mhurhangee/patent-ind-claim-en huggingface dataset:
Method of binding enzymes of sarcosine oxidase and horseradish peroxidase to Fe 2 O 3 /Au nanoparticles using chitosan, characterized in that chitosan at a concentration of 4 to 12 mg/ml in a solution of a 1% acetic acid, the binding solution of 70 to 500 μl in volume containing sarcosine oxidase with an activity of 1 to 45 kU/l, horseradish peroxidase with activity of 15 to 35 kU/l in a phosphate solution at a concentration of 40 to 60 mM and pH 8.0 and tripolyphosphate having a concentration of 1.7 to 3.2 mM in the environment of a 1% acetic acid, pH 4, are added to the Fe 2 O 3 /Au nanoparticles in an amount of 20 to 60 mg, the Fe 2 O 3 /Au nanoparticles with the addition of chitosan, binding solution and tripolyphosphate are subsequently incubated for 60 minutes at room temperature under constant stirring resulting in formation of the Fe 2 O 3 /Au nanoparticles with bound enzymes sized 20 to 60 nm, which are then deposited in the dark at 5 to 10°C.
A coating composition for producing a heat-sensitive recording material or heat-sensitive recording layer, comprising - one or plural color developers, said one or at least one of the plural color developers being a compound of the formula (I) - one or plural dye precursors, - one or plural fatty acid amides each having a number of carbon atoms in the range from 16 to 24, - as sensitizer, one or more compounds selected from the group consisting of 1,2-diphenoxyethane and ethylene glycol m-tolyl ether, the ratio of the total mass of fatty acid amides having a number of carbon atoms in the range from 16 to 24 to the total mass of compounds selected from the group consisting of 1,2-diphenoxyethane and ethylene glycol m-tolyl ether in the coating composition or the heat-sensitive recording layer being in the range from 4:1 to 1.2:1. - one or plural color developers, said one or at least one of the plural color developers being a compound of the formula (I) - one or plural dye precursors, - one or plural fatty acid amides each having a number of carbon atoms in the range from 16 to 24, - as sensitizer, one or more compounds selected from the group consisting of 1,2-diphenoxyethane and ethylene glycol m-tolyl ether,
A multi-plane annular brush seal extending circumferentially about an axial centerline , the brush seal comprising: a front plate (FP) ; a back plate (BP) ; and a plurality of bristles , wherein each bristle has a first lengthwise portion extending from a base end of the brush seal , a second lengthwise portion , and a third lengthwise portion , and the second lengthwise portion of each respective bristle is disposed between the first lengthwise portion and third lengthwise portion of the respective bristle , and each third lengthwise portion terminates in a tip end ; wherein the front plate and back plate are configured to maintain the bristle first lengthwise portions substantially parallel to a first plane , to maintain the second lengthwise portion of the bristles through a transition region , and to maintain the bristle third lengthwise portions substantially parallel to a second plane ; wherein the first plane is skewed from the second plane by an obtuse angle(β); and wherein at least some of the bristle second lengthwise portions are maintained in contact with the front plate through the transition region and at least some of the bristle second lengthwise portions are maintained in contact with the back plate through the transition region , characterized in that the plurality of bristles is attached to the front plate and the back plate at the base end of the brush seal . a front plate (FP) ; a back plate (BP) ; and a plurality of bristles , wherein each bristle has a first lengthwise portion extending from a base end of the brush seal , a second lengthwise portion , and a third lengthwise portion , and the second lengthwise portion of each respective bristle is disposed between the first lengthwise portion and third lengthwise portion of the respective bristle , and each third lengthwise portion terminates in a tip end ; wherein the front plate and back plate are configured to maintain the bristle first lengthwise portions substantially parallel to a first plane , to maintain the second lengthwise portion of the bristles through a transition region , and to maintain the bristle third lengthwise portions substantially parallel to a second plane ; wherein the first plane is skewed from the second plane by an obtuse angle(β); and wherein at least some of the bristle second lengthwise portions are maintained in contact with the front plate through the transition region and at least some of the bristle second lengthwise portions are maintained in contact with the back plate through the transition region , characterized in that the plurality of bristles is attached to the front plate and the back plate at the base end of the brush seal .
