed inner ply is different to the density of embossed protrusions of the micro-embossing pattern of the outer ply which is adjacent to the micro-embossed inner ply or the micro-embossed protrusions of the micro-embossed inner ply and the embossed protrusions of the adjacent outer ply are not in register with one another.
A method of manufacturing pure niobium plate end-group components for a superconducting high frequency accelerator cavity used for the acceleration of charged particles, characterised by comprising the steps of: shear-blanking a pure niobium plate in a manner that differs from conventional fine blanking by restricting the material on a binding tool to generate a counter force and setting a clearance, i.e. a gap between outer and inner diameters of the respective shear-blanking punch and die, to be below 0.5% of the pure niobium plate thicknes, and thereby form a near net shape semi-finished product free from foreign objects on and below the material surface; and forging said semi-finished product at temperatures that differ from any of the conventional hot or warm or cold forging, by controlling the forging temperature to be between 50°C and 200°C, and thereby conducting a press forging free from the occurrence of blue brittleness/necking, with prominent metal-flow, sufficient formability, size accuracy in any portion of the product and sufficient margin for further press-forming. shear-blanking a pure niobium plate in a manner that differs from conventional fine blanking by restricting the material on a binding tool to generate a counter force and setting a clearance, i.e. a gap between outer and inner diameters of the respective shear-blanking punch and die, to be below 0.5% of the pure niobium plate thicknes, and thereby form a near net shape semi-finished product free from foreign objects on and below the material surface; and forging said semi-finished product at temperatures that differ from any of the conventional hot or warm or cold forging, by controlling the forging temperature to be between 50°C and 200°C, and thereby conducting a press forging free from the occurrence of blue brittleness/necking, with prominent metal-flow, sufficient formability, size accuracy in any portion of the product and sufficient margin for further press-forming.
A downhole apparatus for use in a system for producing oil from an oil reservoir having a well, the downhole apparatus comprising: a system casing; a combustor arranged within the system casing and configured to combust a fuel during operation to form combustion gases; a diluent generator having a first end fluidly coupled to receive combustion gases from the combustor, the diluent generator further having a second end fluidly coupled to the oil reservoir; and at least one nozzle coupled to the diluent generator and configured during operation to spray a diluent fluid into the combustion gases in the diluent generator, at least partially towards the combustor; characterized in that the downhole apparatus further comprises a diluent conduit fluidly arranged between the inner surface of the system casing and an outside surface of the combustor and the diluent generator, the diluent conduit extending along the length of the combustor and the diluent generator; and wherein the at least one nozzle is coupled at an angle to the outside surface of the diluent generator. a system casing; a combustor arranged within the system casing and configured to combust a fuel during operation to form combustion gases; a diluent generator having a first end fluidly coupled to receive combustion gases from the combustor, the diluent generator further having a second end fluidly coupled to the oil reservoir; and at least one nozzle coupled to the diluent generator and configured during operation to spray a diluent fluid into the combustion gases in the diluent generator, at least partially towards the combustor; the downhole apparatus further comprises a diluent conduit fluidly arranged between the inner surface of the system casing and an outside surface of the combustor and the diluent generator, the diluent conduit extending along the length of the combustor and the diluent generator; and wherein the at least one nozzle is coupled at an angle to the outside surface of the diluent generator.
A dielectric resonator comprising a dielectric resonant column (203, 303), a metal cavity (204, 304), a sealing cover plate (201, 301) and a tuning screw (202, 302), wherein the dielectric resonant column (203, 303) is located in the metal cavity (204, 304), the sealing cover plate (201, 301) is located on an upper end face of the metal cavity (204, 304), and the tuning screw (202, 302) is located on the sealing cover plate (201, 301), characterized in that the dielectric resonator further comprises an insulating fixed module (205, 305) located between the lower end face of the sealing cover plate (201, 301) and the upper end face of the dielectric resonant column (203, 303), the insulating fixed module (205, 305) being high enough to ensure that a pressure is formed between the sealing cover plate (201, 301) and the dielectric resonant column (203, 303), so that the lower end face of the dielectric resonant column (203, 303) is fixed at the bottom of the metal cavity (204, 304); wherein the lower end face of the dielectric resonant column (203, 303) is metalized.
An apparatus for user device side of wireless communications, comprising: an energy detecting unit, configured to, in response to an uplink schedule grant of uplink transmitting resources on an unlicensed frequency band with respect to the user device, perform energy detecting on the unlicensed frequency band, wherein, the uplink schedule grant includes information of priority level for the user device to make use of the uplink transmitting resources; a determining unit, configured to determine, according to the information of the priority level and a result of the energy detecting, whether the uplink schedule grant is valid, wherein, the determining unit is configured to determine whether the uplink schedule grant is valid according to information of priority level of at least one second user device in the case that the user device does not have the highest priority level and the energy detecting indicates the unlicensed frequency band being idle, wherein, the at least one second user device performs energy detecting in response to other uplink schedule grants for the same uplink transmitting resources and detect that the unlicensed frequency band is idle.; and a transceiving unit, configured to receive information of the uplink schedule grant from a base station side. an energy detecting unit, configured to, in response to an uplink schedule grant of uplink transmitting resources on an unlicensed frequency band with respect to the user device, perform energy detecting on the unlicensed frequency band, wherein, the uplink schedule grant includes information of priority level for the user device to make use of the uplink transmitting resources; a determining unit, configured to determine, according to the information of the priority level and a result of the energy detecting, whether the uplink schedule grant is valid, wherein, the determining unit is configured to determine whether the uplink schedule grant is valid according to information of priority level of at least one second user device in the case that the user device does not have the highest priority level and the energy detecting indicates the unlicensed frequency band being idle, wherein, the at least one second user device performs energy detecting in response to other uplink schedule grants for the same uplink transmitting resources and detect that the unlicensed frequency band is idle.; and a transceiving unit, configured to receive information of the uplink schedule grant from a base station side.
A chemical pre-concentrator for collecting and pre-concentrating at least one chemical analyte from a dilute gaseous sample, the chemical pre-concentrator comprising: a support structure (12, 32, 10) having a surface; an airflow conduit (18, 34) directed at the surface of the support structure (12, 32, 10); and a layer (16, 22) on the surface of the support structure (12, 32, 10), the layer (16, 22) comprising a reactive chemical compound; characterised in that the compound has a general formula of H 2 N-Z-L-Y wherein Z is O; L is a linking group; and Y is a di-substituted or tri substituted N or P moiety, wherein the reactive chemical compound is capable of forming a conjugate with the at least one chemical analyte to thereby retain the at least one chemical analyte with the chemical pre-concentrator. a support structure (12, 32, 10) having a surface; an airflow conduit (18, 34) directed at the surface of the support structure (12, 32, 10); and a layer (16, 22) on the surface of the support structure (12, 32, 10), the layer (16, 22) comprising a reactive chemical compound; characterised in that the compound has a general formula of H 2 N-Z-L-Y