mhurhangee/ep-ind-claims huggingface dataset:
A method of operation of a data processing device, the method comprising: storing a device-specific key; generating, in response to a request for attestation by a validating data processing device, a device-specific attestation message in dependence upon a hardware configuration of the data processing device and a software configuration of software running on the data processing device, the device-specific attestation message signed using the device-specific key; generating an application-specific attestation message in dependence upon an interaction protocol by which the data processing device and the validating data processing device interact; cryptographically binding the application-specific attestation message to the signed device-specific attestation message; wherein cryptographically binding the application-specific attestation message to the signed device-specific attestation message comprises at least one of: signing the application-specific attestation message and the signed device-specific attestation message together; and generating a hash of the application-specific attestation message and cryptographically signing the hash using the device-specific key. storing a device-specific key; generating, in response to a request for attestation by a validating data processing device, a device-specific attestation message in dependence upon a hardware configuration of the data processing device and a software configuration of software running on the data processing device, the device-specific attestation message signed using the device-specific key; generating an application-specific attestation message in dependence upon an interaction protocol by which the data processing device and the validating data processing device interact; cryptographically binding the application-specific attestation message to the signed device-specific attestation message; wherein cryptographically binding the application-specific attestation message to the signed device-specific attestation message comprises at least one of: signing the application-specific attestation message and the signed device-specific attestation message together; and generating a hash of the application-specific attestation message and cryptographically signing the hash using the device-specific key. signing the application-specific attestation message and the signed device-specific attestation message together; and generating a hash of the application-specific attestation message and cryptographically signing the hash using the device-specific key.
A process for producing ammonia from urea, which process comprises: (a) heating an aqueous solution of 20 to 72 weight percent urea to water, or a mixture of 20 to 72 weight percent with regard to water of urea, containing biuret or ammonium carbamate on site, in a hydrolysis reactor such that a gaseous ammonia-containing product is obtained which is essentially free of urea, biuret, or ammonium carbamate, the temperature and pressure being maintained by the input of heat to the reactor; (b) separating the gaseous ammonia-containing product from the liquid phase aqueous reaction media at the operating pressure; (c) retaining the liquid phase reaction medium in the reactor for further conversion to gaseous ammonia and carbon dioxide, and/or recycling at least a portion of the said reaction medium back into the reactor, a urea dissolver, or the feed solution to the reactor for further conversion; and (d) withdrawing the gaseous ammonia and carbon dioxide-containing product gas separated in step (b) at a controlled rate to meet demand requirements; characterised in that the temperature in the hydrolysis reactor is not controlled but is allowed to vary to match the demand requirement for ammonia and in which the pressure in the hydrolysis reactor is varied as function of the demand requirement for ammonia or reactor operating temperature by establishing a pressure set point, the pressure set point being changed in relation to the temperature or ammonia demand to maintain the desired amount of water in the hydrolysis reactor, the heat input being adjusted to have the pressure match the new set point which then causes the temperature to change. (a) heating an aqueous solution of 20 to 72 weight percent urea to water, or a mixture of 20 to 72 weight percent with regard to water of urea, containing biuret or ammonium carbamate on site, in a hydrolysis reactor such that a gaseous ammonia-containing product is obtained which is essentially free of urea, biuret, or ammonium carbamate, the temperature and pressure being maintained by the input of heat to the reactor; (b) separating the gaseous ammonia-containing product from the liquid phase aqueous reaction media at the operating pressure; (c) retaining the liquid phase reaction medium in the reactor for further conversion to gaseous ammonia and carbon dioxide, and/or recycling at least a portion of the said reaction medium back into the reactor, a urea dissolver, or the feed solution to the reactor for further conversion; and (d) withdrawing the gaseous ammonia and carbon dioxide-containing product gas separated in step (b) at a controlled rate to meet demand requirements;
