mhurhangee/ep-ind-claims huggingface dataset:
Circuit for verifying binary information such as a security key for an electronic device, the circuit comprising storage means for memorising the binary information formed by a series of binary states, the storage means comprising Hall crosses forming a plurality of magnetic memorisation elements, each Hall cross comprising: - two polarisation branches facing one another, - two reading branches facing one another and substantially perpendicular to the polarisation branches, each Hall cross either receiving a magnetic field or comprising its own magnetic moment, the moment or the magnetic field being oriented perpendicularly to the plane of the cross defined by the branches (11, 12) and, in one direction, linked to the binary states of the information, the circuit comprises an input bus comprising a plurality of conductors parallel to each other and suitable for circulating a current between the polarisation branches in one direction or in the other, one of the two polarisation branches being connected to the input bus, all of the Hall crosses are connected in series by their reading branches along a reading path, characterised in that the input bus is suitable for having a candidate key to be compared to the binary information, in that the circuit comprises comparison means suitable for delivering an electric authorisation signal (Sa) when the candidate key corresponds to the binary information, in that the other of the two polarisation branches is connected to a reference pole in order to circulate a current from one polarisation branch to the other polarisation branch in a direction that is dependent on one of the binary states of the candidate key, in that the comparison means are connected between the ends (51, 52) of the reading path, in that the reading path is continuous. - two polarisation branches facing one another, - two reading branches facing one another and substantially perpendicular to the polarisation branches,
Fire protection device for a structural cable of a construction work, with the structural cable comprising taught metal reinforcements and having a first stretch, a second stretch and a connection zone of a collar located between the first and second stretches, with the dire protection device including: a protective mat surrounding the structural cable at least in the first and second stretches (41, 42) and interrupted in the connection zone; and a thermally insulating ring more rigid than the protective mat, arranged between the reinforcements and the collar in the connection zone and cooperating with the protective mat in order to provide the reinforcements with a continuous thermal protection along the first stretch, of the connection zone and of the second stretch. a protective mat surrounding the structural cable at least in the first and second stretches (41, 42) and interrupted in the connection zone; and a thermally insulating ring more rigid than the protective mat, arranged between the reinforcements and the collar in the connection zone and cooperating with the protective mat in order to provide the reinforcements with a continuous thermal protection along the first stretch, of the connection zone and of the second stretch.
A system for adjusting extrinsic positive end expiratory pressure during an expiratory phase of a ventilator, the ventilator being configured to apply the extrinsic positive end expiratory pressure to a patient during the expiratory phase, the system comprising: a computer system that comprises one or more physical processors programmed with computer program instructions which, when executed cause the computer system to: determine a respiratory reactance from airway flow information of the patient and airway pressure information of the patient, the airway flow information and airway pressure information of the patient being obtained from one or more sensors (106a..106n); and characterized by the computer system continuously adjusting the extrinsic positive end expiratory pressure on a sample-by-sample basis during the expiratory phase of the ventilator based on the determined respiratory reactance such that the determined respiratory reactance falls within a defined respiratory reactance range. determine a respiratory reactance from airway flow information of the patient and airway pressure information of the patient, the airway flow information and airway pressure information of the patient being obtained from one or more sensors (106a..106n); and characterized by the computer system continuously adjusting the extrinsic positive end expiratory pressure on a sample-by-sample basis during the expiratory phase of the ventilator based on the determined respiratory reactance such that the determined respiratory reactance falls within a defined respiratory reactance range.
An authentication method, comprising: receiving, by a Mobility Management Entity, MME, a Non Access Stratum, NAS, message; increasing, by the MME, a NAS count value by 1; initiating, by the MME, an Authentication and Key Agreement procedure for a current service borne by a NAS signaling connection, if the NAS count value comes close to a maximum value; determining, by the MME, whether the current service is allowed as an unauthenticated service in accordance with a network policy if the Authentication and Key Agreement procedure for the current service fails; determining, by the MME, whether the current service requires authentication in accordance with a current service type or Quality of Service; keeping, by the MME, the NAS signaling connection of the current service, if the current service is allowed as an unauthenticated service in accordance with the network policy, and the current service does not require authentication. receiving, by a Mobility Management Entity, MME, a Non Access Stratum, NAS, message; increasing, by the MME, a NAS count value by 1; initiating, by the MME, an Authentication and Key Agreement procedure for a current service borne by a NAS signaling connection, if the NAS count value comes close to a maximum value; determining, by the MME, whether the current service is allowed as an unauthenticated service in accordance with a network policy if the Authentication and Key Agreement procedure for the current service fails; determining, by the MME, whether the current service requires authentication in accordance with a current service type or Quality of Service; keeping, by the MME, the NAS signaling connection of the current service, if the current service is allowed as an unauthenticated service in accordance with the network policy, and the current service does not require authentication.
