mhurhangee/patent-ind-claim-en huggingface dataset:
A method of determining the presence of power-line transmission interference, PLTI, on a digital subscriber line, DSL , connecting a network to a customer premises, the method comprising: collecting, at a modem via which data carried by the digital subscriber line passes, modem data in respect of data communication on the digital subscriber line , the modem data being collected for a series of time intervals; determining from the collected modem data at least one traffic measure indicative of data throughput on the digital subscriber line for each time interval; and determining from the collected modem data at least one noise measure indicative of errors or noise in the data carried by the digital subscriber line for each time interval; characterised in that the method further comprises: correlating the traffic measures and noise measures for a plurality of said time intervals; and determining the presence of power-line transmission interference based on the results of a plurality of said correlations, wherein time intervals are flagged as considered likely to exhibit power-line transmission interference when a positive correlation above a threshold between the noise measure and the traffic measure is determined. collecting, at a modem via which data carried by the digital subscriber line passes, modem data in respect of data communication on the digital subscriber line , the modem data being collected for a series of time intervals; determining from the collected modem data at least one traffic measure indicative of data throughput on the digital subscriber line for each time interval; and determining from the collected modem data at least one noise measure indicative of errors or noise in the data carried by the digital subscriber line for each time interval; characterised in that the method further comprises: correlating the traffic measures and noise measures for a plurality of said time intervals; and determining the presence of power-line transmission interference based on the results of a plurality of said correlations, wherein time intervals are flagged as considered likely to exhibit power-line transmission interference when a positive correlation above a threshold between the noise measure and the traffic measure is determined. correlating the traffic measures and noise measures for a plurality of said time intervals; and determining the presence of power-line transmission interference based on the results of a plurality of said correlations, wherein time intervals are flagged as considered likely to exhibit power-line transmission interference when a positive correlation above a threshold between the noise measure and the traffic measure is determined.
A method of loading an anticoagulant to a material having pores , the method comprising: soaking the material in a liquid solution of the anticoagulant and water; evaporating the water of the liquid solution; forming a dry anticoagulant powder within the pores of the material , wherein the material is an open cell melamine foam; providing a specimen mixing and transfer device including a housing with the material having pores disposed within the housing , and the dry anticoagulant powder within the pores of the material ; and treating the housing with an additive coating, wherein the additive coating blocks analytes from sticking to the surface of the housing , wherein the housing includes a first end , a second end , and a sidewall extending between the first end and the second end , and wherein the first end includes an inlet and the second end includes an outlet . soaking the material in a liquid solution of the anticoagulant and water; evaporating the water of the liquid solution; forming a dry anticoagulant powder within the pores of the material , wherein the material is an open cell melamine foam; providing a specimen mixing and transfer device including a housing with the material having pores disposed within the housing , and the dry anticoagulant powder within the pores of the material ; and treating the housing with an additive coating, wherein the additive coating blocks analytes from sticking to the surface of the housing , wherein the housing includes a first end , a second end , and a sidewall extending between the first end and the second end , and wherein the first end includes an inlet and the second end includes an outlet .