A printer having a color print process and a monochrome print process, the printer comprising: determination means (S411, S413, S414) for determining based on image information whether a page is a color page or a monochrome page; first setting means (S501, S502) for setting the color print process for a page determined by the determination means to be a color page; and second setting means (S503-S512) for setting the color print process or the monochrome print process for a page determined by the determination means to be a monochrome page, characterized in that the second setting means sets a print process for a target page that succeeds, in a print sequence, a page for which the color print process is set and that is determined by the determination means to be a monochrome page, determined based on at least whether N (N≥2) pages succeeding the target page contain a page determined by said determination means to be a color page (S510, S511), and sets a print process for a target page that is an initial page in a print sequence and that is determined by said determination means to be a monochrome page, determined regardless of whether a last page of the N pages succeeding the target page is a color page or a monochrome page (S506, S507). determination means (S411, S413, S414) for determining based on image information whether a page is a color page or a monochrome page; first setting means (S501, S502) for setting the color print process for a page determined by the determination means to be a color page; and second setting means (S503-S512) for setting the color print process or the monochrome print process for a page determined by the determination means to be a monochrome page, characterized in that the second setting means sets a print process for a target page that succeeds, in a print sequence, a page for which the color print process is set and that is determined by the determination means to be a monochrome page, determined based on at least whether N (N≥2) pages succeeding the target page contain a page determined by said determination means to be a color page (S510, S511), and sets a print process for a target page that is an initial page in a print sequence and that is determined by said determination means to be a monochrome page, determined regardless of whether a last page of the N pages succeeding the target page is a color page or a monochrome page (S506, S507).
A method of matching a donor and a recipient for transplantation of a biological material from a pool of a plurality of donor-recipient pairs, the method comprising: identifying a plurality of 1-way combinations, each 1-way combination including a compatible match between a single donor from one donor-recipient pair with a single recipient from another donor-recipient pair; performing a plurality of clinical tests to optimize compatibility of the 1-way combinations; and one of: selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs; wherein the method includes performing two match runs including an exploratory match run and a final match run, utilizing the exploratory match run to identify those 1-way combinations that could be part of a solution that would actually lead to completed transplants, identification and vetting of those possible 1-way combinations in a short period of time, and using the 1-way combinations to generate an improved compatibility matrix of donors and recipients for identifying by the final match run a more robust optimised and mutually exclusive solution that is more likely to lead to completed transplants. identifying a plurality of 1-way combinations, each 1-way combination including a compatible match between a single donor from one donor-recipient pair with a single recipient from another donor-recipient pair; performing a plurality of clinical tests to optimize compatibility of the 1-way combinations; and one of: selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs; selecting at least one of the 1-way combinations for performing a transplantation of the biological material from the single donor to the single recipient; or selecting at least two of the 1-way combinations for performing a paired exchange between two of the donor-recipient pairs;
Process for preparing a fat-continuous emulsion, which emulsion comprises 15-83% of an aqueous phase and 17-85% of a fat phase, said fat phase comprising 10-100 weight % on total fat phase hardstock fat, and 0-90% weight % on total fat phase oil, which process comprises the steps of: a. providing a water-continuous dispersion at a temperature of between 0°C and 15°C comprising part of the aqueous phase as the continuous phase with dispersed therein part of the oil; b. providing part of hardstock fat in melted form and at a temperature of between 30°C and 60°C; c. providing a fat-continuous dispersion which comprises the remainder of the aqueous phase, the remainder of the oil, and the remainder of the hardstock, which dispersion comprises fat crystals in an amount of from 0.2 to 10% by weight, based on the total dispersion provided by this step c.; d. combining the water-continuous dispersion of step a. with the melted hardstock fat of step b. and the fat-continuous dispersion of step c, wherein the weight ratio of water-continuous dispersion + melted hardstock: fat-continuous dispersion is from 100: 1 to 5: 1; e. subjecting the mixture obtained after step d. to a high shear device to provide a fat-continuous emulsion; wherein the temperature of the mixture obtained from step d. is below the melting point of the hardstock fat, wherein the dispersion in step c. comprises a rework stream of the product produced by step e, and wherein the high shear device is a high shear mixing process in a high shear mixer having a rotor and a stator, which mixer has a residence