Dihydrogen generator comprising an enclosure and a catalytic system, the catalytic system being secured rigidly and removably to the enclosure and comprising a catalysis housing containing a catalyst for the reaction of generating the dihydrogen from a reagent chosen from a hydride, a liquid organic hydrogen carrier and mixtures thereof, the enclosure defining an enclosure interior space, the catalysis housing being placed at least in part in the enclosure interior space, the generator comprising a reservoir for containing a liquid, the reservoir comprising a reservoir wall that is fluidtight with respect to liquid and permeable to dihydrogen, the catalytic system being placed at least in part in the reservoir. the catalytic system being secured rigidly and removably to the enclosure and comprising a catalysis housing containing a catalyst for the reaction of generating the dihydrogen from a reagent chosen from a hydride, a liquid organic hydrogen carrier and mixtures thereof, the enclosure defining an enclosure interior space, the catalysis housing being placed at least in part in the enclosure interior space, the generator comprising a reservoir for containing a liquid, the reservoir comprising a reservoir wall that is fluidtight with respect to liquid and permeable to dihydrogen, the catalytic system being placed at least in part in the reservoir.
A method to resolve paging collisions in a communication device comprising: detecting a probable paging collision between at least two subscriber identity modules, SIMs, in the communication device; determining whether at least one SIM of the communication device has a non-serving cell associated with a corresponding broadcast control channel, BCCH, allocation list, BA-list; Characterized in that the method further comprises: ascertaining, based on SIM priority and cell signal strength, whether the at least one SIM can be selected for forced-cell reselection, when the at least one SIM of the communication device has the non-serving cell; indicating exclusion of a currently serving cell of a SIM selected for the forced cell reselection from normal cell reselection procedure, based on the ascertaining; and initiating a forced cell reselection for the selected SIM. detecting a probable paging collision between at least two subscriber identity modules, SIMs, in the communication device; determining whether at least one SIM of the communication device has a non-serving cell associated with a corresponding broadcast control channel, BCCH, allocation list, BA-list; Characterized in that the method further comprises: ascertaining, based on SIM priority and cell signal strength, whether the at least one SIM can be selected for forced-cell reselection, when the at least one SIM of the communication device has the non-serving cell; indicating exclusion of a currently serving cell of a SIM selected for the forced cell reselection from normal cell reselection procedure, based on the ascertaining; and initiating a forced cell reselection for the selected SIM. ascertaining, based on SIM priority and cell signal strength, whether the at least one SIM can be selected for forced-cell reselection, when the at least one SIM of the communication device has the non-serving cell; indicating exclusion of a currently serving cell of a SIM selected for the forced cell reselection from normal cell reselection procedure, based on the ascertaining; and initiating a forced cell reselection for the selected SIM.
A method of detecting and predicting an electrical fault in a node of an electrical network, the method comprising: receiving a monitor signal indicative of a transmission signal on the node; comparing the monitor signal to a reference transmission signal; determining a fault when the comparison satisfies a fault threshold; and indicating the determination of the fault; the method further comprising providing a fault predicting circuit, a portion of the fault predicting circuit having in a series configuration a positive direct current power source, a high fault threshold signal node, a low fault threshold signal node, and a negative direct current power source, wherein the portion of the fault predicting circuit receives as input the reference transmission signal, the fault predicting circuit further comprising a high-side operational amplifier configured to receive as input the monitor signal and the high fault threshold signal node, and a low-side operational amplifier configured to receive as input the monitor signal and the low fault threshold signal node; the comparing comprising comparing the monitor signal against the high and low fault threshold signal nodes (40,42) using the high-side and low-side operational amplifiers (44,46). receiving a monitor signal indicative of a transmission signal on the node; comparing the monitor signal to a reference transmission signal; determining a fault when the comparison satisfies a fault threshold; and indicating the determination of the fault; the method further comprising providing a fault predicting circuit, a portion of the fault predicting circuit having in a series configuration a positive direct current power source, a high fault threshold signal node, a low fault threshold signal node, and a negative direct current power source, wherein the portion of the fault predicting circuit receives as input the reference transmission signal, the fault predicting circuit further comprising a high-side operational amplifier configured to receive as input the monitor signal and the high fault threshold signal node, and a low-side operational amplifier configured to receive as input the monitor signal and the low fault threshold signal node; the comparing comprising comparing the monitor signal against the high and low fault threshold signal nodes (40,42) using the high-side and low-side operational amplifiers (44,46).
