mhurhangee/ep-ind-claims huggingface dataset:
An initial security provisioning method, applicable to a security module, the method comprising: when Generic Bootstrapping Architecture, GBA, authentication between a terminal device and a network element is completed, receiving a certificate application request from the terminal device, the certificate application request carrying identification information of the terminal device; comprising: performing encryption and/or integrity protection on a certificate application request message based on one or more session keys negotiated by the GBA authentication between the terminal and the network element; returning the certificate application request message protected by encryption and/or integrity protection to the terminal device; wherein the security module is used to implement a function of a Universal Subscriber Identity Module, USIM, of the terminal device. when Generic Bootstrapping Architecture, GBA, authentication between a terminal device and a network element is completed, receiving a certificate application request from the terminal device, the certificate application request carrying identification information of the terminal device; comprising: performing encryption and/or integrity protection on a certificate application request message based on one or more session keys negotiated by the GBA authentication between the terminal and the network element; returning the certificate application request message protected by encryption and/or integrity protection to the terminal device; wherein the security module is used to implement a function of a Universal Subscriber Identity Module, USIM, of the terminal device. performing encryption and/or integrity protection on a certificate application request message based on one or more session keys negotiated by the GBA authentication between the terminal and the network element; returning the certificate application request message protected by encryption and/or integrity protection to the terminal device; wherein the security module is used to implement a function of a Universal Subscriber Identity Module, USIM, of the terminal device.
A tail section (201, 251 301, 901, 931, 961) for an aerospace vehicle, the tail section comprising: a rudder (203, 253, 303, 903, 933, 963) which is movable about an axis to generate a yawing moment on the aerospace vehicle, and a thruster (207, 257, 307, 407, 507, 607, 707, 807, 907, 967) having, in flow series, an air intake (409, 509, 809, 917), an electrically powered device (410, 510, 610, 710) for accelerating the air received through the intake, and an air outlet (412, 512, 812, 917) which directs the accelerated air to increase the yawing moment generated by the rudder; wherein the tail section has a fin which comprises the rudder, and the thruster is mounted to a stationary section of the fin such that the accelerated air impinges on the rudder, or the thruster (207, 307, 407, 507, 607, 707, 807) is movable about the axis with the rudder; and, wherein the air intake has a movable cover which, when closed, presents an aerodynamic surface preventing air from entering the thruster, and which, when open, allows air to enter the thruster. a rudder (203, 253, 303, 903, 933, 963) which is movable about an axis to generate a yawing moment on the aerospace vehicle, and a thruster (207, 257, 307, 407, 507, 607, 707, 807, 907, 967) having, in flow series, an air intake (409, 509, 809, 917), an electrically powered device (410, 510, 610, 710) for accelerating the air received through the intake, and an air outlet (412, 512, 812, 917) which directs the accelerated air to increase the yawing moment generated by the rudder; wherein the tail section has a fin which comprises the rudder, and the thruster is mounted to a stationary section of the fin such that the accelerated air impinges on the rudder, or the thruster (207, 307, 407, 507, 607, 707, 807) is movable about the axis with the rudder; and, wherein the air intake has a movable cover which, when closed, presents an aerodynamic surface preventing air from entering the thruster, and which, when open, allows air to enter the thruster.
A system for manufacturing a plurality of orthodontic appliances in parallel, comprising: a build platform; a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixable to the build platform; and a positioning element configured for precisely fixating each plate to the build platform. a build platform; a plurality of plates each configured for teeth model printing or orthodontic appliance printing, respectively, whereby each plate comprises a unique machine-readable identifier and each plate is detachable and precisely fixable to the build platform; and a positioning element configured for precisely fixating each plate to the build platform.
A process for preparing a solid free-flowing particulate laundry detergent composition, wherein the process comprises the steps of: (a) forming a mixture by contacting: (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, to obtain a mixture, wherein the mixture comprises: (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, wherein the molar ratio of fatty acid to liquid alkaline ingredient contacted together in step (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, wherein in step (b) the mixture is contacted to the detergent powder by spraying the mixture at a temperature of greater than 50°C onto the detergent powder, wherein the detergent powder comprises a detergent ingredient, wherein the solid free-flowing particulate laundry detergent composition comprises: (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient. (a) forming a mixture by contacting: (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, to obtain a mixture, wherein the mixture comprises: (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, wherein the molar ratio of fatty acid to liquid alkaline ingredient contacted together in step (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, wherein in step (b) the mixture is contacted to the detergent powder by spraying the mixture at a temperature of greater than 50°C onto the detergent powder, wherein the detergent powder comprises a detergent ingredient, wherein the solid free-flowing particulate laundry detergent composition comprises: (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient. (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient.