time of less than 3 seconds, and sufficient shear to effect emulsification of water droplets in oil having a volume weighted mean droplet diameter D 3.3 of less than 15 micrometer. a. providing a water-continuous dispersion at a temperature of between 0°C and 15°C comprising part of the aqueous phase as the continuous phase with dispersed therein part of the oil; b. providing part of hardstock fat in melted form and at a temperature of between 30°C and 60°C; c. providing a fat-continuous dispersion which comprises the remainder of the aqueous phase, the remainder of the oil, and the remainder of the hardstock, which dispersion comprises fat crystals in an amount of from 0.2 to 10% by weight, based on the total dispersion provided by this step c.; d. combining the water-continuous dispersion of step a. with the melted hardstock fat of step b. and the fat-continuous dispersion of step c, wherein the weight ratio of water-continuous dispersion + melted hardstock: fat-continuous dispersion is from 100: 1 to 5: 1; e. subjecting the mixture obtained after step d. to a high shear device to provide a fat-continuous emulsion;
A pressure apparatus comprising: a first end cap; a second end cap; a hollow housing connected to said first and second end caps (2,5); a locking ring connected to said second end cap; a first termination connected to said first end cap; and a second termination connected to said second end cap; wherein said housing comprises a shoulder, said shoulder having an inner diameter smaller than an outer diameter of the second end cap, said outer diameter of the second end cap being the largest diameter of the second end cap and being disposed within the hollow housing against said shoulder when the locking ring is tightened on the end cap, characterised in that said shoulder defines one or more internal dowel holes; wherein said second end cap comprises one or more dowel pins axially insertable into the one or more dowel holes for connecting the second end cap to the hollow housing; and wherein one or more O-rings are positioned between the largest outer diameter of the second end cap and an inner surface of the hollow housing to create a seal between the second end cap and the hollow housing. a first end cap; a second end cap; a hollow housing connected to said first and second end caps (2,5); a locking ring connected to said second end cap; a first termination connected to said first end cap; and a second termination connected to said second end cap; wherein said housing comprises a shoulder, said shoulder having an inner diameter smaller than an outer diameter of the second end cap, said outer diameter of the second end cap being the largest diameter of the second end cap and being disposed within the hollow housing against said shoulder when the locking ring is tightened on the end cap, characterised in that said shoulder defines one or more internal dowel holes; wherein said second end cap comprises one or more dowel pins axially insertable into the one or more dowel holes for connecting the second end cap to the hollow housing; and wherein one or more O-rings are positioned between the largest outer diameter of the second end cap and an inner surface of the hollow housing to create a seal between the second end cap and the hollow housing.
A concentrator having a first surface on which a measuring device, configured to measure an amount of electric power consumption, can be arranged, the concentrator comprising: a housing comprising a first sidewall and a second sidewall which are opposed in a first direction orthogonal to a second direction of arrangement of the measuring device and the concentrator, the first sidewall and the second sidewall being connected to the first surface; a communication module provided in the housing for receiving amounts of electric power consumption from measuring devices including the measuring device; a wireless communication module provided in the housing; a control module configured to notify a data collection server of the received amounts of electric power consumption by using the wireless communication module; a first antenna connected to the wireless communication module; and a second antenna connected to the wireless communication module, wherein the second antenna and the first antenna are different types of antennas, wherein at least one of the first antenna and the second antenna is located so as not to overlap the measuring device in the first direction or the second direction. a housing comprising a first sidewall and a second sidewall which are opposed in a first direction orthogonal to a second direction of arrangement of the measuring device and the concentrator, the first sidewall and the second sidewall being connected to the first surface; a communication module provided in the housing for receiving amounts of electric power consumption from measuring devices including the measuring device; a wireless communication module provided in the housing; a control module configured to notify a data collection server of the received amounts of electric power consumption by using the wireless communication module; a first antenna connected to the wireless communication module; and a second antenna connected to the wireless communication module, wherein the second antenna and the first antenna are different types of antennas, wherein at least one of the first antenna and the second antenna is located so as not to overlap the measuring device in the first direction or the second direction.