A method for making a syntactic polyurethane elastomer, comprising a) forming a reaction mixture containing an alkylene glycol chain extender, 5 to 50 weight percent, based on the weight of the reaction mixture, of microspheres, an isocyanate-terminated prepolymer having an isocyanate content of 3 to 12% by weight, and a non-mercury catalyst, wherein (i) the prepolymer is the reaction product of at least one polyether polyol having a number average hydroxyl equivalent weight of at least 800 with an excess of an aromatic polyisocyanate, (ii) the amount of prepolymer provided to the reaction mixture is sufficient to provide an isocyanate index of 80 to 130, (iii) the non-mercury catalyst is a zinc carboxylate or a mixture of 98-99.99 weight percent of one or more zinc carboxylates and 0.01 to 2 weight percent of one or more zirconium carboxylates, and (iv) the reaction mixture contains no more than 0.01 weight percent mercury, and b) curing the reaction mixture to form the syntactic polyurethane elastomer. a) forming a reaction mixture containing an alkylene glycol chain extender, 5 to 50 weight percent, based on the weight of the reaction mixture, of microspheres, an isocyanate-terminated prepolymer having an isocyanate content of 3 to 12% by weight, and a non-mercury catalyst, wherein (i) the prepolymer is the reaction product of at least one polyether polyol having a number average hydroxyl equivalent weight of at least 800 with an excess of an aromatic polyisocyanate, (ii) the amount of prepolymer provided to the reaction mixture is sufficient to provide an isocyanate index of 80 to 130, (iii) the non-mercury catalyst is a zinc carboxylate or a mixture of 98-99.99 weight percent of one or more zinc carboxylates and 0.01 to 2 weight percent of one or more zirconium carboxylates, and (iv) the reaction mixture contains no more than 0.01 weight percent mercury, and b) curing the reaction mixture to form the syntactic polyurethane elastomer.
A device (10; 10a-c) for detecting a position of a position indicator, comprising: an electrical magnetic field source configured to generate a magnetic field (16; 16p; 16s) when an electrical current flows through the electrical magnetic field source; sensor means configured to detect the magnetic field (16; 16p; 16s) and to provide sensor signals based on the detected magnetic field (16; 16p; 16s) influenced by the position indicator, the sensor means comprising at least two sensors (22a-e) each of which is configured to detect a spatial direction component of the magnetic field (16; 16p; 16s) and to output a signal corresponding to the spatial direction component; evaluating means configured to receive the sensor signals and determine the position of the position indicator based on the sensor signals when the magnetic field (16; 16p; 16s) in the surroundings of the electrical magnetic field source is influenced by the position indicator; wherein the evaluating means is configured to determine the position of the position indicator based on a lock-in method or a chopper method and to differentially measure, for determining the position of the position indicator, the magnetic field (16; 16p; 16s) by using the sensor signals of the at least two sensors (22a-22e) by subtracting the respective spatial direction component of the two sensors (22a-22e) from each other to obtain a difference and to obtain information on the position of the position indicator from the difference. an electrical magnetic field source configured to generate a magnetic field (16; 16p; 16s) when an electrical current flows through the electrical magnetic field source; sensor means configured to detect the magnetic field (16; 16p; 16s) and to provide sensor signals based on the detected magnetic field (16; 16p; 16s) influenced by the position indicator, the sensor means comprising at least two sensors (22a-e) each of which is configured to detect a spatial direction component of the magnetic field (16; 16p; 16s) and to output a signal corresponding to the spatial direction component; evaluating means configured to receive the sensor signals and determine the position of the position indicator based on the sensor signals when the magnetic field (16; 16p; 16s) in the surroundings of the electrical magnetic field source is influenced by the position indicator; wherein the evaluating means is configured to determine the position of the position indicator based on a lock-in method or a chopper method and to differentially measure, for determining the position of the position indicator, the magnetic field (16; 16p; 16s) by using the sensor signals of the at least two sensors (22a-22e) by subtracting the respective spatial direction component of the two sensors (22a-22e) from each other to obtain a difference and to obtain information on the position of the position indicator from the difference.