A method for increasing the melt strength of a polyethylene resin comprising the steps of: a) selecting a polyethylene resin having a density, as determined according to ASTM D792, in the range of from 0.900 g/cm 3 to 0.970 g/cm 3 , and a melt index, as determined according to ASTM D1238 (2.16 kg, 190°C), in the range of from 0.01 g /10 min to 30 g/10 min, wherein the polyethylene resin contains less than 2,000 ppm of antioxidant compounds; b) reacting said polyethylene resin with a free radical generator with a decomposition energy in the range of from -50 kJoules/mole to -250 kJoules/mole, with a peak decomposition temperature of no less than 150°C and not more than 280°C, preferably no less than 160°C and no more than 250°C, in an amount and under conditions sufficient to increase the melt strength of the polyethylene resin by at least 200 over and above a control not reacted with said free radical generators; wherein the melt strength, decomposition energy and peak decomposition temperature are measured according to the methods set out in the description; wherein the free radical generator is an alkoxy amine derivative corresponding to the formula: (R 1 )(R 2 )N-O-R 3 where R 1 and R 2 are each independently of one another, hydrogen, C 4 -C 42 alkyl or C 4 -C 42 aryl or substituted hydrocarbon groups comprising O and/or N, and where R 1 and R 2 may form a ring structure together; and R 3 is hydrogen, a hydrocarbon or a substituted hydrocarbon group comprising O and/or N; wherein the alkoxy amine derivative is added in an amount of from 1 to 200 ppm of the polyethylene resin by weight. a) selecting a polyethylene resin having a density, as determined according to ASTM D792, in the range of from 0.900 g/cm 3 to 0.970 g/cm 3 , and a melt index, as determined according to ASTM D1238 (2.16 kg, 190°C), in the range of from 0.01 g /10 min to 30 g/10 min, wherein the polyethylene resin contains less than 2,000 ppm of antioxidant compounds; b) reacting said polyethylene resin with a free radical generator with a decomposition energy in the range of from -50 kJoules/mole to -250 kJoules/mole, with a peak decomposition temperature of no less than 150°C and not more than 280°C, preferably no less than 160°C and no more than 250°C, in an amount and under conditions sufficient to increase the melt strength of the polyethylene resin by at least 200 over and above a control not reacted with said free radical generators; wherein the melt strength, decomposition energy and peak decomposition temperature are measured according to the methods set out in the description; wherein the free radical generator is an alkoxy amine derivative corresponding to the formula: (R 1 )(R 2 )N-O-R 3 where R 1 and R 2 are each independently of one another, hydrogen, C 4 -C 42 alkyl or C 4 -C 42 aryl or substituted hydrocarbon groups comprising O and/or N, and where R 1 and R 2 may form a ring structure together; and R 3 is hydrogen, a hydrocarbon or a substituted hydrocarbon group comprising O and/or N; wherein the alkoxy amine derivative is added in an amount of from 1 to 200 ppm of the polyethylene resin by weight.
A positive electrode active material, satisfying a chemical formula of Na 0.88 Cu 0.22 Fe 0.28 Mn 0.47 Mg 0.03 O 2 wherein the positive electrode active material is prepared by a method comprising the following steps of providing a mixed solution by dissolving copper sulfate, ferrous sulfate, manganese sulfate and magnesium sulfate in a deionized water in a stoichiometric ratio under the protection of inert atmosphere, in which the total concentration is 1.5 mol/L; adding an aqueous sodium hydroxide solution in a concentration of 4 mol/L and aqueous ammonia in a concentration of 1 mol/L to the mixed solution to obtain a reaction solution, and then subjecting it to coprecipitation by controlling pH of the reaction solution to 11.2 and reacting at a temperautre of 50°C with a stirring rate of 800rpm for 30 hours, and then isolating, collecting and washing the resulting co-precipitation product several times with an appropriate amount of deionized water, then drying it at 100°C in a vacuum drying oven to obtain a transition metal source; and mixing the transition metal source and sodium carbonate in a molar ratio of 0.92:1 to obtain a mixture and sintering the mixture at a temperature of 900°C under an air atmosphere for 15 hours, and then cooling the resulting sintered product to room temperature, and then washing it several times with an appropriate amount of deionized water followed by drying to obtain the positive electrode active material. wherein the positive electrode active material is prepared by a method comprising the following steps of providing a mixed solution by dissolving copper sulfate, ferrous sulfate, manganese sulfate and magnesium sulfate in a deionized water in a stoichiometric ratio under the protection of inert atmosphere, in which the total concentration is 1.5 mol/L; adding an aqueous sodium hydroxide solution in a concentration of 4 mol/L and aqueous ammonia in a concentration of 1 mol/L to the mixed solution to obtain a reaction solution, and then subjecting it to coprecipitation by controlling pH of the reaction solution to 11.2 and reacting at a temperautre of 50°C with a stirring rate of 800rpm for 30 hours, and then isolating, collecting and washing the resulting co-precipitation product several times with an appropriate amount of deionized water, then drying it at 100°C in a vacuum drying oven to obtain a transition metal source; and mixing the transition metal source and sodium carbonate in a molar ratio of 0.92:1 to obtain a mixture and sintering the mixture at a temperature of 900°C under an air atmosphere for 15 hours, and then cooling the resulting sintered product to room temperature, and then washing it several times with an appropriate amount of deionized water followed by drying to obtain the positive electrode active material.