A method for manufacturing an organic light emitting display device, the method comprising: forming a buffer layer in a capacitor region and a transistor region of a substrate including the capacitor region and the transistor region; forming a patterned semiconductor layer on the buffer layer of the capacitor region; sequentially forming a gate insulation film, a transparent electrode and a gate electrode on the semiconductor layer at least in the capacitor region; forming a first etching stopper film on the gate electrode in the capacitor region; selectively etching only the gate electrode formed in a region other than the first etching stopper film; and removing the first etching stopper film and selectively etching the transparent electrode using the patterned gate electrode as an etch mask so that the patterned transparent electrode is inwardly recessed relative to the patterned gate electrode and has a cross sectional width smaller than that of the semiconductor layer, wherein the patterned transparent electrode forms a capacitor together with the semiconductor layer. forming a buffer layer in a capacitor region and a transistor region of a substrate including the capacitor region and the transistor region; forming a patterned semiconductor layer on the buffer layer of the capacitor region; sequentially forming a gate insulation film, a transparent electrode and a gate electrode on the semiconductor layer at least in the capacitor region; forming a first etching stopper film on the gate electrode in the capacitor region; selectively etching only the gate electrode formed in a region other than the first etching stopper film; and removing the first etching stopper film and selectively etching the transparent electrode using the patterned gate electrode as an etch mask so that the patterned transparent electrode is inwardly recessed relative to the patterned gate electrode and has a cross sectional width smaller than that of the semiconductor layer, wherein the patterned transparent electrode forms a capacitor together with the semiconductor layer.
Apparatus for generating a fluid pressure pulse downhole, the apparatus comprising: an elongate, generally tubular housing defining an internal fluid flow passage and having a housing wall; and a device for selectively generating a fluid pressure pulse, the device comprising a cartridge which can be releasably mounted entirely within a space provided in the wall of the tubular housing; wherein: • the internal fluid flow passage defined by the tubular housing is a primary fluid flow passage and the apparatus comprises a secondary fluid flow passage having an inlet which communicates with the primary fluid flow passage; • and wherein the cartridge houses a valve comprising a valve element and a valve seat, the valve being actuable to control fluid flow through the secondary fluid flow passage to selectively generate a fluid pressure pulse; whereby, in use, the generation of fluid pressure pulses is achieved without restricting a bore of the primary fluid flow passage. an elongate, generally tubular housing defining an internal fluid flow passage and having a housing wall; and a device for selectively generating a fluid pressure pulse, the device comprising a cartridge which can be releasably mounted entirely within a space provided in the wall of the tubular housing; wherein: • the internal fluid flow passage defined by the tubular housing is a primary fluid flow passage and the apparatus comprises a secondary fluid flow passage having an inlet which communicates with the primary fluid flow passage; • and wherein the cartridge houses a valve comprising a valve element and a valve seat, the valve being actuable to control fluid flow through the secondary fluid flow passage to selectively generate a fluid pressure pulse; • the internal fluid flow passage defined by the tubular housing is a primary fluid flow passage and the apparatus comprises a secondary fluid flow passage having an inlet which communicates with the primary fluid flow passage; • and wherein the cartridge houses a valve comprising a valve element and a valve seat, the valve being actuable to control fluid flow through the secondary fluid flow passage to selectively generate a fluid pressure pulse; whereby, in use, the generation of fluid pressure pulses is achieved without restricting a bore of the primary fluid flow passage.
A composition comprising: and one or more compounds selected from: and wherein the dual lines indicate that each of compounds A, B, C, and D is either fully saturated or fully unsaturated.