A securing interface apparatus to be inserted between a GNSS antenna and a first, unsecured, GNSS receiver fed by said antenna, for providing immunity against spoofing or jamming or interrupting of the timing provided by said first unsecured GNSS receiver, said securing interface apparatus comprising: a) a second GNSS receiver, fed by said antenna and including a local oscillator and being immune against spoofing or jamming of timing, for outputting trusted timing and the last GNSS data, said second GNSS receiver including a detection module which is adapted to analyze raw RF signals received from GNSS satellites and verify the signals integrity and authenticity; characterized in that said securing interface apparatus further comprises: b) a GNSS simulator, fed by said trusted timing and GNSS data, said GNSS simulator is adapted to: b.1) as long as said received GNSS data is found authentic, allowing said received GNSS data to reach the input of said first, unsecured, GNSS receiver; b.2) upon detecting that said received GNSS data is not authentic, produce, using the output of said local oscillator and at least a portion of the last GNSS data, redundant simulated RF GNSS signals mimicking raw RF signals received from GNSS satellites; and b.3) transmit said redundant simulated RF GNSS signals to the input of said first, unsecured, GNSS receiver. a) a second GNSS receiver, fed by said antenna and including a local oscillator and being immune against spoofing or jamming of timing, for outputting trusted timing and the last GNSS data, said second GNSS receiver including a detection module which is adapted to analyze raw RF signals received from GNSS satellites and verify the signals integrity and authenticity; b) a GNSS simulator, fed by said trusted timing and GNSS data, said GNSS simulator is adapted to: b.1) as long as said received GNSS data is found authentic, allowing said received GNSS data to reach the input of said first, unsecured, GNSS receiver; b.2) upon detecting that said received GNSS data is not authentic, produce, using the output of said local oscillator and at least a portion of the last GNSS data, redundant simulated RF GNSS signals mimicking raw RF signals received from GNSS satellites; and b.3) transmit said redundant simulated RF GNSS signals to the input of said first, unsecured, GNSS receiver. b.1) as long as said received GNSS data is found authentic, allowing said received GNSS data to reach the input of said first, unsecured, GNSS receiver; b.2) upon detecting that said received GNSS data is not authentic, produce, using the output of said local oscillator and at least a portion of the last GNSS data, redundant simulated RF GNSS signals mimicking raw RF signals received from GNSS satellites; and b.3) transmit said redundant simulated RF GNSS signals to the input of said first, unsecured, GNSS receiver.
A fusion peptide comprising an isolated NPF peptide comprising an amino acid sequence having at least 90% identity to SEQ ID NO: 2 and a cell-permeable peptide operably connected to the isolated NPF peptide, wherein the fusion peptide inhibits activity of GrB-EH ITSN or a fragment thereof.
A method comprising: providing a heat sink, wherein the heat sink is embedded in an encapsulation material of a package, wherein a metallic surface of the heat sink is not covered by the encapsulation material; forming a wall around the perimeter and/or circumference of the heat sink such that the wall extends in a vertical direction from a plane formed by the metallic surface of the heat sink, wherein the wall is placed only at least on portions of the top surface of the package, or on at least portions of the top surface of the package and a portion of the metallic surface; depositing a filler material in a walled area on the metallic surface, wherein the filler material is a ceramic material; depositing a plastic material on the filler material, wherein the plastic material is a crosslinking material; and performing a vacuum treatment of the filler material and the plastic material thereby forming a matrix composite layer disposed on the metallic surface. providing a heat sink, wherein the heat sink is embedded in an encapsulation material of a package, wherein a metallic surface of the heat sink is not covered by the encapsulation material; forming a wall around the perimeter and/or circumference of the heat sink such that the wall extends in a vertical direction from a plane formed by the metallic surface of the heat sink, wherein the wall is placed only at least on portions of the top surface of the package, or on at least portions of the top surface of the package and a portion of the metallic surface; depositing a filler material in a walled area on the metallic surface, wherein the filler material is a ceramic material; depositing a plastic material on the filler material, wherein the plastic material is a crosslinking material; and performing a vacuum treatment of the filler material and the plastic material thereby forming a matrix composite layer disposed on the metallic surface.
Electrolytic cell used for aluminum production, comprising: a pot shell covered with a liner and including a base and side walls (11,12), the pot shell being designed to receive a cryolite bath, characterized in that the cell further comprises a confinement chamber including side walls (21,22) extending above the side walls (11,12) of the pot shell, and at least one component of the cell moving translationally along an axis T-T', at least one of the side walls (21,22) of the confinement chamber being offset toward the outside of the pot shell in relation to one of the side walls (11,12) of the pot shell, and in that the offset side walls (11,12; 21,22) of the pot shell and the confinement chamber are mechanically connected by at least one shoulder (16, 17) including at least one window (18a, 18b) through which passes the component of the cell and the axis T-T'. a pot shell covered with a liner and including a base and side walls (11,12), the pot shell being designed to receive a cryolite bath, characterized in that the cell further comprises a confinement chamber including side walls (21,22) extending above the side walls (11,12) of the pot shell, and at least one component of the cell moving translationally along an axis T-T', at least one of the side walls (21,22) of the confinement chamber being offset toward the outside of the pot shell in relation to one of the side walls (11,12) of the pot shell, and in that the offset side walls (11,12; 21,22) of the pot shell and the confinement chamber are mechanically connected by at least one shoulder (16, 17) including at least one window (18a, 18b) through which passes the component of the cell and the axis T-T'.