Water consumption management system for a specific area, such as an apartment, a building or more generally an area that includes several end points where water is distributed; said system comprising an interconnected network of sensors that are adapted to measure water consumption at each end point; said network being connected to a data processing unit and to at least one display element that provides an information on the water consumption at each end point of said specific area characterized in that at least some sensors comprise each a turbine arranged to measure first flow rates and a rotating piston arranged to measure second flow rates, wherein the second flow rates are higher than first flow rates, and wherein said turbine is located in the center of the rotating piston. or more generally an area that includes several end points where water is distributed; said system comprising an interconnected network of sensors that are adapted to measure water consumption at each end point; said network being connected to a data processing unit and to at least one display element that provides an information on the water consumption at each end point of said specific area characterized in that at least some sensors comprise each a turbine arranged to measure first flow rates and a rotating piston arranged to measure second flow rates, wherein the second flow rates are higher than first flow rates, and wherein said turbine is located in the center of the rotating piston.
A computer implemented method to generate training data for a machine learning algorithm for determining security vulnerabilities of a virtual machine VM in a virtualised computing environment, the machine learning algorithm determining the vulnerabilities based on a vector of configuration characteristics for the VM, the method comprising: receiving a plurality of VM configuration vectors for each of one or more training VMs, each configuration vector including attributes of a configuration of a VM and having a temporal indication; receiving a security occurrence identification being referable to a VM configuration vector for a training VM based on a temporal indication of the security occurrence, the security occurrence identification including information for defining a vector of vulnerabilities for the training VM associated with the referenced VM configuration vector, and associating the referenced VM configuration vector with the vulnerability vector as a first training example; identifying one or more further VM configuration vectors for the training VM, each of the further VM configuration vectors having temporal indications preceding that of the referenced VM configuration vector; and associating a modified form of the vulnerability vector with each of the further VM configuration vectors as further training examples, the vulnerability vector being modified for each further VM configuration vector by a reverse decay function such that each temporally earlier VM configuration vector is associated with a vulnerability vector indicating vulnerability to a lesser degree. receiving a plurality of VM configuration vectors for each of one or more training VMs, each configuration vector including attributes of a configuration of a VM and having a temporal indication; receiving a security occurrence identification being referable to a VM configuration vector for a training VM based on a temporal indication of the security occurrence, the security occurrence identification including information for defining a vector of vulnerabilities for the training VM associated with the referenced VM configuration vector, and associating the referenced VM configuration vector with the vulnerability vector as a first training example; identifying one or more further VM configuration vectors for the training VM, each of the further VM configuration vectors having temporal indications preceding that of the referenced VM configuration vector; and associating a modified form of the vulnerability vector with each of the further VM configuration vectors as further training examples, the vulnerability vector being modified for each further VM configuration vector by a reverse decay function such that each temporally earlier VM configuration vector is associated with a vulnerability vector indicating vulnerability to a lesser degree.
A reactor for continuous pyrolysis of a rubber material at a near atmospheric pressure, comprising: - a reaction chamber having an inlet for the rubber material and outlets for pyrolysis products; - a screw conveyor installed within the reaction chamber , the screw conveyor having a shaft that is located at the inlet for the rubber material and has its ends connected to an electric power supply for resistive preheating of the rubber material that enters the reaction chamber at the early stage of the pyrolysis process; and - an induction heating system arranged circumferentially around the reaction chamber configured to generate eddy current having a stimulation frequency in the range from 10 to 25 kHz for inductive heating of the rubber material within the reaction chamber at all stages of the pyrolysis process, such that at least in a part of the reaction chamber the rubber feedstock is simultaneously heated by the heating shaft and the induction heating system . - a reaction chamber having an inlet for the rubber material and outlets for pyrolysis products; - a screw conveyor installed within the reaction chamber , the screw conveyor having a shaft that is located at the inlet for the rubber material and has its ends connected to an electric power supply for resistive preheating of the rubber material that enters the reaction chamber at the early stage of the pyrolysis process; and - an induction heating system arranged circumferentially around the reaction chamber configured to generate eddy current having a stimulation frequency in the range from 10 to 25 kHz for inductive heating of the rubber material within the reaction chamber at all stages of the pyrolysis process, such that at least in a part of the reaction chamber the rubber feedstock is simultaneously heated by the heating shaft and the induction heating system .