A method carried out by a User Equipment, in the following also referred to as UE, the method comprising: receiving, via a Radio Resource Control, in the following also referred to as RRC, message, a resource configuration of a first configured grant to be used in RRC inactive state; performing a first new transmission using the first configured grant in RRC inactive state; receiving, after the performing the first new transmission, an uplink grant associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process in RRC inactive state via Physical Downlink Control Channel, in the following also referred to as PDCCH,; determining, based on at least whether a Radio Network Temporary Identifier, in the following also referred to as RNTI, to which the uplink grant is addressed, is a first RNTI or a second RNTI, whether the uplink grant is for performance of a second new transmission or for performance of a first retransmission; and performing the second new transmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the second new transmission, or performing the first retransmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the first retransmission. receiving, via a Radio Resource Control, in the following also referred to as RRC, message, a resource configuration of a first configured grant to be used in RRC inactive state; performing a first new transmission using the first configured grant in RRC inactive state; receiving, after the performing the first new transmission, an uplink grant associated with a Hybrid Automatic Repeat Request, in the following also referred to as HARQ, process in RRC inactive state via Physical Downlink Control Channel, in the following also referred to as PDCCH,; determining, based on at least whether a Radio Network Temporary Identifier, in the following also referred to as RNTI, to which the uplink grant is addressed, is a first RNTI or a second RNTI, whether the uplink grant is for performance of a second new transmission or for performance of a first retransmission; and performing the second new transmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the second new transmission, or performing the first retransmission using the uplink grant in RRC inactive state if the UE determines or based on a determination that the uplink grant is for performance of the first retransmission.
Connection of a high-strength to ultra-high-strength steel sheet to a sheet made of aluminium or a free-flowing material or of a high-strength steel material up to 1000 N/mm 2 by means of a semi-tubular punch rivet made of a steel material, which rivet comprises a rivet head, a rivet shaft which is connected to said rivet head, is provided with a concentrically arranged recess, and opens into a rivet foot acting as a cutting edge, and also comprises a rounded rivet-head underside; wherein between a head diameter d k and a shaft diameter d s of the semi-tubular punch rivet d k ≤ 1.3 x d s and wherein between a wall thickness w of the rivet shaft and a cutting edge width b 0.4 x w ≤b ≤0.7 x w.
An apparatus comprising a memory and a processor configured to cause an Access Point, AP, to: transmit a Request to Send, RTS, addressed to a plurality of wireless communication devices (104, 106, 107), the RTS comprising a duration value to reserve a wireless medium for a reserved time period; process a plurality of simultaneous Clear to Send, CTS, responses from the plurality of wireless communication devices; and subsequent to the CTS responses, transmit a downlink transmission addressed to the plurality of wireless communication devices during the reserved time period. transmit a Request to Send, RTS, addressed to a plurality of wireless communication devices (104, 106, 107), the RTS comprising a duration value to reserve a wireless medium for a reserved time period; process a plurality of simultaneous Clear to Send, CTS, responses from the plurality of wireless communication devices; and subsequent to the CTS responses, transmit a downlink transmission addressed to the plurality of wireless communication devices during the reserved time period.
A method of monitoring an enhanced physical downlink control channel, EPDCCH, in a wireless communication system, the method comprising: receiving, by a wireless device, from a base station, a radio resource control, RRC, signal, the RRC signal including first information on at least one subframe on which at least one EPDCCH is monitored and second information on a first search space and a second search space; monitoring, by a wireless device, a first EPDCCH in the first search space indicated by the second information on the at least one subframe indicated by the first information; and monitoring, by the wireless device, a second EPDCCH in the second search space indicated by the second information on the at least one subframe indicated by the first information, wherein the first EPDCCH is demodulated by a first demodulation reference signal, DMRS, wherein the second EPDCCH is demodulated by a second DMRS. receiving, by a wireless device, from a base station, a radio resource control, RRC, signal, the RRC signal including first information on at least one subframe on which at least one EPDCCH is monitored and second information on a first search space and a second search space; monitoring, by a wireless device, a first EPDCCH in the first search space indicated by the second information on the at least one subframe indicated by the first information; and monitoring, by the wireless device, a second EPDCCH in the second search space indicated by the second information on the at least one subframe indicated by the first information, wherein the first EPDCCH is demodulated by a first demodulation reference signal, DMRS, wherein the second EPDCCH is demodulated by a second DMRS.