A method performed at a terminal for communicating with a remote Domain Name System server, DNS server, wherein a secure connection is established between a secure element of the terminal and the remote DNS server, wherein the secure connection is associated with a counter representative of a number of DNS requests already sent on the secure connection, the method comprising: as long as the value of the counter is less than or equal to a threshold, iteratively performing: receiving a DNS resolution triggering request; upon receiving the resolution triggering request, sending a ciphered DNS request to the remote DNS server via the secure connection; receiving, from the remote DNS server, a ciphered DNS response in response to the sent DNS request via the secure connection; processing the ciphered DNS response received; increasing the value of the counter; and when the value of the counter is greater than the threshold, closing the secure connection. wherein the secure connection is associated with a counter representative of a number of DNS requests already sent on the secure connection, the method comprising: as long as the value of the counter is less than or equal to a threshold, iteratively performing: receiving a DNS resolution triggering request; upon receiving the resolution triggering request, sending a ciphered DNS request to the remote DNS server via the secure connection; receiving, from the remote DNS server, a ciphered DNS response in response to the sent DNS request via the secure connection; processing the ciphered DNS response received; increasing the value of the counter; and when the value of the counter is greater than the threshold, closing the secure connection. as long as the value of the counter is less than or equal to a threshold, iteratively performing: receiving a DNS resolution triggering request; upon receiving the resolution triggering request, sending a ciphered DNS request to the remote DNS server via the secure connection; receiving, from the remote DNS server, a ciphered DNS response in response to the sent DNS request via the secure connection; processing the ciphered DNS response received; increasing the value of the counter; receiving a DNS resolution triggering request; upon receiving the resolution triggering request, sending a ciphered DNS request to the remote DNS server via the secure connection; receiving, from the remote DNS server, a ciphered DNS response in response to the sent DNS request via the secure connection; processing the ciphered DNS response received; increasing the value of the counter; and when the value of the counter is greater than the threshold, closing the secure connection.
A method comprising: receiving input over a network environment , the network environment including a first fluid delivery device (125-1) and a second fluid delivery device (125-2) and interconnecting the first fluid delivery device (125-1) and the second fluid delivery device (125-2) using a communication interface (145-1), the input associating the first fluid delivery device (125-1) to the second fluid delivery device (125-2), the second fluid delivery device (125-2) located in a medical environment in which the first fluid delivery device (125-1) is operated; based on the input, recording an association between the first fluid delivery device (125-1) and the second fluid delivery device (125-1); and based on the recorded association, initiating transmission of medical information associated with the second fluid delivery device (125-2) over the network to the first fluid delivery device (125-1). receiving input over a network environment , the network environment including a first fluid delivery device (125-1) and a second fluid delivery device (125-2) and interconnecting the first fluid delivery device (125-1) and the second fluid delivery device (125-2) using a communication interface (145-1), the input associating the first fluid delivery device (125-1) to the second fluid delivery device (125-2), the second fluid delivery device (125-2) located in a medical environment in which the first fluid delivery device (125-1) is operated; based on the input, recording an association between the first fluid delivery device (125-1) and the second fluid delivery device (125-1); and based on the recorded association, initiating transmission of medical information associated with the second fluid delivery device (125-2) over the network to the first fluid delivery device (125-1).
An exhaust gas after-treatment system of an internal combustion engine, having an exhaust gas after-treatment device having a receiving housing , having at least one exhaust gas after-treatment unit arranged in the receiving housing , which comprises a honeycomb body serving as catalytic converter and/or as particulate filter and a honeycomb body carrier surrounding the honeycomb body exposing the honeycomb body on the front sides of the same, the at least one exhaust gas after-treatment unit is received in the receiving housing in a preloaded manner via first preload elements acting in the flow direction of the respective exhaust gas after-treatment unit and via second preload elements acting perpendicularly to the flow direction of the respective exhaust gas after-treatment unit , having lids for connecting the exhaust gas after-treatment system to exhaust lines, having multiple exhaust gas after-treatment devices connected in series one behind the other, characterised in that between two exhaust gas after-treatment devices a housing is connected, which serves at least for receiving sensors, such as, for example, temperature sensors or pressure sensors. having an exhaust gas after-treatment device having a receiving housing , having at least one exhaust gas after-treatment unit arranged in the receiving housing , which comprises a honeycomb body serving as catalytic converter and/or as particulate filter and a honeycomb body carrier surrounding the honeycomb body exposing the honeycomb body on the front sides of the same, the at least one exhaust gas after-treatment unit is received in the receiving housing in a preloaded manner via first preload elements acting in the flow direction of the respective exhaust gas after-treatment unit and via second preload elements acting perpendicularly to the flow direction of the respective exhaust gas after-treatment unit , having lids for connecting the exhaust gas after-treatment system to exhaust lines, having multiple exhaust gas after-treatment devices connected in series one behind the other, characterised in that between two exhaust gas after-treatment devices a housing is connected, which serves at least for receiving sensors, such as, for example, temperature sensors or pressure sensors.