A method for verifying a log entry in a communications system , the method being performed by a host server , the method comprising: obtaining (S106) a log entry of a service access tracker , the log entry indicating access to a service (201a, ..., 201n) during a client session, the service being tracked by the service access tracker; providing (S108) the log entry to a trusted third party for digital signing thereof using a digital trusted timestamping scheme; verifying (S110) that the log entry has been digitally signed by the trusted third party; providing (S112) a new aggregate comprising the digitally signed log entry and a previous aggregate of previously digitally signed and aggregated log entries to the trusted third party for digital signing thereof using the digital trusted timestamping scheme; and verifying (S114) that the new aggregate has been digitally signed by the trusted third party. obtaining (S106) a log entry of a service access tracker , the log entry indicating access to a service (201a, ..., 201n) during a client session, the service being tracked by the service access tracker; providing (S108) the log entry to a trusted third party for digital signing thereof using a digital trusted timestamping scheme; verifying (S110) that the log entry has been digitally signed by the trusted third party; providing (S112) a new aggregate comprising the digitally signed log entry and a previous aggregate of previously digitally signed and aggregated log entries to the trusted third party for digital signing thereof using the digital trusted timestamping scheme; and verifying (S114) that the new aggregate has been digitally signed by the trusted third party.
A method of connecting an output of a converter with an electrical grid to control inrush currents into a grid filter assembly connected with the output of the converter , the electrical grid carrying an alternating current (AC) signal having one or more phases, the method comprising: determining a voltage of the AC signal; operating, after pre-charging a direct current (DC) link of the converter to a predetermined voltage, the converter using open-loop voltage control to produce an AC output signal across the grid filter assembly that substantially matches the AC signal of the electrical grid , the open-loop voltage control based on the determined voltage of the AC signal; and closing, after a first predetermined amount of time of operating the converter using the open-loop voltage control, a switching device to thereby connect the output of the converter with the electrical grid ; characterized in that : the switching device is a circuit breaker with a spring, charging the switching device upon determining that the voltage of the pre-charged DC link meets a first threshold voltage less than the predetermined voltage; and operating the converter to produce the AC output signal upon determining that the switching device is charged and that the voltage of the pre-charged DC link meets the predetermined voltage. determining a voltage of the AC signal; operating, after pre-charging a direct current (DC) link of the converter to a predetermined voltage, the converter using open-loop voltage control to produce an AC output signal across the grid filter assembly that substantially matches the AC signal of the electrical grid , the open-loop voltage control based on the determined voltage of the AC signal; and closing, after a first predetermined amount of time of operating the converter using the open-loop voltage control, a switching device to thereby connect the output of the converter with the electrical grid ; characterized in that : the switching device is a circuit breaker with a spring, charging the switching device upon determining that the voltage of the pre-charged DC link meets a first threshold voltage less than the predetermined voltage; and operating the converter to produce the AC output signal upon determining that the switching device is charged and that the voltage of the pre-charged DC link meets the predetermined voltage. the switching device is a circuit breaker with a spring, charging the switching device upon determining that the voltage of the pre-charged DC link meets a first threshold voltage less than the predetermined voltage; and operating the converter to produce the AC output signal upon determining that the switching device is charged and that the voltage of the pre-charged DC link meets the predetermined voltage.
A computer-readable medium, characterised in comprising instructions that, when executed, cause a device configured for a wireless communication system to implement the method as follows: generating a superset Z of quasi-orthogonal sets of sequences, and using the superset Z of quasi-orthogonal sets of sequences in the cellular wireless communication system, wherein: Z = S ∪ h = 0 L − 1 T h , S is a first set comprising a plurality of quasi-orthogonal sets of sequences, and T h is a second set of quasi-orthogonal sets of sequences, Z is a superset as the union of said first set S and L number of second sets T h , and T h is generated by symbol-by-symbol multiplication of each sequence in said first set S with signature sequences { w h ( k )}, wherein h = 0,···, L -1 , L is a positive integer larger than or equal to one, and each second set T h has the same number of quasi-orthogonal sets of sequences and the same length of sequences as said first set; wherein said first set S is a quasi-orthogonal set of quadratic polynomial phase sequences s m , l 2 k such that: s m , l 2 k = e − j 2 π N P m 2 k e − j 2 π N lk , where P m 2 k = mk 2 , m , l , k = 0, 1,···, N -1, and N is a positive integer; and quasi-orthogonal sequences s n , m , l Q k in each second set T h , n = 0, 1,···, N Q -2 -1, are given by: s n , m , l Q k = w n k s m , l 2 k , where l , k = 0, 1,···, N -1, w n k = e − j 2 π N P n Q k , P n Q k = ∑ q = 0 Q − 3 n q k q + 3 and n = ∑ q = 0 Q − 3 n q N q = 0, 1,···, N Q -2 -1. generating a superset Z of quasi-orthogonal sets of sequences, and using the superset Z of quasi-orthogonal sets of sequences in the cellular wireless communication system, wherein: Z = S ∪ h = 0 L − 1 T h , S is a first set comprising a plurality of quasi-orthogonal sets of sequences, and T h is a second set of quasi-orthogonal sets of sequences, Z is a superset as the union of said first set S and L number of second sets T h , and T h is generated by symbol-by-symbol multiplication of each sequence in said first set S with signature sequences { w h ( k )}, wherein h = 0,···, L -1 , L is a positive integer larger than or equal to one, and each second set T h has the same number of quasi-orthogonal sets of sequences and the same length of sequences as said first set; wherein said first set S is a quasi-orthogonal set of quadratic polynomial phase sequences s m , l 2 k such that: s m , l 2 k = e − j 2 π N P m 2 k e − j 2 π N lk , where P m 2 k = mk 2 , m , l , k = 0, 1,···, N -1, and N is a positive integer; and quasi-orthogonal sequences s n , m , l Q k in each second set T h , n = 0, 1,···, N Q -2 -1, are given by: s n , m , l Q k = w n k s m , l 2 k , where l , k = 0, 1,···, N -1, w n k = e − j 2 π N P n Q k , P n Q k = ∑ q = 0 Q − 3 n q k q + 3 and n = ∑ q = 0 Q − 3 n q N q = 0, 1,···, N Q -2 -1.
A method of communicating by a user equipment, UE, the method comprising: determining at least one first numerology, N1, and at least one second numerology, N2, used for communicating radio signals in a first cell, cell1 , and a second cell, cell2, respectively, wherein the at least one first numerology, N1, and the at least one second numerology, N2, include one or more parameters which define the radio signals in terms of time and frequency, the one or more parameters including a subcarrier spacing; obtaining , based on the subcarrier spacing of at least one of the numerologies N1 and N2, a threshold, H1, related to at least one signal interruption performance metric; and performing at least one operation on the second cell, cell2, while monitoring, during the at least one operation, a signal interruption performance on the first cell, cell1, relative to the threshold, H1. determining at least one first numerology, N1, and at least one second numerology, N2, used for communicating radio signals in a first cell, cell1 , and a second cell, cell2, respectively, wherein the at least one first numerology, N1, and the at least one second numerology, N2, include one or more parameters which define the radio signals in terms of time and frequency, the one or more parameters including a subcarrier spacing; obtaining , based on the subcarrier spacing of at least one of the numerologies N1 and N2, a threshold, H1, related to at least one signal interruption performance metric; and performing at least one operation on the second cell, cell2, while monitoring, during the at least one operation, a signal interruption performance on the first cell, cell1, relative to the threshold, H1.
A directional backlight , comprising: a plurality of light sources (405a-h, 505-515, 705-715, 805-815, 905-915, 1110-1120) to generate a plurality of input planar lightbeams (420a-h); and a directional backplane comprising a slab of transparent material having a plurality of directional pixels (430, 540-550, 740, 840, 940), the plurality of directional pixels configured to scatter each of the plurality of input planar lightbeams into a plurality of directional lightbeams , wherein the plurality of directional lightbeams represents multiple image views that when combined form a 3D image, wherein only one directional lightbeam of the plurality of directional lightbeams emerges from each directional pixel, each directional pixel of the plurality of directional pixels comprising a patterned grating comprising a plurality of substantially parallel and slanted grooves, and configured to scatter an input planar lightbeam of the plurality of input planar lightbeams into said one directional lightbeam of the plurality of directional lightbeams, said directional lightbeam having a direction and an angular spread controlled by characteristics of the patterned grating. a plurality of light sources (405a-h, 505-515, 705-715, 805-815, 905-915, 1110-1120) to generate a plurality of input planar lightbeams (420a-h); and a directional backplane comprising a slab of transparent material having a plurality of directional pixels (430, 540-550, 740, 840, 940), the plurality of directional pixels configured to scatter each of the plurality of input planar lightbeams into a plurality of directional lightbeams , wherein the plurality of directional lightbeams represents multiple image views that when combined form a 3D image, wherein only one directional lightbeam of the plurality of directional lightbeams emerges from each directional pixel, each directional pixel of the plurality of directional pixels comprising a patterned grating comprising a plurality of substantially parallel and slanted grooves, and configured to scatter an input planar lightbeam of the plurality of input planar lightbeams into said one directional lightbeam of the plurality of directional lightbeams, said directional lightbeam having a direction and an angular spread controlled by characteristics of the patterned grating.