An audio decoder for decoding an audio signal that has been encoded with separate gain and shape representations, said audio decoder comprising: means for decoding an encoded gain representation (E(b)); means for deriving a bit allocation for a shape representation; means for decoding an encoded shape representation ( N̂ ( b)), wherein the shape has been encoded using a pulse vector coding scheme where pulses may be added on top of each other to form pulses of different height; means for estimating an accuracy measure (A(b)) of the shape representation ( N̂ ( b)) for a frequency band (b), the frequency band (b) comprising plurality of coefficients, wherein the accuracy measure (A(b)) is based on a number of pulses (R(b)) and a height of a maximum pulse (p max (b)), and for determining a gain correction (g c (b)), wherein the gain correction (g c (b)) is determined based on the estimated accuracy measure (A(b)); means for adjusting the gain representation (E(b)) based on the determined gain correction. means for decoding an encoded gain representation (E(b)); means for deriving a bit allocation for a shape representation; means for decoding an encoded shape representation ( N̂ ( b)), wherein the shape has been encoded using a pulse vector coding scheme where pulses may be added on top of each other to form pulses of different height; means for estimating an accuracy measure (A(b)) of the shape representation ( N̂ ( b)) for a frequency band (b), the frequency band (b) comprising plurality of coefficients, wherein the accuracy measure (A(b)) is based on a number of pulses (R(b)) and a height of a maximum pulse (p max (b)), and for determining a gain correction (g c (b)), wherein the gain correction (g c (b)) is determined based on the estimated accuracy measure (A(b)); means for adjusting the gain representation (E(b)) based on the determined gain correction.
A method of delaying variable rate checkpointing in a virtual machine of a fault tolerant computing system arranged to initiate checkpoint cycles in response to outbound network transmission of frames of data, comprising the steps of: determining if a frame for outbound network transmission is a deferrable frame, wherein a deferrable frame means that a computer system receiving the frame is not typically waiting for the specific frame in order to continue processing or otherwise operating; and if the frame is a deferrable frame, delaying a checkpoint associated with the frame. determining if a frame for outbound network transmission is a deferrable frame, wherein a deferrable frame means that a computer system receiving the frame is not typically waiting for the specific frame in order to continue processing or otherwise operating; and if the frame is a deferrable frame, delaying a checkpoint associated with the frame.
A method implemented in a wireless device, WD,, the method comprising: receiving a signal indicating activation or deactivation of semi-persistent channel state information, CSI, reporting; responsive to receiving the signal, attempting to transmit a Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, the attempt being subject to success or failure of a clear channel assessment, CCA; and when the CCA fails and: when the signal indicates activation, refraining from CSI measurement and reporting unless CCA subsequently succeeds before expiry of a time interval; and when the signal indicates deactivation, continuing CSI measurement but refraining from CSI reporting unless CCA subsequently succeeds before expiry of a time interval. receiving a signal indicating activation or deactivation of semi-persistent channel state information, CSI, reporting; responsive to receiving the signal, attempting to transmit a Hybrid Automatic Repeat Request Acknowledgement, HARQ-ACK, the attempt being subject to success or failure of a clear channel assessment, CCA; and when the CCA fails and: when the signal indicates activation, refraining from CSI measurement and reporting unless CCA subsequently succeeds before expiry of a time interval; and when the signal indicates deactivation, continuing CSI measurement but refraining from CSI reporting unless CCA subsequently succeeds before expiry of a time interval. when the signal indicates activation, refraining from CSI measurement and reporting unless CCA subsequently succeeds before expiry of a time interval; and when the signal indicates deactivation, continuing CSI measurement but refraining from CSI reporting unless CCA subsequently succeeds before expiry of a time interval.
Process for producing a chromium catalysed ethylene copolymer powder by polymerising the corresponding monomers in the presence of an activated supported chromium oxide based catalyst, wherein the chromium catalysed ethylene copolymer powder is characterised by a particle fragmentation coefficient ("m") equal or superior to 0.29, preferably 0.30, more preferably 0.31 wherein the particle fragmentation coefficient ("m") of the copolymer powder is defined by m = Ln APS particle / APS catalyst / Ln Productivity wherein "Ln" is the "natural logarithm", "APS particle" is the median particle size of the polymer powder, "APS catalyst" is the median particle size of the catalyst, said D50's being measured according to ISO 13320:2009, and "Productivity" is the number of grams of polymer per gram of catalyst, and wherein the process for the activation of said supported chromium oxide based catalyst is performed in a fluidised bed activation reactor which comprises a catalyst bed being fluidised by a fluidisation gas, said activation including treatment at temperatures above 500°C, characterised in that the fluidisation velocity of the fluidisation gas is initially maintained below 6.5 centimetres per second (cm/sec), preferably below 6 cm/sec, more preferably below 5.5 cm/sec, even more preferably below 5 cm/sec until the temperature inside the activation reactor reaches at least 200°C, and said fluidisation gas is then brought to a value which is at least 1 cm/sec higher than Vf1, preferably at least 1.5 cm/sec higher than Vf1. "Ln" is the "natural logarithm", "APS particle" is the median particle size of the polymer powder, "APS catalyst" is the median particle size of the catalyst, said D50's being measured according to ISO 13320:2009, and "Productivity" is the number of grams of polymer per gram of catalyst, and wherein the process for the activation of said supported chromium oxide based catalyst is performed in a fluidised bed activation reactor which comprises a catalyst bed being fluidised by a fluidisation gas, said activation including treatment at temperatures above 500°C, characterised in that the fluidisation velocity of the fluidisation gas is initially maintained below 6.5 centimetres per second (cm/sec), preferably below 6 cm/sec, more preferably below 5.5 cm/sec, even more preferably below 5 cm/sec until the temperature inside the activation reactor reaches at least 200°C, and said fluidisation gas is then brought to a value which is at least 1 cm/sec higher than Vf1, preferably at least 1.5 cm/sec higher than Vf1.