An actuation mechanism for a disc brake , the actuation mechanism comprising: a non-rotatable yoke to transmit an actuating force from an operating shaft ; a piston configured to be driven by the yoke to transmit the actuating force to a brake pad , the piston comprising a portion rotatable with respect to the yoke to cause the piston to extend; and a wear adjustment mechanism for adjusting extension of the piston to account for wear of the brake pad ; wherein a friction element is located between the yoke and the portion of the piston , for providing a predetermined level of resistance to relative rotation of the yoke and portion of the piston . a non-rotatable yoke to transmit an actuating force from an operating shaft ; a piston configured to be driven by the yoke to transmit the actuating force to a brake pad , the piston comprising a portion rotatable with respect to the yoke to cause the piston to extend; and a wear adjustment mechanism for adjusting extension of the piston to account for wear of the brake pad ; wherein a friction element is located between the yoke and the portion of the piston , for providing a predetermined level of resistance to relative rotation of the yoke and portion of the piston .
A method for the unambiguous identification of Wi-Fi devices, the method comprising: receiving probe request frames sent by Wi-Fi devices ; extracting a set of features from a plurality of fields of each probe request frame ; assigning a footprint to each probe request frame based on the extracted set of features ; for each footprint , performing a cluster analysis on a time series of the sequence numbers included in the header of the probe request frames associated with the corresponding footprint , obtaining at least one cluster per footprint ; and identifying a Wi-Fi device for each different cluster ; characterized in that the cluster analysis comprises: performing a principal component analysis on the time series of sequence numbers to obtain a first principal component and a second principal component ; projecting the time series of sequence numbers over the second principal component ; and classifying the projected time series into clusters . receiving probe request frames sent by Wi-Fi devices ; extracting a set of features from a plurality of fields of each probe request frame ; assigning a footprint to each probe request frame based on the extracted set of features ; for each footprint , performing a cluster analysis on a time series of the sequence numbers included in the header of the probe request frames associated with the corresponding footprint , obtaining at least one cluster per footprint ; and identifying a Wi-Fi device for each different cluster ; performing a principal component analysis on the time series of sequence numbers to obtain a first principal component and a second principal component ; projecting the time series of sequence numbers over the second principal component ; and classifying the projected time series into clusters .
A solid preparation comprising the p-toluenesulfonic acid salt of a compound represented by formula (IA) or a solvate thereof as an active ingredient:
Distribution device of a refrigerant fluid in a header of a heat exchanger comprising at least two conduits , including an external conduit and an internal conduit , with the internal conduit accommodated in the external conduit in such a manner as to form a volume for communication between the internal conduit and the external conduit , the external conduit comprising spraying orifices each having an axis intersecting a principal lengthwise axis of the external conduit , the internal conduit comprising at least one communication orifice having an axis intersecting a principal lengthwise axis of the internal conduit , wherein the internal conduit comprises a portion of reduced thickness formed by removal of material from an external face of the internal conduit , the external face facing toward the external conduit , characterized in that the removal of material forms a flat on the external face of the internal conduit . the internal conduit comprises a portion of reduced thickness formed by removal of material from an external face of the internal conduit , the external face facing toward the external conduit , characterized in that the removal of material forms a flat on the external face of the internal conduit .
Protective covering for a slide-in operating element in a switching system, comprising a base part having a front side , a rear side , and a circumferential edge , wherein configurations are formed on the rear side of the base part , which are suitable to engage in corresponding openings in an operating front of the slide-in operating element and to close the same, wherein furthermore a first circumferential sealing element is provided on the rear side of the base part adjacent to the edge , wherein in addition an opening extending from the rear side to the front side through the base part for the through-passage of an actuating element of the slide-in operating element is provided, wherein the opening is dimensioned such that an actuation of the actuating element is not possible when the protective covering is mounted.
A method for determining, by a user equipment, UE, a transmission power in a wireless communication system, the method comprising: receiving downlink control information, DCI, through a physical downlink control channel, PDCCH; determining, based on a transmit power control, TPC, command included in the DCI, a power control parameter for an uplink transmission in a sTTI on a cell of the UE; and determining the transmission power for the uplink transmission based on the power control parameter, the method characterized in that : based on the UE being configured with the sTTI for the cell of the UE: the power control parameter is initialized to an accumulated value of a TPC accumulation for a previous uplink transmission based on a transmission time interval, TTI, which has a different duration than the sTTI. receiving downlink control information, DCI, through a physical downlink control channel, PDCCH; determining, based on a transmit power control, TPC, command included in the DCI, a power control parameter for an uplink transmission in a sTTI on a cell of the UE; and determining the transmission power for the uplink transmission based on the power control parameter, the method characterized in that : based on the UE being configured with the sTTI for the cell of the UE: the power control parameter is initialized to an accumulated value of a TPC accumulation for a previous uplink transmission based on a transmission time interval, TTI, which has a different duration than the sTTI.