Oxycombustion process wherein low ranking gaseous, liquid, solid, also solid melting hydrocarbon fractions are used as fuels, having a vanadium content in amounts by weight from 50 to 5,000 ppm or higher, and alkaline metals Ma in amounts from 20 to 10,000 ppm, wherein magnesium is added as oxide, or as a magnesium compound forming MgO in the combustion process, or mixtures thereof, and a silico-aluminate is added wherein the molar ratio SiO 2:Al 2 O 3 ranges from 2:1 to 6:1; the combustor being refractored, isotherm or quasi-isotherm, flameless, operating at temperatures in the range 1,250°-1,450°C and under pressurized conditions, wherein the oxidant is oxygen having a titre >80% by volume, the complement to 100% being formed of inert gases and/or nitrogen, the oxidant being used in admixture with water or steam, the ratio by moles oxidant: (water/steam) being comprised between 1:0.4 and 1:3, or the oxidant is used in admixture with recycled flue gases, coming from the flue gases outletting the energy recovery equipments, wherein the water/steam amount is higher than 30% by volume, optionally by adding water to the recycled flue gases, the molar ratio oxidant: (water/steam) in flue gases being as above; the hydrocarbon fraction being fed in admixture with water or steam, the amount of water/steam being at least 30% by weight with respect to the hydrocarbon fraction.
Wind farm, having a central wind farm control unit configured to receive data related to a network voltage, a network frequency and/or other network parameter of a supply network, a plurality of wind energy installations, wherein the central wind farm control unit is coupled to the plurality of wind energy installations via a data bus (210, 220) and controls the plurality of wind energy installation in a normal operating mode according to the received data, wherein each of the plurality of wind energy installations has a control unit which is configured to control the operation of the wind energy installation independently of the central wind farm control unit in a fault operating mode if a fault occurs in the central wind farm control unit and/or a fault occurs on the data bus (210, 220), wherein the control units are configured in the fault operating mode to successively switch off the respective wind energy installations of the plurality of wind energy installations if a fault occurs in the central wind farm control unit and/or a fault occurs on the data bus (210, 220).
A recording device comprising: a recording head including multiple nozzles arranged therein to discharge droplets onto a recording medium; and a recording controller configured to control recording of a recording image, the recording including moving the recording head relative to the recording medium while the droplets are discharged, characterised in that the recording controller is configured to control the recording under conditions that, for pixel data of the recording image that have a prescribed gray scale value or larger, a nozzle duty corresponding to the number of nozzles, included in the multiple nozzles and being able to discharge the droplets per unit area on the recording medium, is smaller than or equal to an upper limit value and that a discharge amount of the droplets discharged per the unit area is variable, the discharge amount being the sum of products of the discharged amount per dot for each dot size and the number of dots generated. a recording head including multiple nozzles arranged therein to discharge droplets onto a recording medium; and a recording controller configured to control recording of a recording image, the recording including moving the recording head relative to the recording medium while the droplets are discharged, characterised in that the recording controller is configured to control the recording under conditions that, for pixel data of the recording image that have a prescribed gray scale value or larger, a nozzle duty corresponding to the number of nozzles, included in the multiple nozzles and being able to discharge the droplets per unit area on the recording medium, is smaller than or equal to an upper limit value and that a discharge amount of the droplets discharged per the unit area is variable, the discharge amount being the sum of products of the discharged amount per dot for each dot size and the number of dots generated.